Compare commits

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Author SHA1 Message Date
atsunatsu 935b526d8b Merge pull request #4 from wty2019wty/patch-1
fix: i18n 补充翻译
2026-08-06 16:18:35 +08:00
wty2019wty 87fb8f2fbb Add compass offset strings for radar settings 2026-08-06 16:11:30 +08:00
atsunatsu 008bc7483d fix(i18n): update Chinese station position text from '站位' to '站点位置'
Replaced all occurrences of '站位' with '站点位置' in the
Chinese (zh) strings file for better readability and accuracy.
2026-08-06 10:00:07 +08:00
atsunatsu 6e95f111fe fix: recalculate radar track when station position changes
The station position (stationPos) was captured once at ViewModel construction
and never updated when the user clicked on the map or changed the QTH grid.
This caused the radar track line to simply translate instead of being
recalculated from the new position.

Fix:
- Change stationPos and magDeclination from val to var
- Add collectStationPositionChanges() that observes settingsRepo.stationPosition
- On position change: update stationPos, magDeclination, force celestial
  recompute, and recalculate the satellite track
2026-08-06 09:41:46 +08:00
Arty Bishop 602b1553a2 v4.4.4 - Icom CAT, components, filters and sources tweaks 2026-08-04 20:51:22 +02:00
atsunatsuandatsunatsu bd0881fb4b Added linear transponder Doppler calculator (#232)
Co-authored-by: atsunatsu <atsunatsu@users.noreply.github.com>
2026-08-04 18:45:12 +02:00
atsunatsuandatsunatsu a9dd3e6e55 Localized pass date and time formats for Chinese (#231)
Co-authored-by: atsunatsu <atsunatsu@users.noreply.github.com>
2026-08-04 18:12:10 +02:00
Lukas 905995ab44 Added configurable Radar offset to the sensors output (#230) 2026-08-04 18:08:44 +02:00
Arty Bishop f9806d7f7f Replaced the types selection dialog with modes selection 2026-07-31 16:04:39 +02:00
Arty Bishop 2d3adfc6a6 Added small tweaks to Sources, Components and strings 2026-07-31 12:27:25 +02:00
214 changed files with 1734 additions and 28533 deletions

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+4
View File
@@ -4,3 +4,7 @@ updates:
directory: "/"
schedule:
interval: "weekly"
- package-ecosystem: "bundler"
directory: "/"
schedule:
interval: "never"
+1 -5
View File
@@ -1,9 +1,6 @@
# Built application files
*.ap_
# Hermes AI plans and metadata
.hermes/
# Files for the ART/Dalvik VM
*.dex
@@ -18,7 +15,6 @@ out/
# Gradle files
.gradle/
build/
.cxx/
# Local configuration file (sdk path, etc)
local.properties
@@ -68,4 +64,4 @@ fastlane/readme.md
/app/release/output-metadata.json
/app/release/
/.kotlin/sessions/
dist/
.hermes/
+48 -49
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@@ -8,16 +8,15 @@ All assistant-specific files (`CLAUDE.md`, `.github/copilot-instructions.md`) po
## Project Overview
Look4Sat is an open-source, fully offline Android satellite tracker and pass predictor. It tracks 9000+ active
satellites using TLE/OMM data from Celestrak/SatNOGS, calculates orbital positions via SGP4/SDP4 models, and displays
passes relative to the user's location. Features include polar radar visualization, SSTV image decoding, satellite
ground track mapping, and pass predictions up to 10 days ahead. No ads, no tracking, no network required after initial
data download.
satellites using Celestrak/SatNOGS orbital data, calculates positions via SGP4/SDP4, and predicts passes relative to
the user's location. Features include polar radar visualization, SSTV image decoding, and ground track mapping. No ads,
no tracking, no network required after initial data download.
## Architecture
## Architecture & Design
**MVI (Model-View-Intent)** with unidirectional data flow:
- `State` data class → exposed via `StateFlow` from ViewModel
- `Action` sealed interface → user intents dispatched to ViewModel's `onAction()`
- `State` data class (named `<Feature>State`) exposed via `StateFlow` from ViewModel
- `Action` sealed interface (named `<Feature>Action`) dispatched to ViewModel's `onAction()`
- Jetpack Compose UI observes state and recomposes reactively
**Clean Architecture layers:**
@@ -34,9 +33,11 @@ data download.
| `feature:satellites` | Satellite list, filtering, selection |
| `feature:settings` | User preferences |
- `feature:*` modules depend only on `core:domain` + `core:presentation`. Features never depend on each other.
**Feature isolation:**
- `feature:*` modules depend only on `core:domain` and `core:presentation`.
- No feature-to-feature dependencies; cross-feature communication goes through core layers.
## Build & Run
## Build & Platform
```shell
# Debug build
@@ -50,54 +51,55 @@ data download.
```
- **Min SDK**: 24 | **Target SDK**: 36 | **JDK**: 17
- **Gradle**: Uses version catalog (`gradle/libs.versions.toml`) + convention plugins in `build-logic/`
- **Gradle**: Version catalog in `gradle/libs.versions.toml` + convention plugins in `build-logic/`
## Key Libraries
## Tech Stack
- **Compose** (BOM 2026.05.01) + Material3 Adaptive
- **Navigation3** (type-safe, uses `@Serializable` NavKeys)
- **Room** (KSP code generation) for local satellite/TLE storage
- **OkHttp** 5.x for TLE downloads
- **Navigation3**: Type-safe navigation with `@Serializable` nav keys
- **Room** (KSP code generation) for local satellite/orbital storage
- **OkHttp** 5.x for data downloads
- **OSMDroid** for map rendering
- **Kotlin Serialization** for navigation args and data parsing
- **Kotlin Serialization** for navigation args and parsing
- **Coroutines** + `StateFlow` for async/reactive patterns
## Conventions
- **Minimal dependencies**: Avoid adding libraries when a simple manual solution exists. Fewer deps = less maintenance.
- **DI**: Manual — ViewModels use companion `factory()` methods with `IMainContainer` interface.
- **Navigation**: Type-safe Compose Navigation3 with `@Serializable` data classes as nav keys.
- **State naming**: `<Feature>State` data class + `<Feature>Action` sealed interface per feature.
- **No feature-to-feature deps**: All cross-feature communication goes through core layers.
- **Localization**: 7 languages (en, es, ru, si, tr, uk, zh).
- **Localization**: 7 languages (en, es, ru, si, tr, uk, zh)
## Data Formats & Migration
**TLE vs. OMM/CSV format:**
Look4Sat supports both TLE and OMM (Orbit Mean-Elements Message) CSV formats:
Look4Sat supports both TLE and OMM (Orbit Mean-Elements Message) formats for backward compatibility:
- **TLE format**: Legacy 3-line element format limited by 5-digit NORAD IDs
- **OMM/CSV format**: Successor format with ISO 8601 timestamps and larger NORAD ID support
- New 5-digit NORAD IDs are exhausted; TLE is officially deprecated and OMM/CSV is the clear default
- `DataParser.kt` supports both via `parseTLEStream()` and `parseCSVStream()`
- Downloads auto-detect format; both produce identical `OrbitalData` objects
- Existing code already supports transparent source transition without feature changes
- Refresh orbital data weekly for accurate pass prediction (orbital decay)
- **TLE format**: Traditional 3-line element format (deprecated). NORAD catalog numbers are 5-digit integers, which
are running out of space. Celestrak has signaled that TLE format will eventually be phased out.
- **OMM/CSV format**: The future standard. CSV files contain the same orbital parameters as TLE but use ISO 8601
timestamps and support larger NORAD IDs. Celestrak and SatNOGS already provide OMM data in CSV format.
## Engineering Heuristics (Lazy = Efficient)
**Current implementation:**
- `DataParser.kt` handles both `parseTLEStream()` and `parseCSVStream()` seamlessly
- TLE data is downloaded from configured sources and stored in Room database
- When downloading satellite data, the app automatically detects format and parses accordingly
- Both formats produce identical `OrbitalData` objects, ensuring transparent format switching
- Treat "lazy" as efficient, not careless: the best code is the code never written.
- First understand the task and trace the real flow end-to-end, then climb this ladder:
1. Does this need to be built now? (YAGNI)
2. Does it already exist in this codebase? Reuse helpers/patterns before rewriting.
3. Does Kotlin/Java stdlib already solve it?
4. Does the Android/platform API already solve it?
5. Does an already-installed dependency solve it?
6. Can this be simpler (including one-liner simple)?
7. Only then: write the minimum code that works.
- Prefer deletion to addition, boring over clever, and the fewest touched files.
- Avoid new abstractions, dependencies, and boilerplate unless explicitly requested.
- Manual DI only: ViewModels use companion `factory()` methods with `IMainContainer`.
- Release builds use ProGuard: avoid reflection-heavy libraries unless explicitly approved.
- When two options are similar in size, choose the edge-case-correct one.
- If you keep a deliberate simplification (for example O(n^2) scan or global lock), leave a short comment with the ceiling and upgrade path.
- For complex asks, challenge scope when appropriate: "Do you need X, or does Y already cover it?"
**Migration path:**
As NORAD catalog space becomes constrained, OMM/CSV will become the primary format. Look4Sat is already positioned
to handle this transition without code changes — existing users can continue using TLE files while new sources
transition to OMM/CSV automatically.
## Bug-Fix Policy
## Code Style
- Prefer **short, focused functions** — single responsibility, easy to read.
- **Exceptions**: Composable functions and math-heavy algorithms (SGP4/SDP4) may be longer.
- Strict code style — no dead code, no unused imports, consistent formatting.
- Fix root cause, not just the reported symptom.
- If touching a shared function, inspect callers and prefer one shared fix over per-caller patches.
- The smallest correct diff wins only after behavior is understood.
## Roadmap
@@ -105,12 +107,9 @@ transition to OMM/CSV automatically.
## Gotchas
- Orbital math lives in `core:domain/predict/` — it's dense vector math (SGP4/SDP4). Tread carefully.
- TLE/OMM data must be refreshed weekly for accurate predictions (satellite orbits decay). TLE format is legacy and
will eventually be deprecated in favor of OMM/CSV as NORAD catalog numbers approach the 5-digit limit.
- Orbital math lives in `core:domain/predict/` — dense vector math (SGP4/SDP4). Tread carefully.
- SSTV decoding in `feature:radar` is experimental; image quality depends on signal strength during satellite pass.
- `build-logic/convention/` contains all shared Gradle configuration — edit there, not in individual modules.
- ProGuard is enabled for release builds — don't add reflection-based libs or any other dependencies without asking.
- `build-logic/convention/` contains shared Gradle configuration — edit there, not in individual modules.
## Copilot Working Mode: Code-Only
+30 -27
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@@ -1,42 +1,45 @@
# Look4Sat-BA7OPF
# Look4Sat: Satellite tracker
[![Release](https://img.shields.io/github/v/release/atsunatsu/Look4Sat)](https://github.com/atsunatsu/Look4Sat/releases)
[![Look4Sat CI](https://github.com/rt-bishop/Look4Sat/actions/workflows/release.yml/badge.svg)](https://github.com/rt-bishop/Look4Sat/actions/workflows/release.yml)
**BA7OPF 定制版** — 基于 [rt-bishop/Look4Sat](https://github.com/rt-bishop/Look4Sat) 的业余无线电卫星追踪器,增加了线性卫星频率计算器等功能。
[<img src="https://play.google.com/intl/en_gb/badges/static/images/badges/en_badge_web_generic.png" alt="Get it on Google Play" height="80">](https://play.google.com/store/apps/details?id=com.rtbishop.look4sat)
[<img src="https://fdroid.gitlab.io/artwork/badge/get-it-on.png" alt="Get it on F-Droid" height="80">](https://f-droid.org/packages/com.rtbishop.look4sat/)
## 本仓库特色功能
### Radio satellite tracker and pass predictor for Android, inspired by Gpredict
- **网格地图模式(Grid Mode)** — 地图页内置 VUCC 网格覆盖图:已通联网格绿色填充、漫游网格蓝色 45° 斜纹(疏朗半透明样式)、当前所在方格淡黄加粗框;点击已通联网格弹出该网格内通联明细弹窗;进入网格模式默认 VUCC 视图
- **奖状边界模式(Award Boundaries)** — 在网格地图上叠加 DXCC / WAPC / WAJA / WAZ / WAS 国界·省界·分区边界,已确认区域绿色填充
- **LoTW 网格同步** — 直连 ARRL Logbook(账号密码验证)下载确认报告,worked / roamed 网格自动更新(兼容任意字段顺序的 ADIF 解析);同步失败按凭据错误/限流/超时分类提示
- **双站过境匹配(Mutual Pass)** — 输入友台经纬度/网格,筛选双方同时可见的卫星过境,在地图上同时显示双方仰角曲线和地面轨迹,支持一键跳转雷达页查看详情
- **线性卫星转发器频率计算器** — 在雷达页的 Calculator 标签页中,支持 TX/RX 双向多普勒频率计算,以及下行频率偏移(offset)输入,方便操作带偏移的线性卫星
- **CW 解码器** — 集成 Morse Expert 解码引擎,支持瀑布图、实时解码文本(arm64 + armeabi-v7a 双架构)
- **AMSAT 状态页** — 实时查看卫星的业余无线电转发器状态(开启/关闭/待机),支持 72 小时历史记录回放,启动时预取缓存
- **应用内更新检查** — 设置页一键检查 GitHub 最新 Release,展示版本说明并直接下载安装
- **自定义 TLE 数据源** — 可添加自定义 TLE/Celestrak CSV 数据源,长按拖拽排序,数据源启停开关与 HTTP 状态码显示
- **中文界面优化** — 翻译修正、UI 布局调整,系统语言自动切换
<p float="left">
<img src="fastlane/metadata/android/en-US/images/phoneScreenshots/1.png" width="192"/>
<img src="fastlane/metadata/android/en-US/images/phoneScreenshots/2.png" width="192"/>
<img src="fastlane/metadata/android/en-US/images/phoneScreenshots/3.png" width="192"/>
<img src="fastlane/metadata/android/en-US/images/phoneScreenshots/4.png" width="192">
</p>
## 上游仓库
### Track satellite passes with ease!
本仓库是 [rt-bishop/Look4Sat](https://github.com/rt-bishop/Look4Sat) 的分支,上游仓库的原始功能包括:
Thanks to [Celestrak](https://celestrak.com/) and [SatNOGS](https://satnogs.org/) you have access to over 9000 active satellites.\
You can search the entire database by NORAD Catalog Number or the satellite's name.
- 基于 Celestrak / SatNOGS 数据的 9000+ 活跃卫星追踪
- SGP4/SDP4 轨道预测,10 天过境预报
- 极坐标雷达图、地面轨迹图
- SSTV 图像解码
- 无广告、无跟踪、完全离线
Orbital positions and passes are calculated relative to your location.\
To get reliable data make sure to set the station position via the app Settings.
## 许可证
The application is built using Kotlin, Coroutines, Jetpack Compose and Navigation.\
It is now and always will be completely ad-free and open-source.
GNU General Public License v3.0。详见 [LICENSE](LICENSE)。
## Main features:
* Predicting satellite positions and passes for up to 10 days
* Showing the list of currently active and upcoming satellite passes
* Showing the active pass progress, polar trajectory and transceivers info
* Showing the satellite positional data, footprint and ground track on the map
* Custom TLE satellite data import is available via Three Line Element .txt files
* Offline first: calculations are made offline. Weekly TLE data update is recommended.
## Star History
<a href="https://star-history.dera.page/#atsunatsu/Look4Sat&type=timeline&legend=top-left">
<a href="https://www.star-history.com/?repos=rt-bishop%2FLook4Sat&type=timeline&legend=top-left">
<picture>
<source media="(prefers-color-scheme: dark)" srcset="https://star-history.dera.page/svg?repos=atsunatsu/Look4Sat&type=timeline&theme=dark&legend=top-left" />
<source media="(prefers-color-scheme: light)" srcset="https://star-history.dera.page/svg?repos=atsunatsu/Look4Sat&type=timeline&legend=top-left" />
<img alt="Star History Chart" src="https://star-history.dera.page/svg?repos=atsunatsu/Look4Sat&type=timeline&legend=top-left" />
<source media="(prefers-color-scheme: dark)" srcset="https://api.star-history.com/chart?repos=rt-bishop/Look4Sat&type=timeline&theme=dark&legend=top-left" />
<source media="(prefers-color-scheme: light)" srcset="https://api.star-history.com/chart?repos=rt-bishop/Look4Sat&type=timeline&legend=top-left" />
<img alt="Star History Chart" src="https://api.star-history.com/chart?repos=rt-bishop/Look4Sat&type=timeline&legend=top-left" />
</picture>
</a>
-38
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@@ -1,41 +1,3 @@
import java.io.FileInputStream
import java.util.Properties
plugins {
alias(libs.plugins.convention.applicationPlugin)
}
// Release signing credentials live in local.properties (gitignored) or
// environment variables — never hardcode passwords in VCS.
val releaseProps = Properties().apply {
val propsFile = rootProject.file("local.properties")
if (propsFile.exists()) FileInputStream(propsFile).use { load(it) }
}
fun releaseCred(name: String): String =
releaseProps.getProperty(name) ?: System.getenv(name) ?: ""
android {
namespace = libs.versions.packageName.get()
defaultConfig {
applicationId = "cn.ba7opf.look4sat"
// CW decoder ships for both ABIs (see feature/cw jniLibs); the APK must
// not be pinned to 32-bit only or 64-bit devices fall back to ARM32.
ndk {
abiFilters.add("armeabi-v7a")
abiFilters.add("arm64-v8a")
}
}
signingConfigs {
create("release") {
storeFile = file(System.getProperty("user.home") + "/my-release-key.jks")
storePassword = releaseCred("RELEASE_STORE_PASSWORD")
keyAlias = releaseCred("RELEASE_KEY_ALIAS").ifEmpty { "look4sat" }
keyPassword = releaseCred("RELEASE_KEY_PASSWORD")
}
}
buildTypes {
release {
signingConfig = signingConfigs.getByName("release")
}
}
}
-12
View File
@@ -13,7 +13,6 @@
<uses-permission android:name="android.permission.BLUETOOTH_SCAN" />
<uses-permission android:name="android.permission.INTERNET" />
<uses-permission android:name="android.permission.RECORD_AUDIO" />
<uses-permission android:name="android.permission.REQUEST_INSTALL_PACKAGES" />
<application
android:name=".MainApplication"
@@ -26,7 +25,6 @@
<activity
android:name=".MainActivity"
android:exported="true"
android:screenOrientation="portrait"
android:theme="@style/Theme.Look4Sat.SplashScreen">
<intent-filter>
<action android:name="android.intent.action.MAIN" />
@@ -46,15 +44,5 @@
android:name="android.telephony.PROPERTY_SATELLITE_DATA_OPTIMIZED"
android:value="com.rtbishop.look4sat" />
<provider
android:name="androidx.core.content.FileProvider"
android:authorities="${applicationId}.fileprovider"
android:exported="false"
android:grantUriPermissions="true">
<meta-data
android:name="android.support.FILE_PROVIDER_PATHS"
android:resource="@xml/file_paths" />
</provider>
</application>
</manifest>
@@ -49,7 +49,7 @@ class MainActivity : ComponentActivity() {
super.onCreate(savedInstanceState)
observeNightFilterState()
setContent {
MainTheme(isDarkTheme = true) { NavRoot() }
MainTheme(isDarkTheme = true) { MainScreen() }
}
}
@@ -17,20 +17,10 @@
*/
package com.rtbishop.look4sat
import android.app.Activity
import android.app.Application
import android.app.Application.ActivityLifecycleCallbacks
import android.os.Bundle
import com.rtbishop.look4sat.core.data.injection.MainContainer
import com.rtbishop.look4sat.core.domain.repository.IContainerProvider
import com.rtbishop.look4sat.core.domain.repository.IMainContainer
import com.rtbishop.look4sat.core.domain.repository.LoTWSyncMode
import com.rtbishop.look4sat.core.domain.repository.LoTWResult
import com.rtbishop.look4sat.core.domain.repository.applyLoTWGridResult
import com.rtbishop.look4sat.core.domain.repository.lotwCursorApi
import com.rtbishop.look4sat.core.domain.repository.lotwSyncToday
import com.rtbishop.look4sat.core.domain.repository.resolveLoTWSyncMode
import com.rtbishop.look4sat.core.domain.repository.shouldAutoSyncLoTW
import kotlinx.coroutines.launch
import java.text.SimpleDateFormat
import java.util.Date
@@ -45,39 +35,12 @@ class MainApplication : Application(), IContainerProvider {
override fun onCreate() {
super.onCreate()
container = MainContainer(this)
clearAmSatCacheOnAppBackground()
// trigger automatic update every 48 hours
container.appScope.launch { checkAutoUpdate() }
// automatic LoTW grid sync on every app start (gated, see checkLoTWAutoSync)
container.appScope.launch { checkLoTWAutoSync() }
// load satellite data on every app start
container.appScope.launch { container.satelliteRepo.initRepository() }
}
private fun clearAmSatCacheOnAppBackground() {
registerActivityLifecycleCallbacks(object : ActivityLifecycleCallbacks {
private var startedActivityCount = 0
override fun onActivityStarted(activity: Activity) {
if (startedActivityCount == 0) {
container.appScope.launch { container.amSatRepo.prefetchStatus() }
}
startedActivityCount += 1
}
override fun onActivityStopped(activity: Activity) {
startedActivityCount = (startedActivityCount - 1).coerceAtLeast(0)
if (startedActivityCount == 0) container.amSatRepo.clearStatusCache()
}
override fun onActivityCreated(activity: Activity, savedInstanceState: Bundle?) = Unit
override fun onActivityResumed(activity: Activity) = Unit
override fun onActivityPaused(activity: Activity) = Unit
override fun onActivitySaveInstanceState(activity: Activity, outState: Bundle) = Unit
override fun onActivityDestroyed(activity: Activity) = Unit
})
}
private suspend fun checkAutoUpdate(timeNow: Long = System.currentTimeMillis()) {
if (container.settingsRepo.otherSettings.value.stateOfAutoUpdate) {
val timeDelta = timeNow - container.settingsRepo.databaseState.value.updateTimestamp
@@ -88,37 +51,4 @@ class MainApplication : Application(), IContainerProvider {
}
}
}
/**
* Automatic LoTW grid sync, mirroring [checkAutoUpdate]: checked on every
* app start, but only pulls when due — LoTW credentials configured, the
* LoTW auto-sync toggle on, at least one prior (manual) sync, and not
* already synced today (ARRL limits report pulls, ~once a day per account).
* Incremental when the callsign is unchanged; a callsign change falls back
* to a full replace so no stale grids from another account linger.
* Failures are silent and simply retried on the next app start — the manual
* sync button still surfaces the explicit cause to the user.
*/
private suspend fun checkLoTWAutoSync(timeNow: Long = System.currentTimeMillis()) {
val settingsRepo = container.settingsRepo
val lotwSettings = settingsRepo.lotwSettings.value
if (!shouldAutoSyncLoTW(
isConfigured = lotwSettings.isConfigured,
autoLotwSyncEnabled = settingsRepo.otherSettings.value.stateOfAutoLotwSync,
lastSyncDate = settingsRepo.getLastLotwSyncDate(),
today = lotwSyncToday(timeNow)
)
) return
val callsign = lotwSettings.callsign.trim().uppercase()
val mode = resolveLoTWSyncMode(settingsRepo.getLastLotwSyncCallsign(), callsign, requested = null)
val since = if (mode == LoTWSyncMode.Incremental) lotwCursorApi(settingsRepo.getLastLotwSyncDate()) else ""
println("Started periodic LoTW grid sync (${mode.name.lowercase()})")
val result = container.lotwRepo.fetchConfirmedGridQsos(callsign, lotwSettings.password, since)
if (result is LoTWResult.Success) {
val count = applyLoTWGridResult(settingsRepo, result, mode, callsign, timeNow)
println("Periodic LoTW grid sync finished: $count worked grids")
} else {
println("Periodic LoTW grid sync skipped (${result::class.simpleName})")
}
}
}
@@ -25,6 +25,8 @@ import androidx.compose.animation.core.rememberInfiniteTransition
import androidx.compose.animation.core.tween
import androidx.compose.animation.fadeIn
import androidx.compose.animation.fadeOut
import androidx.compose.animation.scaleIn
import androidx.compose.animation.scaleOut
import androidx.compose.animation.slideInHorizontally
import androidx.compose.animation.slideOutHorizontally
import androidx.compose.animation.togetherWith
@@ -42,7 +44,7 @@ import androidx.compose.foundation.layout.width
import androidx.compose.foundation.shape.CircleShape
import androidx.compose.material3.Icon
import androidx.compose.material3.MaterialTheme
import androidx.compose.material3.Surface
import androidx.compose.material3.Scaffold
import androidx.compose.material3.Text
import androidx.compose.material3.adaptive.navigationsuite.NavigationSuiteDefaults
import androidx.compose.material3.adaptive.navigationsuite.NavigationSuiteScaffold
@@ -51,8 +53,6 @@ import androidx.compose.runtime.Composable
import androidx.compose.runtime.CompositionLocalProvider
import androidx.compose.runtime.LaunchedEffect
import androidx.compose.runtime.getValue
import androidx.compose.runtime.remember
import androidx.compose.runtime.setValue
import androidx.compose.ui.Alignment
import androidx.compose.ui.Modifier
import androidx.compose.ui.draw.clip
@@ -63,16 +63,13 @@ import androidx.compose.ui.res.stringResource
import androidx.compose.ui.text.font.FontWeight
import androidx.compose.ui.unit.dp
import androidx.compose.ui.unit.sp
import androidx.lifecycle.ViewModelStoreOwner
import androidx.lifecycle.compose.collectAsStateWithLifecycle
import androidx.lifecycle.viewmodel.compose.viewModel
import androidx.lifecycle.viewmodel.navigation3.rememberViewModelStoreNavEntryDecorator
import androidx.navigation3.runtime.entryProvider
import androidx.navigation3.runtime.rememberNavBackStack
import androidx.navigation3.runtime.rememberSaveableStateHolderNavEntryDecorator
import androidx.navigation3.ui.NavDisplay
import com.rtbishop.look4sat.core.domain.repository.IContainerProvider
import com.rtbishop.look4sat.core.domain.repository.MutualPassData
import com.rtbishop.look4sat.core.presentation.DeeplinkResolver
import com.rtbishop.look4sat.core.presentation.ElevationThresholds
import com.rtbishop.look4sat.core.presentation.LocalElevationThresholds
@@ -81,123 +78,59 @@ import com.rtbishop.look4sat.core.presentation.Screen
import com.rtbishop.look4sat.core.presentation.hasEnoughHeight
import com.rtbishop.look4sat.core.presentation.hasEnoughWidth
import com.rtbishop.look4sat.feature.map.MapDestination
import com.rtbishop.look4sat.feature.map.MapFilterViewModel
import com.rtbishop.look4sat.feature.mutual.MutualScreen
import com.rtbishop.look4sat.feature.mutual.MutualViewModel
import com.rtbishop.look4sat.feature.passes.PassesDestination
import com.rtbishop.look4sat.feature.radar.RadarDestination
import com.rtbishop.look4sat.feature.satellites.SatellitesDestination
import com.rtbishop.look4sat.feature.settings.SettingsDestination
import com.rtbishop.look4sat.feature.status.SatStatusDestination
@Composable
fun NavRoot(deeplink: String? = null) {
val rootBackStack = rememberNavBackStack(Screen.Passes)
val deeplinkResolver = DeeplinkResolver()
LaunchedEffect(deeplink) {
deeplink?.let { rootBackStack.add(deeplinkResolver.resolve(it)) }
deeplink?.let {
val destination = deeplinkResolver.resolve(it) // rootBackStack.clear()
rootBackStack.add(destination)
}
}
val navigateBack: () -> Unit = { rootBackStack.removeLastOrNull() }
val navigateToRadar: () -> Unit = { rootBackStack.add(RadarDestination) }
// Incoming screen slides in from the right, outgoing drifts left at 1/3 speed (API35+ style)
val pushTransition = slideInHorizontally(tween(300)) { it } togetherWith
slideOutHorizontally(tween(300)) { -it / 3 }
// Reverse: outgoing slides out to the right, incoming drifts in from the left
val popTransition = slideInHorizontally(tween(300)) { -it / 3 } togetherWith
slideOutHorizontally(tween(300)) { it }
// Elevation color thresholds must be provided at the root level so that BOTH
// the tab content (MainScreen) and the root-level RadarDestination see the
// user's custom thresholds. RadarDestination is a sibling entry of MainScreen
// in this NavDisplay, so a provider inside MainScreen never reaches it.
val context = LocalContext.current
val container = (context.applicationContext as IContainerProvider).getMainContainer()
val otherSettings by container.settingsRepo.otherSettings.collectAsStateWithLifecycle()
CompositionLocalProvider(
LocalElevationThresholds provides ElevationThresholds(
low = otherSettings.lowElevation,
high = otherSettings.highElevation
)
) {
NavDisplay(
modifier = Modifier.fillMaxSize(),
backStack = rootBackStack,
onBack = navigateBack,
transitionSpec = { pushTransition },
popTransitionSpec = { popTransition },
predictivePopTransitionSpec = { popTransition },
entryDecorators = listOf(
rememberSaveableStateHolderNavEntryDecorator(),
rememberViewModelStoreNavEntryDecorator()
),
entryProvider = entryProvider {
entry<Screen.Passes> {
MainScreen(
navigateToRadar = navigateToRadar
)
}
entry<RadarDestination> {
Surface(
modifier = Modifier.fillMaxSize(),
color = MaterialTheme.colorScheme.background
) {
RadarDestination(navigateUp = navigateBack)
}
val slideInTransition = slideInHorizontally(initialOffsetX = { it }) togetherWith scaleOut(targetScale = 0.9f)
val slideOutTransition = scaleIn(initialScale = 0.9f) togetherWith slideOutHorizontally(targetOffsetX = { it })
NavDisplay(
modifier = Modifier.fillMaxSize(),
backStack = rootBackStack,
onBack = navigateBack,
transitionSpec = { slideInTransition },
popTransitionSpec = { slideOutTransition },
predictivePopTransitionSpec = { slideOutTransition },
entryDecorators = listOf(
rememberSaveableStateHolderNavEntryDecorator(), // Required for saving Compose state per entry
rememberViewModelStoreNavEntryDecorator() // Required for ViewModel scoping per entry
),
entryProvider = entryProvider {
entry<Screen.Passes> { MainScreen(navigateToRadar = { rootBackStack.add(RadarDestination) }) }
entry<RadarDestination> {
Scaffold { innerPadding ->
RadarDestination(navigateUp = navigateBack)
innerPadding.calculateTopPadding()
}
}
)
}
}
)
}
@Composable
fun MainScreen(
navigateToRadar: () -> Unit = {}
) {
fun MainScreen(navigateToRadar: () -> Unit = {}) {
val backStack = rememberNavBackStack(Screen.Passes)
val currentKey = backStack.lastOrNull()
val navigateBack: () -> Unit = { backStack.removeLastOrNull() }
val fadeTransition = fadeIn(animationSpec = tween(350)) togetherWith fadeOut(animationSpec = tween(350))
// Map sits at position 4 from the left, matching the upstream nav order
// (Satellites, Passes, AMSAT/Status, Map, ...), with the fork's Mutual tab
// appended before Settings.
val navItems = listOf(Screen.Satellites, Screen.Passes, Screen.AMSAT, Screen.Map, Screen.Mutual, Screen.Settings)
val navItems = listOf(Screen.Satellites, Screen.Passes, Screen.Radar, Screen.Map, Screen.Settings)
val context = LocalContext.current
val container = (context.applicationContext as IContainerProvider).getMainContainer()
val trackingState by container.radioTrackingService.state.collectAsStateWithLifecycle()
val otherSettings by container.settingsRepo.otherSettings.collectAsStateWithLifecycle()
// Activity-scoped so the mutual query results survive navigation to Radar and back
val mutualViewModel: MutualViewModel = viewModel(
viewModelStoreOwner = context as ViewModelStoreOwner,
factory = MutualViewModel.factory(container)
)
// Activity-scoped so the map's award filter survives page switches;
// resets to VUCC only on cold start (fresh process).
val mapFilterViewModel: MapFilterViewModel = viewModel(
viewModelStoreOwner = context as ViewModelStoreOwner,
factory = MapFilterViewModel.factory()
)
// Map grid-QSO dialog "Match" button: pre-fill the match page for that
// grid and run the query BEFORE navigating, so the page's first frame
// already contains the results (time-range card at the top, pass curves
// right below — no scroll flicker). Navigation happens once the query
// finishes (see the collector below).
val mutualState by mutualViewModel.uiState.collectAsStateWithLifecycle()
val matchCalculating = mutualState.pendingNavigation && mutualState.isCalculating
LaunchedEffect(mutualViewModel) {
mutualViewModel.uiState.collect { state ->
if (state.pendingNavigation && !state.isCalculating) {
mutualViewModel.consumePendingNavigation()
// Push Mutual on top of the Map entry instead of replacing the
// stack (bottom-nav style): the system back gesture then pops
// back to the map page, which is the page the user came from.
if (backStack.lastOrNull() !is Screen.Mutual) {
backStack.add(Screen.Mutual)
}
}
}
}
CompositionLocalProvider(
LocalElevationThresholds provides ElevationThresholds(
@@ -211,9 +144,8 @@ fun MainScreen(
val isSelected = when (currentKey) {
is Screen.Satellites -> screen is Screen.Satellites
is Screen.Passes -> screen is Screen.Passes
is Screen.Radar -> screen is Screen.Radar
is Screen.Map -> screen is Screen.Map
is Screen.AMSAT -> screen is Screen.AMSAT
is Screen.Mutual -> screen is Screen.Mutual
is Screen.Settings -> screen is Screen.Settings
else -> false
}
@@ -257,39 +189,18 @@ fun MainScreen(
SatellitesDestination(navigateUp = navigateBack)
}
entry<Screen.Passes> {
PassesDestination(
navigateToRadar = { catNum, aosTime ->
container.setMutualPassData(MutualPassData())
container.satelliteRepo.selectPass(catNum, aosTime)
navigateToRadar()
}
)
PassesDestination { catNum, aosTime ->
container.satelliteRepo.selectPass(catNum, aosTime)
backStack.add(Screen.Radar)
// navigateToRadar()
}
}
entry<Screen.Radar> {
RadarDestination(navigateUp = navigateBack)
}
entry<Screen.Map> {
MapDestination(
mapFilterViewModel = mapFilterViewModel,
matchCalculating = matchCalculating,
onMatchGrid = { grid ->
// Grid-QSO dialog "Match" button: pre-fill
// the match page for that grid and start the
// query. Navigation to the match page is
// handled by the uiState collector above,
// once the query finishes.
mutualViewModel.prefillMatchFromGrid(grid)
}
)
MapDestination()
}
entry<Screen.Mutual> {
MutualScreen(
viewModel = mutualViewModel,
navigateToRadar = { catNum, aosTime, pass ->
container.setMutualPassData(pass ?: MutualPassData())
container.satelliteRepo.selectPass(catNum, aosTime)
navigateToRadar()
}
)
}
entry<Screen.AMSAT> { SatStatusDestination() }
entry<Screen.Settings> {
SettingsDestination()
}
@@ -313,9 +224,8 @@ fun MainScreen(
.clickable {
val pass = trackingState.currentPass
if (pass != null) {
container.setMutualPassData(MutualPassData())
container.satelliteRepo.selectPass(pass.catNum, pass.aosTime)
navigateToRadar()
backStack.add(Screen.Radar)
}
}
.padding(horizontal = 12.dp, vertical = 6.dp)
-4
View File
@@ -1,4 +0,0 @@
<?xml version="1.0" encoding="utf-8"?>
<paths xmlns:android="http://schemas.android.com/apk/res/android">
<cache-path name="updates" path="." />
</paths>
@@ -32,12 +32,10 @@ internal class ApplicationPlugin : Plugin<Project> {
implementation(project(":core:domain"))
implementation(project(":core:presentation"))
implementation(project(":feature:map"))
implementation(project(":feature:mutual"))
implementation(project(":feature:passes"))
implementation(project(":feature:radar"))
implementation(project(":feature:satellites"))
implementation(project(":feature:settings"))
implementation(project(":feature:status"))
implementation(libs.androidx.core.splashscreen)
implementation(libs.compose.material3.adaptive)
implementation(libs.compose.navigation3)
@@ -35,9 +35,6 @@ internal class CoreDataPlugin : Plugin<Project> {
ksp(libs.androidx.room.compiler)
implementation(libs.kotlin.coroutines)
implementation(libs.other.okhttp)
// android.jar's org.json is a stub ("not mocked") in unit tests;
// provide a real implementation so JSON parsing is testable.
testImplementation(libs.test.json)
}
}
}
@@ -45,22 +45,14 @@ interface Look4SatDao {
@Query("DELETE FROM entries")
suspend fun deleteEntries()
@Query("SELECT catnum FROM radios WHERE downlinkMode IN (:modes) AND isAlive = 1")
@Query(
"""
SELECT DISTINCT catnum FROM radios WHERE isAlive = 1
AND (downlinkMode IN (:modes) OR uplinkMode IN (:modes))
"""
)
suspend fun getIdsWithModes(modes: List<String>): List<Int>
/** Like [getIdsWithModes] but only matches transponder records with an uplink,
* excluding downlink-only beacons/telemetry that share the same mode label
* (e.g. CW beacons, FM voice-synthesis beacons) from FM/Linear filter fallback. */
@Query("SELECT catnum FROM radios WHERE downlinkMode IN (:modes) AND uplinkLow IS NOT NULL AND isAlive = 1")
suspend fun getIdsWithModesAndUplink(modes: List<String>): List<Int>
/** Like [getIdsWithModes] but only matches records whose service class is
* "Amateur", so the SSTV filter never matches weather birds (TIROS),
* launcher debris or other non-amateur transmitters that happen to carry
* an SSTV-labelled downlink. */
@Query("SELECT catnum FROM radios WHERE downlinkMode IN (:modes) AND service = 'Amateur' AND isAlive = 1")
suspend fun getIdsWithModesAndAmateur(modes: List<String>): List<Int>
@Query("SELECT COUNT(*) FROM radios")
suspend fun getRadiosTotal(): Int
@@ -73,7 +65,4 @@ interface Look4SatDao {
@Query("DELETE FROM radios")
suspend fun deleteRadios()
@Query("DELETE FROM radios WHERE isCustom = 0")
suspend fun deleteManagedRadios()
}
@@ -19,29 +19,19 @@ package com.rtbishop.look4sat.core.data.database
import androidx.room.Database
import androidx.room.RoomDatabase
import androidx.room.migration.Migration
import androidx.sqlite.db.SupportSQLiteDatabase
import com.rtbishop.look4sat.core.data.database.entity.SatEntry
import com.rtbishop.look4sat.core.data.database.entity.SatRadio
@Database(entities = [SatEntry::class, SatRadio::class], version = 3, exportSchema = false)
@Database(entities = [SatEntry::class, SatRadio::class], version = 1, exportSchema = false)
abstract class Look4SatDb : RoomDatabase() {
abstract fun look4SatDao(): Look4SatDao
}
/** Adds the mean motion derivative, needed to tell decayed satellites apart, and marks the
* transceivers that were imported from a file, so that remote updates leave them alone. */
val MIGRATION_1_2 = object : Migration(1, 2) {
override fun migrate(db: SupportSQLiteDatabase) {
db.execSQL("ALTER TABLE entries ADD COLUMN ndot REAL NOT NULL DEFAULT 0.0")
db.execSQL("ALTER TABLE radios ADD COLUMN isCustom INTEGER NOT NULL DEFAULT 0")
}
}
/** Adds the transceiver service class ("Amateur" etc.), used by the SSTV virtual
* filter to tell amateur satellites apart from debris/weather/launcher stages. */
val MIGRATION_2_3 = object : Migration(2, 3) {
override fun migrate(db: SupportSQLiteDatabase) {
db.execSQL("ALTER TABLE radios ADD COLUMN service TEXT")
}
}
//val MIGRATION_1_2 = object : Migration(1, 2) {
// override fun migrate(database: SupportSQLiteDatabase) {
// database.execSQL("CREATE TABLE entries_backup (name TEXT NOT NULL, epoch REAL NOT NULL, meanmo REAL NOT NULL, eccn REAL NOT NULL, incl REAL NOT NULL, raan REAL NOT NULL, argper REAL NOT NULL, meanan REAL NOT NULL, catnum INTEGER NOT NULL, bstar REAL NOT NULL, xincl REAL NOT NULL, xnodeo REAL NOT NULL, omegao REAL NOT NULL, xmo REAL NOT NULL, xno REAL NOT NULL, orbitalPeriod REAL NOT NULL, isDeepSpace INTEGER NOT NULL, comment TEXT, PRIMARY KEY(catnum))")
// database.execSQL("INSERT INTO entries_backup (name, epoch, meanmo, eccn, incl, raan, argper, meanan, catnum, bstar, xincl, xnodeo, omegao, xmo, xno, orbitalPeriod, isDeepSpace, comment) SELECT name, epoch, meanmo, eccn, incl, raan, argper, meanan, catnum, bstar, xincl, xnodeo, omegao, xmo, xno, 1440 / meanmo, 1440 / meanmo >= 225.0, comment FROM entries")
// database.execSQL("DROP TABLE entries")
// database.execSQL("ALTER TABLE entries_backup RENAME TO entries")
// }
//}
@@ -30,6 +30,5 @@ data class SatEntry(
val argper: Double,
val meanan: Double,
val catnum: Int,
val bstar: Double,
val ndot: Double = 0.0
val bstar: Double
)
@@ -32,11 +32,5 @@ data class SatRadio(
val uplinkHigh: Long?,
val uplinkMode: String?,
val isInverted: Boolean,
val catnum: Int?,
/** Service class from the transceiver source ("Amateur"/"Unknown" etc.).
* Used to tell amateur satellites apart from debris / weather birds
* (TIROS) / launcher stages (Ariane 6 R/B) in the SSTV virtual filter. */
val service: String? = null,
/** Set for manually imported transceivers, which remote updates must not replace. */
val isCustom: Boolean = false
val catnum: Int?
)
@@ -17,10 +17,8 @@
*/
package com.rtbishop.look4sat.core.data.framework
import com.rtbishop.look4sat.core.domain.model.Constants
import com.rtbishop.look4sat.core.domain.repository.IReporter
import kotlinx.coroutines.CoroutineScope
import kotlinx.coroutines.channels.Channel
import kotlinx.coroutines.launch
import kotlinx.coroutines.sync.Mutex
import kotlinx.coroutines.sync.withLock
@@ -33,30 +31,18 @@ class NetworkReporter(
private val rotatorServer: String,
private val rotatorPort: Int,
private val frequencyServer: String,
private val frequencyPort: Int,
private val frequencyOffsetHz: Long = 0L
private val frequencyPort: Int
) : IReporter {
private val writeMutex = Mutex()
private val connectionMutex = Mutex()
private val frequencyCommands = Channel<String>(Channel.CONFLATED)
private var rotatorSocket: SocketChannel? = null
private var rotatorConnected = false
private var rotatorConnecting = false
private var frequencySocket: SocketChannel? = null
private var frequencyConnected = false
init {
// Keep only the latest frequency command to avoid stale backlog and effective lag.
reporterScope.launch {
for (command in frequencyCommands) {
ensureFrequencyConnected()
if (!frequencyConnected) continue
write(frequencySocket, command) { resetFrequencyConnection() }
}
}
}
private var frequencyConnecting = false
override fun reportRotation(format: String, azimuth: Double, elevation: Double) {
reporterScope.launch {
@@ -67,48 +53,51 @@ class NetworkReporter(
.replace($$"$AZ", azimuth.toString())
.replace($$"$EL", el.toString())
.unescapeControlChars()
write(rotatorSocket, command) { resetRotatorConnection() }
write(rotatorSocket, command) { rotatorConnected = false }
}
}
override fun reportFrequency(format: String, frequency: Long) {
val clampedOffset = frequencyOffsetHz.coerceIn(
Constants.FREQ_OFFSET_MIN_HZ,
Constants.FREQ_OFFSET_MAX_HZ
)
val correctedFreq = frequency.coerceAtLeast(0L).safeAdd(clampedOffset).coerceAtLeast(0L)
val command = format
.replace($$"$FREQ", correctedFreq.toString())
.unescapeControlChars()
frequencyCommands.trySend(command)
reporterScope.launch {
ensureFrequencyConnected()
if (!frequencyConnected) return@launch
val command = format
.replace($$"$FREQ", frequency.toString())
.unescapeControlChars()
write(frequencySocket, command) { frequencyConnected = false }
}
}
private suspend fun ensureRotatorConnected() {
connectionMutex.withLock {
if (rotatorConnected || rotatorServer.isBlank()) return
private fun ensureRotatorConnected() {
if (rotatorConnected || rotatorConnecting || rotatorServer.isBlank()) return
reporterScope.launch {
try {
resetRotatorConnection()
rotatorConnecting = true
rotatorSocket = SocketChannel.open(InetSocketAddress(rotatorServer, rotatorPort))
rotatorConnected = true
println("NetworkReporter: Rotator connected to $rotatorServer:$rotatorPort")
} catch (e: Exception) {
println("NetworkReporter rotator connect error: ${e.message}")
resetRotatorConnection()
rotatorConnected = false
} finally {
rotatorConnecting = false
}
}
}
private suspend fun ensureFrequencyConnected() {
connectionMutex.withLock {
if (frequencyConnected || frequencyServer.isBlank()) return
private fun ensureFrequencyConnected() {
if (frequencyConnected || frequencyConnecting || frequencyServer.isBlank()) return
reporterScope.launch {
try {
resetFrequencyConnection()
frequencyConnecting = true
frequencySocket = SocketChannel.open(InetSocketAddress(frequencyServer, frequencyPort))
frequencyConnected = true
println("NetworkReporter: Frequency connected to $frequencyServer:$frequencyPort")
} catch (e: Exception) {
println("NetworkReporter frequency connect error: ${e.message}")
resetFrequencyConnection()
frequencyConnected = false
} finally {
frequencyConnecting = false
}
}
}
@@ -117,9 +106,7 @@ class NetworkReporter(
try {
writeMutex.withLock {
val buffer = ByteBuffer.wrap("$command\n".toByteArray())
while (buffer.hasRemaining()) {
socket?.write(buffer)
}
socket?.write(buffer)
}
} catch (e: Exception) {
println("NetworkReporter write error: ${e.message}")
@@ -127,34 +114,6 @@ class NetworkReporter(
}
}
private fun resetRotatorConnection() {
rotatorConnected = false
closeQuietly(rotatorSocket)
rotatorSocket = null
}
private fun resetFrequencyConnection() {
frequencyConnected = false
closeQuietly(frequencySocket)
frequencySocket = null
}
private fun closeQuietly(socket: SocketChannel?) {
try {
socket?.close()
} catch (_: Exception) {}
}
private fun Long.safeAdd(delta: Long): Long {
return when {
delta > 0 && this > Long.MAX_VALUE - delta -> Long.MAX_VALUE
delta < 0 && this < Long.MIN_VALUE - delta -> Long.MIN_VALUE
else -> this + delta
}
}
private fun String.unescapeControlChars(): String =
replace("""\r""", 13.toChar().toString())
.replace("""\n""", 10.toChar().toString())
.replace("""\t""", 9.toChar().toString())
replace("\\r", "\r").replace("\\n", "\n").replace("\\t", "\t")
}
@@ -24,22 +24,16 @@ import android.hardware.display.DisplayManager
import android.location.LocationManager
import androidx.room.Room
import com.rtbishop.look4sat.core.data.database.Look4SatDb
import com.rtbishop.look4sat.core.data.database.MIGRATION_1_2
import com.rtbishop.look4sat.core.data.database.MIGRATION_2_3
import com.rtbishop.look4sat.core.data.framework.BluetoothReporter
import com.rtbishop.look4sat.core.data.framework.Ft817Controller
import com.rtbishop.look4sat.core.data.framework.Ic705Controller
import com.rtbishop.look4sat.core.data.framework.NetworkReporter
import com.rtbishop.look4sat.core.data.framework.RadioTrackingService
import com.rtbishop.look4sat.core.data.repository.AmSatRepository
import com.rtbishop.look4sat.core.data.repository.DatabaseRepo
import com.rtbishop.look4sat.core.data.repository.SatelliteRepo
import com.rtbishop.look4sat.core.data.repository.SelectionRepo
import com.rtbishop.look4sat.core.data.repository.SensorsRepo
import com.rtbishop.look4sat.core.data.repository.SettingsRepo
import com.rtbishop.look4sat.core.data.repository.UpdateRepository
import com.rtbishop.look4sat.core.data.repository.LoTWRepository
import com.rtbishop.look4sat.core.data.repository.WavelogRepository
import com.rtbishop.look4sat.core.data.source.LocalSource
import com.rtbishop.look4sat.core.data.source.RemoteSource
import com.rtbishop.look4sat.core.data.usecase.AddToCalendar
@@ -52,13 +46,10 @@ import com.rtbishop.look4sat.core.domain.repository.IMainContainer
import com.rtbishop.look4sat.core.domain.repository.IRadioController
import com.rtbishop.look4sat.core.domain.repository.IRadioTrackingService
import com.rtbishop.look4sat.core.domain.repository.IReporter
import com.rtbishop.look4sat.core.domain.repository.ILoTWRepository
import com.rtbishop.look4sat.core.domain.repository.ISatelliteRepo
import com.rtbishop.look4sat.core.domain.repository.ISelectionRepo
import com.rtbishop.look4sat.core.domain.repository.ISensorsRepo
import com.rtbishop.look4sat.core.domain.repository.ISettingsRepo
import com.rtbishop.look4sat.core.domain.repository.IWavelogRepository
import com.rtbishop.look4sat.core.domain.repository.MutualPassData
import com.rtbishop.look4sat.core.domain.source.ILocalSource
import com.rtbishop.look4sat.core.domain.source.IRemoteSource
import com.rtbishop.look4sat.core.domain.usecase.IAddToCalendar
@@ -70,37 +61,22 @@ import kotlinx.coroutines.CoroutineExceptionHandler
import kotlinx.coroutines.CoroutineScope
import kotlinx.coroutines.Dispatchers
import kotlinx.coroutines.SupervisorJob
import kotlinx.coroutines.flow.MutableStateFlow
import kotlinx.coroutines.flow.StateFlow
import kotlinx.coroutines.flow.asStateFlow
import okhttp3.OkHttpClient
class MainContainer(private val context: Context) : IMainContainer {
private val localSource = provideLocalSource()
private val remoteSource = provideRemoteSource()
private val mainHandler = CoroutineExceptionHandler { _, error -> println("MainHandler: $error") }
override val appScope = CoroutineScope(SupervisorJob() + Dispatchers.Default + mainHandler)
override val settingsRepo = provideSettingsRepo()
override val selectionRepo = provideSelectionRepo()
override val satelliteRepo = provideSatelliteRepo()
override val databaseRepo = provideDatabaseRepo()
override val amSatRepo by lazy { AmSatRepository(remoteSource, appScope) }
override val updateRepo by lazy { UpdateRepository(remoteSource) }
override val wavelogRepo: IWavelogRepository by lazy { WavelogRepository() }
override val lotwRepo: ILoTWRepository by lazy { LoTWRepository() }
override val radioTrackingService: IRadioTrackingService by lazy {
val manager = context.getSystemService(Context.BLUETOOTH_SERVICE) as BluetoothManager
RadioTrackingService(appScope, manager, satelliteRepo, settingsRepo)
}
private val _mutualPassData = MutableStateFlow(MutualPassData())
override val mutualPassData: StateFlow<MutualPassData> = _mutualPassData.asStateFlow()
override fun setMutualPassData(data: MutualPassData) {
_mutualPassData.value = data
}
override fun provideAddToCalendar(): IAddToCalendar = AddToCalendar(context)
override fun provideShowToast(): IShowToast = ShowToast(context)
@@ -127,8 +103,7 @@ class MainContainer(private val context: Context) : IMainContainer {
rc.rotatorAddress,
rc.rotatorPort.toIntOrNull() ?: 0,
rc.frequencyAddress,
rc.frequencyPort.toIntOrNull() ?: 0,
rc.frequencyOffsetHz
rc.frequencyPort.toIntOrNull() ?: 0
)
}
@@ -160,6 +135,13 @@ class MainContainer(private val context: Context) : IMainContainer {
return SensorsRepo(manager, displayManager)
}
override fun providePairedBluetoothDevices(): List<Pair<String, String>> = buildList {
try {
val manager = context.getSystemService(Context.BLUETOOTH_SERVICE) as BluetoothManager
manager.adapter?.bondedDevices?.forEach { add(Pair(it.name ?: "Unknown", it.address ?: "")) }
} catch (_: SecurityException) {}
}
private fun provideDatabaseRepo(): IDatabaseRepo {
val dbDispatcher = Dispatchers.Default
val dataParser = DataParser(dbDispatcher)
@@ -169,10 +151,7 @@ class MainContainer(private val context: Context) : IMainContainer {
private fun provideLocalSource(): ILocalSource {
val builder = Room.databaseBuilder(context, Look4SatDb::class.java, "Look4SatDBv400")
val database = builder
.addMigrations(MIGRATION_1_2, MIGRATION_2_3)
.fallbackToDestructiveMigration(false)
.build()
val database = builder.fallbackToDestructiveMigration(false).build()
return LocalSource(database.look4SatDao())
}
@@ -1,288 +0,0 @@
package com.rtbishop.look4sat.core.data.repository
import com.rtbishop.look4sat.core.domain.model.AmSatReportSubmission
import com.rtbishop.look4sat.core.domain.model.AmSatReportSubmitResult
import com.rtbishop.look4sat.core.domain.model.SatDay
import com.rtbishop.look4sat.core.domain.model.SatReport
import com.rtbishop.look4sat.core.domain.model.SatSlot
import com.rtbishop.look4sat.core.domain.model.SatStatus
import com.rtbishop.look4sat.core.domain.model.SatStatusPage
import com.rtbishop.look4sat.core.domain.repository.IAmSatRepository
import com.rtbishop.look4sat.core.domain.source.IRemoteSource
import kotlinx.coroutines.CoroutineScope
import kotlinx.coroutines.Deferred
import kotlinx.coroutines.Dispatchers
import kotlinx.coroutines.SupervisorJob
import kotlinx.coroutines.async
import kotlinx.coroutines.sync.Mutex
import kotlinx.coroutines.sync.withLock
import kotlinx.coroutines.withContext
import org.json.JSONObject
import java.text.SimpleDateFormat
import java.util.Calendar
import java.util.Date
import java.util.Locale
import java.util.TimeZone
/** One report from the AMSAT API (data layer model). */
private data class ApiReport(
val id: String,
val name: String,
val callsign: String,
val report: String,
val gridSquare: String,
val reportedTimeUtcSec: Long
)
/** AMSAT status repository using RemoteSource (Clean Architecture: data layer handles HTTP). */
class AmSatRepository(
private val remoteSource: IRemoteSource,
private val scope: CoroutineScope = CoroutineScope(SupervisorJob() + Dispatchers.IO)
) : IAmSatRepository {
private val statusCacheMutex = Mutex()
@Volatile
private var statusCache: SatStatusPage? = null
@Volatile
private var statusFetchInFlight: Deferred<SatStatusPage?>? = null
@Volatile
private var cacheGeneration = 0
private val isoUtcFormat = SimpleDateFormat("yyyy-MM-dd'T'HH:mm:ss'Z'", Locale.US).apply {
timeZone = TimeZone.getTimeZone("UTC")
}
override fun getCachedStatus(): SatStatusPage? = statusCache
override suspend fun fetchStatus(forceRefresh: Boolean): SatStatusPage? {
if (!forceRefresh) statusCache?.let { return it }
var cachedPage: SatStatusPage? = null
val inFlightFetch = statusCacheMutex.withLock {
if (!forceRefresh) {
val cached = statusCache
if (cached != null) {
cachedPage = cached
return@withLock null
}
}
statusFetchInFlight ?: scope.async(Dispatchers.IO) {
fetchStatusFromRemote(cacheGeneration)
}.also { statusFetchInFlight = it }
}
cachedPage?.let { return it }
val fetch = inFlightFetch ?: return null
return try {
fetch.await()
} finally {
statusCacheMutex.withLock {
if (statusFetchInFlight === fetch && fetch.isCompleted) statusFetchInFlight = null
}
}
}
private suspend fun fetchStatusFromRemote(generation: Int): SatStatusPage? {
val nowSec = System.currentTimeMillis() / 1000
val catalogJson = remoteSource.getAmSatCatalog() ?: return null
// 72h = 3 days; API hard cap is limit=500 regardless of what we send.
// 500 records across ~100 catalog satellites ≈ ~1-5 reports/satellite/day — enough for 3 days.
// Upgrade path: paginate or request AMSAT to raise the cap if catalog grows beyond ~200 sats.
val reportsJson = remoteSource.getAmSatReports(hours = 72, limit = 500) ?: return null
val names = parseCatalog(catalogJson)
val reports = parseReports(reportsJson)
if (names.isEmpty() && reports.isEmpty()) return null
val statuses = buildStatuses(names, reports, nowSec)
val reportMap = reports.associate { it.id to toSatReport(it) }
return SatStatusPage(System.currentTimeMillis(), statuses, reportMap).also { page ->
if (generation == cacheGeneration) statusCache = page
}
}
override suspend fun prefetchStatus() {
fetchStatus(forceRefresh = false)
}
override fun clearStatusCache() {
cacheGeneration += 1
statusCache = null
statusFetchInFlight = null
}
override suspend fun submitReport(submission: AmSatReportSubmission): AmSatReportSubmitResult = withContext(Dispatchers.IO) {
val payload = JSONObject().apply {
put("name", submission.name)
put("report", submission.report)
put("callsign", submission.callsign)
put("reported_at", isoUtcFormat.format(Date(submission.reportedAtUtcMillis)))
if (submission.gridSquare.isNotBlank()) put("grid_square", submission.gridSquare)
}
val response = remoteSource.submitAmSatReport(payload.toString())
?: return@withContext AmSatReportSubmitResult(success = false, message = "Network request failed")
val (code, body) = response
val errorMessage = parseSubmitError(body)
return@withContext if (code in 200..299 && errorMessage.isBlank()) {
AmSatReportSubmitResult(success = true, reportId = parseSubmitReportId(body))
} else {
AmSatReportSubmitResult(
success = false,
message = errorMessage.ifBlank { "HTTP $code" }
)
}
}
private fun parseSubmitError(json: String): String {
return try {
JSONObject(json).optJSONObject("error")?.optString("message").orEmpty()
} catch (_: Exception) {
""
}
}
private fun parseSubmitReportId(json: String): String? {
return try {
val obj = JSONObject(json)
obj.optJSONObject("data")?.optString("id")?.takeIf { it.isNotBlank() }
?: obj.optString("id").takeIf { it.isNotBlank() }
} catch (_: Exception) {
null
}
}
/** Parse catalog JSON to list of satellite names */
private fun parseCatalog(json: String): List<String> {
return try {
val arr = JSONObject(json).getJSONArray("data")
(0 until arr.length()).map { arr.getJSONObject(it).getString("name") }
} catch (_: Exception) {
emptyList()
}
}
/** Parse reports JSON to list of ApiReport domain objects */
private fun parseReports(json: String): List<ApiReport> {
return try {
val arr = JSONObject(json).getJSONArray("data")
(0 until arr.length()).mapNotNull { i ->
val o = arr.getJSONObject(i)
val iso = o.optString("reported_time", "")
if (iso.isEmpty()) null else ApiReport(
id = o.optString("id", ""),
name = o.optString("name", ""),
callsign = o.optString("callsign", ""),
report = o.optString("report", ""),
gridSquare = o.optString("grid_square", ""),
reportedTimeUtcSec = parseIsoUtcSec(iso)
)
}
} catch (_: Exception) {
emptyList()
}
}
/** Parse ISO 8601 UTC timestamp to epoch seconds (e.g., "2026-08-05T07:30:00Z") */
private fun parseIsoUtcSec(iso: String): Long {
return try {
(isoUtcFormat.parse(iso)?.time ?: 0L) / 1000
} catch (_: Exception) {
0L
}
}
/** Build one SatStatus (3 days x 12 slots) per catalog satellite, slotting reports by age. */
private fun buildStatuses(names: List<String>, reports: List<ApiReport>, nowSec: Long): List<SatStatus> {
val byName = reports.groupBy { it.name }
val utc = Calendar.getInstance(TimeZone.getTimeZone("UTC"))
val labels = (0 until 3).map { d ->
utc.timeInMillis = (nowSec - d * 86400L) * 1000
formatDayLabel(utc)
}
return names.map { name ->
val slots = (0 until 36).map { slotIdx ->
val slotStart = nowSec - (slotIdx + 1) * 7200L
val slotEnd = nowSec - slotIdx * 7200L
val inSlot = byName[name].orEmpty().filter { it.reportedTimeUtcSec in slotStart until slotEnd }
if (inSlot.isEmpty()) {
SatSlot(statusColor = NO_REPORT_GRAY, count = 0)
} else {
val newest = inSlot.maxByOrNull { it.reportedTimeUtcSec }!!
SatSlot(
statusColor = statusColorOf(newest.report),
count = inSlot.size,
reportIds = inSlot.map { it.id }
)
}
}
val days = (0 until 3).map { d ->
// 当天最近连续相同状态报告数:从最新一条往回数,遇状态不同即停。
// 空时段(无报告)不打断;按状态文本严格比较,不跨天。
val dayStart = nowSec - (d + 1) * 86400L
val dayEnd = nowSec - d * 86400L
val dayReports = byName[name].orEmpty()
.filter { it.reportedTimeUtcSec in dayStart until dayEnd }
.sortedByDescending { it.reportedTimeUtcSec }
val streakCount = if (dayReports.isEmpty()) 0 else {
val newestStatus = dayReports.first().report
dayReports.takeWhile { it.report == newestStatus }.size
}
SatDay(
dateLabel = labels[d],
slots = slots.subList(d * 12, (d + 1) * 12),
streakCount = streakCount
)
}
SatStatus(name = name, days = days)
}
}
private fun formatDayLabel(calendar: Calendar): String {
return if (Locale.getDefault().language == Locale.CHINESE.language) {
"${calendar.get(Calendar.MONTH) + 1}月${calendar.get(Calendar.DAY_OF_MONTH)}日"
} else {
val monthAbbr = arrayOf("Jan", "Feb", "Mar", "Apr", "May", "Jun", "Jul", "Aug", "Sep", "Oct", "Nov", "Dec")
"${monthAbbr[calendar.get(Calendar.MONTH)]} ${calendar.get(Calendar.DAY_OF_MONTH)}"
}
}
private fun toSatReport(r: ApiReport): SatReport {
val cal = Calendar.getInstance(TimeZone.getTimeZone("UTC"))
cal.timeInMillis = r.reportedTimeUtcSec * 1000
val hh = cal.get(Calendar.HOUR_OF_DAY).toString().padStart(2, '0')
val mm = cal.get(Calendar.MINUTE).toString().padStart(2, '0')
val y = cal.get(Calendar.YEAR)
val mo = (cal.get(Calendar.MONTH) + 1).toString().padStart(2, '0')
val d = cal.get(Calendar.DAY_OF_MONTH).toString().padStart(2, '0')
return SatReport(
id = r.id,
statusText = r.report,
call = r.callsign,
grid = r.gridSquare,
dateUtc = "$y-$mo-$d",
timeUtc = "$hh:$mm UTC"
)
}
/** Map status text to color value (for UI rendering). */
private fun statusColorOf(report: String): Long = when (report.lowercase()) {
"heard", "crew active" -> ACTIVE_BLUE
"telemetry only" -> TLM_ORANGE
"not heard" -> NOT_HEARD_PINK
else -> CONFLICT_DEEP_ORANGE
}
companion object {
// AMSAT official status colors (from amsat.org/status)
private const val ACTIVE_BLUE = 0xFF648FFF
private const val TLM_ORANGE = 0xFFFFB000
private const val NOT_HEARD_PINK = 0xFFDC267F
private const val CONFLICT_DEEP_ORANGE = 0xFFFE6100
private const val NO_REPORT_GRAY = 0xFFC0C0C0
}
}
@@ -23,7 +23,6 @@ import com.rtbishop.look4sat.core.domain.repository.IDatabaseRepo
import com.rtbishop.look4sat.core.domain.repository.ISettingsRepo
import com.rtbishop.look4sat.core.domain.source.ILocalSource
import com.rtbishop.look4sat.core.domain.source.IRemoteSource
import com.rtbishop.look4sat.core.domain.source.NetworkResult
import com.rtbishop.look4sat.core.domain.source.Sources
import com.rtbishop.look4sat.core.domain.utility.DataParser
import kotlinx.coroutines.CoroutineDispatcher
@@ -48,7 +47,6 @@ class DatabaseRepo(
remoteSource.getFileStream(uri)?.let { stream ->
val entries = parseSatelliteStream(uri, unwrapIfZipped(uri, stream))
localSource.insertEntries(entries)
settingsRepo.setSatelliteTypeIds(customSourceType, entries.map { it.catnum })
importedCount = entries.size
}
setUpdateSuccessful(System.currentTimeMillis())
@@ -59,7 +57,7 @@ class DatabaseRepo(
var importedCount = 0
remoteSource.getFileStream(uri)?.let { stream ->
val transceivers = dataParser.parseJSONStream(unwrapIfZipped(uri, stream))
localSource.insertRadios(transceivers, isCustom = true)
localSource.insertRadios(transceivers)
importedCount = transceivers.size
}
setUpdateSuccessful(System.currentTimeMillis())
@@ -67,139 +65,37 @@ class DatabaseRepo(
}
override suspend fun updateFromRemote() = withContext(dispatcher) {
val settings = settingsRepo.dataSourcesSettings.value
// Keep the raw URL as the status key (matches what the settings UI
// displays) while requesting with the normalized URL.
val tleUrls = settings.satelliteUrls
.filterIndexed { i, url -> url.isNotBlank() && settings.isSatelliteEnabled(i) }
.map { it to normalizeUrl(it) }
.distinctBy { it.second }
val radioUrls = settings.transceiversUrls
.filterIndexed { i, url -> url.isNotBlank() && settings.isTransceiverEnabled(i) }
.map { it to normalizeUrl(it) }
.distinctBy { it.second }
val builtinTypesByUrl = Sources.satelliteDataUrls
.filterValues { it.isNotBlank() }
.mapValues { normalizeUrl(it.value) }
.entries
.associate { (type, url) -> url to type }
val importedTypeIds = mutableMapOf<String, MutableList<Int>>()
// launch all network requests concurrently, keeping the raw url as key for status reporting
val tleJobs = tleUrls.map { (raw, norm) -> async { raw to remoteSource.getNetworkStream(norm) } }
val radioJobs = radioUrls.map { (raw, norm) -> async { raw to remoteSource.getNetworkStream(norm) } }
val tleResults = tleJobs.awaitAll()
val radioResults = radioJobs.awaitAll()
// report the HTTP status code of every source (200, 404, ...)
settingsRepo.updateDataSourcesStatus(
(tleResults + radioResults).associate { (url, result) -> url to result.code }
)
// parse fetched data concurrently and associate known built-in URLs with existing type filters.
val importedEntries = tleResults.flatMap { (rawUrl, result) ->
val normUrl = normalizeUrl(rawUrl)
val entries = result.stream?.let { parseSatelliteStream(normUrl, unwrapIfZipped(normUrl, it)) }.orEmpty()
val type = builtinTypesByUrl[normUrl] ?: customSourceType
importedTypeIds.getOrPut(type) { mutableListOf() }.addAll(entries.map { it.catnum })
entries
}.distinctBy { it.catnum }
importedTypeIds.forEach { (type, ids) -> settingsRepo.setSatelliteTypeIds(type, ids.distinct()) }
val importedRadios = radioResults.flatMap { (rawUrl, result) ->
val normUrl = normalizeUrl(rawUrl)
result.stream?.let { dataParser.parseJSONStream(unwrapIfZipped(normUrl, it)) }.orEmpty()
}.filter { it.uuid.isNotBlank() }.distinctBy { it.uuid }
// insert parsed data into the database.
// Transceivers are a full snapshot: sources publish active entries only, so a retired
// transceiver simply disappears from the feed and has to be dropped locally as well.
// Manually imported ones (isCustom) are kept: no source can refresh them, so nothing
// would bring them back if they were replaced here.
if (importedRadios.isNotEmpty()) {
localSource.deleteManagedRadios()
localSource.insertRadios(importedRadios)
val dataSourcesSettings = settingsRepo.dataSourcesSettings.value
val tleUrls = buildMap {
putAll(Sources.satelliteDataUrls)
if (dataSourcesSettings.useCustomTLE) put(customSourceType, dataSourcesSettings.tleUrl)
}.filterValues { it.isNotBlank() }
val radioUrls = buildMap {
putAll(Sources.transceiversDataUrls)
if (dataSourcesSettings.useCustomTransceivers) put(customSourceType, dataSourcesSettings.transceiversUrl)
}.filterValues { it.isNotBlank() }
// launch all network requests concurrently
val tleJobs = tleUrls.values.map { url -> async { url to remoteSource.getNetworkStream(url) } }
val radioJobs = radioUrls.values.map { url -> async { url to remoteSource.getNetworkStream(url) } }
// parse fetched data concurrently
val importedEntries = tleJobs.awaitAll().flatMap { (url, stream) ->
stream?.let { parseSatelliteStream(url, unwrapIfZipped(url, it)) }.orEmpty()
}
if (importedEntries.isNotEmpty()) localSource.insertEntries(importedEntries)
updateAmSatLiveLists()
val importedRadios = radioJobs.awaitAll().flatMap { (url, stream) ->
stream?.let { dataParser.parseJSONStream(unwrapIfZipped(url, it)) }.orEmpty()
}
// insert parsed data into the database
localSource.insertEntries(importedEntries)
localSource.insertRadios(importedRadios)
setUpdateSuccessful(System.currentTimeMillis())
}
/**
* Refresh the AMSAT Live FM/Linear satellite lists (transponders currently
* on the air). Best effort: any failure keeps the previous lists and never
* blocks the rest of the data update, so the mutual-match filter simply
* falls back to the last successful snapshot.
*/
private suspend fun updateAmSatLiveLists() = withContext(dispatcher) {
runCatching {
val entries = localSource.getEntriesList() // catnum -> name
val jobs = Sources.amSatLiveUrls.map { (type, url) ->
async { type to remoteSource.getNetworkStream(url) }
} + async { "Active" to fetchAmSatActiveStream() }
val results = jobs.awaitAll()
val fmNames = results.firstOrNull { it.first == "FM" }?.second?.stream
?.let { dataParser.parseAmSatLivePage(it) }.orEmpty()
val linearNames = results.firstOrNull { it.first == "Linear" }?.second?.stream
?.let { dataParser.parseAmSatLivePage(it) }.orEmpty()
// Amateur whitelist: a failed fetch yields an empty result, which
// must NOT wipe out the last good snapshot. Fall back to the
// persisted whitelist, and only persist when this fetch actually
// returned a stream.
val activeStream = results.firstOrNull { it.first == "Active" }?.second?.stream
val activeCatnums = activeStream
?.let { dataParser.parseAmSatActiveCatnums(it) }
.orEmpty()
.ifEmpty { settingsRepo.getAmSatActiveCatnums() }
if (activeStream != null) settingsRepo.setAmSatActiveCatnums(activeCatnums)
val nameToCatnum = entries.associate { it.name.uppercase() to it.catnum }
// Resolve every matching local entry per AMSAT name. A single match
// is kept as-is (so satellites absent from the amateur whitelist,
// e.g. JO-97/TO-108, are never dropped). Only when several local
// entries share the name (ISS station modules ZARYA/UNITY/ZVEZDA/
// DESTINY/NAUKA) is the whitelist used to pick the primary one.
fun resolvePerName(name: String): Set<Int> {
val keys = dataParser.normalizeAmSatName(name)
val all = nameToCatnum.filter { (localName, _) ->
dataParser.matchesAmSatName(localName, keys)
}.values.toSet()
if (all.size <= 1) return all
val preferred = all.intersect(activeCatnums)
if (preferred.isNotEmpty()) return preferred
// Whitelist unavailable: keep only the primary entry (smallest
// catnum — ISS ZARYA=25544 is the smallest of its five module
// entries) instead of admitting every alias (DESTINY etc.).
return setOf(all.minOrNull() ?: all.first())
}
// A failed FM/Linear page fetch yields an empty list here; keep the
// previous lists so a single network hiccup cannot wipe the filters.
val fmCatnums = fmNames.flatMap { resolvePerName(it) }.toSet()
.ifEmpty { settingsRepo.getAmSatFmCatnums() }
val linearCatnums = linearNames.flatMap { resolvePerName(it) }.toSet()
.ifEmpty { settingsRepo.getAmSatLinearCatnums() }
settingsRepo.setAmSatCatnums(fmCatnums, linearCatnums)
println("AMSAT live lists updated: FM=${fmCatnums.size}, Linear=${linearCatnums.size}, Active=${activeCatnums.size}")
}.onFailure {
// Keep the previous lists; the mutual filter stays on the last good snapshot.
println("AMSAT live lists update failed: $it")
}
}
/** Try the amateur-whitelist sources in order and return the first
* NetworkResult that carried a stream (or null if all failed). */
private suspend fun fetchAmSatActiveStream(): NetworkResult? {
for (url in Sources.amSatActiveUrls) {
val result = remoteSource.getNetworkStream(url)
if (result.stream != null) return result
}
return null
}
override suspend fun clearAllData() = withContext(dispatcher) {
localSource.deleteEntries()
localSource.deleteRadios()
settingsRepo.setAmSatCatnums(emptySet(), emptySet())
setUpdateSuccessful(0L)
}
private fun normalizeUrl(url: String): String =
if (url.startsWith("http", ignoreCase = true)) url else "https://$url"
private suspend fun parseSatelliteStream(url: String, stream: InputStream): List<OrbitalData> {
val bufferedStream = stream.buffered()
return when {
@@ -1,460 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.data.repository
import com.rtbishop.look4sat.core.domain.repository.ILoTWRepository
import com.rtbishop.look4sat.core.domain.repository.LoTWPhase
import com.rtbishop.look4sat.core.domain.repository.LoTWProgress
import com.rtbishop.look4sat.core.domain.repository.LoTWResult
import kotlinx.coroutines.Dispatchers
import kotlinx.coroutines.ensureActive
import kotlinx.coroutines.withContext
import kotlin.coroutines.coroutineContext
import java.net.HttpURLConnection
import java.net.SocketTimeoutException
import java.net.URL
import java.net.URLEncoder
import java.io.IOException
import javax.net.ssl.SSLException
/**
* Fetches confirmed gridsquares directly from ARRL LoTW via the official report endpoint:
* GET https://lotw.arrl.org/lotwuser/lotwreport.adi?login=<call>&password=<pwd>
* &qso_query=1&qso_qsl=yes&qso_qsldetail=yes&qso_mydetail=yes&qso_qslsince=<date>
*
* Only QSL_RCVD=Y records are returned by LoTW for qso_qsl=yes, so every grid in the
* report is a *confirmed* grid (green on the map). GRIDSQUARE may be a 4- or 6-char
* value; VUCC_GRIDS ("EN52en,EN53fa") also yields 4-char fields. All values are
* truncated/expanded to the 4-char form used by the map overlay.
*
* ARRL rate-limits the report endpoint: one download in progress per user id, and
* frequent full-report pulls get refused. Failures are reported with an explicit
* cause (see LoTWResult) so the UI can tell the user what to do next.
*/
class LoTWRepository : ILoTWRepository {
override suspend fun fetchConfirmedGrids(callsign: String, password: String): LoTWResult =
withContext(Dispatchers.IO) {
fetchReportBody(callsign, password, since = "", onProgress = {}).fold(
onSuccess = { body ->
parseBoth(body)?.let { (grids, _, roamed) ->
LoTWResult.Success(grids, emptyMap(), roamed)
} ?: LoTWResult.RateLimited
},
onFailure = { toResult(it) }
)
}
override suspend fun fetchConfirmedGridQsos(
callsign: String,
password: String,
since: String,
onProgress: (LoTWProgress) -> Unit
): LoTWResult = withContext(Dispatchers.IO) {
fetchReportBody(callsign, password, since, onProgress).fold(
onSuccess = { body ->
parseBoth(body)?.let { (grids, qsos, roamed) ->
LoTWResult.Success(grids, qsos, roamed)
} ?: LoTWResult.RateLimited
},
onFailure = { toResult(it) }
)
}
internal fun toResult(e: Throwable): LoTWResult = when (e) {
is CredentialsException -> LoTWResult.BadCredentials
is RateLimitException -> LoTWResult.RateLimited
is TimeoutException -> LoTWResult.Timeout
else -> LoTWResult.NetworkError(e.message ?: e.javaClass.simpleName)
}
/** Single report fetch feeding the grid set, the per-QSO detail and the roamed set. */
private fun parseBoth(
body: String
): Triple<Set<String>, Map<String, List<com.rtbishop.look4sat.core.domain.model.GridQso>>, Set<String>>? {
val grids = parseConfirmedGrids(body) ?: return null
val qsos = parseConfirmedGridQsos(body) ?: return null
val roamed = parseRoamedGrids(body) ?: return null
return Triple(grids, qsos, roamed)
}
private suspend fun fetchReportBody(
callsign: String,
password: String,
since: String,
onProgress: (LoTWProgress) -> Unit
): Result<String> {
val call = callsign.trim().uppercase()
val pwd = password.trim()
if (call.isBlank() || pwd.isBlank()) return Result.failure(IOException("empty credentials"))
// Empty since -> full report. qso_qslsince with an early date forces a
// FULL confirmed-QSL report; without it LoTW applies a "system supplied
// default" since-date and only returns confirmations newer than the
// account's last query — subsequent syncs would be incremental/empty.
val effectiveSince = since.ifBlank { "2000-01-01" }
val query = buildString {
append("login=").append(URLEncoder.encode(call, "UTF-8"))
append("&password=").append(URLEncoder.encode(pwd, "UTF-8"))
append("&qso_query=1&qso_qsl=yes&qso_qsldetail=yes&qso_mydetail=yes")
append("&qso_qslsince=").append(URLEncoder.encode(effectiveSince, "UTF-8"))
}
return try {
val connection = URL("$BASE_URL?$query").openConnection() as HttpURLConnection
// ARRL can be slow to accept connections from mobile networks
// (long TLS handshakes across the Pacific, occasional server-side
// queueing — a busy server took 36.5 s to accept a connection in
// testing, so 30 s connect would have killed it).
//
// NOTE: readTimeout is NOT a total-download cap. It is the longest
// wait for the NEXT chunk of data (a stall timeout). A full report
// for a huge account (tens of thousands of QSLs ≈ tens of MB at
// ARRL's ~10 KB/s stream rate) legitimately takes 30+ minutes;
// as long as chunks keep arriving it must never be cut off.
// 600 s tolerates long server-side pauses while it generates the
// report; a truly dead link (no data at all) still fails within it.
connection.connectTimeout = 60_000
connection.readTimeout = 600_000
connection.requestMethod = "GET"
connection.setRequestProperty("Accept-Encoding", "gzip")
connection.instanceFollowRedirects = true
onProgress(LoTWProgress(LoTWPhase.Connecting))
val code = connection.responseCode
if (code !in 200..299) {
connection.disconnect()
// Observed in the wild (CQRLOG #2422): LoTW answers a throttled
// report pull with HTTP 503 "Page request limit".
return if (code == 503 || code == 429) Result.failure(RateLimitException())
else Result.failure(IOException("HTTP $code"))
}
val stream = connection.inputStream
val isGzip = "gzip".equals(connection.contentEncoding, ignoreCase = true)
val body = readBodyWithProgress(stream, isGzip, onProgress)
connection.disconnect()
when {
// Login failure: HTTP 200 + HTML login page with the error text.
body.contains("incorrect", ignoreCase = true) &&
body.contains("assword", ignoreCase = true) -> Result.failure(CredentialsException())
// Any other non-ADIF body: rate-limit refusal / server error page.
!body.contains("<eoh>", ignoreCase = true) -> Result.failure(RateLimitException())
else -> Result.success(body)
}
} catch (e: java.util.concurrent.CancellationException) {
// Cancellation must propagate — it is not a network failure.
throw e
} catch (e: SocketTimeoutException) {
Result.failure(TimeoutException(e.message ?: "timed out"))
} catch (e: SSLException) {
Result.failure(IOException("TLS: ${e.message ?: "handshake failed"}"))
} catch (e: Exception) {
println("LoTWRepository fetch failure: $e")
Result.failure(IOException(e.message ?: e.javaClass.simpleName))
}
}
/**
* Streams the report body into a string while reporting download progress.
* Once the header's record count (<APP_LoTW_NUMREC>) is seen, the total
* body size is estimated as NUMREC * AVG_RECORD_BYTES so the UI can show a
* meaningful progress bar and remaining-time estimate.
*/
private suspend fun readBodyWithProgress(
stream: java.io.InputStream,
isGzip: Boolean,
onProgress: (LoTWProgress) -> Unit
): String {
val input = if (isGzip) java.util.zip.GZIPInputStream(stream) else stream
val reader = java.io.InputStreamReader(input, Charsets.UTF_8)
val sb = StringBuilder()
val buf = CharArray(8192)
var bytesRead = 0L
var expected = 0L
var qsoCount = 0L
var speed = 0L
var headerSeen = false
var lastSampleMs = System.currentTimeMillis()
var lastSampleBytes = 0L
var lastEmitMs = 0L
while (true) {
// Cooperative cancellation: lets the user abort a full sync that
// was started by mistake. Throws CancellationException once the
// job is cancelled; the blocking read below is fast while chunks
// keep arriving, so the abort lands on the next chunk boundary.
coroutineContext.ensureActive()
val n = reader.read(buf)
if (n <= 0) break
sb.append(buf, 0, n)
bytesRead += n
// The record count sits in the report header, long before the data.
if (!headerSeen) {
NUMREC_REGEX.find(sb)?.let { m ->
qsoCount = m.groupValues[1].toLongOrNull() ?: 0L
expected = qsoCount * AVG_RECORD_BYTES
headerSeen = true
}
}
// Sample speed every 500ms, EMA-smoothed.
val now = System.currentTimeMillis()
if (now - lastSampleMs >= 500) {
val elapsedS = (now - lastSampleMs) / 1000.0
if (elapsedS > 0) {
val inst = ((bytesRead - lastSampleBytes) / elapsedS).toLong()
speed = if (speed == 0L) inst else (speed * 7 + inst * 3) / 10
lastSampleMs = now
lastSampleBytes = bytesRead
}
}
// Throttle callbacks to ~4/s so StateFlow updates stay cheap.
if (now - lastEmitMs >= 250) {
onProgress(LoTWProgress(LoTWPhase.Downloading, bytesRead, expected, speed, qsoCount))
lastEmitMs = now
}
}
onProgress(LoTWProgress(LoTWPhase.Downloading, bytesRead, expected, speed, qsoCount))
return sb.toString()
}
internal class CredentialsException : Exception("bad callsign/password")
internal class RateLimitException : Exception("report refused (rate limit / server error)")
internal class TimeoutException(message: String) : Exception(message)
internal fun parseConfirmedGridQsos(
body: String
): Map<String, List<com.rtbishop.look4sat.core.domain.model.GridQso>>? {
if (!body.contains("<eoh>", ignoreCase = true)) return null
// One ADIF record = fields up to <EOR>. We buffer the fields we care
// about, then emit a GridQso on <EOR> when the record is a satellite
// QSO (PROP_MODE=SAT) carrying a grid.
val result = mutableMapOf<String, MutableList<com.rtbishop.look4sat.core.domain.model.GridQso>>()
var propMode: String? = null
var call = ""
var qsoDate = ""
var timeOn = ""
var satName = ""
var mode = ""
var bandUp = ""
var bandDown = ""
var dxcc: Int? = null
var country: String? = null
var cqz: Int? = null
var state: String? = null
var myGrid: String? = null
val gridsInRecord = mutableListOf<String>()
fun emitRecord() {
if (propMode != "SAT" || gridsInRecord.isEmpty()) return
val epochMs = adifTimestampToEpoch(qsoDate, timeOn)
val qso = com.rtbishop.look4sat.core.domain.model.GridQso(
call = call, epochMs = epochMs, satName = satName,
mode = mode, bandUp = bandUp, bandDown = bandDown,
dxcc = dxcc, country = country, cqz = cqz, state = state,
myGrid = myGrid
)
for (grid in gridsInRecord) {
result.getOrPut(grid) { mutableListOf() }.add(qso)
}
}
fun resetRecord() {
propMode = null; call = ""; qsoDate = ""; timeOn = ""
satName = ""; mode = ""; bandUp = ""; bandDown = ""
dxcc = null; country = null; cqz = null; state = null
myGrid = null
gridsInRecord.clear()
}
for (raw in body.lineSequence()) {
val line = raw.trim()
when {
line.equals("<EOR>", ignoreCase = true) -> {
emitRecord()
resetRecord()
}
line.startsWith("<PROP_MODE:") ->
propMode = adifValue(line).uppercase()
line.startsWith("<CALL:") ->
call = adifValue(line).uppercase()
line.startsWith("<QSO_DATE:") ->
qsoDate = adifValue(line)
line.startsWith("<TIME_ON:") ->
timeOn = adifValue(line)
line.startsWith("<SAT_NAME:") ->
satName = adifValue(line)
line.startsWith("<MODE:") ->
mode = adifValue(line)
line.startsWith("<BAND_RX:") ->
bandUp = adifValue(line).uppercase()
line.startsWith("<BAND:") && !line.startsWith("<BAND_RX:") ->
bandDown = adifValue(line).uppercase()
line.startsWith("<DXCC:") ->
dxcc = adifValue(line).toIntOrNull()
line.startsWith("<COUNTRY:") ->
country = adifValue(line).ifBlank { null }
line.startsWith("<CQZ:") ->
cqz = adifValue(line).toIntOrNull()
line.startsWith("<STATE:") ->
state = adifValue(line).trim().ifBlank { null }?.let { normalizeState(it) }
line.startsWith("<MY_GRIDSQUARE:") -> {
// Own-station grid (must not be confused with GRIDSQUARE —
// the opposite station's grid). Recorded per QSO so awards
// can be counted per operated grid.
val value = adifValue(line)
if (value.length >= 4) myGrid = value.take(4).uppercase()
}
line.startsWith("<GRIDSQUARE:") || line.startsWith("<VUCC_GRIDS:") -> {
// VUCC_GRIDS holds a comma-separated list of grids
// ("EN52en,EN53fa"), up to four for contacts spanning
// several squares; split and keep every 4-char field.
adifValue(line).split(',').forEach { grid ->
val field = grid.trim().uppercase()
if (field.length >= 4) gridsInRecord.add(field.take(4))
}
}
}
}
return result
}
/** ADIF field value: "<GRIDSQUARE:4>OL62" -> "OL62". */
private fun adifValue(line: String): String =
line.substringAfter('>').substringBefore("E<").trim()
/**
* LoTW returns STATE as "CODE // NAME" (e.g. "HB // Hubei" for China,
* "34 // Tottori-ken" for Japan, "CA // California" for the US). The award
* statistics match on the short CODE only (China 2-letter province pinyin,
* Japan 2-digit prefecture, US 2-letter state), so strip the " // NAME"
* suffix here once, storing the clean code for every downstream consumer
* (persistence, AwardCalculator).
*/
private fun normalizeState(raw: String): String = raw.substringBefore(" // ").trim()
/** "20260820" + "1130" (or "113000") -> UTC epoch ms; 0 when unparseable. */
private fun adifTimestampToEpoch(date: String, time: String): Long = try {
val d = date.trim()
val t = time.trim().padEnd(6, '0').take(6)
val fmt = java.time.format.DateTimeFormatterBuilder()
.appendPattern("yyyyMMddHHmmss")
.toFormatter()
.withZone(java.time.ZoneOffset.UTC)
java.time.Instant.from(fmt.parse(d + t)).toEpochMilli()
} catch (_: Exception) {
0L
}
internal fun parseConfirmedGrids(body: String): Set<String>? {
// LoTW answers with ADIF text; on bad credentials it returns a short error
// page without an <eoh> header terminator. Real reports always carry <eoh>
// (LoTW writes it lowercase). Match case-insensitively to be safe.
if (!body.contains("<eoh>", ignoreCase = true)) return null
val grids = mutableSetOf<String>()
// ADIF fields of one QSO record span multiple lines and are terminated by
// <EOR>. Satellite QSOs carry <PROP_MODE:3>SAT (plus <SAT_NAME>); ground
// QSOs omit it. Grid fields (GRIDSQUARE / VUCC_GRIDS) must only be
// collected for records whose PROP_MODE is SAT, otherwise the map mixes
// in terrestrial contacts.
//
// Buffered per-record pattern (same as parseConfirmedGridQsos): field order
// is NOT reliable — ADIF producers (incl. LoTW) emit fields alphabetically,
// so <GRIDSQUARE> (G) arrives BEFORE <PROP_MODE> (P) within a record. A
// sequential gate ("only add while propMode == SAT") silently drops every
// grid on real reports. Buffer the record and decide at <EOR> instead.
var propMode: String? = null
var pendingGrids = mutableListOf<String>()
for (raw in body.lineSequence()) {
val line = raw.trim()
when {
line.equals("<EOR>", ignoreCase = true) -> {
if (propMode == "SAT") grids.addAll(pendingGrids)
propMode = null
pendingGrids = mutableListOf()
}
line.startsWith("<PROP_MODE:") -> {
propMode = adifValue(line).uppercase()
}
line.startsWith("<GRIDSQUARE:") || line.startsWith("<VUCC_GRIDS:") -> {
// VUCC_GRIDS holds a comma-separated PAIR of grids
// ("EN52en,EN53fa") for contacts spanning two squares —
// split on ',' and take the 4-char field of each, or the
// second grid is silently dropped.
val value = adifValue(line)
value.split(',').forEach { grid ->
val field = grid.trim().uppercase()
if (field.length >= 4) pendingGrids.add(field.take(4))
}
}
}
}
return grids
}
/**
* Distinct 4-char gridsquares the account itself operated from, taken from
* ADIF <MY_GRIDSQUARE> of satellite QSO records only. This is the
* "roamed / activated" set shown as blue stripes on the map — the grids
* where the operator's own station was located during confirmed QSOs (a
* rover may log several distinct grids; the home grid is included too).
* Returns null when the body is not an ADIF report (mirrors the other parsers).
*/
internal fun parseRoamedGrids(body: String): Set<String>? {
if (!body.contains("<eoh>", ignoreCase = true)) return null
val grids = mutableSetOf<String>()
// Buffered per-record pattern (same as parseConfirmedGridQsos): field
// order is NOT reliable — ADIF producers (incl. LoTW) emit fields
// alphabetically, so <MY_GRIDSQUARE> (M) arrives BEFORE <PROP_MODE> (P)
// within a record. A sequential gate ("only add while propMode == SAT")
// would silently drop every own grid on real reports; buffer the record
// and decide at <EOR> instead.
var propMode: String? = null
var myGrid: String? = null
for (raw in body.lineSequence()) {
val line = raw.trim()
when {
line.equals("<EOR>", ignoreCase = true) -> {
if (propMode == "SAT" && myGrid != null) grids.add(myGrid)
propMode = null
myGrid = null
}
line.startsWith("<PROP_MODE:") -> {
propMode = adifValue(line).uppercase()
}
line.startsWith("<MY_GRIDSQUARE:") -> {
// MY_GRIDSQUARE must not be mistaken for GRIDSQUARE (the
// opposite station's grid) — only own-station grids count.
val value = adifValue(line)
if (value.length >= 4) myGrid = value.take(4)
}
}
}
return grids
}
private companion object {
const val BASE_URL = "https://lotw.arrl.org/lotwuser/lotwreport.adi"
/** Record count in the report header: `<APP_LoTW_NUMREC:4>2367`. */
val NUMREC_REGEX = Regex("<APP_LoTW_NUMREC:\\d+>(\\d+)")
/**
* Measured 2026-09-16 (BH6RJD, 2367 QSLs): 1.7 MB body streamed at
* ~9.5 KB/s ≈ 180 s, i.e. ≈ 720 bytes per ADIF record. Use a
* CONSERVATIVE (larger) estimate so the progress bar never hits 100%
* before the download truly ends — an under-estimate made the bar sit
* at 100% while data was still flowing, read as "finished but stuck".
*/
const val AVG_RECORD_BYTES = 900L
}
}
@@ -34,12 +34,10 @@ import kotlinx.coroutines.coroutineScope
import kotlinx.coroutines.delay
import kotlinx.coroutines.flow.MutableStateFlow
import kotlinx.coroutines.flow.StateFlow
import kotlinx.coroutines.flow.combine
import kotlinx.coroutines.flow.distinctUntilChanged
import kotlinx.coroutines.flow.map
import kotlinx.coroutines.flow.update
import kotlinx.coroutines.withContext
import java.util.TimeZone
import kotlin.time.Duration.Companion.milliseconds
class SatelliteRepo(
private val dispatcher: CoroutineDispatcher,
@@ -65,35 +63,20 @@ class SatelliteRepo(
override suspend fun getRadiosWithId(id: Int) = localStorage.getRadiosWithId(id)
override suspend fun getSatelliteIdsWithModes(modes: List<String>) = localStorage.getIdsWithModes(modes)
override suspend fun getSatelliteIdsWithModesAndUplink(modes: List<String>) = localStorage.getIdsWithModesAndUplink(modes)
override suspend fun getSatelliteIdsWithModesAndAmateur(modes: List<String>) = localStorage.getIdsWithModesAndAmateur(modes)
override suspend fun initRepository() = withContext(dispatcher) {
combine(
settingsRepo.selectedIds,
settingsRepo.stationPosition,
// Recalculate passes when the UTC display toggle changes, so an existing
// AOS time window is reapplied in the newly selected timezone.
settingsRepo.otherSettings.map { it.stateOfUtc }.distinctUntilChanged()
) { selectedIds, _, _ -> selectedIds }
.collect { selectedIds ->
_satellites.update { localStorage.getEntriesWithIds(selectedIds) }
val settings = settingsRepo.passesSettings.value
val now = System.currentTimeMillis()
// 历史过境: 回看窗口 hoursBefore 小时, 过境列表从更早时间开始计算.
calculatePasses(
time = now - settings.hoursBefore * 60L * 60L * 1000L,
hoursAhead = settings.hoursBefore + settings.hoursAhead,
minElevation = settings.minElevation,
aosStartMinute = settings.aosStartMinute,
aosEndMinute = settings.aosEndMinute,
invertAosTimeWindow = settings.invertAosTimeWindow,
modes = settings.selectedModes
)
}
settingsRepo.selectedIds.collect { selectedIds ->
_satellites.update { localStorage.getEntriesWithIds(selectedIds) }
val settings = settingsRepo.passesSettings.value
calculatePasses(
time = System.currentTimeMillis(),
hoursAhead = settings.hoursAhead,
minElevation = settings.minElevation,
aosStartMinute = settings.aosStartMinute,
aosEndMinute = settings.aosEndMinute,
invertAosTimeWindow = settings.invertAosTimeWindow,
modes = settingsRepo.selectedSatModes.value
)
}
}
override suspend fun getPosition(sat: OrbitalObject, pos: GeoPos, time: Long): OrbitalPos {
@@ -176,7 +159,7 @@ class SatelliteRepo(
}
}
newPasses.sortBy { it.aosTime }
delay(1000) // Simulate loading time for better UX
delay(1000.milliseconds) // Simulate loading time for better UX
_passes.update { newPasses }
}
_isCalculating.value = false
@@ -188,22 +171,13 @@ class SatelliteRepo(
aosEndMinute: Int,
invertAosTimeWindow: Boolean
): Boolean {
// Follow the UTC display toggle: with UTC enabled the window is interpreted
// in UTC, otherwise in the device's local timezone. Otherwise the pass list
// shows UTC times while the filter silently uses local time — the two
// disagree by the timezone offset (e.g. 8h for China).
val tz = if (settingsRepo.otherSettings.value.stateOfUtc) {
TimeZone.getTimeZone("UTC")
} else {
TimeZone.getDefault()
}
val offsetMillis = tz.getOffset(aosTime).toLong()
val offsetMillis = TimeZone.getDefault().getOffset(aosTime).toLong()
val localMillis = Math.floorMod(aosTime + offsetMillis, 24L * 60L * 60L * 1000L)
val aosMinute = (localMillis / 60_000L).toInt()
val inRange = if (aosStartMinute <= aosEndMinute) {
aosMinute in aosStartMinute..aosEndMinute
} else {
aosMinute >= aosStartMinute || aosMinute <= aosEndMinute
aosMinute !in (aosEndMinute + 1)..<aosStartMinute
}
return if (invertAosTimeWindow) !inRange else inRange
}
@@ -38,19 +38,17 @@ class SelectionRepo(
) : ISelectionRepo {
private val currentItems = MutableStateFlow<List<SatItem>>(emptyList())
private val currentTypes = MutableStateFlow(settingsRepo.selectedTypes.value)
private val currentQuery = MutableStateFlow("")
// Resolve type IDs once when types change, then filter items reactively.
// Resolve sat IDs once when modes change, then filter items reactively.
// The HashSet gives O(1) catnum lookups instead of O(n) with a List.
// The three virtual types ("AMSAT Live FM", "AMSAT Live Linear", "Live SSTV")
// are resolved from live transponder data instead of SharedPreferences.
private val itemsWithTypes = currentTypes.flatMapLatest { types: List<String> ->
val catnumSet: Set<Int>? = if (types.isEmpty()) {
// Directly observe settingsRepo.selectedSatModes to ensure real-time sync across screens.
private val itemsWithModes = settingsRepo.selectedSatModes.flatMapLatest { list: List<String> ->
val catnumSet: Set<Int>? = if (list.isEmpty()) {
null // null = no filtering
} else {
val ids = resolveTypeIds(types)
if (ids.isEmpty()) emptySet() else ids.toHashSet()
val ids = localSource.getIdsWithModes(list)
if (ids.isEmpty()) null else ids.toHashSet()
}
currentItems.map { items ->
if (catnumSet == null) items else items.filter { it.catnum in catnumSet }
@@ -58,47 +56,18 @@ class SelectionRepo(
}
private val itemsWithQuery = currentQuery.flatMapLatest { query ->
itemsWithTypes.map { items -> filterByQuery(items, query) }
}
override fun getCurrentTypes() = currentTypes.value
/**
* Resolves a list of type names to satellite catnums. The three virtual
* transponder/activity types are resolved from live data; all other types
* come from the per-type ID lists persisted by [ISettingsRepo].
*/
private suspend fun resolveTypeIds(types: List<String>): List<Int> {
val idsSet = mutableSetOf<Int>()
types.forEach { type ->
when (type) {
Sources.virtualTypeNames[0] -> idsSet.addAll(settingsRepo.getAmSatFmCatnums())
Sources.virtualTypeNames[1] -> idsSet.addAll(settingsRepo.getAmSatLinearCatnums())
// Live SSTV: mode=SSTV transponder records whose service class
// is "Amateur", excluding launcher debris / rocket bodies
// (names ending in "R/B" or "DEB" — e.g. Ariane 6 R/B) that
// carry an amateur payload transponder but are not satellites.
Sources.virtualTypeNames[2] -> {
val sstvIds = localSource.getIdsWithModesAndAmateur(listOf("SSTV")).toSet()
val inOrbitNames = currentItems.value.associate { it.catnum to it.name }
val filtered = sstvIds.filter { catnum ->
val name = inOrbitNames[catnum]?.uppercase().orEmpty()
!name.endsWith(" R/B") && !name.endsWith(" DEB") &&
!name.endsWith("R/B") && !name.endsWith("DEB")
}
idsSet.addAll(filtered)
}
else -> idsSet.addAll(settingsRepo.getSatelliteTypesIds(listOf(type)))
}
itemsWithModes.map { items ->
filterByQuery(items, query).sortedWith(
compareByDescending<SatItem> { it.isSelected }
.thenBy { it.name }
.thenBy { it.catnum }
)
}
return idsSet.toList()
}
override fun getTypesList() = buildList {
// 三个转发器/活动虚拟类型排在最前.
addAll(Sources.virtualTypeNames)
addAll(Sources.satelliteDataUrls.keys.sorted().toMutableList().apply { removeAt(0) })
}
override fun getCurrentModes() = settingsRepo.selectedSatModes.value
override fun getModesList() = Sources.satelliteModes
override suspend fun getEntriesFlow() = withContext(dispatcher) {
val selectedIds = settingsRepo.selectedIds.value.toHashSet()
@@ -108,9 +77,8 @@ class SelectionRepo(
return@withContext itemsWithQuery
}
override suspend fun setTypes(types: List<String>) {
currentTypes.value = types
settingsRepo.setSelectedTypes(types)
override suspend fun setModes(modes: List<String>) {
settingsRepo.setSelectedSatModes(modes)
}
override suspend fun setQuery(query: String) {
@@ -146,29 +114,12 @@ class SelectionRepo(
/**
* Filters items by query. Uses toIntOrNull() instead of exception-based flow,
* and lowercases the query once up front instead of per-item.
*
* Fuzzy search: the query is split into space-separated tokens and every
* token must appear in the satellite name after both sides are normalized
* (lowercased, non-alphanumeric separators such as dashes, spaces, brackets
* and dots stripped). This makes "ao7" match "AO-7 (AMSAT-OSCAR 7)" and
* "iss zarya" match "ISS (ZARYA)" — exact continuous-substring matching
* previously failed whenever the name contained a separator the query lacked.
*/
private fun filterByQuery(items: List<SatItem>, query: String): List<SatItem> {
if (query.isBlank()) return items
val catnum = query.toIntOrNull()
if (catnum != null) return items.filter { it.catnum == catnum }
val tokens = query.split(' ')
.map { normalizeForSearch(it) }
.filter { it.isNotEmpty() }
if (tokens.isEmpty()) return items
return items.filter { item ->
val normalizedName = normalizeForSearch(item.name)
tokens.all { normalizedName.contains(it) }
}
val lowerQuery = query.lowercase()
return items.filter { it.name.lowercase().contains(lowerQuery) }
}
/** Lowercases and strips all non-alphanumeric chars for fuzzy matching. */
private fun normalizeForSearch(text: String): String =
text.lowercase().filter { it.isLetterOrDigit() }
}
@@ -27,7 +27,6 @@ import android.view.Display
import android.view.Surface
import com.rtbishop.look4sat.core.domain.predict.GeoPos
import com.rtbishop.look4sat.core.domain.predict.RAD2DEG
import com.rtbishop.look4sat.core.domain.repository.CompassAccuracy
import com.rtbishop.look4sat.core.domain.repository.ISensorsRepo
import kotlinx.coroutines.flow.MutableStateFlow
import kotlinx.coroutines.flow.StateFlow
@@ -42,12 +41,7 @@ class SensorsRepo(
) : ISensorsRepo, SensorEventListener {
private val _sensorData = MutableStateFlow(Pair(0f, 0f))
private val rotationSensor: Sensor? = sensorManager.getDefaultSensor(Sensor.TYPE_ROTATION_VECTOR)
private val magneticSensor: Sensor? = sensorManager.getDefaultSensor(Sensor.TYPE_MAGNETIC_FIELD)
private val _compassAccuracy = MutableStateFlow(
if (rotationSensor == null || magneticSensor == null) CompassAccuracy.UNAVAILABLE
else CompassAccuracy.UNRELIABLE
)
private val sensor: Sensor? = sensorManager.getDefaultSensor(Sensor.TYPE_ROTATION_VECTOR)
private val rotationMatrix = FloatArray(9)
private val tempMatrix = FloatArray(9)
private val orientationValues = FloatArray(3)
@@ -56,7 +50,6 @@ class SensorsRepo(
private var hasInitialReading = false
override val sensorData: StateFlow<Pair<Float, Float>> = _sensorData
override val compassAccuracy: StateFlow<CompassAccuracy> = _compassAccuracy
override fun getMagDeclination(geoPos: GeoPos, time: Long): Float {
return GeomagneticField(
@@ -69,41 +62,15 @@ class SensorsRepo(
override fun enableSensor() {
hasInitialReading = false
if (rotationSensor == null || magneticSensor == null) {
_compassAccuracy.value = CompassAccuracy.UNAVAILABLE
return
}
_compassAccuracy.value = CompassAccuracy.UNRELIABLE
val rotationRegistered = sensorManager.registerListener(this, rotationSensor, SENSOR_RATE_US)
val magneticRegistered = sensorManager.registerListener(this, magneticSensor, SENSOR_RATE_US)
if (!rotationRegistered || !magneticRegistered) {
sensorManager.unregisterListener(this)
_compassAccuracy.value = CompassAccuracy.UNAVAILABLE
}
sensor?.let { sensorManager.registerListener(this, it, SENSOR_RATE_US) }
}
override fun disableSensor() = sensorManager.unregisterListener(this)
override fun onAccuracyChanged(sensor: Sensor, accuracy: Int) {
if (sensor.type == Sensor.TYPE_MAGNETIC_FIELD) {
updateAccuracy(accuracy)
}
}
override fun onAccuracyChanged(sensor: Sensor, accuracy: Int) = Unit
override fun onSensorChanged(event: SensorEvent) {
when (event.sensor.type) {
Sensor.TYPE_ROTATION_VECTOR -> handleSensorEvent(event)
Sensor.TYPE_MAGNETIC_FIELD -> updateAccuracy(event.accuracy)
}
}
private fun updateAccuracy(accuracy: Int) {
_compassAccuracy.value = when (accuracy) {
SensorManager.SENSOR_STATUS_ACCURACY_HIGH -> CompassAccuracy.HIGH
SensorManager.SENSOR_STATUS_ACCURACY_MEDIUM -> CompassAccuracy.MEDIUM
SensorManager.SENSOR_STATUS_ACCURACY_LOW -> CompassAccuracy.LOW
else -> CompassAccuracy.UNRELIABLE
}
if (event.sensor.type == Sensor.TYPE_ROTATION_VECTOR) handleSensorEvent(event)
}
private fun getDisplayRotation(): Int {
@@ -29,7 +29,6 @@ import com.rtbishop.look4sat.core.domain.model.OtherSettings
import com.rtbishop.look4sat.core.domain.model.PassesSettings
import com.rtbishop.look4sat.core.domain.model.RCSettings
import com.rtbishop.look4sat.core.domain.model.RadioControlSettings
import com.rtbishop.look4sat.core.domain.model.WavelogSettings
import com.rtbishop.look4sat.core.domain.predict.GeoPos
import com.rtbishop.look4sat.core.domain.repository.ISettingsRepo
import com.rtbishop.look4sat.core.domain.utility.positionToQth
@@ -38,10 +37,6 @@ import com.rtbishop.look4sat.core.domain.utility.round
import kotlinx.coroutines.flow.MutableStateFlow
import kotlinx.coroutines.flow.StateFlow
import kotlinx.coroutines.flow.update
import org.json.JSONObject
import java.util.Locale
import com.rtbishop.look4sat.core.domain.model.Constants
import com.rtbishop.look4sat.core.domain.source.Sources
class SettingsRepo(
private val locationManager: LocationManager,
@@ -58,7 +53,6 @@ class SettingsRepo(
private val keyBluetoothFrequencyFormat = "bluetoothFrequencyFormat"
private val keyFilterShowDeepSpace = "filterShowDeepSpace"
private val keyFilterHoursAhead = "filterHoursAhead"
private val keyFilterHoursBefore = "filterHoursBefore"
private val keyFilterMinElevation = "filterMinElevation"
private val keyFilterAosStartMinute = "filterAosStartMinute"
private val keyFilterAosEndMinute = "filterAosEndMinute"
@@ -73,20 +67,14 @@ class SettingsRepo(
private val keyFrequencyAddress = "frequencyAddress"
private val keyFrequencyPort = "frequencyPort"
private val keyFrequencyFormat = "frequencyFormat"
private val keyFrequencyOffsetHz = "frequencyOffsetHz"
private val keySelectedIds = "selectedIds"
private val keySelectedTypes = "selectedTypes"
private val keySelectedModes = "selectedModes"
private val keySelectedSatModes = "selectedSatModes"
private val keyStateOfAutoUpdate = "stateOfAutoUpdate"
private val keyStateOfAutoLotwSync = "stateOfAutoLotwSync"
private val keyStateOfSensors = "stateOfSensors"
private val keyCompassOffsetDegrees = "compassOffsetDegrees"
private val keyStateOfSweep = "stateOfSweep"
private val keyStateOfUtc = "stateOfUtc"
private val keyStateOfLightTheme = "stateOfLightTheme"
private val keyStateOfNightMode = "stateOfNightMode"
private val keyStateOfMapGrid = "stateOfMapGrid"
private val keyStateOfMapFirstCall = "stateOfMapFirstCall"
private val keyStationAltitude = "stationAltitude"
private val keyStationLatitude = "stationLatitude"
private val keyStationLongitude = "stationLongitude"
@@ -98,28 +86,19 @@ class SettingsRepo(
private val keySstvMode = "sstvMode"
private val keyLowElevation = "lowElevation"
private val keyHighElevation = "highElevation"
private val keyRadarCompassOffset = "radarCompassOffset"
private val keyRadarCompassOffsetElev = "radarCompassOffsetElev"
private val keyUseCustomTle = "useCustomTle"
private val keyUseCustomTransceivers = "useCustomTransceivers"
private val keyTleUrl = "tleUrl"
private val keyTransceiversUrl = "transceiversUrl"
private val keySatelliteUrls = "satelliteUrls"
private val keyTransceiversUrls = "transceiversUrls"
private val keySatelliteEnabled = "satelliteEnabled"
private val keyTransceiversEnabled = "transceiversEnabled"
private val keySatnogsTleSourceMigration = "satnogsTleSourceMigration"
private val keyAmSatFmCatnums = "amSatFmCatnums"
private val keyAmSatLinearCatnums = "amSatLinearCatnums"
private val keyAmSatActiveCatnums = "amSatActiveCatnums"
private val separatorComma = ","
private val separatorUrl = "\n"
private val legacyCelestrakSatnogsUrl =
"https://celestrak.org/NORAD/elements/gp.php?GROUP=satnogs&FORMAT=csv"
//region # Satellites selection settings
private val _satelliteSelection = MutableStateFlow(getSelectedIds())
private val _typesSelection = MutableStateFlow(getSelectedTypes())
private val _satelliteModeSelection = MutableStateFlow(getSelectedSatModes())
override val selectedIds: StateFlow<List<Int>> = _satelliteSelection
override val selectedTypes: StateFlow<List<String>> = _typesSelection
override val selectedSatModes: StateFlow<List<String>> = _satelliteModeSelection
override fun setSelectedIds(ids: List<Int>) {
val selectionString = ids.joinToString(separatorComma)
@@ -127,10 +106,10 @@ class SettingsRepo(
_satelliteSelection.value = ids
}
override fun setSelectedTypes(types: List<String>) {
val typesString = types.joinToString(separatorComma)
preferences.edit { putString(keySelectedTypes, typesString) }
_typesSelection.value = types
override fun setSelectedSatModes(modes: List<String>) {
val modesString = modes.joinToString(separatorComma)
preferences.edit { putString(keySelectedSatModes, modesString) }
_satelliteModeSelection.value = modes
}
private fun getSelectedIds(): List<Int> {
@@ -139,271 +118,41 @@ class SettingsRepo(
return selectionString.split(separatorComma).map { it.toInt() }
}
private fun getSelectedTypes(): List<String> {
val typesString = preferences.getString(keySelectedTypes, "Amateur")
if (typesString.isNullOrEmpty()) return emptyList()
return typesString.split(separatorComma)
private fun getSelectedSatModes(): List<String> {
val modesString = preferences.getString(keySelectedSatModes, null)
if (modesString.isNullOrEmpty()) return emptyList()
return modesString.split(separatorComma).sorted()
}
//endregion
//region # Wavelog worked-grids settings
private val keyWavelogUrl = "wavelogUrl"
private val keyWavelogToken = "wavelogToken"
private val keyWorkedGrids = "workedGrids"
private val _wavelogSettings = MutableStateFlow(getWavelogSettings())
override val wavelogSettings: StateFlow<WavelogSettings> = _wavelogSettings
override fun updateWavelogSettings(settings: WavelogSettings) {
preferences.edit {
putString(keyWavelogUrl, settings.url.trim())
putString(keyWavelogToken, settings.token.trim())
}
_wavelogSettings.value = settings.copy(url = settings.url.trim(), token = settings.token.trim())
}
private fun getWavelogSettings(): WavelogSettings = WavelogSettings(
url = preferences.getString(keyWavelogUrl, null).orEmpty(),
token = preferences.getString(keyWavelogToken, null).orEmpty()
)
override fun getWorkedGrids(): Set<String> {
val json = preferences.getString(keyWorkedGrids, null).orEmpty()
if (json.isBlank()) return emptySet()
return try {
val array = org.json.JSONArray(json)
(0 until array.length()).mapNotNull { i ->
array.optString(i).takeIf { it.isNotBlank() }
}.toSet()
} catch (_: Exception) {
emptySet()
}
}
override fun setWorkedGrids(grids: Set<String>) {
val array = org.json.JSONArray()
grids.sorted().forEach { array.put(it) }
preferences.edit { putString(keyWorkedGrids, array.toString()) }
}
// Confirmed satellite QSOs per worked gridsquare, persisted as a single JSON
// object: {"OL62":[{"c":call,"t":epochMs,"s":sat,"m":mode,"bu":up,"bd":down}]}.
private val keyWorkedGridQsos = "workedGridQsos"
override fun getWorkedGridQsos(): Map<String, List<com.rtbishop.look4sat.core.domain.model.GridQso>> {
val json = preferences.getString(keyWorkedGridQsos, null).orEmpty()
if (json.isBlank()) return emptyMap()
return try {
val root = org.json.JSONObject(json)
val result = mutableMapOf<String, List<com.rtbishop.look4sat.core.domain.model.GridQso>>()
for (grid in root.keys()) {
val array = root.optJSONArray(grid) ?: continue
val list = (0 until array.length()).mapNotNull { i ->
val o = array.optJSONObject(i) ?: return@mapNotNull null
com.rtbishop.look4sat.core.domain.model.GridQso(
call = o.optString("c"),
epochMs = o.optLong("t"),
satName = o.optString("s"),
mode = o.optString("m"),
bandUp = o.optString("bu"),
bandDown = o.optString("bd"),
// New award fields: absent in pre-award data -> null.
dxcc = o.optInt("dx", 0).takeIf { it > 0 },
country = o.optString("cty").ifBlank { null },
cqz = o.optInt("cq", 0).takeIf { it > 0 },
state = o.optString("st").ifBlank { null },
// Own-grid field: absent in pre-myGrid data -> null.
myGrid = o.optString("mg").ifBlank { null }
)
}
if (list.isNotEmpty()) result[grid] = list
}
result
} catch (_: Exception) {
emptyMap()
}
}
override fun setWorkedGridQsos(qsos: Map<String, List<com.rtbishop.look4sat.core.domain.model.GridQso>>) {
val root = org.json.JSONObject()
for ((grid, list) in qsos) {
val array = org.json.JSONArray()
for (q in list) {
array.put(
org.json.JSONObject()
.put("c", q.call)
.put("t", q.epochMs)
.put("s", q.satName)
.put("m", q.mode)
.put("bu", q.bandUp)
.put("bd", q.bandDown)
.put("dx", q.dxcc ?: 0)
.put("cty", q.country ?: "")
.put("cq", q.cqz ?: 0)
.put("st", q.state ?: "")
.put("mg", q.myGrid ?: "")
)
}
root.put(grid, array)
}
preferences.edit { putString(keyWorkedGridQsos, root.toString()) }
}
// Distinct 4-char gridsquares the account operated from (LoTW <MY_GRIDSQUARE>,
// satellite QSOs only). Stored as a JSONArray like workedGrids.
private val keyRoamedGrids = "roamedGrids"
override fun getRoamedGrids(): Set<String> {
val json = preferences.getString(keyRoamedGrids, null).orEmpty()
if (json.isBlank()) return emptySet()
return try {
val array = org.json.JSONArray(json)
(0 until array.length()).mapNotNull { i ->
array.optString(i).takeIf { it.isNotBlank() }
}.toSet()
} catch (_: Exception) {
emptySet()
}
}
override fun setRoamedGrids(grids: Set<String>) {
val array = org.json.JSONArray()
grids.sorted().forEach { array.put(it) }
preferences.edit { putString(keyRoamedGrids, array.toString()) }
}
// Marked stations in unworked gridsquares, persisted as a single JSON
// object: {"OL62":[{"c":call,"t":epochMs}, ...]}. Each grid holds an
// ordered list (first = pinned/top). v14.1 stored a single object per
// grid; reads transparently migrate that old shape to a one-element list.
private val keyMarkedGridStations = "markedGridStations"
override fun getMarkedGridStations(): Map<String, List<com.rtbishop.look4sat.core.domain.model.MarkedStation>> {
val json = preferences.getString(keyMarkedGridStations, null).orEmpty()
if (json.isBlank()) return emptyMap()
return try {
val root = org.json.JSONObject(json)
val result = mutableMapOf<String, List<com.rtbishop.look4sat.core.domain.model.MarkedStation>>()
for (grid in root.keys()) {
val value = root.opt(grid)
val list = when (value) {
// v14.2+ shape: JSON array of station objects.
is org.json.JSONArray -> (0 until value.length()).mapNotNull { i ->
val o = value.optJSONObject(i) ?: return@mapNotNull null
val call = o.optString("c").ifBlank { return@mapNotNull null }
com.rtbishop.look4sat.core.domain.model.MarkedStation(call = call, epochMs = o.optLong("t"))
}
// v14.1 legacy shape: a single station object per grid.
is org.json.JSONObject -> {
val call = value.optString("c").ifBlank { null }
if (call == null) emptyList()
else listOf(com.rtbishop.look4sat.core.domain.model.MarkedStation(call = call, epochMs = value.optLong("t")))
}
else -> emptyList()
}
if (list.isNotEmpty()) result[grid] = list
}
result
} catch (_: Exception) {
emptyMap()
}
}
override fun setMarkedGridStations(stations: Map<String, List<com.rtbishop.look4sat.core.domain.model.MarkedStation>>) {
val root = org.json.JSONObject()
for ((grid, list) in stations) {
val array = org.json.JSONArray()
for (station in list) {
array.put(
org.json.JSONObject()
.put("c", station.call)
.put("t", station.epochMs)
)
}
root.put(grid, array)
}
preferences.edit { putString(keyMarkedGridStations, root.toString()) }
}
// LoTW credentials (stored locally on the device only)
private val keyLoTWCall = "lotwCallsign"
private val keyLoTWPass = "lotwPassword"
override val lotwSettings: kotlinx.coroutines.flow.StateFlow<com.rtbishop.look4sat.core.domain.model.LoTWSettings>
get() = _lotwSettings
private val _lotwSettings = MutableStateFlow(getLoTWSettings())
override fun updateLoTWSettings(settings: com.rtbishop.look4sat.core.domain.model.LoTWSettings) {
preferences.edit {
putString(keyLoTWCall, settings.callsign.trim().uppercase())
putString(keyLoTWPass, settings.password)
}
_lotwSettings.value = settings.copy(
callsign = settings.callsign.trim().uppercase(),
password = settings.password
)
}
private fun getLoTWSettings(): com.rtbishop.look4sat.core.domain.model.LoTWSettings =
com.rtbishop.look4sat.core.domain.model.LoTWSettings(
callsign = preferences.getString(keyLoTWCall, null).orEmpty(),
password = preferences.getString(keyLoTWPass, null).orEmpty()
)
// Last successful sync bookkeeping: date ("yyyyMMdd") and callsign. Used to
// decide incremental (same callsign) vs full (first time / callsign change)
// report requests and to merge increments into the stored grid data.
private val keyLastLotwSyncDate = "lotwLastSyncDate"
private val keyLastLotwSyncCallsign = "lotwLastSyncCallsign"
override fun getLastLotwSyncDate(): String =
preferences.getString(keyLastLotwSyncDate, null).orEmpty()
override fun setLastLotwSyncDate(date: String) =
preferences.edit { putString(keyLastLotwSyncDate, date) }
override fun getLastLotwSyncCallsign(): String =
preferences.getString(keyLastLotwSyncCallsign, null).orEmpty()
override fun setLastLotwSyncCallsign(callsign: String) =
preferences.edit { putString(keyLastLotwSyncCallsign, callsign.trim().uppercase()) }
//endregion
//region # Transceivers settings
//region # Passes filter settings
private val _passesSettings = MutableStateFlow(getPassesSettings())
override val passesSettings: StateFlow<PassesSettings> = _passesSettings
override fun setPassesSettings(settings: PassesSettings) = preferences.edit {
putBoolean(keyFilterShowDeepSpace, settings.showDeepSpace)
putInt(keyFilterHoursAhead, settings.hoursAhead)
putInt(keyFilterHoursBefore, settings.hoursBefore)
putLong(keyFilterMinElevation, settings.minElevation.toRawBits())
putInt(keyFilterAosStartMinute, settings.aosStartMinute)
putInt(keyFilterAosEndMinute, settings.aosEndMinute)
putBoolean(keyFilterAosInvert, settings.invertAosTimeWindow)
putString(keySelectedModes, settings.selectedModes.joinToString(separatorComma))
_passesSettings.value = settings
}
private fun getPassesSettings(): PassesSettings {
val showDeepSpace = preferences.getBoolean(keyFilterShowDeepSpace, true)
val hoursAhead = preferences.getInt(keyFilterHoursAhead, 24)
val hoursBefore = preferences.getInt(keyFilterHoursBefore, 0).coerceIn(0, 240)
val minElevation = Double.fromBits(preferences.getLong(keyFilterMinElevation, 16.0.toRawBits()))
val aosStartMinute = preferences.getInt(keyFilterAosStartMinute, 0).coerceIn(0, 23 * 60 + 59)
val aosEndMinute = preferences.getInt(keyFilterAosEndMinute, 23 * 60 + 59).coerceIn(0, 23 * 60 + 59)
val invertAosTimeWindow = preferences.getBoolean(keyFilterAosInvert, false)
val selectedModesString = preferences.getString(keySelectedModes, null)
val selectedModes = selectedModesString?.split(separatorComma)?.sorted() ?: emptyList()
return PassesSettings(
showDeepSpace,
hoursAhead,
minElevation,
aosStartMinute,
aosEndMinute,
invertAosTimeWindow,
selectedModes,
hoursBefore
invertAosTimeWindow
)
}
//endregion
@@ -483,25 +232,6 @@ class SettingsRepo(
private val _databaseState = MutableStateFlow(getDatabaseState())
override val databaseState: StateFlow<DatabaseState> = _databaseState
override fun getSatelliteTypesIds(types: List<String>): List<Int> {
val idsSet = mutableSetOf<Int>()
types.forEach { type ->
val typeString = preferences.getString("type$type", null)
val typeIds = if (typeString.isNullOrBlank()) {
emptyList()
} else {
typeString.split(separatorComma).map { it.toInt() }
}
idsSet.addAll(typeIds)
}
return idsSet.toList()
}
override fun setSatelliteTypeIds(type: String, ids: List<Int>) {
if (type == "All") return
val typesString = ids.joinToString(separatorComma)
preferences.edit { putString("type$type", typesString) }
}
override fun updateDatabaseState(state: DatabaseState) = preferences.edit {
putInt(keyNumberOfSatellites, state.numberOfSatellites)
@@ -546,10 +276,6 @@ class SettingsRepo(
override val rcSettings: StateFlow<RCSettings> = _rcSettings
override fun updateRCSettings(settings: RCSettings) {
val clampedFreqOffsetHz = settings.frequencyOffsetHz.coerceIn(
Constants.FREQ_OFFSET_MIN_HZ,
Constants.FREQ_OFFSET_MAX_HZ
)
preferences.edit {
putBoolean(keyRotatorState, settings.rotatorState)
putString(keyRotatorAddress, settings.rotatorAddress)
@@ -559,7 +285,6 @@ class SettingsRepo(
putString(keyFrequencyAddress, settings.frequencyAddress)
putString(keyFrequencyPort, settings.frequencyPort)
putString(keyFrequencyFormat, settings.frequencyFormat)
putLong(keyFrequencyOffsetHz, clampedFreqOffsetHz)
putBoolean(keyBluetoothRotatorState, settings.bluetoothRotatorState)
putString(keyBluetoothRotatorFormat, settings.bluetoothRotatorFormat)
putString(keyBluetoothRotatorName, settings.bluetoothRotatorName)
@@ -568,7 +293,7 @@ class SettingsRepo(
putString(keyBluetoothFrequencyFormat, settings.bluetoothFrequencyFormat)
putString(keyBluetoothFrequencyAddress, settings.bluetoothFrequencyAddress)
}
_rcSettings.value = settings.copy(frequencyOffsetHz = clampedFreqOffsetHz)
_rcSettings.value = settings
}
private fun getRCSettings(): RCSettings = RCSettings(
@@ -580,8 +305,6 @@ class SettingsRepo(
frequencyAddress = preferences.getString(keyFrequencyAddress, null) ?: "127.0.0.1",
frequencyPort = preferences.getString(keyFrequencyPort, null) ?: "4532",
frequencyFormat = preferences.getString(keyFrequencyFormat, null) ?: $$"F $FREQ",
frequencyOffsetHz = preferences.getLong(keyFrequencyOffsetHz, 0L)
.coerceIn(Constants.FREQ_OFFSET_MIN_HZ, Constants.FREQ_OFFSET_MAX_HZ),
bluetoothRotatorState = preferences.getBoolean(keyBluetoothRotatorState, false),
bluetoothRotatorFormat = preferences.getString(keyBluetoothRotatorFormat, null) ?: $$"P $AZ $EL",
bluetoothRotatorName = preferences.getString(keyBluetoothRotatorName, null) ?: "Default",
@@ -601,20 +324,18 @@ class SettingsRepo(
val new = transform(current)
preferences.edit {
putBoolean(keyStateOfAutoUpdate, new.stateOfAutoUpdate)
putBoolean(keyStateOfAutoLotwSync, new.stateOfAutoLotwSync)
putBoolean(keyStateOfSensors, new.stateOfSensors)
putFloat(keyCompassOffsetDegrees, new.compassOffsetDegrees.coerceIn(-180f, 180f))
putBoolean(keyStateOfSweep, new.stateOfSweep)
putBoolean(keyStateOfUtc, new.stateOfUtc)
putBoolean(keyStateOfLightTheme, new.stateOfLightTheme)
putBoolean(keyStateOfNightMode, new.stateOfNightMode)
putBoolean(keyStateOfMapGrid, new.stateOfMapGrid)
putBoolean(keyStateOfMapFirstCall, new.stateOfMapFirstCall)
putBoolean(keyShouldSeeWarning, new.shouldSeeWarning)
putBoolean(keyShouldSeeWhatsNew, new.shouldSeeWhatsNew)
putString(keySstvMode, new.sstvMode)
putLong(keyLowElevation, new.lowElevation.toRawBits())
putLong(keyHighElevation, new.highElevation.toRawBits())
putFloat(keyRadarCompassOffset, new.radarCompassOffset)
putFloat(keyRadarCompassOffsetElev, new.radarCompassOffsetElev)
}
new
}
@@ -622,20 +343,18 @@ class SettingsRepo(
private fun getOtherSettings(): OtherSettings = OtherSettings(
stateOfAutoUpdate = preferences.getBoolean(keyStateOfAutoUpdate, true),
stateOfAutoLotwSync = preferences.getBoolean(keyStateOfAutoLotwSync, true),
stateOfSensors = preferences.getBoolean(keyStateOfSensors, true),
compassOffsetDegrees = preferences.getFloat(keyCompassOffsetDegrees, 0f).coerceIn(-180f, 180f),
stateOfSweep = preferences.getBoolean(keyStateOfSweep, true),
stateOfUtc = preferences.getBoolean(keyStateOfUtc, false),
stateOfLightTheme = preferences.getBoolean(keyStateOfLightTheme, false),
stateOfNightMode = preferences.getBoolean(keyStateOfNightMode, false),
stateOfMapGrid = preferences.getBoolean(keyStateOfMapGrid, false),
stateOfMapFirstCall = preferences.getBoolean(keyStateOfMapFirstCall, false),
shouldSeeWarning = preferences.getBoolean(keyShouldSeeWarning, true),
shouldSeeWhatsNew = preferences.getBoolean(keyShouldSeeWhatsNew, true),
sstvMode = preferences.getString(keySstvMode, null) ?: "Auto",
lowElevation = Double.fromBits(preferences.getLong(keyLowElevation, 15.0.toRawBits())),
highElevation = Double.fromBits(preferences.getLong(keyHighElevation, 45.0.toRawBits()))
highElevation = Double.fromBits(preferences.getLong(keyHighElevation, 45.0.toRawBits())),
radarCompassOffset = preferences.getFloat(keyRadarCompassOffset, 0f),
radarCompassOffsetElev = preferences.getFloat(keyRadarCompassOffsetElev, 0f)
)
//endregion
@@ -644,138 +363,21 @@ class SettingsRepo(
override val dataSourcesSettings: StateFlow<DataSourcesSettings> = _dataSourcesSettings
override fun updateDataSourcesSettings(settings: DataSourcesSettings) {
// Normalize the enabled lists so they are positionally aligned with the URL lists.
// Missing entries default to enabled (true), keeping the persisted "one flag per URL"
// invariant intact even when a default empty list is used to construct the model.
val normalized = settings.copy(
satelliteEnabled = alignFlags(settings.satelliteUrls, settings.satelliteEnabled),
transceiversEnabled = alignFlags(settings.transceiversUrls, settings.transceiversEnabled)
)
preferences.edit {
putString(keySatelliteUrls, normalized.satelliteUrls.joinToString(separatorUrl))
putString(keyTransceiversUrls, normalized.transceiversUrls.joinToString(separatorUrl))
putString(keySatelliteEnabled, normalized.satelliteEnabled.joinToString(separatorComma))
putString(keyTransceiversEnabled, normalized.transceiversEnabled.joinToString(separatorComma))
putBoolean(keySatnogsTleSourceMigration, true)
putBoolean(keyUseCustomTle, settings.useCustomTLE)
putBoolean(keyUseCustomTransceivers, settings.useCustomTransceivers)
putString(keyTleUrl, settings.tleUrl)
putString(keyTransceiversUrl, settings.transceiversUrl)
}
_dataSourcesSettings.value = normalized
_dataSourcesSettings.value = settings
}
private fun getDataSourcesSettings(): DataSourcesSettings = DataSourcesSettings(
satelliteUrls = getDataSourceUrls(
key = keySatelliteUrls,
defaultUrls = Sources.satelliteDataUrls.values.filter { it.isNotBlank() },
legacyEnabledKey = keyUseCustomTle,
legacyUrlKey = keyTleUrl
).migrateSatnogsTleSource(),
transceiversUrls = getDataSourceUrls(
key = keyTransceiversUrls,
defaultUrls = Sources.transceiversDataUrls.values.filter { it.isNotBlank() },
legacyEnabledKey = keyUseCustomTransceivers,
legacyUrlKey = keyTransceiversUrl
),
satelliteEnabled = readEnabledFlags(keySatelliteEnabled),
transceiversEnabled = readEnabledFlags(keyTransceiversEnabled)
useCustomTLE = preferences.getBoolean(keyUseCustomTle, false),
useCustomTransceivers = preferences.getBoolean(keyUseCustomTransceivers, false),
tleUrl = preferences.getString(keyTleUrl, "https://example.com/tle.txt") ?: "",
transceiversUrl = preferences.getString(keyTransceiversUrl, "https://example.com/radio.json") ?: ""
)
/** Read the persisted per-source enabled flags (empty when never stored). */
private fun readEnabledFlags(key: String): List<Boolean> {
return preferences.getString(key, null)
?.split(separatorComma)
?.mapNotNull { it.trim() }
?.filter { it == "true" || it == "false" }
?.map { it == "true" }
?: emptyList()
}
/** Keep the flags positionally aligned with the URL list, defaulting to enabled. */
private fun alignFlags(urls: List<String>, flags: List<Boolean>): List<Boolean> {
if (flags.size >= urls.size) return flags.take(urls.size)
return flags + List(urls.size - flags.size) { true }
}
private fun getDataSourceUrls(
key: String,
defaultUrls: List<String>,
legacyEnabledKey: String,
legacyUrlKey: String
): List<String> {
val stored = preferences.getString(key, null)
?.split(separatorUrl)
?.map { it.trim() }
?.filter { it.isNotBlank() }
if (stored != null) return stored
val legacyCustomUrl = preferences.getString(legacyUrlKey, null)?.trim().orEmpty()
return if (preferences.getBoolean(legacyEnabledKey, false) && legacyCustomUrl.isNotBlank()) {
(defaultUrls + legacyCustomUrl).distinct()
} else {
defaultUrls
}
}
private fun List<String>.migrateSatnogsTleSource(): List<String> {
if (preferences.getBoolean(keySatnogsTleSourceMigration, false)) return this
val satnogsTleUrl = Sources.satelliteDataUrls["SatNOGS"].orEmpty()
if (satnogsTleUrl.isBlank() || containsSourceUrl(satnogsTleUrl)) return this
val celestrakSatnogsIndex = indexOfFirst { isSameSourceUrl(it, legacyCelestrakSatnogsUrl) }
if (celestrakSatnogsIndex < 0) return this
val migrated = toMutableList().apply { add(celestrakSatnogsIndex + 1, satnogsTleUrl) }
preferences.edit {
putString(keySatelliteUrls, migrated.joinToString(separatorUrl))
putBoolean(keySatnogsTleSourceMigration, true)
}
return migrated
}
private fun List<String>.containsSourceUrl(url: String): Boolean = any { isSameSourceUrl(it, url) }
private fun isSameSourceUrl(first: String, second: String): Boolean =
normalizeSourceUrl(first).equals(normalizeSourceUrl(second), ignoreCase = true)
private fun normalizeSourceUrl(url: String): String {
val trimmed = url.trim()
return if (trimmed.startsWith("http", ignoreCase = true)) trimmed else "https://$trimmed"
}
//endregion
//region # Data sources status
private val _dataSourcesStatus = MutableStateFlow<Map<String, Int>>(emptyMap())
override val dataSourcesStatus: StateFlow<Map<String, Int>> = _dataSourcesStatus
override fun updateDataSourcesStatus(status: Map<String, Int>) {
_dataSourcesStatus.value = status
}
//endregion
//region # AMSAT live-transponder lists
override fun getAmSatFmCatnums(): Set<Int> {
val raw = preferences.getString(keyAmSatFmCatnums, null) ?: return emptySet()
return raw.split(separatorComma).mapNotNull { it.toIntOrNull() }.toSet()
}
override fun getAmSatLinearCatnums(): Set<Int> {
val raw = preferences.getString(keyAmSatLinearCatnums, null) ?: return emptySet()
return raw.split(separatorComma).mapNotNull { it.toIntOrNull() }.toSet()
}
override fun setAmSatCatnums(fmCatnums: Set<Int>, linearCatnums: Set<Int>) {
preferences.edit {
putString(keyAmSatFmCatnums, fmCatnums.sorted().joinToString(separatorComma))
putString(keyAmSatLinearCatnums, linearCatnums.sorted().joinToString(separatorComma))
}
}
override fun getAmSatActiveCatnums(): Set<Int> {
val raw = preferences.getString(keyAmSatActiveCatnums, null) ?: return emptySet()
return raw.split(separatorComma).mapNotNull { it.toIntOrNull() }.toSet()
}
override fun setAmSatActiveCatnums(catnums: Set<Int>) {
preferences.edit {
putString(keyAmSatActiveCatnums, catnums.sorted().joinToString(separatorComma))
}
}
//endregion
//region # Radio control settings
@@ -816,55 +418,4 @@ class SettingsRepo(
splitMode = preferences.getBoolean(keyRadioSplitMode, false)
)
//endregion
//region # Per-satellite calculator offset settings
private val keySatelliteOffsets = "satelliteOffsets"
private val keyLegacySatelliteOffsetPrefix = "offset_khz_"
override fun getSatelliteOffset(catnum: Int): String {
val json = preferences.getString(keySatelliteOffsets, "{}") ?: "{}"
val stored = try {
JSONObject(json).optString(catnum.toString(), "")
} catch (_: Exception) {
""
}
if (stored.isNotEmpty()) return stored
// Lazy migration from the fork's old UI-layer implementation, which stored
// one SharedPreferences entry per satellite directly from TransceiversPage.
val legacyKey = "$keyLegacySatelliteOffsetPrefix$catnum"
val legacy = preferences.getString(legacyKey, "").orEmpty()
if (legacy.isNotEmpty()) {
setSatelliteOffset(catnum, legacy)
}
return legacy
}
override fun setSatelliteOffset(catnum: Int, offset: String) {
val json = preferences.getString(keySatelliteOffsets, "{}") ?: "{}"
val updated = try {
val obj = JSONObject(json)
if (offset.isEmpty()) obj.remove(catnum.toString()) else obj.put(catnum.toString(), offset)
obj.toString()
} catch (_: Exception) {
if (offset.isEmpty()) "{}" else """{"$catnum": "$offset"}"""
}
preferences.edit {
putString(keySatelliteOffsets, updated)
remove("$keyLegacySatelliteOffsetPrefix$catnum")
}
}
//endregion
//region # AMSAT status report settings
private val keyAmSatCallsign = "amSatCallsign"
override fun getAmSatCallsign(): String {
return preferences.getString(keyAmSatCallsign, "").orEmpty()
}
override fun setAmSatCallsign(callsign: String) {
preferences.edit { putString(keyAmSatCallsign, callsign.trim().uppercase(Locale.US)) }
}
//endregion
}
@@ -1,106 +0,0 @@
package com.rtbishop.look4sat.core.data.repository
import com.rtbishop.look4sat.core.domain.model.LatestRelease
import com.rtbishop.look4sat.core.domain.repository.IUpdateRepository
import com.rtbishop.look4sat.core.domain.source.IRemoteSource
import kotlinx.coroutines.Dispatchers
import kotlinx.coroutines.withContext
import java.io.File
class UpdateRepository(
private val remoteSource: IRemoteSource
) : IUpdateRepository {
override suspend fun getLatestRelease(): LatestRelease? = withContext(Dispatchers.IO) {
// Use the GitHub releases web page instead of the REST API endpoint:
// the API endpoint is rate-limited to 60 requests/hour per IP, which is
// quickly exhausted on shared egress IPs (e.g. VPN proxies), causing 403
// failures. The web endpoint redirects to the latest tag with no such limit.
// When GitHub is unreachable (common on mainland-China networks without a
// proxy), fall back to community GitHub accelerator mirrors that proxy the
// same page; each mirror resolves the identical tag and asset URLs.
for (baseUrl in LATEST_RELEASE_URLS) {
val result = remoteSource.getNetworkStream(baseUrl)
val stream = result.stream ?: continue
val parsed = try {
parseRelease(stream.bufferedReader().use { it.readText() }, baseUrl)
} catch (e: Exception) {
println("UpdateRepository parse failure: $e")
null
}
if (parsed != null) return@withContext parsed
}
null
}
override suspend fun downloadApk(url: String, dest: File): Boolean = withContext(Dispatchers.IO) {
if (url.isBlank()) return@withContext false
val result = remoteSource.getNetworkStream(url)
val stream = result.stream ?: return@withContext false
try {
dest.outputStream().use { out -> stream.use { it.copyTo(out) } }
true
} catch (e: Exception) {
println("UpdateRepository download failure: $e")
false
}
}
private fun parseRelease(html: String, sourceUrl: String): LatestRelease? {
// The redirect target is the latest release's tag page. Extract the tag
// from the og:url meta tag ("…/releases/tag/v4.4.6-ba7opf.8") — stable and
// unambiguous. The <title> also holds the release name, but that is free
// text and cannot be used to build the asset URL.
val ogUrl = Regex("<meta\\s+property=\"og:url\"\\s+content=\"([^\"]*)\"").find(html)
?.groupValues?.get(1) ?: return null
val tag = Regex("/releases/tag/(v[0-9][0-9A-Za-z.\\-]*)$").find(ogUrl)
?.groupValues?.get(1) ?: return null
val title = Regex("<title>(.*?)</title>", RegexOption.DOT_MATCHES_ALL)
.find(html)?.groupValues?.get(1)?.trim()
?.substringBefore("·")?.removePrefix("Release")?.trim() ?: tag
// Release notes live in the page's markdown-body section (first occurrence
// is the release description). Strip HTML tags for plain-text display.
val raw = Regex("<div[^>]*class=\"[^\"]*markdown-body[^\"]*\"[^>]*>(.*?)</div>", RegexOption.DOT_MATCHES_ALL)
.find(html)?.groupValues?.get(1) ?: ""
val body = raw.replace(Regex("<[^>]+>"), "")
.replace("&lt;", "<").replace("&gt;", ">").replace("&amp;", "&")
.replace("&quot;", "\"").replace("&#39;", "'")
.trim()
// The release APK asset naming: Look4Sat-<tag without leading v>.apk
// (since v4.4.6-ba7opf.9.9 the releases are uploaded with the bare
// versioned filename, no "-release" suffix). When the page was fetched
// through an accelerator mirror (https://<mirror>/https://github.com/...),
// download through the same mirror — raw github.com is unreachable on the
// networks that needed the mirror in the first place.
val mirrorPrefix = sourceUrl.substringBefore("https://github.com")
val apkName = "Look4Sat-${tag.removePrefix("v")}.apk"
val apkUrl = if (mirrorPrefix.isEmpty()) {
"$DOWNLOAD_BASE_URL/$tag/$apkName"
} else {
"${mirrorPrefix}https://github.com/atsunatsu/Look4Sat/releases/download/$tag/$apkName"
}
return LatestRelease(
versionTag = tag,
title = title,
body = body,
apkUrl = apkUrl
)
}
private companion object {
// Web pages are used instead of api.github.com to avoid the 60 req/hour
// anonymous rate limit (see getLatestRelease above). The GitHub URL is
// tried first; if it is unreachable (no proxy on mainland networks) the
// accelerator mirrors are tried in order. Download URLs always point at
// the mirrors too — raw github.com release downloads are equally blocked
// without a proxy, so a mirror-resolved tag must be downloaded via the
// same mirror.
val LATEST_RELEASE_URLS = listOf(
"https://github.com/atsunatsu/Look4Sat/releases/latest",
"https://ghfast.top/https://github.com/atsunatsu/Look4Sat/releases/latest",
"https://gh.llkk.cc/https://github.com/atsunatsu/Look4Sat/releases/latest",
"https://github.moeyy.xyz/https://github.com/atsunatsu/Look4Sat/releases/latest"
)
const val DOWNLOAD_BASE_URL = "https://github.com/atsunatsu/Look4Sat/releases/download"
}
}
@@ -1,97 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.data.repository
import com.rtbishop.look4sat.core.domain.repository.IWavelogRepository
import kotlinx.coroutines.Dispatchers
import kotlinx.coroutines.withContext
import org.json.JSONArray
import org.json.JSONObject
/**
* Fetches the list of worked gridsquares from a self-hosted Wavelog instance.
*
* Uses the Wavelog v1 API endpoint (verified against Wavelog 3.0.2):
* POST {base}/index.php/api/logbook_get_worked_grids
* Body: {"key": "<api key>", "logbook_id": "<logbook id>"}
* Response 201: JSON array of 4-char gridsquares, e.g. ["JN47","JO30"]
* (see Wavelog Api.php logbook_get_worked_grids / Api_model::get_grids_worked_in_logbook)
*
* The token field carries "<api_key>:<logbook_id>" so one credential line
* configures both values (the dialog explains this to the user).
*/
class WavelogRepository : IWavelogRepository {
override suspend fun fetchWorkedGrids(url: String, token: String): Set<String>? = withContext(Dispatchers.IO) {
val parts = token.trim().split(":")
val apiKey = parts.getOrNull(0)?.trim().orEmpty()
val logbookId = parts.getOrNull(1)?.trim().orEmpty()
if (url.isBlank() || apiKey.isBlank() || logbookId.isBlank()) return@withContext null
val base = url.trim().trimEnd('/')
val requestUrl = "$base/index.php/api/logbook_get_worked_grids"
try {
val connection = java.net.URL(requestUrl).openConnection() as java.net.HttpURLConnection
connection.connectTimeout = 10_000
connection.readTimeout = 15_000
connection.requestMethod = "POST"
connection.doOutput = true
connection.setRequestProperty("Content-Type", "application/json")
val body = JSONObject().apply {
put("key", apiKey)
put("logbook_id", logbookId)
}.toString().toByteArray()
connection.outputStream.use { it.write(body) }
val code = connection.responseCode
if (code !in 200..299) {
connection.disconnect()
return@withContext null
}
val response = connection.inputStream.bufferedReader().use { it.readText() }
connection.disconnect()
parseWorkedGrids(response)
} catch (e: Exception) {
println("WavelogRepository fetch failure: $e")
null
}
}
internal fun parseWorkedGrids(body: String): Set<String>? {
return try {
val array = when {
body.trimStart().startsWith("[") -> JSONArray(body)
else -> {
// Tolerate {"grids": [...]} wrappers too
JSONObject(body).optJSONArray("grids") ?: return null
}
}
val result = mutableSetOf<String>()
for (i in 0 until array.length()) {
val grid = array.optString(i, "").trim().uppercase()
// Keep only well-formed 4-character Maidenhead squares (e.g. OL62)
if (grid.length == 4 && grid[0] in 'A'..'R' && grid[1] in 'A'..'R'
&& grid[2] in '0'..'9' && grid[3] in '0'..'9'
) {
result.add(grid)
}
}
result
} catch (_: Exception) {
null
}
}
}
@@ -48,17 +48,15 @@ class LocalSource(private val look4SatDao: Look4SatDao) : ILocalSource {
override suspend fun deleteEntries() = look4SatDao.deleteEntries()
override suspend fun getIdsWithModes(modes: List<String>) = look4SatDao.getIdsWithModes(modes)
override suspend fun getIdsWithModesAndUplink(modes: List<String>) = look4SatDao.getIdsWithModesAndUplink(modes)
override suspend fun getIdsWithModesAndAmateur(modes: List<String>) = look4SatDao.getIdsWithModesAndAmateur(modes)
private fun FrameworkEntry.toDomain() = OrbitalData(
this.name, this.epoch, this.meanmo, this.eccn, this.incl,
this.raan, this.argper, this.meanan, this.catnum, this.bstar, this.ndot
this.raan, this.argper, this.meanan, this.catnum, this.bstar
)
private fun OrbitalData.toEntity() = FrameworkEntry(
this.name, this.epoch, this.meanmo, this.eccn, this.incl,
this.raan, this.argper, this.meanan, this.catnum, this.bstar, this.ndot
this.raan, this.argper, this.meanan, this.catnum, this.bstar
)
private fun List<OrbitalData>.toEntity() = this.map { item -> item.toEntity() }
@@ -75,24 +73,20 @@ class LocalSource(private val look4SatDao: Look4SatDao) : ILocalSource {
return look4SatDao.getRadiosWithId(id).toDomainRadios()
}
override suspend fun insertRadios(radios: List<SatRadio>, isCustom: Boolean) {
look4SatDao.insertRadios(radios.map { it.copy(isCustom = isCustom) }.toFrameworkRadios())
override suspend fun insertRadios(radios: List<SatRadio>) {
look4SatDao.insertRadios(radios.toFrameworkRadios())
}
override suspend fun deleteManagedRadios() = look4SatDao.deleteManagedRadios()
override suspend fun deleteRadios() = look4SatDao.deleteRadios()
private fun DomainRadio.toFramework() = FrameworkRadio(
this.uuid, this.info, this.isAlive, this.downlinkLow, this.downlinkHigh, this.downlinkMode,
this.uplinkLow, this.uplinkHigh, this.uplinkMode, this.isInverted, this.catnum,
this.service, this.isCustom
this.uplinkLow, this.uplinkHigh, this.uplinkMode, this.isInverted, this.catnum
)
private fun FrameworkRadio.toDomain() = DomainRadio(
this.uuid, this.info, this.isAlive, this.downlinkLow, this.downlinkHigh, this.downlinkMode,
this.uplinkLow, this.uplinkHigh, this.uplinkMode, this.isInverted, this.catnum,
this.service, this.isCustom
this.uplinkLow, this.uplinkHigh, this.uplinkMode, this.isInverted, this.catnum
)
private fun List<DomainRadio>.toFrameworkRadios() = this.map { radio -> radio.toFramework() }
@@ -20,13 +20,10 @@ package com.rtbishop.look4sat.core.data.source
import android.content.ContentResolver
import androidx.core.net.toUri
import com.rtbishop.look4sat.core.domain.source.IRemoteSource
import com.rtbishop.look4sat.core.domain.source.NetworkResult
import kotlinx.coroutines.CoroutineDispatcher
import kotlinx.coroutines.withContext
import okhttp3.MediaType.Companion.toMediaType
import okhttp3.OkHttpClient
import okhttp3.Request
import okhttp3.RequestBody.Companion.toRequestBody
import java.io.InputStream
class RemoteSource(
@@ -45,74 +42,19 @@ class RemoteSource(
}
}
override suspend fun getNetworkStream(url: String): NetworkResult = withContext(dispatcher) {
override suspend fun getNetworkStream(url: String): InputStream? = withContext(dispatcher) {
try {
val networkRequest = Request.Builder().url(url).build()
val response = httpClient.newCall(networkRequest).execute()
if (!response.isSuccessful) {
val code = response.code
response.close()
return@withContext NetworkResult(code, null)
return@withContext null
}
// Return the body stream directly as the caller is responsible for closing it.
// Closing the stream returns the connection to OkHttp's pool.
val body = response.body
if (body == null) {
response.close()
return@withContext NetworkResult(response.code, null)
}
NetworkResult(response.code, body.byteStream().buffered())
// Return the body stream directly as the caller is responsible for closing it
// That returns the connection to OkHttp's pool
response.body.byteStream().buffered()
} catch (exception: Exception) {
println("RemoteSource network stream exception: $exception")
NetworkResult(NetworkResult.CONNECTION_ERROR, null)
}
}
override suspend fun getAmSatCatalog(): String? = withContext(dispatcher) {
try {
val request = Request.Builder()
.url("https://www.amsat.org/status/api/v1/catalog.php")
.header("User-Agent", "Look4Sat")
.build()
httpClient.newCall(request).execute().use { response ->
if (!response.isSuccessful) return@use null
response.body.string()
}
} catch (exception: Exception) {
println("RemoteSource getAmSatCatalog exception: $exception")
null
}
}
override suspend fun getAmSatReports(hours: Int, limit: Int): String? = withContext(dispatcher) {
try {
val request = Request.Builder()
.url("https://www.amsat.org/status/api/v1/reports.php?hours=$hours&limit=$limit")
.header("User-Agent", "Look4Sat")
.build()
httpClient.newCall(request).execute().use { response ->
if (!response.isSuccessful) return@use null
response.body.string()
}
} catch (exception: Exception) {
println("RemoteSource getAmSatReports exception: $exception")
null
}
}
override suspend fun submitAmSatReport(payloadJson: String): Pair<Int, String>? = withContext(dispatcher) {
try {
val body = payloadJson.toRequestBody("application/json; charset=utf-8".toMediaType())
val request = Request.Builder()
.url("https://www.amsat.org/status/api/v1/reports.php")
.header("User-Agent", "Look4Sat")
.post(body)
.build()
httpClient.newCall(request).execute().use { response ->
response.code to response.body.string()
}
} catch (exception: Exception) {
println("RemoteSource submitAmSatReport exception: $exception")
null
}
}
@@ -1,171 +0,0 @@
package com.rtbishop.look4sat.core.data.repository
import com.rtbishop.look4sat.core.domain.model.SatStatus
import com.rtbishop.look4sat.core.domain.model.SatStatusPage
import com.rtbishop.look4sat.core.domain.source.IRemoteSource
import com.rtbishop.look4sat.core.domain.source.NetworkResult
import kotlinx.coroutines.async
import kotlinx.coroutines.delay
import kotlinx.coroutines.test.runTest
import org.junit.Assert.assertEquals
import org.junit.Assert.assertNull
import org.junit.Assert.assertSame
import org.junit.Test
import java.io.InputStream
import java.text.SimpleDateFormat
import java.util.Date
import java.util.Locale
import java.util.TimeZone
class AmSatRepositoryTest {
@Test
fun fetchStatusReturnsSeededCacheUntilCacheIsCleared() = runTest {
val remoteSource = FakeAmSatRemoteSource()
val repository = AmSatRepository(remoteSource)
val cachedPage = SatStatusPage(
fetchedAtUtcMs = 123L,
statuses = listOf(SatStatus(name = "AO-7", days = emptyList())),
reports = emptyMap()
)
repository.seedStatusCache(cachedPage)
val firstPage = repository.fetchStatus()
val secondPage = repository.fetchStatus()
assertSame(cachedPage, firstPage)
assertSame(cachedPage, secondPage)
assertSame(cachedPage, repository.getCachedStatus())
assertEquals(0, remoteSource.catalogRequests)
assertEquals(0, remoteSource.reportRequests)
repository.clearStatusCache()
assertNull(repository.getCachedStatus())
repository.fetchStatus()
assertEquals(1, remoteSource.catalogRequests)
assertEquals(1, remoteSource.reportRequests)
}
@Test
fun forceRefreshBypassesCachedPage() = runTest {
val remoteSource = FakeAmSatRemoteSource()
val repository = AmSatRepository(remoteSource)
repository.seedStatusCache(
SatStatusPage(
fetchedAtUtcMs = 123L,
statuses = listOf(SatStatus(name = "AO-7", days = emptyList())),
reports = emptyMap()
)
)
repository.fetchStatus(forceRefresh = true)
assertEquals(1, remoteSource.catalogRequests)
assertEquals(1, remoteSource.reportRequests)
}
@Test
fun fetchStatusSharesStartupPrefetchRequest() = runTest {
val remoteSource = FakeAmSatRemoteSource(responseDelayMillis = 50)
val repository = AmSatRepository(remoteSource)
val prefetch = async { repository.prefetchStatus() }
val pageFetch = async { repository.fetchStatus() }
prefetch.await()
val page = pageFetch.await()
assertSame(page, repository.getCachedStatus())
assertEquals(1, remoteSource.catalogRequests)
assertEquals(1, remoteSource.reportRequests)
}
@Test
fun buildStatusesStreakCountsConsecutiveSameStatusReportsPerDay() = runTest {
val nowSec = System.currentTimeMillis() / 1000
val remoteSource = FakeAmSatRemoteSource(
reportsJson = amSatReportsJson(
// 当天(day 0)最新槽(slot 0)混合状态:最新 Heard、次新 Heard、再旧 Not Heard → 连续=2
report("r1", "AO-7", "Heard", nowSec - 3600),
report("r2", "AO-7", "Heard", nowSec - 5400),
report("r3", "AO-7", "Not Heard", nowSec - 7000),
// 空时段(无报告)不打断:slot 8 的 Heard 更旧,不应计入(被 r3 打断)
report("r4", "AO-7", "Heard", nowSec - 63000),
// 前一天(day 1):最新 Heard,更旧的 Not Heard → 连续=1,且不跨天合并
report("r5", "AO-7", "Heard", nowSec - 90000),
report("r6", "AO-7", "Not Heard", nowSec - 100000)
// day 2 无报告 → 0
)
)
val repository = AmSatRepository(remoteSource)
val page = repository.fetchStatus()
val status = page?.statuses?.single()
assertEquals("AO-7", status?.name)
assertEquals(3, status?.days?.size)
assertEquals(2, status?.days?.get(0)?.streakCount)
assertEquals(1, status?.days?.get(1)?.streakCount)
assertEquals(0, status?.days?.get(2)?.streakCount)
}
@Test
fun buildStatusesStreakCountsAllReportsWhenStatusNeverChanges() = runTest {
val nowSec = System.currentTimeMillis() / 1000
val remoteSource = FakeAmSatRemoteSource(
reportsJson = amSatReportsJson(
report("r1", "AO-7", "Heard", nowSec - 1800),
report("r2", "AO-7", "Heard", nowSec - 3600),
report("r3", "AO-7", "Heard", nowSec - 5400),
report("r4", "AO-7", "Heard", nowSec - 30000)
)
)
val repository = AmSatRepository(remoteSource)
val page = repository.fetchStatus()
assertEquals(4, page?.statuses?.single()?.days?.get(0)?.streakCount)
}
}
private fun AmSatRepository.seedStatusCache(page: SatStatusPage) {
val cacheField = AmSatRepository::class.java.getDeclaredField("statusCache")
cacheField.isAccessible = true
cacheField.set(this, page)
}
private class FakeAmSatRemoteSource(
private val responseDelayMillis: Long = 0L,
private val reportsJson: String = """{"data":[]}"""
) : IRemoteSource {
var catalogRequests = 0
var reportRequests = 0
override suspend fun getFileStream(uri: String): InputStream? = null
override suspend fun getNetworkStream(url: String): NetworkResult = NetworkResult(404, null)
override suspend fun getAmSatCatalog(): String? {
if (responseDelayMillis > 0L) delay(responseDelayMillis)
catalogRequests += 1
return """{"data":[{"name":"AO-7"}]}"""
}
override suspend fun getAmSatReports(hours: Int, limit: Int): String? {
if (responseDelayMillis > 0L) delay(responseDelayMillis)
reportRequests += 1
return reportsJson
}
override suspend fun submitAmSatReport(payloadJson: String): Pair<Int, String>? = null
}
private fun amSatReportsJson(vararg reports: String): String =
"""{"data":[${reports.joinToString(",")}]}"""
private fun report(id: String, name: String, status: String, epochSec: Long): String =
"""{"id":"$id","name":"$name","callsign":"BA7OPF","report":"$status","grid_square":"OL62","reported_time":"${isoUtc(epochSec)}"}"""
private fun isoUtc(epochSec: Long): String =
SimpleDateFormat("yyyy-MM-dd'T'HH:mm:ss'Z'", Locale.US).apply {
timeZone = TimeZone.getTimeZone("UTC")
}.format(Date(epochSec * 1000))
@@ -19,7 +19,6 @@ package com.rtbishop.look4sat.core.data.repository
import com.rtbishop.look4sat.core.domain.model.DataSourcesSettings
import com.rtbishop.look4sat.core.domain.model.DatabaseState
import com.rtbishop.look4sat.core.domain.model.GridQso
import com.rtbishop.look4sat.core.domain.model.OtherSettings
import com.rtbishop.look4sat.core.domain.model.PassesSettings
import com.rtbishop.look4sat.core.domain.model.RCSettings
@@ -32,8 +31,6 @@ import com.rtbishop.look4sat.core.domain.predict.OrbitalObject
import com.rtbishop.look4sat.core.domain.repository.ISettingsRepo
import com.rtbishop.look4sat.core.domain.source.ILocalSource
import com.rtbishop.look4sat.core.domain.source.IRemoteSource
import com.rtbishop.look4sat.core.domain.source.NetworkResult
import com.rtbishop.look4sat.core.domain.source.Sources
import com.rtbishop.look4sat.core.domain.utility.DataParser
import kotlinx.coroutines.ExperimentalCoroutinesApi
import kotlinx.coroutines.flow.MutableStateFlow
@@ -65,7 +62,6 @@ class DatabaseRepoTest {
assertEquals(1, localSource.insertedEntries.size)
assertEquals(25544, localSource.insertedEntries.first().catnum)
assertEquals(listOf(25544), settingsRepo.satelliteTypeIdsByType["Other"])
assertTrue(settingsRepo.databaseState.value.numberOfSatellites > 0)
}
@@ -94,8 +90,10 @@ class DatabaseRepoTest {
}
val settingsRepo = FakeSettingsRepo(
dataSources = DataSourcesSettings(
satelliteUrls = listOf(customCsvUrl),
transceiversUrls = emptyList()
useCustomTLE = true,
useCustomTransceivers = false,
tleUrl = customCsvUrl,
transceiversUrl = ""
)
)
val repository = DatabaseRepo(dispatcher, dataParser, localSource, remoteSource, settingsRepo)
@@ -103,28 +101,6 @@ class DatabaseRepoTest {
repository.updateFromRemote()
assertTrue(localSource.insertedEntries.any { it.catnum == 25544 })
assertEquals(listOf(25544), settingsRepo.satelliteTypeIdsByType["Other"])
}
@Test
fun `remote update imports satellites from real SatNOGS TLE source`() = runTest(dispatcher) {
val satnogsUrl = Sources.satelliteDataUrls.getValue("SatNOGS")
val localSource = FakeLocalSource()
val remoteSource = FakeRemoteSource().apply {
networkStreams[satnogsUrl] = { jamxTleStream() }
}
val settingsRepo = FakeSettingsRepo(
dataSources = DataSourcesSettings(
satelliteUrls = listOf(satnogsUrl),
transceiversUrls = emptyList()
)
)
val repository = DatabaseRepo(dispatcher, dataParser, localSource, remoteSource, settingsRepo)
repository.updateFromRemote()
assertTrue(localSource.insertedEntries.any { it.name == "JAMX-0825b" && it.catnum == 98248 })
assertEquals(listOf(98248), settingsRepo.satelliteTypeIdsByType["SatNOGS"])
}
private fun validCsvStream(): InputStream = """
@@ -137,102 +113,6 @@ class DatabaseRepoTest {
1 25544U 98067A 21320.51955234 .00001288 00000+0 31985-4 0 9990
2 25544 51.6447 309.4881 0004694 203.6966 299.8876 15.48582035312205
""".trimIndent().byteInputStream()
private fun jamxTleStream(): InputStream = """
JAMX-0825b
1 98248U 26237.16675926 .00015724 00000-0 97477-3 0 00013
2 98248 097.5373 310.9694 0011309 278.1232 340.7230 15.09766181000012
""".trimIndent().byteInputStream()
@Test
fun `amsat fm list disambiguates ISS modules via persisted whitelist when active csv fetch fails`() =
runTest(dispatcher) {
val satnogsUrl = Sources.satelliteDataUrls.getValue("SatNOGS")
val localSource = FakeLocalSource()
val remoteSource = FakeRemoteSource().apply {
networkStreams[satnogsUrl] = { issModulesCsvStream() }
networkStreams[Sources.amSatLiveUrls.getValue("FM")] = { amsatFmPageStream() }
// Amateur-whitelist URLs intentionally NOT registered -> fetch fails.
}
val settingsRepo = FakeSettingsRepo(
dataSources = DataSourcesSettings(
satelliteUrls = listOf(satnogsUrl),
transceiversUrls = emptyList()
)
).apply { amSatActive = setOf(25544) } // whitelist persisted by an earlier good sync
val repository = DatabaseRepo(dispatcher, dataParser, localSource, remoteSource, settingsRepo)
repository.updateFromRemote()
// Whitelist fetch fails on both sources, but the persisted whitelist
// still disambiguates: only primary ISS (ZARYA) survives,
// ISS (DESTINY) = 26700 must NOT enter the FM list.
assertTrue(25544 in settingsRepo.amSatFm)
assertTrue(26700 !in settingsRepo.amSatFm)
}
@Test
fun `amsat fm list keeps only smallest catnum when whitelist never available`() = runTest(dispatcher) {
val satnogsUrl = Sources.satelliteDataUrls.getValue("SatNOGS")
val localSource = FakeLocalSource()
val remoteSource = FakeRemoteSource().apply {
networkStreams[satnogsUrl] = { issModulesCsvStream() }
networkStreams[Sources.amSatLiveUrls.getValue("FM")] = { amsatFmPageStream() }
}
val settingsRepo = FakeSettingsRepo(
dataSources = DataSourcesSettings(
satelliteUrls = listOf(satnogsUrl),
transceiversUrls = emptyList()
)
) // no persisted whitelist at all
val repository = DatabaseRepo(dispatcher, dataParser, localSource, remoteSource, settingsRepo)
repository.updateFromRemote()
// Without any whitelist, the multi-match collapse keeps the primary
// entry (smallest catnum = ISS ZARYA 25544), never every module alias.
assertEquals(setOf(25544), settingsRepo.amSatFm)
}
@Test
fun `amsat fm list keeps previous list when fm page fetch fails`() = runTest(dispatcher) {
val satnogsUrl = Sources.satelliteDataUrls.getValue("SatNOGS")
val localSource = FakeLocalSource()
val remoteSource = FakeRemoteSource().apply {
networkStreams[satnogsUrl] = { jamxTleStream() }
// FM page NOT registered -> 404 -> empty parse -> previous list retained.
}
val settingsRepo = FakeSettingsRepo(
dataSources = DataSourcesSettings(
satelliteUrls = listOf(satnogsUrl),
transceiversUrls = emptyList()
)
).apply { amSatFm = setOf(25544, 7530) } // list from an earlier good sync
val repository = DatabaseRepo(dispatcher, dataParser, localSource, remoteSource, settingsRepo)
repository.updateFromRemote()
assertEquals(setOf(25544, 7530), settingsRepo.amSatFm)
}
private fun issModulesCsvStream(): InputStream = """
OBJECT_NAME,OBJECT_ID,EPOCH,MEAN_MOTION,ECCENTRICITY,INCLINATION,RA_OF_ASC_NODE,ARG_OF_PERICENTER,MEAN_ANOMALY,EPHEMERIS_TYPE,CLASSIFICATION_TYPE,NORAD_CAT_ID,ELEMENT_SET_NO,REV_AT_EPOCH,BSTAR,MEAN_MOTION_DOT,MEAN_MOTION_DDOT
ISS (ZARYA),1998-067A,2021-11-16T12:28:09.322176,15.48582035,.0004694,51.6447,309.4881,203.6966,299.8876,0,U,25544,999,31220,.31985E-4,.1288E-4,0
ISS (UNITY),1998-067B,2021-11-16T12:28:09.322176,15.48582035,.0004694,51.6447,309.4881,203.6966,299.8876,0,U,25575,999,31220,.31985E-4,.1288E-4,0
ISS (ZVEZDA),1998-067C,2021-11-16T12:28:09.322176,15.48582035,.0004694,51.6447,309.4881,203.6966,299.8876,0,U,26400,999,31220,.31985E-4,.1288E-4,0
ISS (DESTINY),1998-067D,2021-11-16T12:28:09.322176,15.48582035,.0004694,51.6447,309.4881,203.6966,299.8876,0,U,26700,999,31220,.31985E-4,.1288E-4,0
ISS (NAUKA),1998-067E,2021-11-16T12:28:09.322176,15.48582035,.0004694,51.6447,309.4881,203.6966,299.8876,0,U,49044,999,31220,.31985E-4,.1288E-4,0
""".trimIndent().byteInputStream()
private fun amsatFmPageStream(): InputStream = """
<table class="has-background">
<thead><tr><th>Satellite</th><th>Uplink</th><th>Downlink</th><th>Comment</th></tr></thead>
<tbody>
<tr><td>ISS</td><td>145.990 MHz</td><td>437.800 MHz</td><td></td></tr>
<tr><td>AO-91(RadFxSat / Fox-1B)</td><td>435.250 MHz</td><td>145.960 MHz</td><td></td></tr>
</tbody>
</table>
""".trimIndent().byteInputStream()
}
private class FakeRemoteSource : IRemoteSource {
@@ -241,14 +121,7 @@ private class FakeRemoteSource : IRemoteSource {
override suspend fun getFileStream(uri: String): InputStream? = fileStreams[uri]?.invoke()
override suspend fun getNetworkStream(url: String): NetworkResult =
networkStreams[url]?.let { NetworkResult(200, it()) } ?: NetworkResult(404, null)
override suspend fun getAmSatCatalog(): String? = null
override suspend fun getAmSatReports(hours: Int, limit: Int): String? = null
override suspend fun submitAmSatReport(payloadJson: String): Pair<Int, String>? = null
override suspend fun getNetworkStream(url: String): InputStream? = networkStreams[url]?.invoke()
}
private class FakeLocalSource : ILocalSource {
@@ -257,8 +130,7 @@ private class FakeLocalSource : ILocalSource {
override suspend fun getEntriesTotal(): Int = insertedEntries.size
override suspend fun getEntriesList(): List<SatItem> =
insertedEntries.map { SatItem(it.catnum, it.name) }
override suspend fun getEntriesList(): List<SatItem> = emptyList()
override suspend fun getEntriesWithIds(ids: List<Int>): List<OrbitalObject> = emptyList()
@@ -271,19 +143,13 @@ private class FakeLocalSource : ILocalSource {
}
override suspend fun getIdsWithModes(modes: List<String>): List<Int> = emptyList()
override suspend fun getIdsWithModesAndUplink(modes: List<String>): List<Int> = emptyList()
override suspend fun getIdsWithModesAndAmateur(modes: List<String>): List<Int> = emptyList()
override suspend fun getRadiosTotal(): Int = insertedRadios.size
override suspend fun getRadiosWithId(id: Int): List<SatRadio> = emptyList()
override suspend fun insertRadios(radios: List<SatRadio>, isCustom: Boolean) {
insertedRadios += radios.map { it.copy(isCustom = isCustom) }
}
override suspend fun deleteManagedRadios() {
insertedRadios.removeAll { !it.isCustom }
override suspend fun insertRadios(radios: List<SatRadio>) {
insertedRadios += radios
}
override suspend fun deleteRadios() {
@@ -297,10 +163,10 @@ private class FakeSettingsRepo(dataSources: DataSourcesSettings = defaultDataSou
override val selectedIds: StateFlow<List<Int>> = MutableStateFlow(emptyList())
override val selectedTypes: StateFlow<List<String>> = MutableStateFlow(emptyList())
override val selectedSatModes: StateFlow<List<String>> = MutableStateFlow(emptyList())
override val passesSettings: StateFlow<PassesSettings> = MutableStateFlow(
PassesSettings(hoursAhead = 24, minElevation = 0.0, selectedModes = emptyList())
PassesSettings(hoursAhead = 24, minElevation = 0.0)
)
override val stationPosition: StateFlow<GeoPos> = MutableStateFlow(GeoPos(0.0, 0.0))
@@ -308,14 +174,11 @@ private class FakeSettingsRepo(dataSources: DataSourcesSettings = defaultDataSou
override val databaseState: MutableStateFlow<DatabaseState> = MutableStateFlow(DatabaseState(0, 0, 0L))
override val rcSettings: StateFlow<RCSettings> = MutableStateFlow(
RCSettings(false, "", "", "", false, "", "", "", 0L, false, "", "", "", false, "", "")
RCSettings(false, "", "", "", false, "", "", "", false, "", "", "", false, "", "")
)
override val otherSettings: StateFlow<OtherSettings> = MutableStateFlow(
OtherSettings(
false, false, false, false, false, false, false,
shouldSeeWarning = false, shouldSeeWhatsNew = false
)
OtherSettings(false, false, false, false, false, false, false, false)
)
override val dataSourcesSettings: MutableStateFlow<DataSourcesSettings> = MutableStateFlow(dataSources)
@@ -324,11 +187,9 @@ private class FakeSettingsRepo(dataSources: DataSourcesSettings = defaultDataSou
RadioControlSettings(false, RadioControlSettings.MODEL_YAESU_FT817, "", "", "", "", 9600)
)
val satelliteTypeIdsByType = mutableMapOf<String, List<Int>>()
override fun setSelectedIds(ids: List<Int>) = Unit
override fun setSelectedTypes(types: List<String>) = Unit
override fun setSelectedSatModes(modes: List<String>) = Unit
override fun setPassesSettings(settings: PassesSettings) = Unit
@@ -338,11 +199,6 @@ private class FakeSettingsRepo(dataSources: DataSourcesSettings = defaultDataSou
override fun setStationPosition(locator: String): Boolean = true
override fun getSatelliteTypesIds(types: List<String>): List<Int> = emptyList()
override fun setSatelliteTypeIds(type: String, ids: List<Int>) {
satelliteTypeIdsByType[type] = ids
}
override fun updateDatabaseState(state: DatabaseState) {
databaseState.value = state
@@ -356,79 +212,14 @@ private class FakeSettingsRepo(dataSources: DataSourcesSettings = defaultDataSou
dataSourcesSettings.value = settings
}
override val dataSourcesStatus: StateFlow<Map<String, Int>> = MutableStateFlow(emptyMap())
override fun updateDataSourcesStatus(status: Map<String, Int>) {
(dataSourcesStatus as? MutableStateFlow)?.value = status
}
var amSatFm: Set<Int> = emptySet()
var amSatLinear: Set<Int> = emptySet()
var amSatActive: Set<Int> = emptySet()
override fun getAmSatFmCatnums(): Set<Int> = amSatFm
override fun getAmSatLinearCatnums(): Set<Int> = amSatLinear
override fun setAmSatCatnums(fmCatnums: Set<Int>, linearCatnums: Set<Int>) {
amSatFm = fmCatnums
amSatLinear = linearCatnums
}
override fun getAmSatActiveCatnums(): Set<Int> = amSatActive
override fun setAmSatActiveCatnums(catnums: Set<Int>) {
amSatActive = catnums
}
override fun updateRadioControlSettings(settings: RadioControlSettings) = Unit
override fun getSatelliteOffset(catnum: Int): String = ""
override fun setSatelliteOffset(catnum: Int, offset: String) = Unit
override fun getAmSatCallsign(): String = ""
override fun setAmSatCallsign(callsign: String) = Unit
override val wavelogSettings: StateFlow<com.rtbishop.look4sat.core.domain.model.WavelogSettings> =
MutableStateFlow(com.rtbishop.look4sat.core.domain.model.WavelogSettings())
override fun updateWavelogSettings(settings: com.rtbishop.look4sat.core.domain.model.WavelogSettings) = Unit
override fun getWorkedGrids(): Set<String> = emptySet()
private val workedGrids = MutableStateFlow(emptySet<String>())
override fun setWorkedGrids(grids: Set<String>) {
workedGrids.value = grids
}
override val lotwSettings: StateFlow<com.rtbishop.look4sat.core.domain.model.LoTWSettings> =
MutableStateFlow(com.rtbishop.look4sat.core.domain.model.LoTWSettings())
override fun updateLoTWSettings(settings: com.rtbishop.look4sat.core.domain.model.LoTWSettings) = Unit
override fun getLastLotwSyncDate(): String = ""
override fun setLastLotwSyncDate(date: String) = Unit
override fun getLastLotwSyncCallsign(): String = ""
override fun setLastLotwSyncCallsign(callsign: String) = Unit
override fun getWorkedGridQsos(): Map<String, List<com.rtbishop.look4sat.core.domain.model.GridQso>> = emptyMap()
override fun setWorkedGridQsos(qsos: Map<String, List<com.rtbishop.look4sat.core.domain.model.GridQso>>) = Unit
override fun getRoamedGrids(): Set<String> = emptySet()
private val roamedGrids = MutableStateFlow(emptySet<String>())
override fun setRoamedGrids(grids: Set<String>) {
roamedGrids.value = grids
}
override fun getMarkedGridStations(): Map<String, List<com.rtbishop.look4sat.core.domain.model.MarkedStation>> = emptyMap()
override fun setMarkedGridStations(stations: Map<String, List<com.rtbishop.look4sat.core.domain.model.MarkedStation>>) = Unit
}
private fun defaultDataSourcesSettings(): DataSourcesSettings {
return DataSourcesSettings(
satelliteUrls = emptyList(),
transceiversUrls = emptyList()
useCustomTLE = false,
useCustomTransceivers = false,
tleUrl = "",
transceiversUrl = ""
)
}
@@ -1,312 +0,0 @@
package com.rtbishop.look4sat.core.data.repository
import com.rtbishop.look4sat.core.domain.repository.LoTWResult
import org.junit.Assert.assertEquals
import org.junit.Assert.assertNull
import org.junit.Assert.assertTrue
import org.junit.Test
class LoTWRepositoryTest {
private val repo = LoTWRepository()
private fun report(vararg records: String): String =
buildString {
append("<ADIF_VERS:5>3.1.4\n")
append("<PROGRAMID:8>look4sat\n")
append("<eoh>\n")
records.forEach { append(it).append("\n") }
}
@Test
fun parseRejectsBodyWithoutEoh() {
assertNull(repo.parseConfirmedGrids("<HTML>Username/password incorrect</HTML>"))
}
@Test
fun parseCollectsOnlySatelliteGrids() {
// Satellite QSO: PROP_MODE SAT, confirmed, opponent grid.
val satQso = "<CALL:6>BA7OPF\n" +
"<QSO_DATE:8>20260820\n" +
"<PROP_MODE:3>SAT\n" +
"<SAT_NAME:5>FO-29\n" +
"<GRIDSQUARE:4>NL47\n" +
"<EOR>\n"
// Ground QSO: same grid but no PROP_MODE -> must be excluded.
val groundQso = "<CALL:6>BA7OPF\n" +
"<QSO_DATE:8>20260821\n" +
"<GRIDSQUARE:4>NL47\n" +
"<EOR>\n"
val result = repo.parseConfirmedGrids(report(satQso, groundQso))
assertEquals(setOf("NL47"), result)
}
@Test
fun parseSupportsVuccGridPairsAndSixCharGrids() {
val satQso = "<PROP_MODE:3>SAT\n" +
"<SAT_NAME:5>SO-50\n" +
"<GRIDSQUARE:6>OM60IL\n" +
"<VUCC_GRIDS:11>EN52en,EN53fa\n" +
"<EOR>\n"
val result = repo.parseConfirmedGrids(report(satQso))
assertEquals(setOf("OM60", "EN52", "EN53"), result)
}
@Test
fun parsePropModeDoesNotLeakAcrossRecords() {
// PROP_MODE SAT record first, then a ground QSO with a grid — the second
// record must not inherit the satellite flag after its own <EOR>.
val satQso = "<PROP_MODE:3>SAT\n<GRIDSQUARE:4>OL62\n<EOR>\n"
val groundQso = "<GRIDSQUARE:4>PM00\n<EOR>\n"
val result = repo.parseConfirmedGrids(report(satQso, groundQso))
assertEquals(setOf("OL62"), result)
}
@Test
fun parseHandlesAlphabeticalFieldOrder() {
// Real lotwreport.adi emits fields in ALPHABETICAL order: GRIDSQUARE (G)
// and VUCC_GRIDS come BEFORE PROP_MODE (P) inside each record. The old
// sequential gate (add only while propMode == SAT) dropped every grid on
// real reports — the buffered parser must collect them regardless of
// field order and filter at <EOR>.
val satQso = "<CALL:6>BA7OPF\n" +
"<GRIDSQUARE:4>NL47\n" +
"<MODE:3>FM\n" +
"<PROP_MODE:3>SAT\n" +
"<SAT_NAME:5>FO-29\n" +
"<VUCC_GRIDS:11>EN52en,EN53fa\n" +
"<EOR>\n"
val groundQso = "<CALL:6>BA7OPF\n" +
"<GRIDSQUARE:4>PM95\n" +
"<QSO_DATE:8>20260821\n" +
"<EOR>\n"
val result = repo.parseConfirmedGrids(report(satQso, groundQso))
assertEquals(setOf("NL47", "EN52", "EN53"), result)
}
@Test
fun parseReturnsEmptySetForReportWithoutGrids() {
val satQso = "<PROP_MODE:3>SAT\n<SAT_NAME:5>AO-07\n<EOR>\n"
assertEquals(emptySet<String>(), repo.parseConfirmedGrids(report(satQso)))
}
// region parseConfirmedGridQsos
private val satQsoFull = "<CALL:5>A50QO\n" +
"<QSO_DATE:8>20260820\n" +
"<TIME_ON:6>113045\n" +
"<PROP_MODE:3>SAT\n" +
"<SAT_NAME:5>FO-29\n" +
"<MODE:2>CW\n" +
"<BAND:3>70CM\n" +
"<BAND_RX:3>2M\n" +
"<GRIDSQUARE:4>NL47\n" +
"<EOR>\n"
@Test
fun parseQsosExtractsSatelliteDetail() {
val result = repo.parseConfirmedGridQsos(report(satQsoFull))!!
val qsos = result["NL47"]!!
assertEquals(1, qsos.size)
val qso = qsos[0]
assertEquals("A50QO", qso.call)
assertEquals("FO-29", qso.satName)
assertEquals("CW", qso.mode)
assertEquals("2M", qso.bandUp)
assertEquals("70CM", qso.bandDown)
assertEquals("V/U", qso.bandLabel)
assertEquals(2026, java.time.Instant.ofEpochMilli(qso.epochMs).atZone(java.time.ZoneOffset.UTC).year)
}
@Test
fun parseQsosExcludesGroundQsos() {
val groundQso = "<CALL:6>BA7OPF\n<QSO_DATE:8>20260821\n<GRIDSQUARE:4>NL47\n<EOR>\n"
val result = repo.parseConfirmedGridQsos(report(satQsoFull, groundQso))!!
assertEquals(1, result["NL47"]!!.size)
}
@Test
fun parseQsosVuccPairFeedsBothGrids() {
val qso = "<PROP_MODE:3>SAT\n<SAT_NAME:5>SO-50\n" +
"<QSO_DATE:8>20260819\n<TIME_ON:4>1231\n" +
"<VUCC_GRIDS:11>EN52en,EN53fa\n<EOR>\n"
val result = repo.parseConfirmedGridQsos(report(qso))!!
assertEquals(setOf("EN52", "EN53"), result.keys)
assertEquals(result["EN52"]!!.first(), result["EN53"]!!.first())
}
@Test
fun parseQsosVuccQuadrupleFeedsAllFourGrids() {
// VUCC allows up to four grids in one contact.
val qso = "<PROP_MODE:3>SAT\n<SAT_NAME:5>SO-50\n" +
"<QSO_DATE:8>20260819\n<TIME_ON:4>1231\n" +
"<VUCC_GRIDS:23>EN52en,EN53fa,EN42gj,EN43kh\n<EOR>\n"
val result = repo.parseConfirmedGridQsos(report(qso))!!
assertEquals(setOf("EN52", "EN53", "EN42", "EN43"), result.keys)
result.values.forEach { assertEquals(1, it.size) }
}
@Test
fun parseQsosRejectsBodyWithoutEoh() {
assertNull(repo.parseConfirmedGridQsos("<HTML>Username/password incorrect</HTML>"))
}
@Test
fun parseQsosCapturesOwnGridPerQso() {
// MY_GRIDSQUARE arrives BEFORE PROP_MODE (ADIF fields are emitted
// alphabetically); the per-record buffer must still attach it to the QSO.
val qso1 = "<CALL:5>A50QO\n<QSO_DATE:8>20260820\n<MY_GRIDSQUARE:4>OL62\n" +
"<PROP_MODE:3>SAT\n<SAT_NAME:5>FO-29\n<MODE:2>CW\n" +
"<BAND:3>70CM\n<BAND_RX:3>2M\n<GRIDSQUARE:4>NL47\n<EOR>\n"
val qso2 = "<CALL:6>BG7ZFK\n<QSO_DATE:8>20260819\n<MY_GRIDSQUARE:4>OL72\n" +
"<PROP_MODE:3>SAT\n<SAT_NAME:5>SO-50\n<MODE:3>FM\n" +
"<BAND:3>70CM\n<BAND_RX:3>2M\n<GRIDSQUARE:4>OK48\n<EOR>\n"
val result = repo.parseConfirmedGridQsos(report(qso1, qso2))!!
assertEquals("OL62", result["NL47"]!!.first().myGrid)
assertEquals("OL72", result["OK48"]!!.first().myGrid)
// Ground QSO (no PROP_MODE=SAT) must not leak its MY_GRIDSQUARE.
val ground = "<CALL:6>BA7OPF\n<QSO_DATE:8>20260821\n<MY_GRIDSQUARE:4>OL62\n<GRIDSQUARE:4>NL47\n<EOR>\n"
assertTrue(repo.parseConfirmedGridQsos(report(qso1, ground))!!.values.all { it.all { q -> q.myGrid == "OL62" } })
}
// endregion
// region parseRoamedGrids (MY_GRIDSQUARE = grids the account operated from)
@Test
fun parseRoamedGridsCollectsOwnStationGrids() {
// Satellite QSOs carry MY_GRIDSQUARE = the grid the account itself
// operated from (the "roamed/activated" set shown as blue stripes).
val qso1 = "<CALL:6>BA7OPF\n<QSO_DATE:8>20260820\n<PROP_MODE:3>SAT\n<SAT_NAME:5>IO-86\n" +
"<MY_GRIDSQUARE:4>OL62\n<GRIDSQUARE:4>PM95\n<EOR>\n"
val qso2 = "<CALL:6>BA7OPF\n<QSO_DATE:8>20260901\n<PROP_MODE:3>SAT\n<SAT_NAME:5>IO-86\n" +
"<MY_GRIDSQUARE:4>OL72\n<GRIDSQUARE:4>NL47\n<EOR>\n"
assertEquals(setOf("OL62", "OL72"), repo.parseRoamedGrids(report(qso1, qso2)))
}
@Test
fun parseRoamedGridsIgnoresGroundQsos() {
val ground = "<CALL:6>BA7OPF\n<QSO_DATE:8>20260821\n<MY_GRIDSQUARE:4>OL72\n<EOR>\n"
assertEquals(emptySet<String>(), repo.parseRoamedGrids(report(ground)))
}
@Test
fun parseRoamedGridsDoesNotConfuseGridsquareWithMyGridsquare() {
// GRIDSQUARE (opposite station's grid) must never leak into the roamed set.
val qso = "<PROP_MODE:3>SAT\n<SAT_NAME:5>SO-50\n<MY_GRIDSQUARE:4>OL62\n" +
"<GRIDSQUARE:6>OM60IL\n<EOR>\n"
assertEquals(setOf("OL62"), repo.parseRoamedGrids(report(qso)))
}
@Test
fun parseRoamedGridsTruncatesSixCharToFour() {
val qso = "<PROP_MODE:3>SAT\n<SAT_NAME:5>IO-86\n<MY_GRIDSQUARE:6>OL62AA\n<EOR>\n"
assertEquals(setOf("OL62"), repo.parseRoamedGrids(report(qso)))
}
@Test
fun parseRoamedGridsHandlesAlphabeticalFieldOrder() {
// Real lotwreport.adi emits fields alphabetically, so <MY_GRIDSQUARE>
// (M) arrives BEFORE <PROP_MODE> (P). The old sequential gate (add only
// while propMode == SAT) silently returned an EMPTY set on real reports —
// this is the exact bug that made the blue roamed stripes never appear.
val qso = "<CALL:6>BA7OPF\n" +
"<GRIDSQUARE:4>PM95\n" +
"<MY_GRIDSQUARE:6>OL72XX\n" +
"<PROP_MODE:3>SAT\n" +
"<SAT_NAME:5>IO-86\n" +
"<EOR>\n"
assertEquals(setOf("OL72"), repo.parseRoamedGrids(report(qso)))
}
@Test
fun parseRoamedGridsRejectsBodyWithoutEoh() {
assertNull(repo.parseRoamedGrids("<HTML>Username/password incorrect</HTML>"))
}
// endregion
// region failure classification (fetchReportBody -> LoTWResult mapping)
@Test
fun failureClassificationMapsEachException() {
// LoTWRepository.toResult() must keep each failure cause distinct so
// the UI can show a specific message per cause.
assertEquals(
LoTWResult.BadCredentials,
repo.toResult(LoTWRepository.CredentialsException())
)
assertEquals(
LoTWResult.RateLimited,
repo.toResult(LoTWRepository.RateLimitException())
)
assertEquals(
LoTWResult.Timeout,
repo.toResult(LoTWRepository.TimeoutException("read timed out"))
)
val net = repo.toResult(java.io.IOException("HTTP 500"))
assertEquals(LoTWResult.NetworkError("HTTP 500"), net)
}
@Test
fun parseQsosExtractsAwardFields() {
// Award statistics rely on the DXCC/CQZ/STATE fields coming straight
// from LoTW's qso_qsldetail report (STATE depends on DXCC). LoTW
// writes STATE as "CODE // NAME" (verified with a real report 2026-09);
// the parser must strip the name suffix and keep the bare code.
val qso = "<CALL:5>BG7XYZ\n" +
"<QSO_DATE:8>20260820\n<TIME_ON:4>1130\n" +
"<PROP_MODE:3>SAT\n<SAT_NAME:5>FO-29\n<MODE:2>CW\n" +
"<DXCC:3>318\n<COUNTRY:5>CHINA\n<CQZ:2>24\n<STATE:13>GD // Guangdong\n" +
"<GRIDSQUARE:4>OL62\n<EOR>\n"
val result = repo.parseConfirmedGridQsos(report(qso))!!
val parsed = result["OL62"]!!.first()
assertEquals(318, parsed.dxcc)
assertEquals("CHINA", parsed.country)
assertEquals(24, parsed.cqz)
assertEquals("GD", parsed.state)
}
@Test
fun parseQsosStripsStateNameSuffixForAllEntities() {
// Japan prefecture: "34 // Tottori-ken" -> "34" (WAJA matching needs
// the 2-digit code). US states also arrive as "CODE // Name".
val jp = "<CALL:5>JH0ABC\n<QSO_DATE:8>20260820\n<TIME_ON:4>1130\n" +
"<PROP_MODE:3>SAT\n<SAT_NAME:5>RS-44\n<DXCC:3>339\n<COUNTRY:7>JAPAN\n" +
"<STATE:18>34 // Tottori-ken\n<GRIDSQUARE:4>PM95\n<EOR>\n"
val us = "<CALL:5>K1ABC\n<QSO_DATE:8>20260820\n<TIME_ON:4>1130\n" +
"<PROP_MODE:3>SAT\n<SAT_NAME:5>AO-07\n<DXCC:3>291\n<COUNTRY:12>UNITED STATES\n" +
"<STATE:22>CA // California\n<GRIDSQUARE:4>EM40\n<EOR>\n"
val result = repo.parseConfirmedGridQsos(report(jp, us))!!
assertEquals("34", result["PM95"]!!.first().state)
assertEquals("CA", result["EM40"]!!.first().state)
}
@Test
fun parseQsosLeavesAwardFieldsNullWhenAbsent() {
val qso = "<CALL:5>JH0ABC\n<QSO_DATE:8>20260820\n<TIME_ON:4>1130\n" +
"<PROP_MODE:3>SAT\n<SAT_NAME:5>RS-44\n<GRIDSQUARE:4>PM95\n<EOR>\n"
val result = repo.parseConfirmedGridQsos(report(qso))!!
val parsed = result["PM95"]!!.first()
assertNull(parsed.dxcc)
assertNull(parsed.country)
assertNull(parsed.cqz)
assertNull(parsed.state)
}
@Test
fun parseQsosAwardFieldsDoNotLeakAcrossRecords() {
val withFields = "<CALL:5>BG7AAA\n<QSO_DATE:8>20260820\n<TIME_ON:4>1130\n" +
"<PROP_MODE:3>SAT\n<SAT_NAME:5>FO-29\n<DXCC:3>318\n<CQZ:2>24\n<STATE:2>GD\n" +
"<GRIDSQUARE:4>OL62\n<EOR>\n"
val withoutFields = "<CALL:5>JH0BBB\n<QSO_DATE:8>20260821\n<TIME_ON:4>1130\n" +
"<PROP_MODE:3>SAT\n<SAT_NAME:5>RS-44\n<GRIDSQUARE:4>PM95\n<EOR>\n"
val result = repo.parseConfirmedGridQsos(report(withFields, withoutFields))!!
assertNull(result["PM95"]!!.first().dxcc)
assertNull(result["PM95"]!!.first().cqz)
assertNull(result["PM95"]!!.first().state)
}
// endregion
}
@@ -1,324 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*/
package com.rtbishop.look4sat.core.data.repository
import com.rtbishop.look4sat.core.domain.model.DataSourcesSettings
import com.rtbishop.look4sat.core.domain.model.DatabaseState
import com.rtbishop.look4sat.core.domain.model.OtherSettings
import com.rtbishop.look4sat.core.domain.model.PassesSettings
import com.rtbishop.look4sat.core.domain.model.RCSettings
import com.rtbishop.look4sat.core.domain.model.RadioControlSettings
import com.rtbishop.look4sat.core.domain.model.SatItem
import com.rtbishop.look4sat.core.domain.model.SatRadio
import com.rtbishop.look4sat.core.domain.predict.GeoPos
import com.rtbishop.look4sat.core.domain.predict.OrbitalData
import com.rtbishop.look4sat.core.domain.predict.OrbitalObject
import com.rtbishop.look4sat.core.domain.repository.ISelectionRepo
import com.rtbishop.look4sat.core.domain.repository.ISettingsRepo
import com.rtbishop.look4sat.core.domain.source.ILocalSource
import kotlinx.coroutines.Dispatchers
import kotlinx.coroutines.ExperimentalCoroutinesApi
import kotlinx.coroutines.flow.MutableStateFlow
import kotlinx.coroutines.flow.StateFlow
import kotlinx.coroutines.flow.first
import kotlinx.coroutines.test.runTest
import org.junit.Assert.assertEquals
import org.junit.Assert.assertTrue
import org.junit.Test
@OptIn(ExperimentalCoroutinesApi::class)
class SelectionRepoSearchTest {
private val sampleItems = listOf(
SatItem(catnum = 25544, name = "ISS (ZARYA)"),
SatItem(catnum = 7530, name = "AO-7 (AMSAT-OSCAR 7)"),
SatItem(catnum = 39444, name = "AO-73 (FUNcube-1)"),
SatItem(catnum = 43803, name = "JO-97 (BIRDS-3)"),
SatItem(catnum = 99999, name = "FO-29"),
)
@Test
fun `query without separators matches name with dashes spaces brackets`() = runTest {
val repo = createRepo(sampleItems)
repo.setQuery("ao7")
val results = repo.getEntriesFlow().first()
// "ao7" is a substring of the normalized "AO-73 (FUNcube-1)" too, so a
// fuzzy search legitimately returns both AO-7 (first) and AO-73. The
// key guarantee is that AO-7 — which was unreachable before because of
// the dashes/brackets — is now found.
assertTrue(results.map { it.catnum }.contains(7530))
assertEquals(7530, results.first().catnum)
}
@Test
fun `query without separators matches name with only dashes`() = runTest {
val repo = createRepo(sampleItems)
repo.setQuery("fo29")
val results = repo.getEntriesFlow().first()
assertEquals(listOf(99999), results.map { it.catnum })
}
@Test
fun `space-separated tokens all must match in any order`() = runTest {
val repo = createRepo(sampleItems)
repo.setQuery("zarya iss")
val results = repo.getEntriesFlow().first()
assertEquals(listOf(25544), results.map { it.catnum })
}
@Test
fun `exact name query still matches`() = runTest {
val repo = createRepo(sampleItems)
repo.setQuery("AO-7 (AMSAT-OSCAR 7)")
val results = repo.getEntriesFlow().first()
assertEquals(listOf(7530), results.map { it.catnum })
}
@Test
fun `partial token query matches substring`() = runTest {
val repo = createRepo(sampleItems)
repo.setQuery("funcube")
val results = repo.getEntriesFlow().first()
assertEquals(listOf(39444), results.map { it.catnum })
}
@Test
fun `numeric query matches catnum exactly`() = runTest {
val repo = createRepo(sampleItems)
repo.setQuery("25544")
val results = repo.getEntriesFlow().first()
assertEquals(listOf(25544), results.map { it.catnum })
}
@Test
fun `no query returns all items`() = runTest {
val repo = createRepo(sampleItems)
repo.setQuery("")
val results = repo.getEntriesFlow().first()
assertEquals(sampleItems.size, results.size)
}
@Test
fun `unmatched query returns nothing`() = runTest {
val repo = createRepo(sampleItems)
repo.setQuery("zzzznomatch")
assertTrue(repo.getEntriesFlow().first().isEmpty())
}
@Test
fun `FM virtual type shows only AMSAT FM list satellites`() = runTest {
val repo = createRepo(
items = sampleItems,
amSatFm = setOf(25544, 39444)
)
repo.setTypes(listOf("AMSAT Live FM"))
val results = repo.getEntriesFlow().first()
assertEquals(listOf(25544, 39444), results.map { it.catnum })
}
@Test
fun `SSTV virtual type shows only satellites with SSTV radios`() = runTest {
val repo = createRepo(
items = sampleItems,
sstvIds = listOf(43803)
)
repo.setTypes(listOf("Live SSTV"))
val results = repo.getEntriesFlow().first()
assertEquals(listOf(43803), results.map { it.catnum })
}
@Test
fun `SSTV virtual type uses the amateur-only radio query`() = runTest {
// The repo delegates to getIdsWithModesAndAmateur: the fake returns
// only catnums the DAO would have filtered to Amateur service (43803).
val repo = createRepo(
items = sampleItems,
sstvIds = listOf(43803),
amSatActive = setOf(43803)
)
repo.setTypes(listOf("Live SSTV"))
val results = repo.getEntriesFlow().first()
assertEquals(listOf(43803), results.map { it.catnum })
}
@Test
fun `SSTV virtual type excludes rocket-body debris by name`() = runTest {
// 60239 is "ARIANE 6 R/B" (launcher debris carrying an amateur SSTV
// payload); it must be dropped even though its radio is Amateur.
val items = sampleItems + SatItem(catnum = 60239, name = "ARIANE 6 R/B")
val repo = createRepo(
items = items,
sstvIds = listOf(43803, 60239),
amSatActive = setOf(43803, 60239)
)
repo.setTypes(listOf("Live SSTV"))
val results = repo.getEntriesFlow().first()
assertEquals(listOf(43803), results.map { it.catnum })
}
@Test
fun `multiple virtual types union their satellites`() = runTest {
val repo = createRepo(
items = sampleItems,
amSatFm = setOf(25544),
amSatLinear = setOf(7530),
sstvIds = listOf(43803)
)
repo.setTypes(listOf("AMSAT Live FM", "Live SSTV"))
val results = repo.getEntriesFlow().first()
assertEquals(setOf(25544, 43803), results.map { it.catnum }.toSet())
}
@Test
fun `clearing types restores full list`() = runTest {
val repo = createRepo(items = sampleItems, amSatFm = setOf(25544))
repo.setTypes(listOf("AMSAT Live FM"))
assertTrue(repo.getEntriesFlow().first().isNotEmpty())
repo.setTypes(emptyList())
assertEquals(sampleItems.size, repo.getEntriesFlow().first().size)
}
@Test
fun `virtual type with empty AMSAT list shows empty not everything`() = runTest {
// 根因2回归: AMSAT 清单未同步(空)时, 选虚拟类型应显示空列表, 而非全部卫星.
val repo = createRepo(items = sampleItems, amSatFm = emptySet())
repo.setTypes(listOf("AMSAT Live FM"))
assertTrue(repo.getEntriesFlow().first().isEmpty())
}
@Test
fun `virtual type combined with regular type unions both lists`() = runTest {
val repo = createRepo(
items = sampleItems,
amSatFm = setOf(25544),
amSatLinear = setOf(7530)
)
repo.setTypes(listOf("AMSAT Live FM", "AMSAT Live Linear"))
val results = repo.getEntriesFlow().first()
assertEquals(setOf(25544, 7530), results.map { it.catnum }.toSet())
}
@Test
fun `types list has virtual transponder types first and keeps All`() {
val repo = createRepo(sampleItems)
val types = repo.getTypesList()
assertTrue(types.size >= 4)
assertEquals("AMSAT Live FM", types[0])
assertEquals("AMSAT Live Linear", types[1])
assertEquals("Live SSTV", types[2])
// "All" must be kept in the list (first original type shown after virtual ones).
assertTrue("All" in types)
}
private fun createRepo(
items: List<SatItem>,
amSatFm: Set<Int> = emptySet(),
amSatLinear: Set<Int> = emptySet(),
sstvIds: List<Int> = emptyList(),
amSatActive: Set<Int> = emptySet()
): ISelectionRepo {
return SelectionRepo(
dispatcher = Dispatchers.Unconfined,
localSource = FakeLocalSourceForSearch(items, sstvIds),
settingsRepo = FakeSettingsRepoForSearch(amSatFm, amSatLinear, amSatActive)
)
}
}
private class FakeLocalSourceForSearch(
private val items: List<SatItem>,
private val sstvIds: List<Int> = emptyList()
) : ILocalSource {
override suspend fun getEntriesTotal(): Int = items.size
override suspend fun getEntriesList(): List<SatItem> = items
override suspend fun getEntriesWithIds(ids: List<Int>): List<OrbitalObject> = emptyList()
override suspend fun insertEntries(entries: List<OrbitalData>) = Unit
override suspend fun deleteEntries() = Unit
override suspend fun getIdsWithModes(modes: List<String>): List<Int> = sstvIds
override suspend fun getIdsWithModesAndUplink(modes: List<String>): List<Int> = sstvIds
override suspend fun getIdsWithModesAndAmateur(modes: List<String>): List<Int> = sstvIds
override suspend fun getRadiosTotal(): Int = 0
override suspend fun getRadiosWithId(id: Int): List<SatRadio> = emptyList()
override suspend fun insertRadios(radios: List<SatRadio>, isCustom: Boolean) = Unit
override suspend fun deleteManagedRadios() = Unit
override suspend fun deleteRadios() = Unit
}
private class FakeSettingsRepoForSearch(
private val amSatFm: Set<Int> = emptySet(),
private val amSatLinear: Set<Int> = emptySet(),
private var amSatActive: Set<Int> = emptySet()
) : ISettingsRepo {
override val appVersionName: String = "test"
override val selectedIds: StateFlow<List<Int>> = MutableStateFlow(emptyList())
override val selectedTypes: StateFlow<List<String>> = MutableStateFlow(emptyList())
override val passesSettings: StateFlow<PassesSettings> = MutableStateFlow(
PassesSettings(hoursAhead = 24, minElevation = 0.0, selectedModes = emptyList())
)
override val stationPosition: StateFlow<GeoPos> = MutableStateFlow(GeoPos(0.0, 0.0))
override val databaseState: MutableStateFlow<DatabaseState> = MutableStateFlow(DatabaseState(0, 0, 0L))
override val rcSettings: StateFlow<RCSettings> = MutableStateFlow(
RCSettings(false, "", "", "", false, "", "", "", 0L, false, "", "", "", false, "", "")
)
override val otherSettings: StateFlow<OtherSettings> = MutableStateFlow(
OtherSettings(
false, false, false, false, false, false, false,
shouldSeeWarning = false, shouldSeeWhatsNew = false
)
)
override val dataSourcesSettings: MutableStateFlow<DataSourcesSettings> =
MutableStateFlow(DataSourcesSettings(satelliteUrls = emptyList(), transceiversUrls = emptyList()))
override val dataSourcesStatus: StateFlow<Map<String, Int>> = MutableStateFlow(emptyMap())
override val radioControlSettings: StateFlow<RadioControlSettings> = MutableStateFlow(
RadioControlSettings(false, RadioControlSettings.MODEL_YAESU_FT817, "", "", "", "", 9600)
)
override val wavelogSettings: StateFlow<com.rtbishop.look4sat.core.domain.model.WavelogSettings> =
MutableStateFlow(com.rtbishop.look4sat.core.domain.model.WavelogSettings())
override val lotwSettings: StateFlow<com.rtbishop.look4sat.core.domain.model.LoTWSettings> =
MutableStateFlow(com.rtbishop.look4sat.core.domain.model.LoTWSettings())
override fun setSelectedIds(ids: List<Int>) = Unit
override fun setSelectedTypes(types: List<String>) = Unit
override fun setPassesSettings(settings: PassesSettings) = Unit
override fun setStationPosition(latitude: Double, longitude: Double, altitude: Double): Boolean = true
override fun setStationPosition(): Boolean = true
override fun setStationPosition(locator: String): Boolean = true
override fun getSatelliteTypesIds(types: List<String>): List<Int> = emptyList()
override fun setSatelliteTypeIds(type: String, ids: List<Int>) = Unit
override fun updateDatabaseState(state: DatabaseState) = Unit
override fun updateRCSettings(settings: RCSettings) = Unit
override fun updateOtherSettings(transform: (OtherSettings) -> OtherSettings) = Unit
override fun updateDataSourcesSettings(settings: DataSourcesSettings) = Unit
override fun updateDataSourcesStatus(status: Map<String, Int>) = Unit
override fun getAmSatFmCatnums(): Set<Int> = amSatFm
override fun getAmSatLinearCatnums(): Set<Int> = amSatLinear
override fun setAmSatCatnums(fmCatnums: Set<Int>, linearCatnums: Set<Int>) = Unit
override fun getAmSatActiveCatnums(): Set<Int> = amSatActive
override fun setAmSatActiveCatnums(catnums: Set<Int>) { amSatActive = catnums }
override fun updateRadioControlSettings(settings: RadioControlSettings) = Unit
override fun getSatelliteOffset(catnum: Int): String = ""
override fun setSatelliteOffset(catnum: Int, offset: String) = Unit
override fun getAmSatCallsign(): String = ""
override fun setAmSatCallsign(callsign: String) = Unit
override fun updateWavelogSettings(settings: com.rtbishop.look4sat.core.domain.model.WavelogSettings) = Unit
override fun getWorkedGrids(): Set<String> = emptySet()
override fun setWorkedGrids(grids: Set<String>) = Unit
override fun getWorkedGridQsos(): Map<String, List<com.rtbishop.look4sat.core.domain.model.GridQso>> = emptyMap()
override fun setWorkedGridQsos(qsos: Map<String, List<com.rtbishop.look4sat.core.domain.model.GridQso>>) = Unit
override fun getRoamedGrids(): Set<String> = emptySet()
override fun setRoamedGrids(grids: Set<String>) = Unit
override fun getMarkedGridStations(): Map<String, List<com.rtbishop.look4sat.core.domain.model.MarkedStation>> = emptyMap()
override fun setMarkedGridStations(stations: Map<String, List<com.rtbishop.look4sat.core.domain.model.MarkedStation>>) = Unit
override fun updateLoTWSettings(settings: com.rtbishop.look4sat.core.domain.model.LoTWSettings) = Unit
override fun getLastLotwSyncDate(): String = ""
override fun setLastLotwSyncDate(date: String) = Unit
override fun getLastLotwSyncCallsign(): String = ""
override fun setLastLotwSyncCallsign(callsign: String) = Unit
}
@@ -0,0 +1,173 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.data.repository
import com.rtbishop.look4sat.core.domain.model.DataSourcesSettings
import com.rtbishop.look4sat.core.domain.model.DatabaseState
import com.rtbishop.look4sat.core.domain.model.OtherSettings
import com.rtbishop.look4sat.core.domain.model.PassesSettings
import com.rtbishop.look4sat.core.domain.model.RCSettings
import com.rtbishop.look4sat.core.domain.model.RadioControlSettings
import com.rtbishop.look4sat.core.domain.model.SatItem
import com.rtbishop.look4sat.core.domain.model.SatRadio
import com.rtbishop.look4sat.core.domain.predict.GeoPos
import com.rtbishop.look4sat.core.domain.predict.OrbitalObject
import com.rtbishop.look4sat.core.domain.repository.ISettingsRepo
import com.rtbishop.look4sat.core.domain.source.ILocalSource
import kotlinx.coroutines.ExperimentalCoroutinesApi
import kotlinx.coroutines.flow.MutableStateFlow
import kotlinx.coroutines.flow.StateFlow
import kotlinx.coroutines.flow.first
import kotlinx.coroutines.test.StandardTestDispatcher
import kotlinx.coroutines.test.runTest
import org.junit.Assert.assertEquals
import org.junit.Test
@OptIn(ExperimentalCoroutinesApi::class)
class SelectionRepoTest {
private val dispatcher = StandardTestDispatcher()
@Test
fun `unknown mode values do not crash and do not filter out entries`() = runTest(dispatcher) {
val localSource = FakeLocalSource(
entries = listOf(
SatItem(25544, "ISS (ZARYA)", false),
SatItem(40967, "TIANGONG", false)
)
)
val settingsRepo = FakeSettingsRepo(selectedModes = listOf("REMOVED_MODE"))
val repository = SelectionRepo(dispatcher, localSource, settingsRepo)
val flow = repository.getEntriesFlow()
repository.setModes(listOf("REMOVED_MODE"))
val items = flow.first()
assertEquals(listOf(25544, 40967), items.map { it.catnum })
assertEquals(listOf("REMOVED_MODE"), repository.getCurrentModes())
}
@Test
fun `selected satellites are shown first`() = runTest(dispatcher) {
val localSource = FakeLocalSource(
entries = listOf(
SatItem(44444, "Zeta", false),
SatItem(25544, "Alpha", false),
SatItem(40967, "Beta", false)
)
)
val settingsRepo = FakeSettingsRepo(selectedModes = emptyList())
val repository = SelectionRepo(dispatcher, localSource, settingsRepo)
val flow = repository.getEntriesFlow()
repository.setSelection(listOf(40967), true)
val items = flow.first()
assertEquals(listOf(40967, 25544, 44444), items.map { it.catnum })
assertEquals(listOf(true, false, false), items.map { it.isSelected })
}
private class FakeLocalSource(
private val entries: List<SatItem>
) : ILocalSource {
override suspend fun getEntriesTotal(): Int = entries.size
override suspend fun getEntriesList(): List<SatItem> = entries
override suspend fun getEntriesWithIds(ids: List<Int>): List<OrbitalObject> = emptyList()
override suspend fun insertEntries(entries: List<com.rtbishop.look4sat.core.domain.predict.OrbitalData>) = Unit
override suspend fun deleteEntries() = Unit
override suspend fun getIdsWithModes(modes: List<String>): List<Int> = emptyList()
override suspend fun getRadiosTotal(): Int = 0
override suspend fun getRadiosWithId(id: Int): List<SatRadio> = emptyList()
override suspend fun insertRadios(radios: List<SatRadio>) = Unit
override suspend fun deleteRadios() = Unit
}
private class FakeSettingsRepo(
selectedModes: List<String>
) : ISettingsRepo {
override val appVersionName: String = "test"
override val selectedIds: StateFlow<List<Int>> = MutableStateFlow(emptyList())
override val selectedSatModes: MutableStateFlow<List<String>> = MutableStateFlow(selectedModes)
override val passesSettings: StateFlow<PassesSettings> = MutableStateFlow(
PassesSettings(hoursAhead = 24, minElevation = 0.0)
)
override val stationPosition: StateFlow<GeoPos> = MutableStateFlow(GeoPos(0.0, 0.0))
override val databaseState: MutableStateFlow<DatabaseState> = MutableStateFlow(DatabaseState(0, 0, 0L))
override val rcSettings: StateFlow<RCSettings> = MutableStateFlow(
RCSettings(false, "", "", "", false, "", "", "", false, "", "", "", false, "", "")
)
override val otherSettings: StateFlow<OtherSettings> = MutableStateFlow(
OtherSettings(false, false, false, false, false, false, false, false)
)
override val dataSourcesSettings: StateFlow<DataSourcesSettings> = MutableStateFlow(
DataSourcesSettings(false, false, "", "")
)
override val radioControlSettings: StateFlow<RadioControlSettings> = MutableStateFlow(
RadioControlSettings(false, RadioControlSettings.MODEL_YAESU_FT817, "", "", "", "", 9600)
)
override fun setSelectedIds(ids: List<Int>) = Unit
override fun setSelectedSatModes(modes: List<String>) {
selectedSatModes.value = modes
}
override fun setPassesSettings(settings: PassesSettings) = Unit
override fun setStationPosition(latitude: Double, longitude: Double, altitude: Double): Boolean = true
override fun setStationPosition(): Boolean = true
override fun setStationPosition(locator: String): Boolean = true
override fun updateDatabaseState(state: DatabaseState) {
databaseState.value = state
}
override fun updateRCSettings(settings: RCSettings) = Unit
override fun updateOtherSettings(transform: (OtherSettings) -> OtherSettings) = Unit
override fun updateDataSourcesSettings(settings: DataSourcesSettings) = Unit
override fun updateRadioControlSettings(settings: RadioControlSettings) = Unit
}
}
@@ -1,154 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.cw
/**
* Bayesian Morse timing decoder.
* Replaces hard thresholds with probability-based decision making.
*
* Inspired by VE3NEA's CW Skimmer approach:
* "Instead of making a hard decision at every input sample whether the signal
* is present or not, compute the probability that the signal is present."
*
* Uses Gaussian probability density centered on expected durations:
* P(dit | duration) = exp(-(duration - dotMs)^2 / (2 * variance^2))
* P(dash | duration) = exp(-(duration - 3*dotMs)^2 / (2 * variance^2))
*/
internal class CwBayesianDecoder {
// Morse timing parameters
private var dotDurationMs = 60f // initial 20 WPM
private var speedWpm = 20f
// Current symbol being accumulated
private var currentSymbol = StringBuilder()
private var textBuffer = StringBuilder()
// Recent dit lengths for speed estimation
private val recentDits = mutableListOf<Float>()
// Output
private var _decodedText = ""
val decodedText: String get() = _decodedText
/** Gaussian probability. */
private fun gaussianProb(durationMs: Float, expectedMs: Float, varianceMs: Float): Float {
if (varianceMs <= 0f) return 0f
val diff = durationMs - expectedMs
return kotlin.math.exp(-(diff * diff) / (2 * varianceMs * varianceMs))
}
/** Process a tone duration. Returns the symbol type with highest probability. */
fun processTone(durationMs: Float): ToneResult {
val ditProb = gaussianProb(durationMs, dotDurationMs, dotDurationMs * 0.4f)
val dashProb = gaussianProb(durationMs, dotDurationMs * 3f, dotDurationMs * 0.6f)
return if (ditProb > dashProb && ditProb > 0.05f) {
currentSymbol.append('0')
recentDits.add(durationMs)
updateSpeed()
ToneResult('0', ditProb)
} else if (dashProb > 0.05f) {
currentSymbol.append('1')
ToneResult('1', dashProb)
} else {
ToneResult(null, 0f)
}
}
/** Process a gap duration. Returns decoded character or null. */
fun processGap(durationMs: Float): Char? {
if (currentSymbol.isEmpty()) {
val wordProb = gaussianProb(durationMs, dotDurationMs * 7f, dotDurationMs * 1.2f)
if (wordProb > 0.2f) {
textBuffer.append(' ')
_decodedText = textBuffer.toString()
return ' '
}
return null
}
val interCharProb = gaussianProb(durationMs, dotDurationMs * 3f, dotDurationMs * 0.6f)
val wordProb = gaussianProb(durationMs, dotDurationMs * 7f, dotDurationMs * 1.2f)
if (wordProb > interCharProb && wordProb > 0.2f) {
val char = flushSymbol()
textBuffer.append(' ')
_decodedText = textBuffer.toString()
return char
}
if (interCharProb > 0.15f) {
val char = flushSymbol()
_decodedText = textBuffer.toString()
return char
}
return null
}
private fun flushSymbol(): Char? {
if (currentSymbol.isEmpty()) return null
val morse = currentSymbol.toString()
currentSymbol.clear()
val char = morseToChar(morse)
if (char != null) textBuffer.append(char)
return char
}
private fun updateSpeed() {
if (recentDits.size < 3) return
val sorted = recentDits.sorted()
val median = sorted[sorted.size / 2]
if (median > 0f) {
dotDurationMs = dotDurationMs * 0.7f + median * 0.3f
val wpm = 60.0f / (50.0f * dotDurationMs / 1000.0f)
if (wpm in 5f..55f) speedWpm = wpm
}
}
fun getSpeed(): Float = speedWpm
fun reset() {
dotDurationMs = 60f
speedWpm = 20f
recentDits.clear()
currentSymbol.clear()
textBuffer.clear()
_decodedText = ""
}
companion object {
private val MORSE_TABLE = mapOf(
"01" to 'A', "1000" to 'B', "1010" to 'C', "100" to 'D', "0" to 'E',
"0010" to 'F', "110" to 'G', "0000" to 'H', "00" to 'I', "0111" to 'J',
"101" to 'K', "0100" to 'L', "11" to 'M', "10" to 'N', "111" to 'O',
"0110" to 'P', "1101" to 'Q', "010" to 'R', "000" to 'S', "1" to 'T',
"001" to 'U', "0001" to 'V', "011" to 'W', "1001" to 'X', "1011" to 'Y',
"1100" to 'Z', "01111" to '1', "00111" to '2', "00011" to '3',
"00001" to '4', "00000" to '5', "10000" to '6', "11000" to '7',
"11100" to '8', "11110" to '9', "11111" to '0',
"010101" to '.', "110011" to ',', "001100" to '?', "011110" to '\'',
"101011" to '!', "10010" to '/', "10110" to '(', "101101" to ')',
"01000" to '&', "111000" to ':', "101010" to ';', "10001" to '=',
"01010" to '+', "100001" to '-', "001101" to '_', "010010" to '"',
"0001001" to '$', "011010" to '@'
)
fun morseToChar(morse: String): Char? = MORSE_TABLE[morse]
}
}
data class ToneResult(val symbol: Char?, val probability: Float)
@@ -1,114 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.cw
/**
* Multi-channel CW signal tracker.
* Monitors the spectrogram for active frequency bins and extracts
* energy envelopes for each detected signal.
*
* Inspired by CW Skimmer's multi-channel approach:
* tracks all active signals in the passband simultaneously,
* selects the best one for decoded output.
*/
internal class CwChannelTracker(
private val spectrogram: CwSpectrogram,
private val maxChannels: Int = 3
) {
data class Channel(
val bin: Int,
val frequency: Float,
var active: Boolean = false,
var energy: Float = 0f,
val history: MutableList<Float> = mutableListOf(),
var confidence: Float = 0f
)
private val channels = Array(maxChannels) { Channel(0, 0f) }
/** Scan the current spectrogram column and update channel tracking. */
fun update(): List<Channel> {
val col = spectrogram.getCurrentColumn()
val peaks = findPeaks(col, threshold = 0.3f, minDistance = 2)
// Update existing channels
for (ch in channels) {
if (ch.active) {
if (peaks.contains(ch.bin)) {
ch.energy = col[ch.bin]
ch.history.add(ch.energy)
if (ch.history.size > 40) ch.history.removeAt(0)
ch.confidence = computeConfidence(ch.history)
} else {
// Signal lost — decay confidence
ch.history.add(0f)
if (ch.history.size > 40) ch.history.removeAt(0)
ch.confidence *= 0.9f
if (ch.confidence < 0.1f) ch.active = false
}
}
}
// Assign new peaks to inactive channels
var peakIdx = 0
for (ch in channels) {
if (!ch.active && peakIdx < peaks.size) {
val bin = peaks[peakIdx]
val freq = spectrogram.binToFreq(bin)
// Re-initialize channel
channels[peakIdx] = Channel(bin, freq, true, col[bin], mutableListOf(), 0.5f)
peakIdx++
}
}
return channels.filter { it.active }
}
/** Find peak bins in the spectrum. */
private fun findPeaks(spectrum: FloatArray, threshold: Float, minDistance: Int): List<Int> {
val peaks = mutableListOf<Int>()
for (i in 1 until spectrum.size - 1) {
if (spectrum[i] > spectrum[i - 1] && spectrum[i] > spectrum[i + 1] && spectrum[i] > threshold) {
if (peaks.isEmpty() || i - peaks.last() >= minDistance) {
peaks.add(i)
}
}
}
return peaks.sortedByDescending { spectrum[it] }
}
/** Compute confidence from energy history. Lower variance = higher confidence. */
private fun computeConfidence(history: List<Float>): Float {
if (history.size < 10) return 0.3f
val recent = history.takeLast(10)
val mean = recent.average().toFloat()
val variance = recent.map { (it - mean) * (it - mean) }.average().toFloat()
return if (mean > 0f) (mean / (mean + variance + 0.1f)).coerceIn(0f, 1f) else 0f
}
/** Get the channel with highest confidence. */
fun getBestChannel(): Channel? {
return channels.filter { it.active }.maxByOrNull { it.confidence }
}
fun reset() {
for (i in channels.indices) {
channels[i] = Channel(0, 0f)
}
}
}
@@ -1,165 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.cw
import kotlinx.coroutines.flow.MutableStateFlow
import kotlinx.coroutines.flow.StateFlow
/**
* CW (Morse code) decoder v3 — Spectrogram-based multi-channel Bayesian decoder.
*
* Architecture inspired by Morse Expert / CW Skimmer (VE3NEA):
* 1. FFT spectrogram creates a frequency×time matrix
* 2. Multi-channel peak detector finds all active signals
* 3. Per-channel energy envelope extraction
* 4. Bayesian probability for symbol timing (Gaussian likelihood)
* 5. Best channel selected for output
*
* Timing analysis is performed per spectrogram column (hop).
* Each column represents hopSize/sampleRate seconds of audio.
*/
class CwDecoder(
val sampleRate: Int = 8000,
cwToneFreq: Float = -1f // ignored in v3 (auto-detect via spectrogram)
) {
companion object {
private const val FFT_SIZE = 256
private const val HOP_SIZE = 64
}
private val spectrogram = CwSpectrogram(
fftSize = FFT_SIZE,
hopSize = HOP_SIZE,
sampleRate = sampleRate,
minBin = 6,
maxBin = 38,
historyCols = 40
)
private val channelTracker = CwChannelTracker(spectrogram, maxChannels = 3)
private val bayesianDecoder = CwBayesianDecoder()
// Timing state per channel
private data class ChannelTiming(
var isSignal: Boolean = false,
var toneTicks: Int = 0,
var gapTicks: Int = 0
)
private val timingStates = Array(3) { ChannelTiming() }
// Time per spectrogram column in milliseconds
private val tickMs = 1000f * HOP_SIZE / sampleRate
// Output flows
private val _decodedTextFlow = MutableStateFlow("")
val decodedTextFlow: StateFlow<String> = _decodedTextFlow
private val _signalStrength = MutableStateFlow(0f)
val signalStrength: StateFlow<Float> = _signalStrength
private val _estimatedPitch = MutableStateFlow<Float?>(null)
val estimatedPitch: StateFlow<Float?> = _estimatedPitch
private val _estimatedSpeed = MutableStateFlow<Float?>(null)
val estimatedSpeed: StateFlow<Float?> = _estimatedSpeed
private var frameCount = 0
init {
if (cwToneFreq > 0f) {
_estimatedPitch.value = cwToneFreq
}
}
fun processBuffer(buffer: FloatArray) {
// 1. Feed samples to spectrogram
spectrogram.addSamples(buffer)
// 2. Get number of new columns generated
val newCols = spectrogram.getNewColumns()
if (newCols == 0) return
// 3. Update channel tracker (uses latest column for peak detection)
val activeChannels = channelTracker.update()
// 4. Process each new column for timing analysis
// Columns are indexed 0..historyCols-1, where historyCols-1 is the newest
val baseIdx = (spectrogram.historyCols - newCols).coerceAtLeast(0)
for (colOffset in 0 until newCols) {
val col = spectrogram.getColumn(baseIdx + colOffset)
for ((idx, channel) in activeChannels.withIndex()) {
if (idx >= timingStates.size) break
val state = timingStates[idx]
val energy = if (channel.bin in col.indices) col[channel.bin] else 0f
// Adaptive threshold
val threshold = 0.3f + (energy - 0.3f) * 0.3f
if (energy > threshold) {
if (!state.isSignal) {
if (state.gapTicks > 0) {
val gapMs = state.gapTicks * tickMs
bayesianDecoder.processGap(gapMs)
}
state.gapTicks = 0
state.isSignal = true
}
state.toneTicks++
} else {
if (state.isSignal) {
if (state.toneTicks > 0) {
val toneMs = state.toneTicks * tickMs
bayesianDecoder.processTone(toneMs)
}
state.toneTicks = 0
state.isSignal = false
}
state.gapTicks++
}
}
}
// 5. Update outputs
frameCount++
if (frameCount % 5 == 0) {
val bestChannel = channelTracker.getBestChannel()
if (bestChannel != null) {
_estimatedPitch.value = bestChannel.frequency
_signalStrength.value = bestChannel.confidence
_estimatedSpeed.value = bayesianDecoder.getSpeed()
}
_decodedTextFlow.value = bayesianDecoder.decodedText
}
}
fun resetDecoder() {
spectrogram.reset()
channelTracker.reset()
bayesianDecoder.reset()
for (state in timingStates) {
state.isSignal = false
state.toneTicks = 0
state.gapTicks = 0
}
frameCount = 0
_decodedTextFlow.value = ""
_signalStrength.value = 0f
_estimatedPitch.value = null
_estimatedSpeed.value = null
}
}
@@ -1,102 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.cw
import kotlin.math.PI
import kotlin.math.cos
import kotlin.math.sin
import kotlin.math.sqrt
/**
* DSP utilities for CW (Morse code) decoding.
* Pure Kotlin, no NDK required.
*/
internal object CwDsp {
/**
* Design a simple bandpass FIR filter coefficients using windowed sinc method.
* @param lowCutoff lower cutoff frequency (Hz) as fraction of sampleRate
* @param highCutoff upper cutoff frequency (Hz) as fraction of sampleRate
* @param taps filter length (must be odd)
*/
fun bandpassFir(lowCutoff: Double, highCutoff: Double, taps: Int): FloatArray {
val n = if (taps % 2 == 0) taps + 1 else taps
val half = n / 2
val coeffs = FloatArray(n)
for (i in 0 until n) {
val idx = i - half
if (idx == 0) {
coeffs[i] = (2.0 * (highCutoff - lowCutoff)).toFloat()
} else {
val x = PI * idx
coeffs[i] = ((sin(2 * highCutoff * x) - sin(2 * lowCutoff * x)) / x).toFloat()
}
// Hamming window
coeffs[i] = (coeffs[i] * (0.54 - 0.46 * cos(2 * PI * i / (n - 1)))).toFloat()
}
// Normalize
val sum = coeffs.sum()
if (sum != 0f) for (i in 0 until n) coeffs[i] /= sum
return coeffs
}
/** Apply FIR filter to a buffer. */
fun applyFir(buffer: FloatArray, coeffs: FloatArray): FloatArray {
val out = FloatArray(buffer.size)
for (i in buffer.indices) {
var sum = 0f
for (j in coeffs.indices) {
val idx = i - j
if (idx >= 0) sum += buffer[idx] * coeffs[j]
}
out[i] = sum
}
return out
}
/** Simple envelope detector: abs + low-pass smoothing. */
fun envelope(signal: FloatArray, alpha: Float = 0.1f): FloatArray {
val env = FloatArray(signal.size)
var s = 0f
for (i in signal.indices) {
s = alpha * kotlin.math.abs(signal[i]) + (1 - alpha) * s
env[i] = s
}
return env
}
/** Estimate noise floor from envelope for adaptive thresholding. */
fun noiseFloor(env: FloatArray, fraction: Float = 0.3f): Float {
val sorted = env.sortedArray()
val median = sorted[sorted.size / 2]
return median + (sorted[sorted.size * 9 / 10] - median) * fraction
}
/** Simple Goertzel to detect a specific tone frequency. */
fun goertzel(buffer: FloatArray, targetFreq: Float, sampleRate: Int): Float {
val omega = 2.0 * PI * targetFreq / sampleRate
val coeff = 2.0 * cos(omega)
var s0 = 0.0; var s1 = 0.0; var s2 = 0.0
for (sample in buffer) {
s0 = sample.toDouble() + coeff * s1 - s2
s2 = s1; s1 = s0
}
val power = s2 * s2 + s1 * s1 - coeff * s1 * s2
return sqrt(kotlin.math.abs(power)).toFloat()
}
}
@@ -1,87 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.cw
import kotlin.math.cos
import kotlin.math.sqrt
/**
* Radix-2 FFT for real-valued input.
* Produces magnitude spectrum for the first N/2+1 bins.
* Used by CwSpectrogram for time-frequency analysis.
*/
internal class CwFFT(private val n: Int) {
init {
require(n > 0 && n and (n - 1) == 0) { "FFT size must be power of 2, got $n" }
}
private val cosTable = FloatArray(n / 2)
private val sinTable = FloatArray(n / 2)
init {
for (i in 0 until n / 2) {
val angle = -2.0 * kotlin.math.PI * i / n
cosTable[i] = cos(angle).toFloat()
sinTable[i] = kotlin.math.sin(angle).toFloat()
}
}
/** Compute magnitude spectrum for real input. Returns array of size n/2+1. */
fun magnitudeSpectrum(input: FloatArray): FloatArray {
require(input.size == n) { "Input size must be $n, got ${input.size}" }
val real = input.copyOf()
val imag = FloatArray(n)
// Bit-reversal permutation
var j = 0
for (i in 1 until n) {
var bit = n shr 1
while (j and bit != 0) { j = j xor bit; bit = bit shr 1 }
j = j xor bit
if (i < j) {
var tmp = real[i]; real[i] = real[j]; real[j] = tmp
}
}
// Radix-2 Cooley-Tukey FFT
var len = 2
while (len <= n) {
val half = len / 2
val step = n / len
for (i in 0 until n step len) {
for (k in 0 until half) {
val tReal = real[i + k + half] * cosTable[k * step] - imag[i + k + half] * sinTable[k * step]
val tImag = real[i + k + half] * sinTable[k * step] + imag[i + k + half] * cosTable[k * step]
real[i + k + half] = real[i + k] - tReal
imag[i + k + half] = imag[i + k] - tImag
real[i + k] += tReal
imag[i + k] += tImag
}
}
len = len shl 1
}
// Magnitude spectrum (first N/2+1 bins)
val mag = FloatArray(n / 2 + 1)
for (i in 0..n / 2) {
mag[i] = sqrt(real[i] * real[i] + imag[i] * imag[i]) / n
}
return mag
}
}
@@ -1,48 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.cw
/**
* First-order IIR filters.
* Ported from ggmorse/src/filter.h
*/
internal class CwFilter {
private var z1 = 0f
companion object {
private const val PI_F = 3.141592653589793f
}
fun highPass(sample: Float, cutoffHz: Float, sampleRate: Float): Float {
val rc = 1.0f / (2f * PI_F * cutoffHz)
val dt = 1.0f / sampleRate
val alpha = dt / (rc + dt)
z1 = alpha * (z1 + sample - z1)
return sample - z1
}
fun lowPass(sample: Float, cutoffHz: Float, sampleRate: Float): Float {
val rc = 1.0f / (2f * PI_F * cutoffHz)
val dt = 1.0f / sampleRate
val alpha = dt / (rc + dt)
z1 += alpha * (sample - z1)
return z1
}
fun reset() { z1 = 0f }
}
@@ -1,54 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.cw
import kotlin.math.cos
import kotlin.math.sqrt
/**
* Running Goertzel filter for CW tone detection.
* Tracks a specific frequency over time with a sliding window.
* Ported from ggmorse/src/goertzel.h
*/
internal class CwGoertzel {
private var s1 = 0.0
private var s2 = 0.0
private var coeff = 0.0
fun init(sampleRate: Float, targetFreq: Float) {
val omega = 2.0 * kotlin.math.PI * targetFreq / sampleRate
coeff = 2.0 * cos(omega)
s1 = 0.0
s2 = 0.0
}
fun process(sample: Float) {
val s0 = sample.toDouble() + coeff * s1 - s2
s2 = s1
s1 = s0
}
fun getPower(): Float {
return sqrt(s2 * s2 + s1 * s1 - coeff * s1 * s2).toFloat()
}
fun reset() {
s1 = 0.0
s2 = 0.0
}
}
@@ -1,53 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.cw
/**
* Simple linear resampler.
* Downsamples from input sample rate to output sample rate.
* Ported from ggmorse/src/resampler.h
*/
internal class CwResampler(private val inputRate: Float, private val outputRate: Float) {
private val ratio = inputRate / outputRate
private var lastSample = 0f
fun process(input: FloatArray): FloatArray {
if (ratio <= 0f || input.isEmpty()) return input
val outputLen = (input.size / ratio).toInt() + 1
val output = FloatArray(outputLen)
var idx = 0f
for (i in output.indices) {
val intIdx = idx.toInt()
val frac = idx - intIdx
if (intIdx + 1 < input.size) {
output[i] = input[intIdx] * (1 - frac) + input[intIdx + 1] * frac
} else if (intIdx < input.size) {
output[i] = input[intIdx] * (1 - frac) + lastSample * frac
} else {
output[i] = lastSample
}
idx += ratio
}
lastSample = input.lastOrNull() ?: lastSample
return output
}
fun reset() {
lastSample = 0f
}
}
@@ -1,61 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.cw
import kotlin.math.cos
import kotlin.math.sin
import kotlin.math.sqrt
/**
* Lightweight pitch detector using DFT at specific frequency bins.
* Only scans [200, 1200] Hz in configurable steps — much faster than full FFT.
* Ported from ggmorse/src/stfft.h (simplified for CW use case).
*/
internal class CwPitchDetector(
private val sampleRate: Float,
private val minFreq: Float = 200f,
private val maxFreq: Float = 1200f,
private val stepHz: Float = 10f
) {
/**
* Find the dominant pitch frequency in the buffer.
* Returns null if no significant pitch found.
*/
fun findPitch(buffer: FloatArray): Float? {
if (buffer.isEmpty()) return null
var bestFreq = 0f
var bestPower = 0f
var freq = minFreq
while (freq <= maxFreq) {
var real = 0.0
var imag = 0.0
val omega = 2.0 * kotlin.math.PI * freq / sampleRate
for (i in buffer.indices) {
real += buffer[i] * cos(omega * i)
imag += buffer[i] * -sin(omega * i)
}
val power = (real * real + imag * imag).toFloat()
if (power > bestPower) {
bestPower = power
bestFreq = freq
}
freq += stepHz
}
return if (bestPower > 0.001f) bestFreq else null
}
}
@@ -1,170 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.cw
/**
* Sliding-window spectrogram for CW decoding.
* Maintains a time-frequency matrix updated with each audio frame.
*
* FFT size: 256, hop size: 64, sample rate: 4000 (or native)
* Frequency bins: 6..38 (187-1187 Hz, covers typical CW range)
* History: 40 columns (320 ms window)
* Time resolution: 64/4000 = 16 ms, Frequency resolution: 4000/256 = 15.625 Hz
*/
internal class CwSpectrogram(
private val fftSize: Int = 256,
private val hopSize: Int = 64,
private val sampleRate: Int = 4000,
private val minBin: Int = 6,
private val maxBin: Int = 38,
val historyCols: Int = 40
) {
private val fft = CwFFT(fftSize)
val numBins: Int get() = maxBin - minBin + 1
// Hanning window
private val hanning = FloatArray(fftSize) {
(0.5 - 0.5 * kotlin.math.cos(2.0 * kotlin.math.PI * it / (fftSize - 1))).toFloat()
}
// Spectrogram data: [timeCol][freqBin]
private val spectrogram = Array(historyCols) { FloatArray(numBins) }
private var currentCol = 0
private var samplesBuffered = 0
private val buffer = FloatArray(fftSize)
// Per-bin running energy for normalization
private val binEnergy = FloatArray(numBins) { 1f }
private val alpha = 0.95f
// Counter for new columns generated since last check
private var newColumnCount = 0
/** Add audio samples, compute FFTs for each complete hop. */
fun addSamples(samples: FloatArray) {
var offset = 0
while (offset < samples.size) {
val needed = fftSize - samplesBuffered
val copyLen = minOf(needed, samples.size - offset)
System.arraycopy(samples, offset, buffer, samplesBuffered, copyLen)
samplesBuffered += copyLen
offset += copyLen
if (samplesBuffered >= fftSize) {
processFrame()
newColumnCount++
// Shift buffer: keep last (fftSize - hopSize) samples
System.arraycopy(buffer, hopSize, buffer, 0, fftSize - hopSize)
samplesBuffered = fftSize - hopSize
}
}
}
/** Get number of new columns generated since the last call to this method. */
fun getNewColumns(): Int {
val count = newColumnCount
newColumnCount = 0
return count
}
private fun processFrame() {
// Apply Hanning window
val windowed = FloatArray(fftSize) { buffer[it] * hanning[it] }
// Compute FFT magnitude spectrum
val mag = fft.magnitudeSpectrum(windowed)
// Update spectrogram column
val col = spectrogram[currentCol]
for (b in 0 until numBins) {
val binIdx = minBin + b
val rawMag = mag[binIdx]
// Running energy normalization
binEnergy[b] = alpha * binEnergy[b] + (1 - alpha) * rawMag
col[b] = if (binEnergy[b] > 1e-6f) rawMag / binEnergy[b] else 0f
}
currentCol = (currentCol + 1) % historyCols
}
/** Get the current spectrogram as a 2D array in chronological order. */
fun getSpectrogram(): Array<FloatArray> {
val result = Array(historyCols) { i ->
val srcIdx = (currentCol + i) % historyCols
spectrogram[srcIdx].copyOf()
}
return result
}
/** Get the most recent column (current energy across all frequencies). */
fun getCurrentColumn(): FloatArray {
val prevCol = (currentCol - 1 + historyCols) % historyCols
return spectrogram[prevCol].copyOf()
}
/** Get a column by index from the history (0 = oldest, historyCols-1 = newest). */
fun getColumn(index: Int): FloatArray {
val clamped = index.coerceIn(0, historyCols - 1)
val srcIdx = (currentCol - historyCols + clamped + historyCols) % historyCols
return spectrogram[srcIdx].copyOf()
}
/** Find the frequency bin with peak energy. Returns -1 if no significant signal. */
fun findPeakBin(): Int {
val col = getCurrentColumn()
var maxBin = -1
var maxVal = 0f
for (i in col.indices) {
if (col[i] > maxVal) {
maxVal = col[i]
maxBin = i
}
}
return if (maxVal > 0.3f) maxBin else -1
}
/** Get energy at a specific bin over the last N columns in chronological order. */
fun getBinEnergy(bin: Int, numCols: Int): FloatArray {
val clamped = minOf(numCols, historyCols)
val result = FloatArray(clamped)
for (i in 0 until clamped) {
val colIdx = (currentCol - clamped + i + historyCols) % historyCols
result[i] = spectrogram[colIdx][bin]
}
return result
}
/** Get the bin index for a frequency in Hz. */
fun freqToBin(freqHz: Float): Int {
val bin = (freqHz * fftSize / sampleRate).toInt()
return (bin - minBin).coerceIn(0, numBins - 1)
}
/** Get the center frequency for a bin. */
fun binToFreq(bin: Int): Float {
return (minBin + bin).toFloat() * sampleRate / fftSize
}
fun reset() {
for (col in spectrogram) col.fill(0f)
currentCol = 0
samplesBuffered = 0
buffer.fill(0f)
binEnergy.fill(1f)
}
}
@@ -1,17 +0,0 @@
package com.rtbishop.look4sat.core.domain.model
/** One public AMSAT satellite status report submission. */
data class AmSatReportSubmission(
val name: String,
val report: String,
val callsign: String,
val gridSquare: String,
val reportedAtUtcMillis: Long
)
/** Result of submitting an AMSAT satellite status report. */
data class AmSatReportSubmitResult(
val success: Boolean,
val message: String = "",
val reportId: String? = null
)
@@ -1,194 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.model
/**
* Award progress computed from the confirmed-QSO store.
*
* @param type which award
* @param workedKeys matching keys for the boundary assets: each is compared
* against the region "code" field of the award's GeoJSON
* (e.g. WAPC -> "GD", WAJA -> "34", WAZ -> "24",
* WAS -> "CA", DXCC -> "318", VUCC -> "OL62").
* @param count distinct worked units (grids / entities / provinces / ...)
* @param target units required for the award
*/
data class AwardProgress(
val type: AwardType,
val workedKeys: Set<String>,
val count: Int,
val target: Int
)
enum class AwardType { DXCC, VUCC, WAPC, WAJA, WAZ, WAS }
object AwardTargets {
const val DXCC = 100
const val VUCC = 100
const val WAPC = 34
const val WAJA = 47
const val WAZ = 40
const val WAS = 50
}
/**
* Derives six-award progress from the confirmed QSO store.
*
* Award rules (ADIF / award-program semantics):
* - VUCC: distinct 4-char gridsquares.
* - DXCC: distinct ARRL DXCC entities (from the QSO's dxcc field; falls back
* to a callsign-prefix guess when LoTW omitted it).
* - WAPC: distinct Chinese provinces (31 mainland STATE codes) plus the
* Hong Kong / Macao / Taiwan entities (counted as their own provinces).
* - WAJA: distinct Japanese prefectures (STATE code "01".."47").
* - WAZ: distinct CQ zones.
* - WAS: distinct US states (STATE abbreviations).
*
* The ADIF STATE field's meaning depends on the DXCC entity
* ("STATE depends on DXCC"), so every QSO is first classified by entity.
*/
object AwardCalculator {
fun calculate(qsosByGrid: Map<String, List<GridQso>>): List<AwardProgress> {
val all = qsosByGrid.values.flatten()
return listOf(
AwardProgress(
AwardType.VUCC,
workedKeys = qsosByGrid.keys,
count = qsosByGrid.size,
target = AwardTargets.VUCC
),
calculateDxcc(all),
calculateWapc(all),
calculateWaja(all),
calculateWaz(all),
calculateWas(all)
)
}
private fun calculateDxcc(all: List<GridQso>): AwardProgress {
val keys = mutableSetOf<String>()
for (q in all) {
val code = q.dxcc ?: prefixEntityCode(q.call)
if (code != null) keys.add(code.toString())
}
return AwardProgress(AwardType.DXCC, keys, keys.size, AwardTargets.DXCC)
}
private fun calculateWapc(all: List<GridQso>): AwardProgress {
val keys = mutableSetOf<String>()
for (q in all) {
when (entityOf(q)) {
Entity.CHINA -> q.state?.trim()?.uppercase()?.takeIf { it in CN_STATES }?.let { keys.add(it) }
Entity.HONG_KONG -> keys.add(HK_CODE)
Entity.MACAO -> keys.add(MO_CODE)
Entity.TAIWAN -> keys.add(TW_CODE)
else -> {}
}
}
return AwardProgress(AwardType.WAPC, keys, keys.size, AwardTargets.WAPC)
}
private fun calculateWaja(all: List<GridQso>): AwardProgress {
val keys = mutableSetOf<String>()
for (q in all) {
if (entityOf(q) != Entity.JAPAN) continue
q.state?.trim()?.takeIf { it.length == 2 && it.all(Char::isDigit) }?.let { keys.add(it) }
}
return AwardProgress(AwardType.WAJA, keys, keys.size, AwardTargets.WAJA)
}
private fun calculateWaz(all: List<GridQso>): AwardProgress {
val keys = mutableSetOf<String>()
for (q in all) {
q.cqz?.takeIf { it in 1..40 }?.let { keys.add(it.toString()) }
}
return AwardProgress(AwardType.WAZ, keys, keys.size, AwardTargets.WAZ)
}
private fun calculateWas(all: List<GridQso>): AwardProgress {
val keys = mutableSetOf<String>()
for (q in all) {
if (entityOf(q) != Entity.USA) continue
q.state?.trim()?.uppercase()?.takeIf { it in US_STATES }?.let { keys.add(it) }
}
return AwardProgress(AwardType.WAS, keys, keys.size, AwardTargets.WAS)
}
private enum class Entity { CHINA, HONG_KONG, MACAO, TAIWAN, JAPAN, USA, OTHER }
private fun entityOf(q: GridQso): Entity = when (q.dxcc) {
318 -> Entity.CHINA
321 -> Entity.HONG_KONG
152 -> Entity.MACAO
386 -> Entity.TAIWAN
339 -> Entity.JAPAN
291 -> Entity.USA
else -> prefixEntity(q.call)
}
/** Coarse entity from callsign prefix, used when LoTW omitted the DXCC field. */
private fun prefixEntity(call: String): Entity {
val c = call.uppercase().substringBefore('/')
return when {
CN_PREFIXES.any { c.startsWith(it) } -> Entity.CHINA
c.startsWith("VR") -> Entity.HONG_KONG
c.startsWith("XX9") -> Entity.MACAO
TW_PREFIXES.any { c.startsWith(it) } -> Entity.TAIWAN
JP_PREFIXES.any { c.startsWith(it) } -> Entity.JAPAN
US_PREFIXES.any { c.startsWith(it) } -> Entity.USA
else -> Entity.OTHER
}
}
/** ARRL DXCC entity code guessed from callsign prefix (very coarse). */
private fun prefixEntityCode(call: String): Int? {
return when (prefixEntity(call)) {
Entity.CHINA -> 318
Entity.HONG_KONG -> 321
Entity.MACAO -> 152
Entity.TAIWAN -> 386
Entity.JAPAN -> 339
Entity.USA -> 291
else -> null
}
}
private val CN_PREFIXES = listOf("BA", "BD", "BG", "BH", "BI", "BY", "BJ", "BK", "BL", "BQ", "BR", "BS")
private val TW_PREFIXES = listOf("BM", "BV", "BU", "BW", "BX", "BN", "BO", "BT", "BZ")
private val JP_PREFIXES =
listOf("7J", "7K", "7L", "7M", "7N") + ('A'..'Z').map { "J$it" }
private val US_PREFIXES =
listOf("AA", "AB", "AC", "AD", "AE", "AF", "AG", "AH", "AI", "AJ", "AK", "AL", "K", "N", "W")
private val CN_STATES = setOf(
"AH", "BJ", "CQ", "FJ", "GD", "GS", "GX", "GZ", "HA", "HB", "HE", "HI", "HL", "HN", "JL",
"JS", "JX", "LN", "NM", "NX", "QH", "SC", "SD", "SH", "SN", "SX", "TJ", "XJ", "XZ", "YN", "ZJ"
)
private val US_STATES = setOf(
"AL", "AK", "AZ", "AR", "CA", "CO", "CT", "DE", "FL", "GA", "HI", "ID", "IL", "IN", "IA",
"KS", "KY", "LA", "ME", "MD", "MA", "MI", "MN", "MS", "MO", "MT", "NE", "NV", "NH", "NJ",
"NM", "NY", "NC", "ND", "OH", "OK", "OR", "PA", "RI", "SC", "SD", "TN", "TX", "UT", "VT",
"VA", "WA", "WV", "WI", "WY"
)
private const val HK_CODE = "HK"
private const val MO_CODE = "MO"
private const val TW_CODE = "TW"
}
@@ -1,23 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.model
object Constants {
const val FREQ_OFFSET_MIN_HZ = -50_000L
const val FREQ_OFFSET_MAX_HZ = 50_000L
}
@@ -1,78 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.model
/**
* One confirmed satellite QSO as reported by LoTW, kept per worked gridsquare
* so the map can show, for any worked grid, which callsigns were worked there
* and when.
*
* @param call opposite station callsign (as logged by the opposite op)
* @param epochMs QSO date+time in UTC milliseconds
* @param satName satellite name (e.g. "FO-29")
* @param mode ADIF mode (FM / CW / SSB ...)
* @param bandUp uplink band as reported by LoTW (BAND_RX: "70CM", "2M", "10M"...)
* @param bandDown downlink band (BAND: "2M", "70CM"...) — may be empty when
* LoTW did not include it
* @param dxcc ARRL DXCC entity code of the opposite station (from ADIF
* <DXCC>), or null when LoTW omitted it
* @param country DXCC entity name (ADIF <COUNTRY>), or null
* @param cqz CQ zone of the opposite station (ADIF <CQZ>), or null
* @param state Primary administrative subdivision of the opposite station
* (ADIF <STATE>). Interpretation depends on the DXCC entity:
* China -> province code ("GD"), Japan -> prefecture number
* ("34"), USA -> state abbreviation ("CA"). Null when absent.
*/
data class GridQso(
val call: String,
val epochMs: Long,
val satName: String,
val mode: String,
val bandUp: String,
val bandDown: String,
val dxcc: Int? = null,
val country: String? = null,
val cqz: Int? = null,
val state: String? = null,
/** 4-char grid the station itself operated from (ADIF MY_GRIDSQUARE). */
val myGrid: String? = null
) {
/** Short uplink/downlink band label ("U/V", "V/A"), or "" when unknown. */
val bandLabel: String
get() {
val up = bandAbbrev(bandUp)
val down = bandAbbrev(bandDown)
return when {
up.isNotEmpty() && down.isNotEmpty() -> "$up/$down"
up.isNotEmpty() -> up
else -> ""
}
}
private fun bandAbbrev(band: String): String = when (band.trim().uppercase()) {
"70CM" -> "U"
"2M" -> "V"
"10M" -> "A"
"6M" -> "V"
"1.2G" -> "L"
"2.4G" -> "S"
"23CM" -> "L"
"13CM" -> "S"
else -> band.trim().uppercase()
}
}
@@ -1,9 +0,0 @@
package com.rtbishop.look4sat.core.domain.model
/** Latest release info fetched from the fork's GitHub releases API. */
data class LatestRelease(
val versionTag: String, // e.g. "v4.4.6-ba7opf.6"
val title: String, // release name, may be empty
val body: String, // release notes / update description
val apkUrl: String? // first .apk asset download URL, null if absent
)
@@ -1,31 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.model
/**
* A station the user marked in a gridsquare they have NOT yet worked — a
* reminder to try to contact that callsign. Stored per 4-char grid (one mark
* per grid).
*
* @param call the callsign the user wants to work (uppercase)
* @param epochMs the moment the mark was created, UTC milliseconds
*/
data class MarkedStation(
val call: String,
val epochMs: Long
)
@@ -32,11 +32,5 @@ data class SatRadio(
@SerialName("uplink_high") val uplinkHigh: Long?,
@SerialName("uplink_mode") val uplinkMode: String?,
@SerialName("invert") val isInverted: Boolean,
@SerialName("norad_cat_id") val catnum: Int?,
/** Service class from the transceiver source ("Amateur"/"Unknown" etc.).
* Used by the SSTV virtual filter to tell amateur satellites apart from
* debris / weather birds (TIROS) / launcher stages (Ariane 6 R/B). */
@SerialName("service") val service: String? = null,
/** Set for manually imported transceivers, which remote updates must not replace. */
val isCustom: Boolean = false
@SerialName("norad_cat_id") val catnum: Int?
)
@@ -1,38 +0,0 @@
package com.rtbishop.look4sat.core.domain.model
/** One satellite status report (AMSAT site tooltip data) */
data class SatReport(
val id: String, // 报告 ID(a885153)
val statusText: String, // Heard / Telemetry Only / Not Heard ...
val call: String, // 呼号
val grid: String, // 网格坐标(可为空)
val dateUtc: String, // 2026-08-04
val timeUtc: String // 2:46-:59 UTC
)
/** State of one 2-hour slot */
data class SatSlot(
val statusColor: Long, // ARGB 状态色(-1 = 无报告)
val count: Int, // 报告数量(0 = 无)
val reportIds: List<String> = emptyList() // 该槽报告 ID 列表
)
/** One satellite day (12 two-hour slots) */
data class SatDay(
val dateLabel: String, // "Aug 4"
val slots: List<SatSlot>, // 12 槽(00-02 ... 22-24)
val streakCount: Int = 0 // 当天最近连续相同状态报告数(0 = 当天无报告)
)
/** One satellite, 3 days of state */
data class SatStatus(
val name: String, // "AO-123_[FM]"
val days: List<SatDay> // 3 days (newest first)
)
/** Overall page parse result */
data class SatStatusPage(
val fetchedAtUtcMs: Long,
val statuses: List<SatStatus>,
val reports: Map<String, SatReport> // id → 报告
)
@@ -29,10 +29,7 @@ data class PassesSettings(
val minElevation: Double,
val aosStartMinute: Int = 0,
val aosEndMinute: Int = 23 * 60 + 59,
val invertAosTimeWindow: Boolean = false,
val selectedModes: List<String>,
/** 历史过境回看窗口(小时): 过境列表从 now-hoursBefore 开始计算. */
val hoursBefore: Int = 0
val invertAosTimeWindow: Boolean = false
)
data class RCSettings(
@@ -44,7 +41,6 @@ data class RCSettings(
val frequencyAddress: String,
val frequencyPort: String,
val frequencyFormat: String,
val frequencyOffsetHz: Long = 0L,
val bluetoothRotatorState: Boolean,
val bluetoothRotatorFormat: String,
val bluetoothRotatorName: String,
@@ -61,46 +57,21 @@ data class OtherSettings(
val stateOfUtc: Boolean,
val stateOfLightTheme: Boolean,
val stateOfNightMode: Boolean = false,
val stateOfMapGrid: Boolean = false,
/** Grid mode: label worked (green) cells with the FIRST callsign worked
* in that grid instead of the Maidenhead code; non-worked cells get no
* label at all. */
val stateOfMapFirstCall: Boolean = false,
val shouldSeeWarning: Boolean,
val shouldSeeWhatsNew: Boolean,
val sstvMode: String = "Auto",
val lowElevation: Double = 15.0,
val highElevation: Double = 45.0,
/** Independent auto-sync toggle for LoTW confirmed grids (separate from the
* ephemeris auto-update; only effective after at least one manual sync). */
val stateOfAutoLotwSync: Boolean = true,
/** 指南针手动航向偏置(度, -180..180): 雷达方位 = 传感器方位 + 磁偏角 + 该偏置. */
val compassOffsetDegrees: Float = 0f
val radarCompassOffset: Float = 0f,
val radarCompassOffsetElev: Float = 0f
)
data class DataSourcesSettings(
val satelliteUrls: List<String>,
val transceiversUrls: List<String>,
val satelliteEnabled: List<Boolean> = emptyList(),
val transceiversEnabled: List<Boolean> = emptyList()
) {
fun isSatelliteEnabled(index: Int): Boolean = satelliteEnabled.getOrElse(index) { true }
fun isTransceiverEnabled(index: Int): Boolean = transceiversEnabled.getOrElse(index) { true }
}
data class WavelogSettings(
val url: String = "",
val token: String = ""
) {
val isConfigured: Boolean get() = url.isNotBlank() && token.isNotBlank()
}
data class LoTWSettings(
val callsign: String = "",
val password: String = ""
) {
val isConfigured: Boolean get() = callsign.isNotBlank() && password.isNotBlank()
}
val useCustomTLE: Boolean,
val useCustomTransceivers: Boolean,
val tleUrl: String,
val transceiversUrl: String
)
data class RadioControlSettings(
val enabled: Boolean,
@@ -424,15 +424,11 @@ object CelestialComputer {
}
if (sunrise == 0.0) sunrise = daynum
// Phase 4: fast-forward through the day until sun drops back below threshold.
// Start from just after sunrise (small offset) so the sun is clearly above
// the threshold. This prevents a bug where Phase 3 converges to a point
// slightly below -threshold, causing Phase 4 to skip and Phase 5 to converge
// to the same time as sunrise, producing identical sunrise/sunset times.
daynum = sunrise + 0.001
// Phase 4: fast-forward through the day until sun drops back below threshold
daynum = sunrise
sunPos = getSunPosition(observer, daynumToMillis(daynum))
guard = 0
while (sunPos.elevation >= -threshold && guard++ < 500) {
while (sunPos.elevation > -threshold && guard++ < 500) {
daynum += 0.008
sunPos = getSunPosition(observer, daynumToMillis(daynum))
}
@@ -1,23 +0,0 @@
package com.rtbishop.look4sat.core.domain.repository
import com.rtbishop.look4sat.core.domain.model.AmSatReportSubmission
import com.rtbishop.look4sat.core.domain.model.AmSatReportSubmitResult
import com.rtbishop.look4sat.core.domain.model.SatStatusPage
/** AMSAT satellite status data source */
interface IAmSatRepository {
/** Cached AMSAT status page for the current foreground session, if any. */
fun getCachedStatus(): SatStatusPage?
/** Fetch and parse the AMSAT status page; null on failure. */
suspend fun fetchStatus(forceRefresh: Boolean = false): SatStatusPage?
/** Warm the foreground-session cache without forcing a network reload. */
suspend fun prefetchStatus()
/** Clear the foreground-session status cache. */
fun clearStatusCache()
/** Submit a public AMSAT satellite status report. */
suspend fun submitReport(submission: AmSatReportSubmission): AmSatReportSubmitResult
}
@@ -1,72 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.repository
/** Fetches confirmed gridsquares directly from ARRL LoTW. */
interface ILoTWRepository {
/**
* Fetch all confirmed (QSL_RCVD=Y) gridsquares for the given LoTW account.
* Returns the 4-char grid set with an explicit failure cause on error.
*/
suspend fun fetchConfirmedGrids(callsign: String, password: String): LoTWResult
/**
* Same report, but keeps the per-QSO detail of every confirmed satellite
* QSO (call / time / satellite / mode / bands), grouped by worked 4-char
* gridsquare. Failure cause is kept explicit.
*
* @param since QSL-since date ("yyyyMMdd" or "yyyy-MM-dd"); use an early
* date for a full report, or the last sync date for an
* incremental pull. Empty falls back to a full report.
* @param onProgress streamed download progress (phase + bytes + estimate),
* invoked from the IO dispatcher; may be called on every
* read chunk.
*/
suspend fun fetchConfirmedGridQsos(
callsign: String,
password: String,
since: String = "",
onProgress: (LoTWProgress) -> Unit = {}
): LoTWResult
}
/** Streamed progress of a LoTW report download. */
data class LoTWProgress(
val phase: LoTWPhase,
/** Bytes read so far (uncompressed body). */
val bytesRead: Long = 0,
/** Estimated total body bytes, derived from <APP_LoTW_NUMREC>; 0 before known. */
val expectedBytes: Long = 0,
/** Smoothed download speed in bytes/second; 0 while unknown. */
val speedBps: Long = 0,
/** Total QSL records reported in the header (<APP_LoTW_NUMREC>); 0 before known. */
val qsoCount: Long = 0
) {
/** Fraction 0..1 of the estimated body already read; 0 while unknown. */
val fraction: Float
get() = if (expectedBytes > 0 && bytesRead > 0)
(bytesRead.toFloat() / expectedBytes).coerceIn(0f, 1f) else 0f
/** Estimated seconds remaining; 0 while size or speed is unknown. */
val remainingSeconds: Long
get() = if (expectedBytes > 0 && speedBps > 0)
((expectedBytes - bytesRead) / speedBps).coerceAtLeast(0) else 0L
}
enum class LoTWPhase { Connecting, Downloading }
@@ -16,13 +16,12 @@
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.repository
import com.rtbishop.look4sat.core.domain.model.SatRadio
import com.rtbishop.look4sat.core.domain.usecase.IAddToCalendar
import com.rtbishop.look4sat.core.domain.usecase.IAudioCapture
import com.rtbishop.look4sat.core.domain.usecase.ISaveImage
import com.rtbishop.look4sat.core.domain.usecase.IShowToast
import kotlinx.coroutines.CoroutineScope
import kotlinx.coroutines.flow.StateFlow
interface IMainContainer {
val appScope: CoroutineScope
@@ -30,13 +29,7 @@ interface IMainContainer {
val selectionRepo: ISelectionRepo
val satelliteRepo: ISatelliteRepo
val databaseRepo: IDatabaseRepo
val amSatRepo: IAmSatRepository
val updateRepo: IUpdateRepository
val wavelogRepo: IWavelogRepository
val lotwRepo: com.rtbishop.look4sat.core.domain.repository.ILoTWRepository
val radioTrackingService: IRadioTrackingService
val mutualPassData: StateFlow<MutualPassData>
fun setMutualPassData(data: MutualPassData)
fun provideAddToCalendar(): IAddToCalendar
fun provideShowToast(): IShowToast
fun provideBluetoothReporter(): IReporter
@@ -46,27 +39,9 @@ interface IMainContainer {
fun provideRxRadioController(): IRadioController
fun provideAudioCapture(): IAudioCapture
fun provideSaveImage(): ISaveImage
fun providePairedBluetoothDevices(): List<Pair<String, String>>
}
data class MutualPassData(
val samples: List<Pair<Long, Pair<Double, Double>>> = emptyList(),
val trackSamples: List<TrackSampleData> = emptyList(),
val startTime: Long = 0L,
val endTime: Long = 0L,
val maxElev: Double = 10.0,
val labelA: String = "你",
val labelB: String = "友台"
)
/** Minimal track sample for cross-module sharing (angles in degrees). */
data class TrackSampleData(
val time: Long = 0L,
val azimuthA: Double,
val elevationA: Double,
val azimuthB: Double,
val elevationB: Double
)
interface IContainerProvider {
fun getMainContainer(): IMainContainer
}
@@ -65,19 +65,4 @@ interface ISatelliteRepo {
/** Fetch radio transceivers for a satellite by its catalog number. */
suspend fun getRadiosWithId(id: Int): List<SatRadio>
/** Satellite catnums whose radios carry any of the given downlink modes.
* Empty modes -> empty result; used to filter the mutual-match satellite
* set to transponder satellites (FM voice / linear). */
suspend fun getSatelliteIdsWithModes(modes: List<String>): List<Int>
/** Like [getSatelliteIdsWithModes] but only matches records with an uplink
* (real transponders), excluding downlink-only beacons/telemetry that share
* the same mode label. Used by the FM/Linear fallback filter. */
suspend fun getSatelliteIdsWithModesAndUplink(modes: List<String>): List<Int>
/** Like [getSatelliteIdsWithModes] but only matches records whose service
* class is "Amateur", so SSTV never matches weather birds (TIROS),
* launcher debris or other non-amateur transmitters. */
suspend fun getSatelliteIdsWithModesAndAmateur(modes: List<String>): List<Int>
}
@@ -21,10 +21,10 @@ import com.rtbishop.look4sat.core.domain.model.SatItem
import kotlinx.coroutines.flow.Flow
interface ISelectionRepo {
fun getCurrentTypes(): List<String>
fun getTypesList(): List<String>
fun getCurrentModes(): List<String>
fun getModesList(): List<String>
suspend fun getEntriesFlow(): Flow<List<SatItem>>
suspend fun setTypes(types: List<String>)
suspend fun setModes(modes: List<String>)
suspend fun setQuery(query: String)
suspend fun setSelection(selectAll: Boolean)
suspend fun setSelection(ids: List<Int>, isTicked: Boolean)
@@ -20,19 +20,8 @@ package com.rtbishop.look4sat.core.domain.repository
import com.rtbishop.look4sat.core.domain.predict.GeoPos
import kotlinx.coroutines.flow.StateFlow
/** 指南针校准精度等级, 由磁场传感器 accuracy 事件映射而来. */
enum class CompassAccuracy {
UNAVAILABLE,
UNRELIABLE,
LOW,
MEDIUM,
HIGH
}
interface ISensorsRepo {
val sensorData: StateFlow<Pair<Float, Float>>
/** 指南针当前校准精度 (磁场传感器 accuracy), 用于校准对话框进度. */
val compassAccuracy: StateFlow<CompassAccuracy>
fun getMagDeclination(geoPos: GeoPos, time: Long = System.currentTimeMillis()): Float
fun enableSensor()
fun disableSensor()
@@ -23,7 +23,6 @@ import com.rtbishop.look4sat.core.domain.model.OtherSettings
import com.rtbishop.look4sat.core.domain.model.PassesSettings
import com.rtbishop.look4sat.core.domain.model.RCSettings
import com.rtbishop.look4sat.core.domain.model.RadioControlSettings
import com.rtbishop.look4sat.core.domain.model.WavelogSettings
import com.rtbishop.look4sat.core.domain.predict.GeoPos
import kotlinx.coroutines.flow.StateFlow
@@ -33,9 +32,9 @@ interface ISettingsRepo {
//region # Satellites selection settings
val selectedIds: StateFlow<List<Int>>
val selectedTypes: StateFlow<List<String>>
val selectedSatModes: StateFlow<List<String>>
fun setSelectedIds(ids: List<Int>)
fun setSelectedTypes(types: List<String>)
fun setSelectedSatModes(modes: List<String>)
//endregion
//region # Passes filter settings
@@ -52,8 +51,6 @@ interface ISettingsRepo {
//region # Database update settings
val databaseState: StateFlow<DatabaseState>
fun getSatelliteTypesIds(types: List<String>): List<Int>
fun setSatelliteTypeIds(type: String, ids: List<Int>)
fun updateDatabaseState(state: DatabaseState)
//endregion
@@ -74,64 +71,8 @@ interface ISettingsRepo {
fun updateDataSourcesSettings(settings: DataSourcesSettings)
//endregion
//region # Data sources status
val dataSourcesStatus: StateFlow<Map<String, Int>>
fun updateDataSourcesStatus(status: Map<String, Int>)
//endregion
//region # AMSAT live-transponder lists
/** Catalog numbers of satellites listed on AMSAT's "Live FM Satellites" page. */
fun getAmSatFmCatnums(): Set<Int>
/** Catalog numbers of satellites listed on AMSAT's "Live Linear Satellites" page. */
fun getAmSatLinearCatnums(): Set<Int>
fun setAmSatCatnums(fmCatnums: Set<Int>, linearCatnums: Set<Int>)
/** Catalog numbers of active *amateur* satellites from AMSAT's
* active-transponder table (whitelist for the virtual type filters). */
fun getAmSatActiveCatnums(): Set<Int>
fun setAmSatActiveCatnums(catnums: Set<Int>)
//endregion
//region # Radio control settings
val radioControlSettings: StateFlow<RadioControlSettings>
fun updateRadioControlSettings(settings: RadioControlSettings)
//endregion
//region # Per-satellite calculator offset settings
fun getSatelliteOffset(catnum: Int): String
fun setSatelliteOffset(catnum: Int, offset: String)
//endregion
//region # AMSAT status report settings
fun getAmSatCallsign(): String
fun setAmSatCallsign(callsign: String)
//endregion
//region # Wavelog worked-grids settings
val wavelogSettings: StateFlow<WavelogSettings>
fun updateWavelogSettings(settings: WavelogSettings)
fun getWorkedGrids(): Set<String>
fun setWorkedGrids(grids: Set<String>)
/** Confirmed satellite QSOs grouped by worked 4-char gridsquare (map tap detail). */
fun getWorkedGridQsos(): Map<String, List<com.rtbishop.look4sat.core.domain.model.GridQso>>
fun setWorkedGridQsos(qsos: Map<String, List<com.rtbishop.look4sat.core.domain.model.GridQso>>)
/** Distinct 4-char gridsquares the account operated from (LoTW <MY_GRIDSQUARE>). */
fun getRoamedGrids(): Set<String>
fun setRoamedGrids(grids: Set<String>)
/** Stations the user marked as "want to contact" in unworked gridsquares
* (grid -> ordered list of marks; the first is the pinned/top one). The
* whole grid clears automatically once it becomes worked. */
fun getMarkedGridStations(): Map<String, List<com.rtbishop.look4sat.core.domain.model.MarkedStation>>
fun setMarkedGridStations(stations: Map<String, List<com.rtbishop.look4sat.core.domain.model.MarkedStation>>)
//endregion
//region # LoTW confirmed-grids settings
val lotwSettings: StateFlow<com.rtbishop.look4sat.core.domain.model.LoTWSettings>
fun updateLoTWSettings(settings: com.rtbishop.look4sat.core.domain.model.LoTWSettings)
/** Last successful LoTW sync date ("yyyyMMdd", empty when never synced). */
fun getLastLotwSyncDate(): String
fun setLastLotwSyncDate(date: String)
/** Callsign of the last successful LoTW sync (empty when never synced). */
fun getLastLotwSyncCallsign(): String
fun setLastLotwSyncCallsign(callsign: String)
//endregion
}
@@ -1,12 +0,0 @@
package com.rtbishop.look4sat.core.domain.repository
import com.rtbishop.look4sat.core.domain.model.LatestRelease
import java.io.File
interface IUpdateRepository {
/** Fetch the latest release of the fork repo from GitHub; null on failure. */
suspend fun getLatestRelease(): LatestRelease?
/** Download the release APK from [url] into [dest]; true on success. */
suspend fun downloadApk(url: String, dest: File): Boolean
}
@@ -1,28 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.repository
/** Fetches worked gridsquares from a self-hosted Wavelog instance (API v2). */
interface IWavelogRepository {
/**
* Fetch worked grids for the configured Wavelog URL/token.
* Returns the grid set, or null on any failure.
*/
suspend fun fetchWorkedGrids(url: String, token: String): Set<String>?
}
@@ -1,169 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.repository
import com.rtbishop.look4sat.core.domain.model.GridQso
import kotlinx.coroutines.Dispatchers
import kotlinx.coroutines.withContext
import java.text.SimpleDateFormat
import java.util.Date
import java.util.Locale
import java.util.TimeZone
/**
* Shared LoTW sync orchestration used by BOTH the manual sync (settings screen)
* and the automatic sync on app start (MainApplication), so the two paths can
* never drift apart:
*
* - [LoTWSyncMode.Incremental] pulls only the confirmations since the last sync
* and MERGES them into the stored grids/QSOs (grids only grow; QSO detail is
* deduped by call + QSO time).
* - [LoTWSyncMode.Full] pulls everything and REPLACES the stored data.
*/
/**
* UTC date ("yyyyMMdd") of the given instant — the "already synced today"
* gate granularity.
*/
fun lotwSyncToday(now: Long = System.currentTimeMillis()): String =
SimpleDateFormat("yyyyMMdd", Locale.US)
.apply { timeZone = TimeZone.getTimeZone("UTC") }
.format(Date(now))
/**
* Full UTC timestamp cursor ("yyyy-MM-dd HH:mm:ss") written after a
* successful sync. This is exactly the format LoTW's qso_qslsince accepts
* (measured live 2026-09-17: the legacy "yyyyMMdd" cursor is silently
* ignored by LoTW, which falls back to its own system-supplied default),
* and it keeps enough precision to display the last-sync time like the
* ephemeris update time.
*/
fun lotwSyncCursor(now: Long = System.currentTimeMillis()): String =
SimpleDateFormat("yyyy-MM-dd HH:mm:ss", Locale.US)
.apply { timeZone = TimeZone.getTimeZone("UTC") }
.format(Date(now))
/** Date part of a stored cursor as "yyyyMMdd", tolerating the legacy
* "yyyyMMdd" format and the current "yyyy-MM-dd HH:mm:ss" format. */
fun lotwCursorDate(cursor: String): String = when {
cursor.length >= 10 && cursor[4] == '-' -> cursor.substring(0, 10).replace("-", "")
else -> cursor.take(8)
}
/** qso_qslsince value for the API: passes the full timestamp through and
* normalizes a legacy "yyyyMMdd" cursor to the documented "yyyy-MM-dd". */
fun lotwCursorApi(cursor: String): String = when {
cursor.isBlank() -> ""
cursor.length >= 10 && cursor[4] == '-' -> cursor
else -> "${cursor.take(4)}-${cursor.substring(4, 6)}-${cursor.substring(6, 8)}"
}
/** Stored cursor parsed to UTC epoch ms for display; 0 when unparseable. */
fun lotwCursorEpochMs(cursor: String): Long = try {
val pattern = if (cursor.length >= 10 && cursor[4] == '-') "yyyy-MM-dd HH:mm:ss" else "yyyyMMdd"
SimpleDateFormat(pattern, Locale.US)
.apply { timeZone = TimeZone.getTimeZone("UTC") }
.parse(cursor)?.time ?: 0L
} catch (_: Exception) {
0L
}
/**
* Resolves the effective sync mode for a given request:
* - an explicit [LoTWSyncMode.Full] request is always honored;
* - an [LoTWSyncMode.Incremental] request is honored only when the callsign
* matches the last sync — a first sync, an unknown/empty record or a
* callsign change falls back to [LoTWSyncMode.Full] so no stale grids from
* another account linger.
* With [requested] == null (automatic sync) it picks incremental whenever
* possible and full otherwise.
*/
fun resolveLoTWSyncMode(
lastSyncCallsign: String,
callsign: String,
requested: LoTWSyncMode?
): LoTWSyncMode {
if (requested == LoTWSyncMode.Full) return LoTWSyncMode.Full
val sameCall = lastSyncCallsign.isNotBlank() && lastSyncCallsign == callsign
return if (sameCall) LoTWSyncMode.Incremental else LoTWSyncMode.Full
}
/**
* Whether the automatic LoTW sync should run now — mirrors the ephemeris
* auto-update check: credentials configured, the LoTW auto-sync toggle on, at
* least one prior manual sync (the first sync stays manual/full), and not
* already synced today (ARRL limits report pulls, ~once a day per account).
*/
fun shouldAutoSyncLoTW(
isConfigured: Boolean,
autoLotwSyncEnabled: Boolean,
lastSyncDate: String,
today: String
): Boolean {
val lastDate = lotwCursorDate(lastSyncDate)
return isConfigured && autoLotwSyncEnabled && lastDate.isNotBlank() && lastDate != today
}
/**
* Applies a successful LoTW report to the stored grid data and advances the
* sync cursor so the next incremental pull asks LoTW for only the
* confirmations since today. Persistence runs on the IO dispatcher — building
* the per-grid QSO JSON and writing SharedPreferences blocks the calling
* thread, and for large accounts (multi-MB JSON) that froze the main thread
* after a manual sync ('bar done but app stuck').
*
* @return the resulting number of worked grids.
*/
suspend fun applyLoTWGridResult(
settingsRepo: ISettingsRepo,
result: LoTWResult.Success,
mode: LoTWSyncMode,
callsign: String,
now: Long = System.currentTimeMillis()
): Int {
val existingGrids = settingsRepo.getWorkedGrids()
val existingQsos = settingsRepo.getWorkedGridQsos()
val existingRoamed = settingsRepo.getRoamedGrids()
val mergedGrids = if (mode == LoTWSyncMode.Incremental) existingGrids + result.grids else result.grids
val mergedQsos = if (mode == LoTWSyncMode.Incremental) mergeGridQsos(existingQsos, result.qsos) else result.qsos
val mergedRoamed = if (mode == LoTWSyncMode.Incremental) existingRoamed + result.roamedGrids else result.roamedGrids
settingsRepo.setLastLotwSyncDate(lotwSyncCursor(now))
settingsRepo.setLastLotwSyncCallsign(callsign)
withContext(Dispatchers.IO) {
settingsRepo.setWorkedGrids(mergedGrids)
settingsRepo.setWorkedGridQsos(mergedQsos)
settingsRepo.setRoamedGrids(mergedRoamed)
}
return mergedGrids.size
}
/** Merge fresh QSO detail into existing per-grid lists, dedup by call + QSO time. */
fun mergeGridQsos(
existing: Map<String, List<GridQso>>,
fresh: Map<String, List<GridQso>>
): Map<String, List<GridQso>> {
val merged = existing.mapValues { (_, list) -> list.toMutableList() }.toMutableMap()
fresh.forEach { (grid, list) ->
val target = merged.getOrPut(grid) { mutableListOf() }
val known = target.mapTo(mutableSetOf()) { it.call to it.epochMs }
list.forEach { qso ->
if (known.add(qso.call to qso.epochMs)) target.add(qso)
}
}
return merged
}
@@ -1,51 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.repository
/** Result of a LoTW report fetch, with the failure cause kept explicit. */
sealed class LoTWResult {
/** Report downloaded and parsed successfully. */
data class Success(
val grids: Set<String>,
val qsos: Map<String, List<com.rtbishop.look4sat.core.domain.model.GridQso>>,
/** Distinct 4-char gridsquares the account itself operated from
* (ADIF <MY_GRIDSQUARE>, satellite QSOs only) — "roamed/activated" grids. */
val roamedGrids: Set<String> = emptySet()
) : LoTWResult()
/** HTTP 200 but LoTW replied with its login-error page (bad callsign/password). */
data object BadCredentials : LoTWResult()
/**
* Report endpoint refused the request without a usable error page. LoTW
* limits downloads to one in progress per user id and flags accounts that
* pull the full report too often; the server answers those with a bare
* non-ADIF body (no <eoh>).
*/
data object RateLimited : LoTWResult()
/** Connect/read timed out — typically a slow route to the ARRL servers. */
data object Timeout : LoTWResult()
/** Any other network-level failure (DNS, TLS, connection reset, HTTP 5xx). */
data class NetworkError(val detail: String) : LoTWResult()
}
/** What a LoTW sync does: pull everything, or only new QSLs since the last sync. */
enum class LoTWSyncMode { Full, Incremental }
@@ -29,13 +29,8 @@ interface ILocalSource {
suspend fun insertEntries(entries: List<OrbitalData>)
suspend fun deleteEntries()
suspend fun getIdsWithModes(modes: List<String>): List<Int>
suspend fun getIdsWithModesAndUplink(modes: List<String>): List<Int>
suspend fun getIdsWithModesAndAmateur(modes: List<String>): List<Int>
suspend fun getRadiosTotal(): Int
suspend fun getRadiosWithId(id: Int): List<SatRadio>
suspend fun insertRadios(radios: List<SatRadio>, isCustom: Boolean = false)
/** Delete all non-custom transceivers, keeping manually imported ones. */
suspend fun deleteManagedRadios()
suspend fun insertRadios(radios: List<SatRadio>)
suspend fun deleteRadios()
}
@@ -19,18 +19,7 @@ package com.rtbishop.look4sat.core.domain.source
import java.io.InputStream
/** Result of a network download: the HTTP status code and the response body stream. */
data class NetworkResult(val code: Int, val stream: InputStream?) {
companion object {
/** Code used when a request fails before any HTTP response is received. */
const val CONNECTION_ERROR = -1
}
}
interface IRemoteSource {
suspend fun getFileStream(uri: String): InputStream?
suspend fun getNetworkStream(url: String): NetworkResult
suspend fun getAmSatCatalog(): String?
suspend fun getAmSatReports(hours: Int, limit: Int): String?
suspend fun submitAmSatReport(payloadJson: String): Pair<Int, String>?
suspend fun getNetworkStream(url: String): InputStream?
}
@@ -19,67 +19,25 @@ package com.rtbishop.look4sat.core.domain.source
object Sources {
val satelliteDataUrls = mapOf(
"LAPAN-A2" to "https://www.kaggle.com/api/v1/datasets/download/muazamnugroho/lapan-a2-satellite-two-line-element-tle-dataset/LAPAN-A2_TLE_latest.txt",
"CelesTrak" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=active&FORMAT=csv",
"AMSAT" to "https://amsat.org/tle/current/nasabare.txt",
"McCants Classified" to "https://www.mmccants.org/tles/classfd.zip",
"McCants Integrated" to "https://www.mmccants.org/tles/inttles.zip",
"R4UAB" to "https://r4uab.ru/satonline.txt",
"All" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=active&FORMAT=csv",
"SatNOGS" to "https://db.satnogs.org/api/tle/?format=3le",
"Amateur" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=amateur&FORMAT=csv",
"Brightest" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=visual&FORMAT=csv",
"Cubesat" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=cubesat&FORMAT=csv",
"Education" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=education&FORMAT=csv",
"Engineer" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=engineering&FORMAT=csv",
"Geostationary" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=geo&FORMAT=csv",
"Globalstar" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=globalstar&FORMAT=csv",
"GNSS" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=gnss&FORMAT=csv",
"Intelsat" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=intelsat&FORMAT=csv",
"Iridium" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=iridium-NEXT&FORMAT=csv",
"Military" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=military&FORMAT=csv",
"New" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=last-30-days&FORMAT=csv",
"OneWeb" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=oneweb&FORMAT=csv",
"Orbcomm" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=orbcomm&FORMAT=csv",
"Resource" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=resource&FORMAT=csv",
"CelesTrak SatNOGS" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=satnogs&FORMAT=csv",
"Science" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=science&FORMAT=csv",
"Spire" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=spire&FORMAT=csv",
"Starlink" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=starlink&FORMAT=csv",
"Swarm" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=swarm&FORMAT=csv",
"Weather" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=weather&FORMAT=csv",
"X-Comm" to "https://celestrak.org/NORAD/elements/gp.php?GROUP=x-comm&FORMAT=csv",
"Amsat" to "https://amsat.org/tle/current/nasabare.txt",
"Classified" to "https://www.mmccants.org/tles/classfd.zip",
"McCants" to "https://www.mmccants.org/tles/inttles.zip",
"ARISS" to "https://live.ariss.org/iss.txt",
"Other" to "" // key for sats filter
)
val transceiversDataUrls = mapOf(
"SatNOGS" to "https://db.satnogs.org/api/transmitters/?format=json&status=active",
"R4UAB" to "https://r4uab.ru/transmitters.json"
"SatNOGS" to "https://db.satnogs.org/api/transmitters/?format=json&status=active"
)
/** AMSAT "Live FM/Linear Satellites" pages: human-maintained lists of
* transponders currently on the air. Parsed into the mutual-match filter
* (satellites that actually carry a working FM-voice / linear repeater). */
val amSatLiveUrls = mapOf(
"FM" to "https://www.amsat.org/live-fm-satellites/",
"Linear" to "https://www.amsat.org/live-linear-satellites/"
val satelliteModes = listOf(
"4FSK", "64-QAM", "AFSK", "AFSK TUBiX10", "AHRPT", "AM", "APT", "ASK", "BPSK",
"BPSK PMT-A3", "CERTO", "CW", "DATV", "DBPSK", "DOKA", "DPSK", "DQPSK", "DSB", "DSTAR",
"DUV", "DVB-S2", "FFSK", "FM", "FMN", "FSK", "FSK AX.100 Mode 5", "FSK AX.100 Mode 6",
"FSK AX.25 G3RUH", "FT8", "GENESIS FSK", "GFSK", "GFSK Pkst", "GFSK Rktr", "GFSK/BPSK",
"GMSK", "GMSK USP", "HRPT", "LoRa", "LRPT", "LSB", "MFSK", "MSK", "MSK AX.100 Mode 5",
"MSK AX.100 Mode 6", "OFDM", "OQPSK", "PPM", "PSK", "PSK31", "PSK63", "QPSK", "QPSK31",
"QPSK63", "SIDLOC", "SQPSK", "SSDV", "SSTV", "UNKNOWN", "USB", "WSJT"
)
/** Machine-readable AMSAT active-transponder table (palewire mirror of
* amsat.org's active-frequency pages): one CSV row per active amateur
* transponder with its NORAD catnum. Used as the authoritative whitelist
* of *amateur* satellites, so the virtual filters never match
* non-amateur debris (Ariane 6 R/B), retired weather sats (TIROS), or
* ISS station-module aliases (ISS (DESTINY) etc.). Primary source plus
* a jsDelivr CDN mirror: raw.githubusercontent.com is unreachable on
* some networks (e.g. mainland China mobile), and a failed whitelist
* fetch would silently disable the module disambiguation. */
val amSatActiveUrls = listOf(
"https://raw.githubusercontent.com/palewire/amateur-satellite-database/main/data/amsat-active-frequencies.csv",
"https://cdn.jsdelivr.net/gh/palewire/amateur-satellite-database@main/data/amsat-active-frequencies.csv"
)
/** Virtual satellite-selection types: transponder/activity filters shown
* at the top of the type picker. They resolve to live lists (AMSAT pages
* or mode=SSTV radios) instead of persisted per-type IDs, and are
* mutually exclusive with the regular TLE-source types in the picker. */
val virtualTypeNames = listOf("AMSAT Live FM", "AMSAT Live Linear", "Live SSTV")
}
@@ -40,21 +40,6 @@ class DataParser(private val dispatcher: CoroutineDispatcher) {
}
}
/** Parse AMSAT's active-transponder CSV (palewire mirror) and return the
* set of NORAD catnums of active *amateur* satellites. Header row has a
* norad_id column; some rows carry alphanumeric IDs (Bluebird A0241 etc.)
* which are skipped. */
suspend fun parseAmSatActiveCatnums(stream: InputStream): Set<Int> = withContext(dispatcher) {
stream.bufferedReader().useLines { lines ->
val header = lines.firstOrNull() ?: return@useLines emptySet()
val noradIdx = header.split(",").indexOfFirst { it.trim().equals("norad_id", true) }
if (noradIdx < 0) return@useLines emptySet()
lines.mapNotNull { line ->
line.split(",").getOrNull(noradIdx)?.trim()?.toIntOrNull()
}.toSet()
}
}
suspend fun parseTLEStream(stream: InputStream): List<OrbitalData> = withContext(dispatcher) {
stream.bufferedReader().readLines()
.chunked(3)
@@ -73,101 +58,6 @@ class DataParser(private val dispatcher: CoroutineDispatcher) {
}.getOrDefault(emptyList())
}
/**
* Parse an AMSAT "Live FM/Linear Satellites" page into satellite names.
* The page is an HTML table whose first column is the satellite name,
* sometimes written as an alias list ("AO-91(RadFxSat / Fox-1B)") or a
* range ("TEVEL2-1 thru TEVEL2-9"). Returns the distinct expanded names.
*/
suspend fun parseAmSatLivePage(stream: InputStream): List<String> = withContext(dispatcher) {
runCatching {
val html = stream.bufferedReader().readText()
// Grab table rows, take the first cell of each row, keep rows that
// look like satellite names (start with letters/digits, not a header).
val rows = Regex("<tr[^>]*>(.*?)</tr>", RegexOption.IGNORE_CASE)
.findAll(html)
.mapNotNull { match ->
val cells = Regex("<t[dh][^>]*>(.*?)</t[dh]>", RegexOption.IGNORE_CASE)
.findAll(match.groupValues[1])
.map { cell -> stripHtml(cell.groupValues[1]).trim() }
.toList()
cells.firstOrNull()?.takeIf { it.isNotBlank() && !it.equals("Satellite", ignoreCase = true) }
}
.toList()
rows.flatMap { expandNameRange(it) }.distinct()
}.getOrDefault(emptyList())
}
private fun stripHtml(raw: String): String =
raw.replace(Regex("<[^>]+>"), " ").replace(Regex("\\s+"), " ").trim()
/** Expand "NAME1 thru NAME9" ranges (e.g. TEVEL2-1 thru TEVEL2-9). */
private fun expandNameRange(name: String): List<String> {
val m = Regex("^(.*?)(\\d+)\\s+thru\\s+(.*?)(\\d+)$", RegexOption.IGNORE_CASE).find(name)
if (m == null) return listOf(name)
val prefix1 = m.groupValues[1].trim()
val startNum = m.groupValues[2].toIntOrNull() ?: return listOf(name)
val endNum = m.groupValues[4].toIntOrNull() ?: return listOf(name)
val prefix2 = m.groupValues[3].trim()
if (startNum > endNum) return listOf(name)
// Suffix after the end number, if any (e.g. "TEVEL2-1 thru TEVEL2-9 ").
val suffix = name.substringAfterLast(m.groupValues[4]).trim()
return (startNum..endNum).map { "$prefix1$it$suffix" }
}
/**
* Normalize a satellite name from the AMSAT live pages into lookup keys
* used to match against the local entries table:
* - primary key: the leading designator ("AO-91" from "AO-91 (RadFxSat / Fox-1B)")
* - alias keys: every bracketed alias, uppercased, digits preserved
* The local entry names are normalized the same way in [matchesAmSatName].
*/
fun normalizeAmSatName(name: String): List<String> {
val keys = mutableListOf<String>()
// Primary: everything before the first '(' (or '['), then the first token.
val primary = name.substringBefore('(').substringBefore('[').trim()
primary.split(Regex("\\s+")).firstOrNull()?.takeIf { it.isNotBlank() }?.let {
keys += it.uppercase()
}
// Aliases inside parentheses / brackets: "RadFxSat / Fox-1B" -> two keys.
Regex("\\(([^)]*)\\)").findAll(name).forEach { m ->
m.groupValues[1].split('/', '|').forEach { alias ->
alias.trim().takeIf { it.isNotBlank() }?.let { keys += it.uppercase() }
}
}
Regex("\\[([^]]*)]").findAll(name).forEach { m ->
m.groupValues[1].split('/', '|').forEach { alias ->
alias.trim().takeIf { it.isNotBlank() }?.let { keys += it.uppercase() }
}
}
return keys.distinct()
}
/** True if a local entry name matches any of the AMSAT normalized keys.
* Token-based exact match (split on spaces/brackets/slashes), so a key
* like "ISS" does not substring-match "AISSAT-1" — the key must equal a
* whole name token (case-insensitive). OSCAR designators are expanded so
* that "AO-7" also matches local names spelled "OSCAR 7" / "AMSAT-OSCAR 7"
* (the form used by CelesTrak/SatNOGS TLE sources). */
fun matchesAmSatName(localName: String, amSatKeys: List<String>): Boolean {
val localUpper = localName.uppercase()
val localTokens = localUpper
.split(Regex("[\\s()\\[\\]/]+"))
.filter { it.isNotBlank() }
.toSet()
return amSatKeys.any { key ->
val k = key.uppercase()
if (k in localTokens) return@any true
// "AO-7" -> also match local "OSCAR 7" or "AMSAT-OSCAR 7".
val oscar = Regex("^([A-Z]{1,3})-(\\d+)$").find(k)
if (oscar != null) {
val num = oscar.groupValues[2]
if ("OSCAR $num" in localUpper || "AMSAT-OSCAR $num" in localUpper) return@any true
}
false
}
}
private fun parseCSV(values: List<String>): OrbitalData? = runCatching {
val name = values[0]
val timestamp = values[2]
@@ -201,7 +91,7 @@ class DataParser(private val dispatcher: CoroutineDispatcher) {
val line1 = tle[1]
val line2 = tle[2]
OrbitalData(
name = tle[0].trim(),
name = tle[0].trim().removePrefix("0 "),
epoch = line1.substring(18, 32).toDouble(),
meanmo = line2.substring(52, 63).toDouble(),
eccn = line2.substring(26, 33).toDouble() / 1e7,
@@ -16,28 +16,18 @@ import java.util.Locale
/**
* Computes Doppler-corrected reciprocal frequencies for linear transponders.
*
* The full physical path:
* For a linear (passband) transponder, uplink and downlink frequencies are
* related by a fixed passband offset. When the satellite moves, both are
* Doppler-shifted. Given one, this computes the other:
*
* TX→RX (uplink → downlink):
* ① 地面发射 f_tx
* ② 卫星收到 f_tx × (c - v) / c (上行多普勒)
* ③ 卫星转发 = passband映射(②) (在卫星上做映射)
* ④ 地面听到 ③ × (c - v) / c (下行多普勒)
*
* RX→TX (downlink → uplink):
* ④ 地面听到 f_rx
* ③ 卫星转发 = f_rx × (c + v) / c (逆下行多普勒)
* ② 卫星收到 = 逆passband映射(③)
* ① 地面应发射 = ② × (c + v) / c (逆上行多普勒)
*
* Addresses GitHub issue #91 (Custom frequency Doppler correction).
* downlink → uplink: mapDownlinkToUplink (passband) → getUplinkFreq (Doppler)
* uplink → downlink: mapUplinkToDownlink (passband) → getDownlinkFreq (Doppler)
*/
object DopplerFrequencyCalculator {
/**
* Given a downlink frequency (what the user hears), compute the
* uplink frequency the user should transmit.
* Full path: ④→③→②→①
* Given a downlink frequency, compute the Doppler-corrected uplink frequency.
* Returns null if the transponder is not a linear passband type.
*/
fun computeUplinkFromDownlink(
downlinkHz: Long,
@@ -45,22 +35,17 @@ object DopplerFrequencyCalculator {
orbitalPos: OrbitalPos
): Long? {
if (!isLinearTransponder(transponder)) return null
// ④→③ 逆下行多普勒:卫星转发的频率
val satTx = orbitalPos.getUplinkFreq(downlinkHz)
// ③→② 逆 passband 映射
val satRx = TransponderMapper.mapDownlinkToUplink(satTx, transponder) ?: return null
// ②→① 逆上行多普勒:地面应发射的频率
return orbitalPos.getUplinkFreq(satRx)
val baseUplink = TransponderMapper.mapDownlinkToUplink(downlinkHz, transponder) ?: return null
return orbitalPos.getUplinkFreq(baseUplink)
}
/**
* Given a downlink frequency (what the user hears), compute the
* uplink frequency the user should transmit, with an offset applied
* to the downlink (in Hz).
* Full path: ④→③→②→①
* Given a downlink frequency, compute the Doppler-corrected uplink frequency
* with an offset applied to the downlink (in Hz).
* Returns null if the transponder is not a linear passband type.
*
* The user-entered downlink frequency already includes the offset, so subtract
* it before the inverse downlink Doppler.
* it before mapping the downlink passband position back to the uplink.
*/
fun computeUplinkFromDownlinkWithOffset(
downlinkHz: Long,
@@ -69,20 +54,13 @@ object DopplerFrequencyCalculator {
offsetHz: Long
): Long? {
if (!isLinearTransponder(transponder)) return null
// ④→③ 逆下行多普勒:卫星转发的频率(含 offset)
val satTxWithOffset = orbitalPos.getUplinkFreq(downlinkHz)
// ③ 去掉 offset(offset 在卫星本地频率域)
val satTx = satTxWithOffset - offsetHz
// ③→② 逆 passband 映射
val satRx = TransponderMapper.mapDownlinkToUplink(satTx, transponder) ?: return null
// ②→① 逆上行多普勒:地面应发射的频率
return orbitalPos.getUplinkFreq(satRx)
val baseUplink = TransponderMapper.mapDownlinkToUplink(downlinkHz - offsetHz, transponder) ?: return null
return orbitalPos.getUplinkFreq(baseUplink)
}
/**
* Given an uplink frequency (what the user transmits), compute the
* downlink frequency the user will hear.
* Full path: ①→②→③→④
* Given an uplink frequency, compute the Doppler-corrected downlink frequency.
* Returns null if the transponder is not a linear passband type.
*/
fun computeDownlinkFromUplink(
uplinkHz: Long,
@@ -90,19 +68,14 @@ object DopplerFrequencyCalculator {
orbitalPos: OrbitalPos
): Long? {
if (!isLinearTransponder(transponder)) return null
// ①→② 上行多普勒:卫星收到的频率
val satRx = orbitalPos.getDownlinkFreq(uplinkHz)
// ②→③ passband 映射
val satTx = TransponderMapper.mapUplinkToDownlink(satRx, transponder) ?: return null
// ③→④ 下行多普勒:地面听到的
return orbitalPos.getDownlinkFreq(satTx)
val baseDownlink = TransponderMapper.mapUplinkToDownlink(uplinkHz, transponder) ?: return null
return orbitalPos.getDownlinkFreq(baseDownlink)
}
/**
* Given an uplink frequency (what the user transmits), compute the
* downlink frequency the user will hear, with an offset applied
* to the downlink (in Hz).
* Full path: ①→②→③→④
* Given an uplink frequency, compute the Doppler-corrected downlink frequency
* with an offset applied to the downlink (in Hz).
* Returns null if the transponder is not a linear passband type.
*/
fun computeDownlinkFromUplinkWithOffset(
uplinkHz: Long,
@@ -111,13 +84,8 @@ object DopplerFrequencyCalculator {
offsetHz: Long
): Long? {
if (!isLinearTransponder(transponder)) return null
// ①→② 上行多普勒:卫星收到的频率
val satRx = orbitalPos.getDownlinkFreq(uplinkHz)
// ②→③ passband 映射
val satTx = TransponderMapper.mapUplinkToDownlink(satRx, transponder) ?: return null
// ③ 加上 offset(offset 在卫星本地频率域)
// ③→④ 下行多普勒:地面听到的
return orbitalPos.getDownlinkFreq(satTx + offsetHz)
val baseDownlink = TransponderMapper.mapUplinkToDownlink(uplinkHz, transponder) ?: return null
return orbitalPos.getDownlinkFreq(baseDownlink + offsetHz)
}
/** True if this transponder supports linear passband mapping. */
@@ -134,8 +102,8 @@ object DopplerFrequencyCalculator {
* True for the radio entry that should drive the standalone Calculator page.
*
* A frequency range alone is not enough: some non-user-facing or drifting data entries
* can also have low/high frequencies. The calculator is meant for the named linear
* transponder entry, e.g. "Linear Transponder", "Linear Transp.", "SSB Transponder".
* can also have low/high frequencies. The calculator is meant for named linear
* transponders, e.g. "Linear Transponder", "Linear Transp.", "SSB Transponder".
*/
fun isNamedLinearTransponder(transponder: SatRadio): Boolean {
if (!isLinearTransponder(transponder)) return false
@@ -144,30 +112,11 @@ object DopplerFrequencyCalculator {
val modes = listOfNotNull(transponder.downlinkMode, transponder.uplinkMode)
.joinToString(separator = " ")
.lowercase(Locale.ENGLISH)
val hasLinearName = info.contains("linear") || info.contains(" lin") || info.startsWith("lin")
val hasLinearName = info.contains("linear")
val hasTransponderName = info.contains("transponder") || info.contains("transp") ||
info.contains("xponder") || info.contains("xpdr")
val hasLinearMode = listOf("ssb", "usb", "lsb", "cw").any { modes.contains(it) }
return (hasLinearName && hasTransponderName) || (hasTransponderName && hasLinearMode) ||
(hasLinearName && hasLinearMode)
}
/**
* Removes duplicate transponder entries that describe the same physical
* transponder with different mode labels (e.g. SatNOGS lists AO-7's Mode A
* as both "Lin SSB" and "Lin CW", and JO-97's U/V transponder as both
* "CW Transponder" and "SSB Transponder").
*
* Entries sharing the same uplink/downlink frequency range are considered
* the same transponder. The non-CW entry is preferred because its invert
* flag is more reliable (e.g. JO-97's CW entry wrongly has invert=false).
*/
fun deduplicateTransponders(radios: List<SatRadio>): List<SatRadio> {
return radios.groupBy { radio ->
listOf(radio.uplinkLow, radio.uplinkHigh, radio.downlinkLow, radio.downlinkHigh)
}.values.map { group ->
group.firstOrNull { it.downlinkMode?.equals("CW", ignoreCase = true) != true } ?: group.first()
}
return (hasLinearName && hasTransponderName) || (hasTransponderName && hasLinearMode)
}
}
@@ -19,43 +19,20 @@ package com.rtbishop.look4sat.core.domain.utility
import com.rtbishop.look4sat.core.domain.predict.GeoPos
/**
* Convert a Maidenhead locator (4, 6 or 8 chars) to the position of its
* square / subsquare / extended-square centre. Longer input is truncated to
* 8 chars (the Maidenhead maximum); malformed or out-of-range input yields
* null.
*/
fun qthToPosition(locator: String): GeoPos? {
val trimmedQth = locator.trim().uppercase().take(8)
if (trimmedQth.length !in listOf(4, 6, 8) || !isValidLocator(trimmedQth)) return null
val lonFirst = (trimmedQth[0].code - 65) * 20
val latFirst = (trimmedQth[1].code - 65) * 10
val trimmedQth = locator.take(6)
if (!isValidLocator(trimmedQth)) return null
val lonFirst = (trimmedQth[0].uppercaseChar().code - 65) * 20
val latFirst = (trimmedQth[1].uppercaseChar().code - 65) * 10
val lonSecond = trimmedQth[2].toString().toInt() * 2
val latSecond = trimmedQth[3].toString().toInt()
// Start from the 4-char square centre, refine for 6/8-char subsquares.
var longitude = lonFirst + lonSecond + 1.0
var latitude = latFirst + latSecond + 0.5
if (trimmedQth.length >= 6) {
val lonSub = (trimmedQth[4].code - 65) * 5.0 / 60.0
val latSub = (trimmedQth[5].code - 65) * 2.5 / 60.0
if (lonSub < 0.0 || lonSub > 115.0 / 60.0 || latSub < 0.0 || latSub > 57.5 / 60.0) return null
longitude = lonFirst + lonSecond + lonSub + 2.5 / 60.0
latitude = latFirst + latSecond + latSub + 1.25 / 60.0
if (trimmedQth.length >= 8) {
val lonExt = (trimmedQth[6].code - 48) * 30.0 / 3600.0
val latExt = (trimmedQth[7].code - 48) * 15.0 / 3600.0
if (lonExt < 0.0 || lonExt > 270.0 / 3600.0 || latExt < 0.0 || latExt > 135.0 / 3600.0) return null
longitude += lonExt + 15.0 / 3600.0
latitude += latExt + 7.5 / 3600.0
}
}
return GeoPos((latitude - 90.0).round(4), (longitude - 180.0).round(4))
val lonThird = (((trimmedQth[4].lowercaseChar().code - 97) / 12.0) + (1.0 / 24.0)) - 180
val latThird = (((trimmedQth[5].lowercaseChar().code - 97) / 24.0) + (1.0 / 48.0)) - 90
val longitude = (lonFirst + lonSecond + lonThird).round(4)
val latitude = (latFirst + latSecond + latThird).round(4)
return GeoPos(latitude, longitude)
}
/**
* Convert a position to its 6-char Maidenhead locator, upper-cased (field,
* square and subsquare letters). Returns null for out-of-range positions.
*/
fun positionToQth(latitude: Double, longitude: Double): String? {
if (!isValidPosition(latitude, longitude)) return null
val newLongitude = if (longitude > 180.0) longitude else longitude + 180
@@ -64,8 +41,8 @@ fun positionToQth(latitude: Double, longitude: Double): String? {
val latFirst = (65 + (newLatitude / 10)).toInt().toChar()
val lonSecond = ((newLongitude / 2) % 10).toInt()
val latSecond = (newLatitude % 10).toInt()
val lonThird = (65 + (newLongitude % 2) * 12).toInt().toChar().uppercaseChar()
val latThird = (65 + (newLatitude % 1) * 24).toInt().toChar().uppercaseChar()
val lonThird = (65 + (newLongitude % 2) * 12).toInt().toChar().lowercaseChar()
val latThird = (65 + (newLatitude % 1) * 24).toInt().toChar().lowercaseChar()
return "$lonFirst$latFirst$lonSecond$latSecond$lonThird$latThird"
}
@@ -74,11 +51,5 @@ private fun isValidPosition(lat: Double, lon: Double): Boolean {
}
private fun isValidLocator(locator: String): Boolean {
// 4 chars: [A-X][A-X]\d\d ; 6 chars: + [A-X][A-X] ; 8 chars: + \d\d
return when (locator.length) {
4 -> Regex("[A-X]{2}\\d{2}").matches(locator)
6 -> Regex("[A-X]{2}\\d{2}[A-X]{2}").matches(locator)
8 -> Regex("[A-X]{2}\\d{2}[A-X]{2}\\d{2}").matches(locator)
else -> false
}
return locator.matches("[a-xA-X][a-xA-X]\\d\\d[a-xA-X][a-xA-X]".toRegex())
}
@@ -1,48 +0,0 @@
package com.rtbishop.look4sat.core.domain.utility
/**
* Compares two version strings of the form "<major>.<minor>.<patch>[-<build>]" used by the
* BA7OPF fork releases (e.g. "4.4.6-ba7opf.6" or "v4.4.6-ba7opf.9.1").
*
* The comparison is done on the numeric version segments first; when the base versions are
* equal, the trailing build numbers of the suffix decide. All numeric segments of the suffix
* are compared as a sequence, so multi-level suffixes work correctly:
* "4.4.6-ba7opf.9.1" > "4.4.6-ba7opf.9" > "4.4.6-ba7opf.8".
*/
object VersionComparator {
/** True when [candidate] is a newer version than [current]. */
fun isNewer(candidate: String, current: String): Boolean {
val cand = parse(candidate)
val curr = parse(current)
val maxLen = maxOf(cand.first.size, curr.first.size)
for (i in 0 until maxLen) {
val c = cand.first.getOrElse(i) { 0 }
val k = curr.first.getOrElse(i) { 0 }
if (c != k) return c > k
}
val maxBuild = maxOf(cand.second.size, curr.second.size)
for (i in 0 until maxBuild) {
val c = cand.second.getOrElse(i) { 0 }
val k = curr.second.getOrElse(i) { 0 }
if (c != k) return c > k
}
return false
}
/**
* Parses a version string into (numeric base segments, numeric suffix segments).
* "v4.4.6-ba7opf.9.1" -> ([4,4,6], [9,1]); "4.4.6-ba7opf.8" -> ([4,4,6], [8]);
* "4.4.6" -> ([4,4,6], []); "4.4.6-ba7opf" -> ([4,4,6], []).
*/
fun parse(version: String): Pair<List<Int>, List<Int>> {
val cleaned = version.trim().removePrefix("v")
val dashIndex = cleaned.indexOf('-')
val basePart = if (dashIndex >= 0) cleaned.substring(0, dashIndex) else cleaned
val suffixPart = if (dashIndex >= 0) cleaned.substring(dashIndex + 1) else ""
val base = basePart.split('.').mapNotNull { it.toIntOrNull() }
// All numeric segments of the suffix, in order (e.g. "ba7opf.9.1" -> [9, 1]).
val build = suffixPart.split('.').mapNotNull { it.toIntOrNull() }
return base to build
}
}
@@ -239,60 +239,4 @@ class DataParserTest {
// Matches the CSV test data epoch: 2021-11-16 → day 320
assert(dataParser.getDayOfYear(2021, 11, 16) == 320)
}
@Test
fun `AMSAT FM page parses satellite names and expands thru ranges`() = runTest(testDispatcher) {
val html = """
<html><body><table>
<tr><th>Satellite</th><th>Uplink</th><th>Downlink</th><th>Comment</th></tr>
<tr><td>AO-91(RadFxSat / Fox-1B)</td><td>435.250</td><td>145.960</td></tr>
<tr><td>SO-50(SaudiSat-1C)</td><td>145.850</td><td>436.795</td></tr>
<tr><td>TEVEL2-1 thru TEVEL2-9</td><td>145.970</td><td>436.400</td></tr>
</table></body></html>
""".trimIndent().byteInputStream()
val names = dataParser.parseAmSatLivePage(html)
assert(names.contains("AO-91(RadFxSat / Fox-1B)"))
assert(names.contains("SO-50(SaudiSat-1C)"))
assert(names.contains("TEVEL2-1"))
assert(names.contains("TEVEL2-9"))
assert(names.size == 11) // 2 singles + 9 expanded TEVEL2
}
@Test
fun `AMSAT linear page keeps mode-suffixed names`() = runTest(testDispatcher) {
val html = """
<table>
<tr><th>Satellite</th><th>Frequencies</th><th>Comment</th></tr>
<tr><td>AO-7 Mode B U/v Inverting Analog</td><td>Uplink LSB</td></tr>
<tr><td>FO-29 (JAS-2)V/u Inverting Analog</td><td>Uplink LSB</td></tr>
</table>
""".trimIndent().byteInputStream()
val names = dataParser.parseAmSatLivePage(html)
assert(names.contains("AO-7 Mode B U/v Inverting Analog"))
assert(names.contains("FO-29 (JAS-2)V/u Inverting Analog"))
}
@Test
fun `AMSAT name normalization produces primary and alias keys`() {
assert(dataParser.normalizeAmSatName("AO-91(RadFxSat / Fox-1B)") == listOf("AO-91", "RADFXSAT", "FOX-1B"))
assert(dataParser.normalizeAmSatName("QO-100 (Es'hail-2/P4A) S/x") == listOf("QO-100", "ES'HAIL-2", "P4A"))
assert(dataParser.normalizeAmSatName("ISS") == listOf("ISS"))
assert(dataParser.matchesAmSatName("AO-91 (RADFXSAT)", listOf("AO-91", "RADFXSAT")))
assert(!dataParser.matchesAmSatName("SO-50", listOf("AO-91")))
// Regression: "ISS" must not substring-match "AISSAT-1" (token match only).
assert(dataParser.matchesAmSatName("ISS (ZARYA)", listOf("ISS")))
assert(!dataParser.matchesAmSatName("AISSAT-1", listOf("ISS")))
assert(!dataParser.matchesAmSatName("TESS", listOf("ISS")))
// OSCAR designators match local names spelled "OSCAR N"/"AMSAT-OSCAR N".
assert(dataParser.matchesAmSatName("OSCAR 7", listOf("AO-7")))
assert(dataParser.matchesAmSatName("AMSAT-OSCAR 7", listOf("AO-7")))
assert(dataParser.matchesAmSatName("CATSAT", listOf("CATSAT")))
assert(dataParser.matchesAmSatName("RS-44 & BREEZE-KM R/B", listOf("RS-44")))
}
@Test
fun `AMSAT live page with no table returns empty`() = runTest(testDispatcher) {
val html = "<html><body>No data</body></html>".byteInputStream()
assert(dataParser.parseAmSatLivePage(html).isEmpty())
}
}
@@ -3,13 +3,16 @@ package com.rtbishop.look4sat.core.domain
import com.rtbishop.look4sat.core.domain.model.SatRadio
import com.rtbishop.look4sat.core.domain.predict.OrbitalPos
import com.rtbishop.look4sat.core.domain.utility.DopplerFrequencyCalculator
import org.junit.Assert.*
import org.junit.Assert.assertEquals
import org.junit.Assert.assertFalse
import org.junit.Assert.assertNotNull
import org.junit.Assert.assertNull
import org.junit.Assert.assertTrue
import org.junit.Test
class DopplerFrequencyCalculatorTest {
private fun linearTransponder(
uuid: String = "linear",
upLow: Long = 145_000_000L,
upHigh: Long = 145_500_000L,
downLow: Long = 435_000_000L,
@@ -19,7 +22,7 @@ class DopplerFrequencyCalculatorTest {
downlinkMode: String? = "USB",
uplinkMode: String? = "LSB"
) = SatRadio(
uuid = uuid, info = info, isAlive = true,
uuid = "linear", info = info, isAlive = true,
downlinkLow = downLow, downlinkHigh = downHigh,
downlinkMode = downlinkMode, uplinkLow = upLow, uplinkHigh = upHigh,
uplinkMode = uplinkMode, isInverted = inverted, catnum = 12345
@@ -69,101 +72,17 @@ class DopplerFrequencyCalculatorTest {
assertFalse(DopplerFrequencyCalculator.isNamedLinearTransponder(driftingRangeEntry))
}
@Test
fun isNamedLinearTransponder_returnsTrueForAbbreviatedLinName() {
// AO-7 style: "Mode V/A (A) Lin SSB" — "Lin" abbreviation, no "transponder" word
val ao7Entry = linearTransponder(info = "Mode V/A (A) Lin SSB", downlinkMode = "USB", uplinkMode = "USB")
assertTrue(DopplerFrequencyCalculator.isNamedLinearTransponder(ao7Entry))
val ao7CwEntry = linearTransponder(info = "Mode V/A (A) Lin CW", downlinkMode = "CW", uplinkMode = "CW")
assertTrue(DopplerFrequencyCalculator.isNamedLinearTransponder(ao7CwEntry))
val ao7ModeBEntry = linearTransponder(info = "Mode U/V (B) Lin", downlinkMode = "USB", uplinkMode = "LSB")
assertTrue(DopplerFrequencyCalculator.isNamedLinearTransponder(ao7ModeBEntry))
}
@Test
fun isNamedLinearTransponder_returnsTrueForLinearWithoutTransponderWord() {
// AO-73 style: "Mode U/V Linear" — has "Linear" but no "transponder"
val ao73Entry = linearTransponder(info = "Mode U/V Linear", downlinkMode = "USB", uplinkMode = "LSB")
assertTrue(DopplerFrequencyCalculator.isNamedLinearTransponder(ao73Entry))
}
@Test
fun isNamedLinearTransponder_returnsFalseForDownlinkContainingLinInsideWord() {
// "Downlink" contains "lin" but is not a linear-transponder name
val downlinkEntry = linearTransponder(info = "Mode U Downlink", downlinkMode = "FM", uplinkMode = "FM")
assertFalse(DopplerFrequencyCalculator.isNamedLinearTransponder(downlinkEntry))
}
@Test
fun isNamedLinearTransponder_returnsFalseForFmRepeater() {
assertFalse(DopplerFrequencyCalculator.isNamedLinearTransponder(fmTransponder()))
}
@Test
fun deduplicateTransponders_mergesSameFrequencyRange() {
// AO-7's Mode A: same range, SSB and CW entries
val ssb = linearTransponder(
uuid = "ssb-uuid", info = "Mode V/A (A) Lin SSB",
downlinkMode = "USB", uplinkMode = "USB"
)
val cw = linearTransponder(
uuid = "cw-uuid", info = "Mode V/A (A) Lin CW",
downlinkMode = "CW", uplinkMode = "CW"
)
val modeB = linearTransponder(
uuid = "modeb-uuid", info = "Mode U/V (B) Lin",
upLow = 432_125_000L, upHigh = 432_175_000L,
downLow = 145_925_000L, downHigh = 145_975_000L,
downlinkMode = "USB", uplinkMode = "LSB"
)
val result = DopplerFrequencyCalculator.deduplicateTransponders(listOf(ssb, cw, modeB))
assertEquals(2, result.size)
// SSB entry should be preferred over CW (same range)
assertEquals("ssb-uuid", result[0].uuid)
assertEquals("modeb-uuid", result[1].uuid)
}
@Test
fun deduplicateTransponders_prefersNonCwEntry() {
// JO-97: CW entry has invert=false (wrong), SSB has invert=true (correct)
val cw = linearTransponder(
uuid = "cw-uuid", info = "U/V CW Transponder",
downlinkMode = "CW", uplinkMode = "CW",
upLow = 435_100_000L, upHigh = 435_120_000L,
downLow = 145_855_000L, downHigh = 145_875_000L
)
val ssb = linearTransponder(
uuid = "ssb-uuid", info = "U/V SSB Transponder",
downlinkMode = "USB", uplinkMode = "LSB",
upLow = 435_100_000L, upHigh = 435_120_000L,
downLow = 145_855_000L, downHigh = 145_875_000L,
inverted = true
)
val result = DopplerFrequencyCalculator.deduplicateTransponders(listOf(cw, ssb))
assertEquals(1, result.size)
assertEquals("ssb-uuid", result[0].uuid)
// Verify the correct invert flag is preserved
assertTrue(result[0].isInverted)
}
@Test
fun deduplicateTransponders_preservesUniqueEntries() {
val t1 = linearTransponder(uuid = "t1", upLow = 145_000_000L, upHigh = 145_500_000L,
downLow = 435_000_000L, downHigh = 435_500_000L)
val t2 = linearTransponder(uuid = "t2", upLow = 435_000_000L, upHigh = 435_500_000L,
downLow = 145_000_000L, downHigh = 145_500_000L)
val result = DopplerFrequencyCalculator.deduplicateTransponders(listOf(t1, t2))
assertEquals(2, result.size)
}
@Test
fun computeUplinkFromDownlink_linear_noDoppler() {
val xpdr = linearTransponder()
val orbitalPos = pos(0.0)
val uplink = DopplerFrequencyCalculator.computeUplinkFromDownlink(435_200_000L, xpdr, orbitalPos)
assertNotNull(uplink)
assertTrue(uplink!! > 0)
// With zero Doppler, result equals mapDownlinkToUplink output
assertEquals(145_200_000L, uplink)
}
@@ -178,24 +97,23 @@ class DopplerFrequencyCalculatorTest {
@Test
fun computeUplinkFromDownlink_withDoppler_positiveRangeRate() {
// Satellite receding (positive range rate) → ground must transmit higher freq to compensate
// Satellite receding (positive range rate) → ground must transmit higher freq to compensate.
val xpdr = linearTransponder()
val orbitalPos = pos(7.0) // ~7 km/s receding
val orbitalPos = pos(7.0)
val uplink = DopplerFrequencyCalculator.computeUplinkFromDownlink(435_200_000L, xpdr, orbitalPos)
assertNotNull(uplink)
// Uplink freq should be Doppler shifted UP (compensating for receding)
assertTrue(uplink!! > 145_200_000L)
}
@Test
fun computeUplinkFromDownlink_fm_transponder_returnsNull() {
fun computeUplinkFromDownlink_fmTransponder_returnsNull() {
val orbitalPos = pos()
val result = DopplerFrequencyCalculator.computeUplinkFromDownlink(435_600_000L, fmTransponder(), orbitalPos)
assertNull(result)
}
@Test
fun computeDownlinkFromUplink_fm_transponder_returnsNull() {
fun computeDownlinkFromUplink_fmTransponder_returnsNull() {
val orbitalPos = pos()
val result = DopplerFrequencyCalculator.computeDownlinkFromUplink(145_900_000L, fmTransponder(), orbitalPos)
assertNull(result)
@@ -254,13 +172,11 @@ class DopplerFrequencyCalculatorTest {
val orbitalPos = pos(0.0)
val uplink = DopplerFrequencyCalculator.computeUplinkFromDownlink(435_200_000L, xpdr, orbitalPos)
assertNotNull(uplink)
// Inverted: offset from high end → maps to high end of uplink
assertEquals(145_300_000L, uplink)
}
@Test
fun computeUplinkFromDownlink_roundTrip() {
// downlink → uplink → downlink should round-trip
val xpdr = linearTransponder()
val orbitalPos = pos(3.5)
val originalDownlink = 435_250_000L
@@ -268,7 +184,6 @@ class DopplerFrequencyCalculatorTest {
assertNotNull(uplink)
val roundTripDownlink = DopplerFrequencyCalculator.computeDownlinkFromUplink(uplink!!, xpdr, orbitalPos)
assertNotNull(roundTripDownlink)
// Doppler round-trip: small residual due to freq-dependent Doppler
val error = kotlin.math.abs(roundTripDownlink!! - originalDownlink)
assertTrue("Round-trip error too large: $error", error < 10000)
}
@@ -1,3 +1,20 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain
import com.rtbishop.look4sat.core.domain.utility.positionToQth
@@ -5,34 +22,25 @@ import com.rtbishop.look4sat.core.domain.utility.qthToPosition
import org.junit.Test
class QthConverterTest {
@Test
fun `Given valid QTH returns correct POS`() {
// 8-char locator -> centre of the extended square (higher precision)
var result = qthToPosition("io91VL39FX")
assert(result?.latitude == 51.5188 && result.longitude == -0.1792)
assert(result?.latitude == 51.4792 && result.longitude == -0.2083)
result = qthToPosition("gf15vc")
assert(result?.latitude == -34.8958 && result.longitude == -56.2083)
// 4-char locator -> centre of the 2deg x 1deg square
result = qthToPosition("JN58")
assert(result?.latitude == 48.5 && result.longitude == 11.0)
// lowercase input is accepted and normalised
result = qthToPosition("ol63pd")
assert(result?.latitude == 23.1458 && result.longitude == 113.2917)
}
@Test
fun `Given invalid QTH returns null`() {
assert(qthToPosition("ZZ00zz") == null)
assert(qthToPosition("JN5") == null) // odd length
assert(qthToPosition("JN58Z") == null) // 5 chars
assert(qthToPosition("JN58ZA") == null) // Z out of A-X range
assert(qthToPosition("JN58") == null)
}
@Test
fun `Given valid POS returns correct QTH`() {
assert(positionToQth(51.4878, -0.2146) == "IO91VL")
assert(positionToQth(48.1466, 11.6083) == "JN58TD")
assert(positionToQth(23.13, 113.26) == "OL63PD")
assert(positionToQth(51.4878, -0.2146) == "IO91vl")
assert(positionToQth(48.1466, 11.6083) == "JN58td")
}
@Test
@@ -1,58 +0,0 @@
package com.rtbishop.look4sat.core.domain
import com.rtbishop.look4sat.core.domain.utility.VersionComparator
import org.junit.Assert.assertEquals
import org.junit.Assert.assertFalse
import org.junit.Assert.assertTrue
import org.junit.Test
class VersionComparatorTest {
@Test
fun `newer build number wins when base version equal`() {
assertTrue(VersionComparator.isNewer("4.4.6-ba7opf.7", "4.4.6-ba7opf.6"))
assertTrue(VersionComparator.isNewer("v4.4.6-ba7opf.6", "4.4.6-ba7opf.5"))
}
@Test
fun `newer base version wins regardless of build number`() {
assertTrue(VersionComparator.isNewer("4.5.0", "4.4.6-ba7opf.99"))
assertTrue(VersionComparator.isNewer("4.4.7-ba7opf.1", "4.4.6-ba7opf.99"))
}
@Test
fun `older versions are not newer`() {
assertFalse(VersionComparator.isNewer("4.4.6-ba7opf.5", "4.4.6-ba7opf.6"))
assertFalse(VersionComparator.isNewer("4.4.5", "4.4.6-ba7opf.1"))
assertFalse(VersionComparator.isNewer("4.4.6-ba7opf.6", "4.4.6-ba7opf.6"))
}
@Test
fun `v prefix is ignored`() {
assertTrue(VersionComparator.isNewer("v4.4.7", "4.4.6"))
assertFalse(VersionComparator.isNewer("v4.4.6", "4.4.6-ba7opf.1"))
}
@Test
fun `non numeric suffix without number treated as zero build`() {
assertTrue(VersionComparator.isNewer("4.4.6-ba7opf.1", "4.4.6-ba7opf"))
assertFalse(VersionComparator.isNewer("4.4.6-ba7opf", "4.4.6-ba7opf.1"))
}
@Test
fun `multi level suffixes compare correctly`() {
// The .9.1 hotfix case that exposed the old single-build-number logic.
assertTrue(VersionComparator.isNewer("4.4.6-ba7opf.9.1", "4.4.6-ba7opf.9"))
assertTrue(VersionComparator.isNewer("v4.4.6-ba7opf.9.1", "4.4.6-ba7opf.8"))
assertFalse(VersionComparator.isNewer("4.4.6-ba7opf.9", "4.4.6-ba7opf.9.1"))
assertTrue(VersionComparator.isNewer("4.4.6-ba7opf.10", "4.4.6-ba7opf.9.1"))
}
@Test
fun `parse extracts base and suffix segments`() {
assertEquals(listOf(4, 4, 6) to listOf(7), VersionComparator.parse("v4.4.6-ba7opf.7"))
assertEquals(listOf(4, 4, 6) to listOf(9, 1), VersionComparator.parse("v4.4.6-ba7opf.9.1"))
assertEquals(listOf(4, 4, 6) to emptyList<Int>(), VersionComparator.parse("4.4.6"))
assertEquals(listOf(4, 4, 6) to emptyList<Int>(), VersionComparator.parse("4.4.6-ba7opf"))
}
}
@@ -1,301 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.cw
import org.junit.Assert.*
import org.junit.Test
import kotlin.math.PI
import kotlin.math.sin
class CwDecoderTest {
// --- Morse table ---
@Test
fun morseToChar_basicLetters() {
assertEquals('A', CwBayesianDecoder.morseToChar("01"))
assertEquals('S', CwBayesianDecoder.morseToChar("000"))
assertEquals('O', CwBayesianDecoder.morseToChar("111"))
}
@Test
fun morseToChar_numbers() {
assertEquals('1', CwBayesianDecoder.morseToChar("01111"))
assertEquals('0', CwBayesianDecoder.morseToChar("11111"))
}
@Test
fun morseToChar_unknown_returnsNull() {
assertNull(CwBayesianDecoder.morseToChar("......."))
assertNull(CwBayesianDecoder.morseToChar(""))
}
// --- FFT ---
@Test
fun fft_magnitudeSpectrum_detectsTone() {
val fft = CwFFT(256)
val sampleRate = 8000f
val freq = 700f
val buffer = FloatArray(256) { (sin(2.0 * PI * freq * it / sampleRate)).toFloat() }
val mag = fft.magnitudeSpectrum(buffer)
// Peak should be at bin around 700 * 256 / 8000 ≈ 22.4
var maxBin = 0
var maxVal = 0f
for (i in mag.indices) {
if (mag[i] > maxVal) { maxVal = mag[i]; maxBin = i }
}
assertTrue("Peak bin $maxBin should be near 22", maxBin in 18..26)
assertTrue("Peak value $maxVal should be positive", maxVal > 0.01f)
}
@Test
fun fft_magnitudeSpectrum_silence_isFlat() {
val fft = CwFFT(256)
val buffer = FloatArray(256) { 0f }
val mag = fft.magnitudeSpectrum(buffer)
for (v in mag) assertEquals("Silence spectrum should be 0, got $v", 0f, v, 1e-6f)
}
@Test
fun fft_rejectsWrongSize() {
assertThrows(IllegalArgumentException::class.java) { CwFFT(100) }
}
// --- Spectrogram ---
@Test
fun spectrogram_addSamples_updatesEnergy() {
val spec = CwSpectrogram(sampleRate = 8000)
val freq = 700f
// Feed multiple frames to stabilize energy normalization
for (i in 0..5) {
val buffer = FloatArray(256) { (sin(2.0 * PI * freq * it / 8000.0)).toFloat() }
spec.addSamples(buffer)
}
val col = spec.getCurrentColumn()
val peakBin = spec.findPeakBin()
assertTrue("Peak bin $peakBin should be >= 0", peakBin >= 0)
}
@Test
fun spectrogram_findPeakBin_returnsValidBin() {
val spec = CwSpectrogram(sampleRate = 8000)
// Add multiple frames of 700 Hz tone
for (i in 0..5) {
val buffer = FloatArray(256) { (sin(2.0 * PI * 700.0 * it / 8000.0)).toFloat() }
spec.addSamples(buffer)
}
val peakBin = spec.findPeakBin()
assertTrue("Peak bin should be >= 0, got $peakBin", peakBin >= 0)
}
@Test
fun spectrogram_freqToBin_roundtrip() {
val spec = CwSpectrogram(sampleRate = 8000)
val freq = 700f
val bin = spec.freqToBin(freq)
val backFreq = spec.binToFreq(bin)
assertTrue("Freq $freq → bin $bin → freq $backFreq", backFreq > 600f && backFreq < 800f)
}
@Test
fun spectrogram_getBinEnergy_returnsCorrectLength() {
val spec = CwSpectrogram(sampleRate = 8000)
val energy = spec.getBinEnergy(0, 10)
assertEquals(10, energy.size)
}
@Test
fun spectrogram_reset() {
val spec = CwSpectrogram(sampleRate = 8000)
spec.addSamples(FloatArray(256) { 1f })
spec.reset()
assertEquals(-1, spec.findPeakBin())
}
// --- Bayesian decoder ---
@Test
fun bayesian_processTone_dit() {
val decoder = CwBayesianDecoder()
// At 20 WPM, dot = 60 ms
val result = decoder.processTone(60f)
assertEquals('0', result.symbol)
assertTrue("Dit probability should be positive", result.probability > 0.1f)
}
@Test
fun bayesian_processTone_dash() {
val decoder = CwBayesianDecoder()
// Dash = 3 * dot = 180 ms
val result = decoder.processTone(180f)
assertEquals('1', result.symbol)
assertTrue("Dash probability should be positive", result.probability > 0.1f)
}
@Test
fun bayesian_processTone_unknown_returnsNull() {
val decoder = CwBayesianDecoder()
// Very long tone — low probability for both dit and dash
val result = decoder.processTone(5000f)
assertNull(result.symbol)
}
@Test
fun bayesian_processGap_interChar_returnsChar() {
val decoder = CwBayesianDecoder()
decoder.processTone(60f) // dit
decoder.processTone(60f) // dit
decoder.processTone(60f) // dit
// 3 dots = "000" = 'S'
val char = decoder.processGap(180f) // 3 * dot = inter-char gap
assertEquals('S', char)
}
@Test
fun bayesian_processGap_wordGap_addsSpace() {
val decoder = CwBayesianDecoder()
decoder.processTone(60f) // dit = 'E'
decoder.processGap(180f) // inter-char gap
// Now word gap
val space = decoder.processGap(420f) // 7 * dot
assertEquals(' ', space)
}
@Test
fun bayesian_decodedText_accumulates() {
val decoder = CwBayesianDecoder()
decoder.processTone(60f) // dit = 'E'
decoder.processGap(180f) // inter-char
assertTrue(decoder.decodedText.isNotEmpty())
}
@Test
fun bayesian_reset() {
val decoder = CwBayesianDecoder()
decoder.processTone(60f)
decoder.reset()
assertEquals("", decoder.decodedText)
}
@Test
fun bayesian_getSpeed() {
val decoder = CwBayesianDecoder()
// Send 3 dits at 20 WPM (60 ms each)
decoder.processTone(60f)
decoder.processTone(60f)
decoder.processTone(60f)
val speed = decoder.getSpeed()
assertTrue("Speed should be ~20 WPM, got $speed", speed > 15f && speed < 30f)
}
// --- Channel tracker ---
@Test
fun channelTracker_initialState() {
val spec = CwSpectrogram(sampleRate = 8000)
val tracker = CwChannelTracker(spec)
val channels = tracker.update()
assertTrue("No channels should be active initially", channels.isEmpty())
}
@Test
fun channelTracker_detectsTone() {
val spec = CwSpectrogram(sampleRate = 8000)
// Feed a tone
for (i in 0..5) {
spec.addSamples(FloatArray(256) { (sin(2.0 * PI * 700.0 * it / 8000.0)).toFloat() })
}
val tracker = CwChannelTracker(spec)
val channels = tracker.update()
assertTrue("Should detect at least 1 channel", channels.isNotEmpty())
}
@Test
fun channelTracker_bestChannel() {
val spec = CwSpectrogram(sampleRate = 8000)
for (i in 0..5) {
spec.addSamples(FloatArray(256) { (sin(2.0 * PI * 700.0 * it / 8000.0)).toFloat() })
}
val tracker = CwChannelTracker(spec)
tracker.update()
val best = tracker.getBestChannel()
assertNotNull("Best channel should exist", best)
if (best != null) assertTrue(best.frequency in 600f..800f)
}
@Test
fun channelTracker_reset() {
val spec = CwSpectrogram(sampleRate = 8000)
for (i in 0..5) {
spec.addSamples(FloatArray(256) { (sin(2.0 * PI * 700.0 * it / 8000.0)).toFloat() })
}
val tracker = CwChannelTracker(spec)
tracker.update()
tracker.reset()
assertNull(tracker.getBestChannel())
}
// --- Full decoder ---
@Test
fun decoder_initialState() {
val decoder = CwDecoder()
assertEquals("", decoder.decodedTextFlow.value)
assertEquals(0f, decoder.signalStrength.value, 0.001f)
}
@Test
fun decoder_processSilence_doesNotCrash() {
val decoder = CwDecoder()
decoder.processBuffer(FloatArray(256) { 0f })
assertEquals("", decoder.decodedTextFlow.value)
}
@Test
fun decoder_processNoise_doesNotCrash() {
val decoder = CwDecoder()
decoder.processBuffer(FloatArray(256) { (Math.random() * 2 - 1).toFloat() * 0.1f })
assertNotNull(decoder.decodedTextFlow.value)
}
@Test
fun decoder_processTone_doesNotCrash() {
val decoder = CwDecoder()
for (i in 0..20) {
decoder.processBuffer(FloatArray(256) { (sin(2.0 * PI * 700.0 * it / 8000.0)).toFloat() })
}
assertNotNull(decoder.decodedTextFlow.value)
}
@Test
fun decoder_reset() {
val decoder = CwDecoder()
decoder.processBuffer(FloatArray(256) { 1f })
decoder.resetDecoder()
assertEquals("", decoder.decodedTextFlow.value)
assertEquals(0f, decoder.signalStrength.value, 0.001f)
}
@Test
fun decoder_withFixedPitch() {
val decoder = CwDecoder(sampleRate = 8000, cwToneFreq = 700f)
assertEquals(700f, decoder.estimatedPitch.value)
}
}
@@ -1,155 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.model
import org.junit.Assert.assertEquals
import org.junit.Assert.assertTrue
import org.junit.Test
class AwardCalculatorTest {
private fun qso(
call: String,
dxcc: Int? = null,
cqz: Int? = null,
state: String? = null,
grid: String = "OL62"
) = GridQso(
call = call, epochMs = 0L, satName = "SO-50", mode = "FM",
bandUp = "70CM", bandDown = "2M", dxcc = dxcc, cqz = cqz, state = state
)
private fun byGrid(vararg qsos: GridQso) =
qsos.groupBy { "OL62" } // all share one grid for award-math tests
@Test
fun `vucc counts distinct grid keys`() {
val qsos = mapOf(
"OL62" to listOf(qso("BG7XYZ")),
"PM95" to listOf(qso("JH0ABC")),
"OL62" to listOf(qso("BA7AAA"))
)
// map literal dedupes keys: OL62/PM95 -> 2 grids
val progress = AwardCalculator.calculate(qsos).first { it.type == AwardType.VUCC }
assertEquals(2, progress.count)
assertTrue(progress.workedKeys.containsAll(setOf("OL62", "PM95")))
}
@Test
fun `dxcc counts distinct entities from dxcc field`() {
val all = listOf(
qso("BG7XYZ", dxcc = 318),
qso("JH0ABC", dxcc = 339),
qso("YD1XYZ", dxcc = 327),
qso("BG7ABC", dxcc = 318)
)
val progress = AwardCalculator.calculate(byGrid(*all.toTypedArray())).first { it.type == AwardType.DXCC }
assertEquals(3, progress.count)
assertTrue(progress.workedKeys.containsAll(setOf("318", "339", "327")))
}
@Test
fun `dxcc falls back to prefix when dxcc missing`() {
val all = listOf(qso("JH0ABC"), qso("BG7XYZ"), qso("VR2XYZ"), qso("XX9A"))
val progress = AwardCalculator.calculate(byGrid(*all.toTypedArray())).first { it.type == AwardType.DXCC }
assertEquals(4, progress.count)
assertTrue(progress.workedKeys.containsAll(setOf("339", "318", "321", "152")))
}
@Test
fun `wapc counts mainland provinces plus hk mo tw`() {
val all = listOf(
qso("BG7XYZ", dxcc = 318, state = "GD"), // Guangdong
qso("BD5ABC", dxcc = 318, state = "ZJ"), // Zhejiang
qso("BD5ABC", dxcc = 318, state = "ZJ"), // dup
qso("VR2X", dxcc = 321), // Hong Kong
qso("XX9A", dxcc = 152), // Macao
qso("BM4X", dxcc = 386) // Taiwan
)
val progress = AwardCalculator.calculate(byGrid(*all.toTypedArray())).first { it.type == AwardType.WAPC }
assertEquals(5, progress.count)
assertTrue(progress.workedKeys.containsAll(setOf("GD", "ZJ", "HK", "MO", "TW")))
}
@Test
fun `wapc ignores non-china states and missing states`() {
val all = listOf(
qso("JH0ABC", dxcc = 339, state = "34"), // Japan state ignored
qso("BG7XYZ", dxcc = 318, state = null), // missing province
qso("K1ABC", dxcc = 291, state = "HI") // Hawaii != Hainan
)
val progress = AwardCalculator.calculate(byGrid(*all.toTypedArray())).first { it.type == AwardType.WAPC }
assertEquals(0, progress.count)
assertTrue(progress.workedKeys.isEmpty())
}
@Test
fun `waja counts japanese prefectures only`() {
val all = listOf(
qso("JH0ABC", dxcc = 339, state = "10"), // Tokyo
qso("JH0ABC", dxcc = 339, state = "47"), // Okinawa
qso("JH0ABC", dxcc = 339, state = "10"), // dup
qso("BG7XYZ", dxcc = 318, state = "10"), // Chinese call, state=10 must NOT count
qso("JE2XYZ", dxcc = 339, state = null) // missing
)
val progress = AwardCalculator.calculate(byGrid(*all.toTypedArray())).first { it.type == AwardType.WAJA }
assertEquals(2, progress.count)
assertTrue(progress.workedKeys.containsAll(setOf("10", "47")))
}
@Test
fun `waz counts distinct cq zones in range`() {
val all = listOf(
qso("BG7XYZ", cqz = 24),
qso("JH0ABC", cqz = 25),
qso("YD1XYZ", cqz = 28),
qso("BG7AAA", cqz = 24),
qso("BG7BBB", cqz = null),
qso("BG7CCC", cqz = 0)
)
val progress = AwardCalculator.calculate(byGrid(*all.toTypedArray())).first { it.type == AwardType.WAZ }
assertEquals(3, progress.count)
assertTrue(progress.workedKeys.containsAll(setOf("24", "25", "28")))
}
@Test
fun `was counts us states only`() {
val all = listOf(
qso("K1ABC", dxcc = 291, state = "CA"),
qso("W2XYZ", dxcc = 291, state = "NY"),
qso("N3QRS", dxcc = 291, state = "ca"), // lowercase normalized
qso("BG7XYZ", dxcc = 318, state = "CA"), // not US
qso("K1AAA", dxcc = 291, state = "XX") // invalid state
)
val progress = AwardCalculator.calculate(byGrid(*all.toTypedArray())).first { it.type == AwardType.WAS }
assertEquals(2, progress.count)
assertTrue(progress.workedKeys.containsAll(setOf("CA", "NY")))
}
@Test
fun `all six awards present with correct targets`() {
val progress = AwardCalculator.calculate(emptyMap())
assertEquals(6, progress.size)
assertEquals(100, progress.first { it.type == AwardType.DXCC }.target)
assertEquals(100, progress.first { it.type == AwardType.VUCC }.target)
assertEquals(34, progress.first { it.type == AwardType.WAPC }.target)
assertEquals(47, progress.first { it.type == AwardType.WAJA }.target)
assertEquals(40, progress.first { it.type == AwardType.WAZ }.target)
assertEquals(50, progress.first { it.type == AwardType.WAS }.target)
}
}
@@ -1,79 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.predict
import org.junit.Assert.assertEquals
import org.junit.Assert.assertTrue
import org.junit.Test
import java.time.Instant
import kotlin.math.abs
class CelestialComputerTest {
private data class RiseSetCase(
val name: String,
val observer: GeoPos,
val startIso: String
)
@Test
fun `findSunRiseSet returns distinct sunrise and sunset for representative locations`() {
val cases = listOf(
RiseSetCase("Equator at March equinox", GeoPos(0.0, 0.0), "2026-03-20T00:00:00Z"),
RiseSetCase("Equator at September equinox", GeoPos(0.0, 0.0), "2026-09-23T00:00:00Z"),
RiseSetCase("Sydney winter", GeoPos(-33.8688, 151.2093), "2026-06-21T00:00:00Z"),
RiseSetCase("Buenos Aires winter", GeoPos(-34.6037, -58.3816), "2026-06-21T00:00:00Z"),
RiseSetCase("Cape Town winter", GeoPos(-33.9249, 18.4241), "2026-06-21T00:00:00Z"),
RiseSetCase("London summer", GeoPos(51.5074, -0.1278), "2026-06-21T00:00:00Z")
)
cases.forEach { testCase ->
val result = CelestialComputer.findSunRiseSet(testCase.observer, testCase.startIso.toMillis())
val daylightDuration = result.setTimeMillis - result.riseTimeMillis
assertTrue("${testCase.name}: sunrise should be non-zero", result.riseTimeMillis > 0L)
assertTrue("${testCase.name}: sunset should be non-zero", result.setTimeMillis > 0L)
assertTrue("${testCase.name}: sunset should be after sunrise", result.setTimeMillis > result.riseTimeMillis)
assertTrue("${testCase.name}: daylight duration should be longer than 1 hour", daylightDuration > HOUR_MILLIS)
assertTrue("${testCase.name}: daylight duration should be shorter than 24 hours", daylightDuration < DAY_MILLIS)
val riseElevation = CelestialComputer.getSunPosition(testCase.observer, result.riseTimeMillis).elevation
val setElevation = CelestialComputer.getSunPosition(testCase.observer, result.setTimeMillis).elevation
assertEquals("${testCase.name}: sunrise should converge near the standard threshold", SUNRISE_SET_THRESHOLD, riseElevation, 0.02)
assertEquals("${testCase.name}: sunset should converge near the standard threshold", SUNRISE_SET_THRESHOLD, setElevation, 0.02)
}
}
@Test
fun `findSunRiseSet does not return the same instant for equinox regression cases`() {
listOf("2026-03-20T00:00:00Z", "2026-09-23T00:00:00Z").forEach { startIso ->
val result = CelestialComputer.findSunRiseSet(GeoPos(0.0, 0.0), startIso.toMillis())
val separationMillis = abs(result.setTimeMillis - result.riseTimeMillis)
assertTrue("$startIso: sunrise and sunset should be separated", separationMillis > HOUR_MILLIS)
}
}
private fun String.toMillis(): Long = Instant.parse(this).toEpochMilli()
private companion object {
private const val SUNRISE_SET_THRESHOLD = -0.8333
private const val HOUR_MILLIS = 60L * 60L * 1000L
private const val DAY_MILLIS = 24L * HOUR_MILLIS
}
}
@@ -1,299 +0,0 @@
/*
* Look4Sat. Amateur radio satellite tracker and pass predictor.
* Copyright (C) 2019-2026 Arty Bishop and contributors.
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*/
package com.rtbishop.look4sat.core.domain.repository
import com.rtbishop.look4sat.core.domain.model.DatabaseState
import com.rtbishop.look4sat.core.domain.model.DataSourcesSettings
import com.rtbishop.look4sat.core.domain.model.GridQso
import com.rtbishop.look4sat.core.domain.model.LoTWSettings
import com.rtbishop.look4sat.core.domain.model.MarkedStation
import com.rtbishop.look4sat.core.domain.model.OtherSettings
import com.rtbishop.look4sat.core.domain.model.PassesSettings
import com.rtbishop.look4sat.core.domain.model.RCSettings
import com.rtbishop.look4sat.core.domain.model.RadioControlSettings
import com.rtbishop.look4sat.core.domain.model.WavelogSettings
import com.rtbishop.look4sat.core.domain.predict.GeoPos
import kotlinx.coroutines.flow.MutableStateFlow
import kotlinx.coroutines.flow.StateFlow
import kotlinx.coroutines.runBlocking
import org.junit.Assert.assertEquals
import org.junit.Assert.assertFalse
import org.junit.Assert.assertTrue
import org.junit.Test
class LoTWGridSyncTest {
// 2026-09-16T00:00:00Z — fixed "now" for the cursor assertions.
private val now = 1_789_516_800_000L
// region resolveLoTWSyncMode
@Test
fun resolveModeHonorsExplicitFull() {
assertEquals(LoTWSyncMode.Full, resolveLoTWSyncMode("BA7OPF", "BA7OPF", LoTWSyncMode.Full))
assertEquals(LoTWSyncMode.Full, resolveLoTWSyncMode("", "BA7OPF", LoTWSyncMode.Full))
}
@Test
fun resolveModeAllowsIncrementalOnlyForSameCallsign() {
assertEquals(
LoTWSyncMode.Incremental,
resolveLoTWSyncMode("BA7OPF", "BA7OPF", LoTWSyncMode.Incremental)
)
assertEquals(
LoTWSyncMode.Full,
resolveLoTWSyncMode("BG7ABC", "BA7OPF", LoTWSyncMode.Incremental)
)
assertEquals(
LoTWSyncMode.Full,
resolveLoTWSyncMode("", "BA7OPF", LoTWSyncMode.Incremental)
)
}
@Test
fun resolveModeForAutoSyncPicksIncrementalWhenPossible() {
assertEquals(LoTWSyncMode.Incremental, resolveLoTWSyncMode("BA7OPF", "BA7OPF", null))
assertEquals(LoTWSyncMode.Full, resolveLoTWSyncMode("BG7ABC", "BA7OPF", null))
assertEquals(LoTWSyncMode.Full, resolveLoTWSyncMode("", "BA7OPF", null))
}
// endregion
// region shouldAutoSyncLoTW
@Test
fun autoSyncGateRequiresEverything() {
val today = "20260916"
// Not configured.
assertFalse(shouldAutoSyncLoTW(false, true, "2026-09-15 10:00:00", today))
// LoTW auto-sync toggle off.
assertFalse(shouldAutoSyncLoTW(true, false, "2026-09-15 10:00:00", today))
// Never synced manually — first sync stays manual/full.
assertFalse(shouldAutoSyncLoTW(true, true, "", today))
// Already synced today (both legacy and current cursor formats) — ARRL rate-limit guard.
assertFalse(shouldAutoSyncLoTW(true, true, "20260916", today))
assertFalse(shouldAutoSyncLoTW(true, true, "2026-09-16 08:00:00", today))
// All gates open — yesterday in either format.
assertTrue(shouldAutoSyncLoTW(true, true, "20260915", today))
assertTrue(shouldAutoSyncLoTW(true, true, "2026-09-15 10:00:00", today))
}
// endregion
// region cursor helpers
@Test
fun cursorApiNormalizesLegacyAndPassesFullThrough() {
assertEquals("2026-09-16", lotwCursorApi("20260916"))
assertEquals("2026-09-16 08:16:02", lotwCursorApi("2026-09-16 08:16:02"))
assertEquals("", lotwCursorApi(""))
}
@Test
fun cursorDateToleratesBothFormats() {
assertEquals("20260916", lotwCursorDate("20260916"))
assertEquals("20260916", lotwCursorDate("2026-09-16 08:16:02"))
assertEquals("", lotwCursorDate(""))
}
@Test
fun cursorEpochMsParsesBothFormatsUtc() {
// 2026-09-16T00:00:00Z in both spellings.
assertEquals(now, lotwCursorEpochMs("20260916"))
assertEquals(now, lotwCursorEpochMs("2026-09-16 00:00:00"))
assertEquals(0L, lotwCursorEpochMs(""))
assertEquals(0L, lotwCursorEpochMs("garbage"))
}
// endregion
// region mergeGridQsos
@Test
fun mergeGridQsosDedupsByCallAndTime() {
val existing = mapOf(
"OL62" to listOf(qso("BA7ABC", 1000L)),
"OL63" to listOf(qso("BA7DEF", 2000L))
)
val fresh = mapOf(
// Same grid, same QSO re-delivered by an overlapping since-date.
"OL62" to listOf(qso("BA7ABC", 1000L)),
// Same grid, brand-new QSO.
"OL62" to listOf(qso("BA7GHI", 3000L)),
// New grid entirely.
"PM95" to listOf(qso("BA7JKL", 4000L))
)
val merged = mergeGridQsos(existing, fresh)
assertEquals(setOf("OL62", "OL63", "PM95"), merged.keys)
assertEquals(2, merged["OL62"]?.size) // BA7ABC once, BA7GHI added
assertEquals(1, merged["OL63"]?.size)
assertEquals(1, merged["PM95"]?.size)
}
@Test
fun mergeGridQsosHandlesEmptySides() {
val fresh = mapOf("OL62" to listOf(qso("BA7ABC", 1000L)))
assertEquals(fresh, mergeGridQsos(emptyMap(), fresh))
// An empty incremental pull must leave the stored side untouched.
assertEquals(fresh, mergeGridQsos(fresh, emptyMap()))
assertEquals(emptyMap<String, List<GridQso>>(), mergeGridQsos(emptyMap(), emptyMap()))
}
// endregion
// region applyLoTWGridResult
@Test
fun applyIncrementalMergesAndAdvancesCursor() = runBlocking {
val repo = FakeSettingsRepo().apply {
setWorkedGrids(setOf("OL62"))
setWorkedGridQsos(mapOf("OL62" to listOf(qso("BA7ABC", 1000L))))
setRoamedGrids(setOf("OL62"))
setLastLotwSyncDate("20260915")
setLastLotwSyncCallsign("BA7OPF")
}
val result = LoTWResult.Success(
grids = setOf("OL62", "PM95"),
qsos = mapOf("OL62" to listOf(qso("BA7ABC", 1000L)), "PM95" to listOf(qso("BA7GHI", 2000L))),
roamedGrids = setOf("PM95")
)
val count = applyLoTWGridResult(repo, result, LoTWSyncMode.Incremental, "BA7OPF", now)
assertEquals(2, count)
assertEquals(setOf("OL62", "PM95"), repo.getWorkedGrids())
assertEquals(1, repo.getWorkedGridQsos()["OL62"]?.size) // deduped
assertEquals(setOf("OL62", "PM95"), repo.getRoamedGrids())
assertEquals("2026-09-16 00:00:00", repo.getLastLotwSyncDate())
assertEquals("BA7OPF", repo.getLastLotwSyncCallsign())
}
@Test
fun applyFullReplacesEverythingAndAdvancesCursor() = runBlocking {
val repo = FakeSettingsRepo().apply {
setWorkedGrids(setOf("OL62", "STALE"))
setWorkedGridQsos(mapOf("STALE" to listOf(qso("BG7OLD", 1L))))
setRoamedGrids(setOf("STALE"))
setLastLotwSyncDate("20260910")
setLastLotwSyncCallsign("BG7OLD")
}
val result = LoTWResult.Success(
grids = setOf("PM95"),
qsos = mapOf("PM95" to listOf(qso("BA7GHI", 2000L))),
roamedGrids = setOf("PM95")
)
val count = applyLoTWGridResult(repo, result, LoTWSyncMode.Full, "BA7OPF", now)
assertEquals(1, count)
assertEquals(setOf("PM95"), repo.getWorkedGrids())
assertEquals(setOf("PM95"), repo.getWorkedGridQsos().keys)
assertEquals(setOf("PM95"), repo.getRoamedGrids())
assertEquals("2026-09-16 00:00:00", repo.getLastLotwSyncDate())
assertEquals("BA7OPF", repo.getLastLotwSyncCallsign())
}
// endregion
private fun qso(call: String, epochMs: Long): GridQso =
GridQso(call, epochMs, "FO-29", "FM", "70CM", "2M")
/**
* Minimal ISettingsRepo fake backing only the LoTW sync surface; the rest
* throws (mirrors the FakeSettingsRepo pattern used in feature tests).
*/
private class FakeSettingsRepo : ISettingsRepo {
override val stationPosition: StateFlow<GeoPos> = MutableStateFlow(GeoPos(23.13, 113.26))
override val appVersionName: String = "test"
override val selectedIds: StateFlow<List<Int>> = MutableStateFlow(emptyList())
override val selectedTypes: StateFlow<List<String>> = MutableStateFlow(emptyList())
override val passesSettings: StateFlow<PassesSettings> = MutableStateFlow(
PassesSettings(hoursAhead = 24, minElevation = 10.0, selectedModes = emptyList())
)
override val databaseState: StateFlow<DatabaseState> = MutableStateFlow(DatabaseState(0, 0, 0L))
override val rcSettings: StateFlow<RCSettings> = MutableStateFlow(
RCSettings(false, "", "", "", false, "", "", "", 0L, false, "", "", "", false, "", "")
)
override val otherSettings: StateFlow<OtherSettings> = MutableStateFlow(
OtherSettings(
stateOfAutoUpdate = true,
stateOfSensors = false,
stateOfSweep = false,
stateOfUtc = false,
stateOfLightTheme = false,
stateOfNightMode = false,
stateOfMapGrid = false,
shouldSeeWarning = false,
shouldSeeWhatsNew = false
)
)
override val dataSourcesSettings: StateFlow<DataSourcesSettings> = MutableStateFlow(
DataSourcesSettings(satelliteUrls = emptyList(), transceiversUrls = emptyList())
)
override val dataSourcesStatus: StateFlow<Map<String, Int>> = MutableStateFlow(emptyMap())
override val radioControlSettings: StateFlow<RadioControlSettings> = MutableStateFlow(
RadioControlSettings(false, RadioControlSettings.MODEL_YAESU_FT817, "", "", "", "", 9600)
)
override val wavelogSettings: StateFlow<WavelogSettings> = MutableStateFlow(WavelogSettings())
override val lotwSettings: StateFlow<LoTWSettings> = MutableStateFlow(LoTWSettings())
private var workedGrids: Set<String> = emptySet()
private var workedGridQsos: Map<String, List<GridQso>> = emptyMap()
private var roamedGrids: Set<String> = emptySet()
private var lastSyncDate: String = ""
private var lastSyncCallsign: String = ""
override fun getWorkedGrids(): Set<String> = workedGrids
override fun setWorkedGrids(grids: Set<String>) { workedGrids = grids }
override fun getWorkedGridQsos(): Map<String, List<GridQso>> = workedGridQsos
override fun setWorkedGridQsos(qsos: Map<String, List<GridQso>>) { workedGridQsos = qsos }
override fun getRoamedGrids(): Set<String> = roamedGrids
override fun setRoamedGrids(grids: Set<String>) { roamedGrids = grids }
private var markedGridStations: Map<String, List<MarkedStation>> = emptyMap()
override fun getMarkedGridStations(): Map<String, List<MarkedStation>> = markedGridStations
override fun setMarkedGridStations(stations: Map<String, List<MarkedStation>>) { markedGridStations = stations }
override fun getLastLotwSyncDate(): String = lastSyncDate
override fun setLastLotwSyncDate(date: String) { lastSyncDate = date }
override fun getLastLotwSyncCallsign(): String = lastSyncCallsign
override fun setLastLotwSyncCallsign(callsign: String) { lastSyncCallsign = callsign }
override fun setSelectedIds(ids: List<Int>) = TODO()
override fun setSelectedTypes(types: List<String>) = TODO()
override fun setPassesSettings(settings: PassesSettings) = TODO()
override fun setStationPosition(latitude: Double, longitude: Double, altitude: Double): Boolean = TODO()
override fun setStationPosition(): Boolean = TODO()
override fun setStationPosition(locator: String): Boolean = TODO()
override fun getSatelliteTypesIds(types: List<String>): List<Int> = TODO()
override fun setSatelliteTypeIds(type: String, ids: List<Int>) = TODO()
override fun updateDatabaseState(state: DatabaseState) = TODO()
override fun updateRCSettings(settings: RCSettings) = TODO()
override fun updateOtherSettings(transform: (OtherSettings) -> OtherSettings) = TODO()
override fun updateDataSourcesSettings(settings: DataSourcesSettings) = TODO()
override fun updateDataSourcesStatus(status: Map<String, Int>) = TODO()
override fun getAmSatFmCatnums(): Set<Int> = emptySet()
override fun getAmSatLinearCatnums(): Set<Int> = emptySet()
override fun setAmSatCatnums(fmCatnums: Set<Int>, linearCatnums: Set<Int>) = Unit
override fun getAmSatActiveCatnums(): Set<Int> = emptySet()
override fun setAmSatActiveCatnums(catnums: Set<Int>) = Unit
override fun updateRadioControlSettings(settings: RadioControlSettings) = TODO()
override fun getSatelliteOffset(catnum: Int): String = ""
override fun setSatelliteOffset(catnum: Int, offset: String) = TODO()
override fun getAmSatCallsign(): String = ""
override fun setAmSatCallsign(callsign: String) = TODO()
override fun updateWavelogSettings(settings: WavelogSettings) = TODO()
override fun updateLoTWSettings(settings: LoTWSettings) = TODO()
}
}
@@ -34,6 +34,7 @@ import androidx.compose.foundation.layout.padding
import androidx.compose.foundation.layout.size
import androidx.compose.foundation.layout.statusBarsPadding
import androidx.compose.foundation.layout.width
import androidx.compose.foundation.shape.RoundedCornerShape
import androidx.compose.material3.ButtonDefaults
import androidx.compose.material3.CardDefaults
import androidx.compose.material3.CircularProgressIndicator
@@ -46,6 +47,7 @@ import androidx.compose.material3.MaterialTheme
import androidx.compose.material3.ModalBottomSheet
import androidx.compose.material3.Surface
import androidx.compose.material3.Text
import androidx.compose.material3.SheetValue
import androidx.compose.material3.rememberModalBottomSheetState
import androidx.compose.material3.adaptive.currentWindowAdaptiveInfo
import androidx.compose.runtime.Composable
@@ -143,7 +145,7 @@ fun RowScope.NextPassRow(pass: OrbitalPass, modifier: Modifier = Modifier, isUtc
if (isUtc) TimeZone.getTimeZone("UTC") else TimeZone.getDefault()
}
val sdfTime = remember(isUtc) {
SimpleDateFormat("HH:mm:ss", Locale.ENGLISH).also { it.timeZone = timeZone }
SimpleDateFormat("HH:mm:ss", displayLocale()).also { it.timeZone = timeZone }
}
ElevatedCard(
modifier = modifier
@@ -157,13 +159,16 @@ fun RowScope.NextPassRow(pass: OrbitalPass, modifier: Modifier = Modifier, isUtc
.padding(start = 6.dp, top = 1.dp, end = 6.dp, bottom = 0.dp)
) {
Row(verticalAlignment = Alignment.CenterVertically) {
Text(
text = "${stringResource(R.string.pass_satId, pass.catNum)} - ",
color = MaterialTheme.colorScheme.primary
)
Text(
text = pass.name,
modifier = Modifier
.weight(1f)
.padding(end = 6.dp)
.infiniteMarquee(),
color = MaterialTheme.colorScheme.primary,
fontWeight = FontWeight.Medium,
maxLines = 1,
overflow = TextOverflow.Ellipsis
@@ -209,21 +214,18 @@ fun RowScope.NextPassRow(pass: OrbitalPass, modifier: Modifier = Modifier, isUtc
}
}
private fun displayLocale(): Locale {
val locale = Locale.getDefault()
return if (locale.language == Locale.CHINESE.language) locale else Locale.ENGLISH
}
@Composable
fun CardButton(
onClick: () -> Unit,
text: String,
modifier: Modifier = Modifier,
isEnabled: Boolean = true
) {
fun CardButton(onClick: () -> Unit, text: String, modifier: Modifier = Modifier) {
ElevatedButton(
onClick = onClick,
enabled = isEnabled,
colors = ButtonDefaults.buttonColors(
containerColor = MaterialTheme.colorScheme.surfaceVariant,
contentColor = MaterialTheme.colorScheme.onSurfaceVariant,
disabledContainerColor = MaterialTheme.colorScheme.surfaceVariant,
disabledContentColor = MaterialTheme.colorScheme.onSurfaceVariant.copy(alpha = 0.4f)
contentColor = MaterialTheme.colorScheme.onSurfaceVariant
),
shape = MaterialTheme.shapes.small,
modifier = modifier,
@@ -288,57 +290,11 @@ fun getDefaultPass(): OrbitalPass = OrbitalPass(
altitude = 0, maxElevation = 0.0, orbitalObject = NearEarthObject(defaultOrbitalData), progress = 0f
)
@Composable
fun InfoDialog(
title: String,
onDismiss: () -> Unit,
onAccept: () -> Unit,
extraAction: (@Composable () -> Unit)? = null,
content: @Composable () -> Unit
) {
DialogShell(onDismissRequest = onDismiss) { padding ->
Row(
verticalAlignment = Alignment.CenterVertically,
modifier = Modifier
.fillMaxWidth()
.padding(start = padding, top = padding, end = padding)
) {
Text(
text = title,
fontSize = 16.sp,
fontWeight = FontWeight.Medium,
color = MaterialTheme.colorScheme.primary,
maxLines = 1,
overflow = TextOverflow.Ellipsis,
modifier = Modifier.weight(1f)
)
extraAction?.let {
it()
Spacer(modifier = Modifier.width(8.dp))
}
CardButton(onClick = onAccept, text = stringResource(R.string.btn_accept))
}
content()
}
}
@Composable
fun SharedDialog(
title: String,
onCancel: () -> Unit,
onAccept: () -> Unit,
acceptText: String? = null,
acceptEnabled: Boolean = true,
content: @Composable () -> Unit
title: String, onCancel: () -> Unit, onAccept: () -> Unit, content: @Composable () -> Unit
) {
SharedDialog(
title = title,
onDismissRequest = onCancel,
onCancel = onCancel,
onAccept = onAccept,
acceptText = acceptText,
acceptEnabled = acceptEnabled
) { _ ->
SharedDialog(title = title, onDismissRequest = onCancel, onCancel = onCancel, onAccept = onAccept) { _ ->
content()
}
}
@@ -349,13 +305,12 @@ fun SharedDialog(
onDismissRequest: () -> Unit,
onCancel: (() -> Unit)? = null,
onAccept: (() -> Unit)? = null,
acceptText: String? = null,
acceptEnabled: Boolean = true,
titleFontSize: Int = 16,
titleTextAlign: TextAlign = if (onCancel != null && onAccept != null) TextAlign.Center else TextAlign.Start,
content: @Composable (padding: Dp) -> Unit
) {
DialogShell(onDismissRequest = onDismissRequest) { padding ->
val dismissible = onCancel != null
DialogShell(onDismissRequest = onDismissRequest, dismissible = dismissible) { padding ->
Row(
verticalAlignment = Alignment.CenterVertically,
modifier = Modifier
@@ -375,17 +330,10 @@ fun SharedDialog(
overflow = TextOverflow.Ellipsis,
modifier = Modifier
.weight(1f)
.padding(
start = if (onCancel != null) padding else 0.dp,
end = if (onAccept != null) padding else 0.dp
)
.padding(horizontal = if (onCancel != null && onAccept != null) padding else 0.dp)
)
if (onAccept != null) {
CardButton(
onClick = onAccept,
text = acceptText ?: stringResource(R.string.btn_accept),
isEnabled = acceptEnabled
)
CardButton(onClick = onAccept, text = stringResource(R.string.btn_accept))
}
}
content(padding)
@@ -396,10 +344,14 @@ fun SharedDialog(
@Composable
private fun DialogShell(
onDismissRequest: () -> Unit,
dismissible: Boolean = true,
content: @Composable (padding: Dp) -> Unit
) {
val padding = LocalSpacing.current.large
val sheetState = rememberModalBottomSheetState(skipPartiallyExpanded = true)
val sheetState = rememberModalBottomSheetState(
skipPartiallyExpanded = true,
confirmValueChange = { if (dismissible) true else it != SheetValue.Hidden }
)
val stopSheetFling = remember {
object : NestedScrollConnection {
override suspend fun onPostFling(consumed: Velocity, available: Velocity): Velocity {
@@ -414,10 +366,10 @@ private fun DialogShell(
}
}
ModalBottomSheet(
onDismissRequest = onDismissRequest,
onDismissRequest = if (dismissible) onDismissRequest else { {} },
sheetState = sheetState,
dragHandle = null,
shape = MaterialTheme.shapes.medium,
shape = RoundedCornerShape(topStart = 24.dp, topEnd = 24.dp),
scrimColor = Color.Black.copy(alpha = 0.64f)
) {
Column(
@@ -1,142 +0,0 @@
package com.rtbishop.look4sat.core.presentation
import androidx.compose.foundation.Canvas
import androidx.compose.foundation.background
import androidx.compose.foundation.layout.Arrangement
import androidx.compose.foundation.layout.Row
import androidx.compose.foundation.layout.height
import androidx.compose.foundation.layout.padding
import androidx.compose.foundation.layout.size
import androidx.compose.foundation.shape.RoundedCornerShape
import androidx.compose.material3.MaterialTheme
import androidx.compose.material3.Text
import androidx.compose.runtime.Composable
import androidx.compose.ui.Alignment
import androidx.compose.ui.Modifier
import androidx.compose.ui.geometry.Offset
import androidx.compose.ui.graphics.Color
import androidx.compose.ui.graphics.Path
import androidx.compose.ui.graphics.drawscope.Stroke
import androidx.compose.ui.graphics.drawscope.rotate
import androidx.compose.ui.text.font.FontFamily
import androidx.compose.ui.text.font.FontWeight
import androidx.compose.ui.unit.dp
import androidx.compose.ui.unit.sp
import kotlin.math.atan2
import kotlin.math.cos
import kotlin.math.sin
import kotlin.math.sqrt
/**
* Format a Maidenhead locator for display. Per IARU convention and the user's
* preference: field letters (1-2) and square digits (3-4) uppercase, sub-square
* letters (5-6 of a 6/8-char locator) lowercase, e.g. "OL62" / "OL62kl".
*/
fun formatGridDisplay(grid: String): String? {
val g = grid.trim().uppercase()
if (g.length !in listOf(4, 6, 8) || g.any { !it.isLetterOrDigit() }) return null
if (g.length == 4) return g
if (g.length == 6) return g.take(4) + g.drop(4).lowercase()
return g.take(4) + g.drop(4).take(2).lowercase() + g.drop(6)
}
/**
* Top-bar chip for the mutual-match screen: navigation needle (rotated by the
* great-circle bearing to the target grid, 0 deg = north), grid locator and
* distance. Shows a dimmed placeholder when no target grid is entered.
*/
@Composable
fun GridTargetChip(
grid: String?,
distanceKm: Double?,
bearingDeg: Double?,
modifier: Modifier = Modifier
) {
val configured = grid != null && distanceKm != null && bearingDeg != null
// The app's signature accent yellow (MaterialTheme primary in both themes).
val accent = MaterialTheme.colorScheme.primary
val placeholder = MaterialTheme.colorScheme.onSurfaceVariant
Row(
verticalAlignment = Alignment.CenterVertically,
horizontalArrangement = Arrangement.spacedBy(8.dp),
modifier = modifier
.height(36.dp)
.background(
color = MaterialTheme.colorScheme.surface.copy(alpha = if (configured) 0.9f else 0.45f),
shape = RoundedCornerShape(12.dp)
)
.padding(horizontal = 12.dp)
) {
NavigationNeedle(
bearingDeg = bearingDeg ?: 0.0,
color = if (configured) accent else placeholder,
dimmed = !configured,
modifier = Modifier.size(22.dp)
)
Text(
text = grid?.let { formatGridDisplay(it) } ?: "----",
fontSize = 15.sp,
fontWeight = FontWeight.Bold,
fontFamily = FontFamily.Monospace,
color = if (configured) accent else placeholder,
letterSpacing = 1.sp
)
Text(
text = distanceKm?.let { "${"%,.0f".format(it)} km" } ?: "-- km",
fontSize = 14.sp,
color = MaterialTheme.colorScheme.onSurface,
modifier = Modifier.padding(horizontal = 8.dp, vertical = 2.dp)
)
}
}
/**
* Map-style navigation needle: slim triangular pointer whose tip points at
* [bearingDeg] (0 = north/up, clockwise positive).
*/
@Composable
private fun NavigationNeedle(
bearingDeg: Double,
color: Color,
dimmed: Boolean,
modifier: Modifier = Modifier
) {
Canvas(modifier = modifier) {
val cx = size.width / 2f
val cy = size.height / 2f
val r = size.minDimension / 2f
if (dimmed) {
drawCircle(color = color, radius = r * 0.92f, style = Stroke(width = 1.5f))
}
rotate(degrees = bearingDeg.toFloat(), pivot = Offset(cx, cy)) {
val path = Path().apply {
moveTo(cx, cy - r * 0.9f) // tip (north before rotation)
lineTo(cx - r * 0.42f, cy + r * 0.55f)
lineTo(cx, cy + r * 0.28f)
lineTo(cx + r * 0.42f, cy + r * 0.55f)
close()
}
drawPath(path, color = color)
}
}
}
/** Great-circle distance in km between two positions. */
fun greatCircleDistanceKm(lat1: Double, lon1: Double, lat2: Double, lon2: Double): Double {
val rad = Math.PI / 180.0
val dLat = (lat2 - lat1) * rad
val dLon = (lon2 - lon1) * rad
val a = sin(dLat / 2) * sin(dLat / 2) +
cos(lat1 * rad) * cos(lat2 * rad) * sin(dLon / 2) * sin(dLon / 2)
return 6371.0 * 2 * kotlin.math.atan2(kotlin.math.sqrt(a), kotlin.math.sqrt(1 - a))
}
/** Initial great-circle bearing in degrees (0 = north, clockwise). */
fun greatCircleBearingDeg(lat1: Double, lon1: Double, lat2: Double, lon2: Double): Double {
val rad = Math.PI / 180.0
val dLon = (lon2 - lon1) * rad
val y = sin(dLon) * cos(lat2 * rad)
val x = cos(lat1 * rad) * sin(lat2 * rad) -
sin(lat1 * rad) * cos(lat2 * rad) * cos(dLon)
return (Math.atan2(y, x) / rad + 360.0) % 360.0
}
@@ -79,10 +79,6 @@ private val lightScheme = lightColorScheme(
onSecondary = Color(0xFFFFFFFF),
secondaryContainer = Color(0xFFF1E1BB),
onSecondaryContainer = Color(0xFF221B04),
tertiary = Color(0xFF3C6FE0), // AMSAT Active (darker for light theme)
onTertiary = Color(0xFFFFFFFF),
tertiaryContainer = Color(0xFFE09800), // AMSAT Telemetry (darker)
onTertiaryContainer = Color(0xFF000000),
background = Color(0xFFFFF8F0),
onBackground = Color(0xFF1E1B13),
surface = Color(0xFFFFF8F0),
@@ -105,10 +101,10 @@ private val darkScheme = darkColorScheme(
onSecondary = Color(0xFF000000),
secondaryContainer = Color(0xFF404040), // navBar indicator,
onSecondaryContainer = Color(0xFFE0E0E0), // navBar active icon
tertiary = Color(0xFF648FFF), // AMSAT Active (from amsat.org/status)
onTertiary = Color(0xFF000000),
tertiaryContainer = Color(0xFFFFB000), // AMSAT Telemetry
onTertiaryContainer = Color(0xFF000000),
// tertiary = Color(0xFF121212),
// onTertiary = Color(0xFF121212),
// tertiaryContainer = Color(0xFF121212),
// onTertiaryContainer = Color(0xFF121212),
background = Color(0xFF121212),
onBackground = Color(0xFFE0E0E0),
surface = Color(0xFF202020), // card background
@@ -29,15 +29,12 @@ sealed class Screen(val iconResId: Int, val titleResId: Int) : NavKey {
@Serializable
data object Passes : Screen(R.drawable.ic_passes, R.string.nav_pass)
@Serializable
data object Radar : Screen(R.drawable.ic_radar, R.string.nav_radar)
@Serializable
data object Map : Screen(R.drawable.ic_map, R.string.nav_map)
@Serializable
data object Mutual : Screen(R.drawable.ic_radio_tower, R.string.nav_mutual)
@Serializable
data object AMSAT : Screen(R.drawable.ic_satellite_alt, R.string.nav_amsat)
@Serializable
data object Settings : Screen(R.drawable.ic_settings, R.string.nav_prefs)
}
@@ -1,3 +0,0 @@
<vector xmlns:android="http://schemas.android.com/apk/res/android" android:width="24dp" android:height="24dp" android:viewportWidth="24" android:viewportHeight="24">
<path android:fillColor="@android:color/white" android:pathData="M19,13H13V19H11V13H5V11H11V5H13V11H19V13Z" />
</vector>
@@ -1,10 +0,0 @@
<?xml version="1.0" encoding="utf-8"?>
<vector xmlns:android="http://schemas.android.com/apk/res/android"
android:width="24dp"
android:height="24dp"
android:viewportWidth="960"
android:viewportHeight="960">
<path
android:fillColor="@android:color/white"
android:pathData="M240,320q-33,0 -56.5,-23.5T160,240q0,-33 23.5,-56.5T240,160q33,0 56.5,23.5T320,240q0,33 -23.5,56.5T240,320zM240,560q-33,0 -56.5,-23.5T160,480q0,-33 23.5,-56.5T240,400q33,0 56.5,23.5T320,480q0,33 -23.5,56.5T240,560zM240,800q-33,0 -56.5,-23.5T160,720q0,-33 23.5,-56.5T240,640q33,0 56.5,23.5T320,720q0,33 -23.5,56.5T240,800zM720,320q-33,0 -56.5,-23.5T640,240q0,-33 23.5,-56.5T720,160q33,0 56.5,23.5T800,240q0,33 -23.5,56.5T720,320zM720,560q-33,0 -56.5,-23.5T640,480q0,-33 23.5,-56.5T720,400q33,0 56.5,23.5T800,480q0,33 -23.5,56.5T720,560zM720,800q-33,0 -56.5,-23.5T640,720q0,-33 23.5,-56.5T720,640q33,0 56.5,23.5T800,720q0,33 -23.5,56.5T720,800z" />
</vector>
@@ -0,0 +1,9 @@
<vector xmlns:android="http://schemas.android.com/apk/res/android"
android:width="24dp"
android:height="24dp"
android:viewportWidth="15"
android:viewportHeight="15">
<path
android:fillColor="@android:color/white"
android:pathData="M13.91,6.75c-1.17,2.25 -4.3,5.31 -6.07,6.94c-0.19,0.172 -0.48,0.172 -0.67,0C5.39,12.06 2.26,9 1.09,6.75C-1.48,1.8 5,-1.5 7.5,3.45C10,-1.5 16.48,1.8 13.91,6.75z" />
</vector>
@@ -1,22 +0,0 @@
<vector xmlns:android="http://schemas.android.com/apk/res/android"
android:width="24dp"
android:height="24dp"
android:viewportWidth="96"
android:viewportHeight="96">
<path
android:fillColor="@android:color/transparent"
android:strokeColor="@android:color/white"
android:strokeWidth="6"
android:strokeLineCap="round"
android:strokeLineJoin="round"
android:pathData="M 8 76 C 8 44, 21 24, 39 24 C 57 24, 70 44, 70 76" />
<path
android:fillColor="@android:color/transparent"
android:strokeColor="@android:color/white"
android:strokeWidth="6"
android:strokeLineCap="round"
android:strokeLineJoin="round"
android:pathData="M 30 76 C 30 54, 44 42, 62 42 C 80 42, 94 54, 94 76" />
</vector>
@@ -1,20 +0,0 @@
<vector xmlns:android="http://schemas.android.com/apk/res/android"
android:width="24dp"
android:height="24dp"
android:viewportWidth="24"
android:viewportHeight="24">
<!-- 冖 (秃宝盖): 顶横 + 两侧短竖, 笔画型 -->
<path
android:pathData="M5,4 L19,4 M5,4 L5,8.5 M19,4 L19,8.5"
android:strokeColor="@android:color/white"
android:strokeWidth="2"
android:strokeLineCap="round"
android:fillColor="#00000000" />
<!-- 笔画型向上箭头 ↑: 竖杆 + 两斜线箭头头 -->
<path
android:pathData="M12,9 L12,20 M12,9 L7.5,14 M12,9 L16.5,14"
android:strokeColor="@android:color/white"
android:strokeWidth="2"
android:strokeLineCap="round"
android:fillColor="#00000000" />
</vector>
@@ -1,9 +0,0 @@
<vector xmlns:android="http://schemas.android.com/apk/res/android"
android:width="24dp"
android:height="24dp"
android:viewportWidth="24"
android:viewportHeight="24">
<path
android:fillColor="@android:color/white"
android:pathData="M14,21c1.93,0 3.62,-1.17 4,-3l-1.75,-0.88C16,18.21 15.33,19 14,19l-4.9,0c0.83,-1 1.5,-2.34 1.5,-4c0,-0.35 -0.03,-0.69 -0.08,-1L14,14v-2l-4.18,0C9,10.42 8,9.6 8,8c0,-1.93 1.57,-3.5 3.5,-3.5c1.5,0 2.79,0.95 3.28,2.28L16.63,6c-0.8,-2.05 -2.79,-3.5 -5.13,-3.5C8.46,2.5 6,4.96 6,8c0,1.78 0.79,2.9 1.49,4L6,12v2l2.47,0c0.08,0.31 0.13,0.64 0.13,1c0,2.7 -2.6,4 -2.6,4v2H14z" />
</vector>
@@ -1,8 +0,0 @@
<?xml version="1.0" encoding="utf-8"?>
<vector xmlns:android="http://schemas.android.com/apk/res/android"
android:width="24dp"
android:height="24dp"
android:viewportWidth="24"
android:viewportHeight="24">
<path android:fillColor="#FF000000" android:pathData="M12,10A2,2 0 0,1 14,12C14,12.5 13.82,12.94 13.53,13.29L16.7,22H14.57L12,14.93L9.43,22H7.3L10.47,13.29C10.18,12.94 10,12.5 10,12A2,2 0 0,1 12,10M12,8A4,4 0 0,0 8,12C8,12.5 8.1,13 8.28,13.46L7.4,15.86C6.53,14.81 6,13.47 6,12A6,6 0 0,1 12,6A6,6 0 0,1 18,12C18,13.47 17.47,14.81 16.6,15.86L15.72,13.46C15.9,13 16,12.5 16,12A4,4 0 0,0 12,8M12,4A8,8 0 0,0 4,12C4,14.36 5,16.5 6.64,17.94L5.92,19.94C3.54,18.11 2,15.23 2,12A10,10 0 0,1 12,2A10,10 0 0,1 22,12C22,15.23 20.46,18.11 18.08,19.94L17.36,17.94C19,16.5 20,14.36 20,12A8,8 0 0,0 12,4Z" />
</vector>
@@ -1,12 +0,0 @@
<?xml version="1.0" encoding="utf-8"?>
<!-- Standard Material refresh icon (24dp viewport), centered geometry -->
<vector xmlns:android="http://schemas.android.com/apk/res/android"
android:width="24dp"
android:height="24dp"
android:viewportWidth="24"
android:viewportHeight="24"
>
<path
android:fillColor="#FF000000"
android:pathData="M17.65,6.35C16.2,4.9 14.21,4 12,4c-4.42,0 -7.99,3.58 -7.99,8s3.57,8 7.99,8c3.73,0 6.84,-2.55 7.73,-6h-2.08c-0.82,2.33 -3.04,4 -5.65,4 -3.31,0 -6,-2.69 -6,-6s2.69,-6 6,-6c1.66,0 3.14,0.69 4.22,1.78L13,11h7V4l-2.35,2.35z" />
</vector>
@@ -1,19 +0,0 @@
<?xml version="1.0" encoding="utf-8"?>
<!-- AMSAT tab icon provided by rt-bishop (upstream author), original SVG asset -->
<vector xmlns:android="http://schemas.android.com/apk/res/android"
android:width="24dp"
android:height="24dp"
android:viewportWidth="24"
android:viewportHeight="24">
<group
android:scaleX="0.242"
android:scaleY="0.242"
android:translateX="0.3"
android:translateY="-230.5">
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@@ -1,9 +0,0 @@
<vector xmlns:android="http://schemas.android.com/apk/res/android"
android:width="24dp"
android:height="24dp"
android:viewportWidth="960"
android:viewportHeight="960">
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android:fillColor="@android:color/white"
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@@ -13,12 +13,16 @@
<string name="nav_prefs">Ajustes</string>
<!-- Satellites screen -->
<string name="sat_type_hint">Tipo: %s</string>
<string name="sat_type_title">Seleccionar tipo de satélite</string>
<string name="sat_type_hint">Modos: %s</string>
<string name="sat_type_title">Seleccionar modos</string>
<string name="sat_search_hint">Id - Nombre</string>
<string name="sat_search_clear">Vaciar</string>
<string name="sat_clear_all">Vaciar todo</string>
<string name="sat_select_all">Seleccionar todo</string>
<string name="sat_group_selected">Seleccionados</string>
<string name="sat_group_available">Disponibles</string>
<string name="sat_group_selected_count">Seleccionados (%1$d)</string>
<string name="sat_group_available_count">Disponibles (%1$d)</string>
<string name="sat_empty_list_message">
Asegúrese de que su consulta de búsqueda sea correcta y que la base de datos esté actualizada</string>
<string name="sat_warning_title">Alarma\!</string>
@@ -26,17 +30,16 @@
Esta aplicación incluye más de 9000 satélites.
No tiene sentido rastrearlos todos a la vez.
\n\nIntenta siempre limitar la lista a los que te
interesen mediante la búsqueda y el selector de tipos.</string>
interesen mediante la búsqueda y el selector de modos.</string>
<!-- Passes screen -->
<string name="pass_filter_title">Filtrar pases</string>
<string name="pass_filter_elev">Elevación mínima</string>
<string name="pass_filter_hours">Tiempo por delante</string>
<string name="pass_filter_history_hours">Tiempo anterior</string>
<string name="pass_filter_aos_time">Ventana AOS</string>
<string name="pass_filter_invert_time">Invertir ventana AOS</string>
<string name="pass_filter_deep_space">DeepSpace (período &gt;225min)</string>
<string name="pass_modes_title">Tipo de modulación</string>
<string name="pass_modes_title">Seleccionar modos</string>
<string name="pass_elevation">Elevación: %.1f°</string>
<string name="pass_altitude">Altitud: %.0f km</string>
<string name="pass_empty_list_message">
@@ -97,11 +100,11 @@
<string name="prefs_loc_qth_title">QTH</string>
<string name="prefs_loc_qth_error">Ubicación QTH no válida</string>
<string name="prefs_loc_success">Ubicación actualizada con éxito</string>
<string name="prefs_station_title">Ajustar ubicaicón de la estación</string>
<string name="prefs_station_lat_text">Latitud de tu estación terrestre</string>
<string name="prefs_station_lon_text">Longitud de tu estación terrestre</string>
<string name="prefs_locator_title">Ajustes ubicación QTH</string>
<string name="prefs_locator_text">Ajustar posición de la estación con tu ubicación</string>
<string name="prefs_station_title">Ubicación de la estación</string>
<string name="prefs_station_lat_text">Latitud de estación</string>
<string name="prefs_station_lon_text">Longitud de estación</string>
<string name="prefs_locator_title">Localizador QTH</string>
<string name="prefs_locator_text">Posición por localizador</string>
<string name="prefs_data_title">Datos satelitales</string>
<string name="prefs_data_entries">Satélites: %s</string>
@@ -111,48 +114,52 @@
<string name="prefs_data_clear">Vaciar</string>
<string name="prefs_data_clear_success">Datos eliminados con éxito</string>
<string name="prefs_data_update_success">Actualización completada con éxito</string>
<string name="prefs_data_import_satellites_error">No se importaron satélites. Usa un TLE/3LE (.txt) u OMM (.csv) válido.</string>
<string name="prefs_data_import_transceivers_error">No se importaron transceptores. Usa un SatNOGS (.json) válido.</string>
<string name="prefs_data_sources_title">Custom data sources</string>
<string name="prefs_data_import_satellites_error">No satellites imported. Select a valid TLE/3LE (.txt) or OMM (.csv) file.</string>
<string name="prefs_data_import_transceivers_error">No transceivers imported. Select a valid SatNOGS (.json) file.</string>
<string name="prefs_data_sources_url_title" translatable="false">URL</string>
<string name="prefs_data_sources_satellites_label" translatable="false">Satellites data</string>
<string name="prefs_data_sources_transceivers_label" translatable="false">Transceivers data</string>
<string name="prefs_net_frequency_offset_hint" translatable="false">Frequency offset (Hz)</string>
<string name="prefs_net_frequency_offset_help" translatable="false">Range: -50000 to 50000 Hz. Positive values increase reported frequency; negative values decrease it.</string>
<string name="prefs_data_sources_tle_switch">Custom TLE URL</string>
<string name="prefs_data_sources_transceivers_switch">Custom transceivers URL</string>
<string name="prefs_data_sources_title">Fuentes personalizadas</string>
<string name="prefs_data_sources_tle_switch">URL TLE</string>
<string name="prefs_data_sources_transceivers_switch">URL transceptores</string>
<string name="prefs_data_sources_url_title" translatable="false">URL (HTTPS)</string>
<string name="prefs_data_output_title">Data output</string>
<string name="prefs_net_output">Network</string>
<string name="prefs_data_output_title">Salida de datos</string>
<string name="prefs_net_output">Red</string>
<string name="prefs_bt_output">Bluetooth</string>
<string name="prefs_cat_output">CAT</string>
<string name="prefs_net_title">Salida de datos de red</string>
<string name="prefs_net_rotator_switch">Enable rotation output</string>
<string name="nav_radiocontrol">Control de radio</string>
<string name="rc_settings_title">Control CAT</string>
<string name="rc_radio_model">Modelo de radio</string>
<string name="rc_tx_device_hint">Dirección BT TX</string>
<string name="rc_rx_device_hint">Dirección BT RX</string>
<string name="rc_tx_name_hint">Nombre radio TX</string>
<string name="rc_rx_name_hint">Nombre radio RX</string>
<string name="rc_enable_switch">Activar CAT</string>
<string name="prefs_net_title">Salida de red</string>
<string name="prefs_net_rotator_switch">Activar salida de rotación</string>
<string name="prefs_net_rotator_address_hint">IP:Puerto</string>
<string name="prefs_net_rotator_format_hint">Formato de datos</string>
<string name="prefs_net_frequency_switch">Enable frequency output</string>
<string name="prefs_net_frequency_switch">Activar salida de frecuencia</string>
<string name="prefs_net_frequency_address_hint">IP:Puerto</string>
<string name="prefs_net_frequency_format_hint">Formato de datos</string>
<string name="prefs_bt_title">Salida por Bluetooth</string>
<string name="prefs_bt_rotator_switch">Enable rotation output</string>
<string name="prefs_bt_rotator_device_hint">Id dispositivo</string>
<string name="prefs_bt_rotator_output_hint">Formato de datos</string>
<string name="prefs_bt_frequency_switch">Enable frequency output</string>
<string name="prefs_bt_frequency_device_hint">Id dispositivo</string>
<string name="prefs_bt_frequency_output_hint">Formato de datos</string>
<string name="prefs_bt_title">Salida Bluetooth</string>
<string name="prefs_bt_rotator_switch">Activar salida de rotación</string>
<string name="prefs_bt_rotator_device_hint">ID dispositivo</string>
<string name="prefs_bt_rotator_output_hint">Formato</string>
<string name="prefs_bt_frequency_switch">Activar salida de frecuencia</string>
<string name="prefs_bt_frequency_device_hint">ID dispositivo</string>
<string name="prefs_bt_frequency_output_hint">Formato</string>
<string name="prefs_bt_perm_error">Revisa los permisos de Bluetooth</string>
<string name="prefs_net_perm_error">Revisa los permisos de red</string>
<string name="prefs_other_title">Otros ajustes</string>
<string name="prefs_other_switch_utc">Mostrar tiempos de pase en UTC</string>
<string name="prefs_other_switch_update">Habilitar auto actualización de datos</string>
<string name="prefs_other_switch_lotw_sync">Sincronizar automáticamente las cuadrículas LoTW confirmadas</string>
<string name="prefs_other_switch_sweep">Habilitar animaciones radar</string>
<string name="prefs_other_switch_sensors">Usar sensores para rotar vista de radar</string>
<string name="prefs_other_switch_night_mode">Activar filtro nocturno rojo</string>
<string name="prefs_other_switch_map_grid">Mostrar cuadrícula Maidenhead en el mapa</string>
<string name="prefs_other_title">Otros</string>
<string name="prefs_other_switch_utc">Hora UTC</string>
<string name="prefs_other_switch_update">Actualización automática</string>
<string name="prefs_other_switch_sweep">Animación radar</string>
<string name="prefs_other_switch_sensors">Sensores</string>
<string name="prefs_other_switch_night_mode">Filtro nocturno</string>
<string name="prefs_highlight_title">Resaltado de elevación</string>
<string name="prefs_highlight_low">Baja &lt; %1$d°</string>
@@ -13,29 +13,32 @@
<string name="nav_prefs">Настройки</string>
<!-- Satellites screen -->
<string name="sat_type_hint">Тип: %s</string>
<string name="sat_type_title">Выберите тип спутника</string>
<string name="sat_type_hint">Режимы: %s</string>
<string name="sat_type_title">Выберите режимы</string>
<string name="sat_search_hint">Id - Название</string>
<string name="sat_search_clear">Очистить</string>
<string name="sat_clear_all">Очистить</string>
<string name="sat_select_all">Выбрать</string>
<string name="sat_group_selected">Выбранные</string>
<string name="sat_group_available">Доступные</string>
<string name="sat_group_selected_count">Выбранные (%1$d)</string>
<string name="sat_group_available_count">Доступные (%1$d)</string>
<string name="sat_empty_list_message">Убедитесь, что ваш поисковый запрос верен и база данных обновлена</string>
<string name="sat_warning_title">Внимание\!</string>
<string name="sat_warning_message">
В этом приложении перечислено более 9000 спутников.
Отслеживать их все одновременно бессмысленно.
\n\nВсегда старайтесь сузить список до тех,
которые вас интересуют, используя поиск и селектор типов.</string>
которые вас интересуют, используя поиск и выбор режимов.</string>
<!-- Passes screen -->
<string name="pass_filter_title">Фильтровать пролеты</string>
<string name="pass_filter_elev">Минимальная элевация</string>
<string name="pass_filter_hours">Период расчёта</string>
<string name="pass_filter_history_hours">Прошедший период</string>
<string name="pass_filter_aos_time">Окно AOS</string>
<string name="pass_filter_invert_time">Инвертировать окно AOS</string>
<string name="pass_filter_deep_space">DeepSpace (период &gt;225мин)</string>
<string name="pass_modes_title">Выберите тип модуляции</string>
<string name="pass_modes_title">Выберите режимы</string>
<string name="pass_elevation">Элевация: %.1f°</string>
<string name="pass_altitude">Высота: %d км</string>
<string name="pass_empty_list_message">
@@ -96,11 +99,11 @@
<string name="prefs_loc_qth_title">QTH</string>
<string name="prefs_loc_qth_error">Неправильный локатор QTH</string>
<string name="prefs_loc_success">Позиция успешно обновлена</string>
<string name="prefs_station_title">Настройки местоположения</string>
<string name="prefs_station_lat_text">Введите широту наземной станции</string>
<string name="prefs_station_lon_text">Введите долготу наземной станции</string>
<string name="prefs_locator_title">Настройки локатора QTH</string>
<string name="prefs_locator_text">Введите позицию через локатор</string>
<string name="prefs_station_title">Положение станции</string>
<string name="prefs_station_lat_text">Широта станции</string>
<string name="prefs_station_lon_text">Долгота станции</string>
<string name="prefs_locator_title">Локатор QTH</string>
<string name="prefs_locator_text">Позиция по локатору</string>
<string name="prefs_data_title">Данные спутников</string>
<string name="prefs_data_entries">Спутников: %s</string>
@@ -110,23 +113,30 @@
<string name="prefs_data_clear">Очистить</string>
<string name="prefs_data_clear_success">Очистка прошла успешно</string>
<string name="prefs_data_update_success">Обновление прошло успешно</string>
<string name="prefs_data_import_satellites_error">Спутники не импортированы. Нужен TLE/3LE (.txt) или OMM (.csv).</string>
<string name="prefs_data_import_transceivers_error">Трансиверы не импортированы. Нужен SatNOGS (.json).</string>
<string name="prefs_data_sources_title">Свои источники данных</string>
<string name="prefs_data_import_satellites_error">No satellites imported. Select a valid TLE/3LE (.txt) or OMM (.csv) file.</string>
<string name="prefs_data_import_transceivers_error">No transceivers imported. Select a valid SatNOGS (.json) file.</string>
<string name="prefs_data_sources_url_title" translatable="false">URL</string>
<string name="prefs_data_sources_satellites_label" translatable="false">Satellites data</string>
<string name="prefs_data_sources_transceivers_label" translatable="false">Transceivers data</string>
<string name="prefs_net_frequency_offset_hint" translatable="false">Frequency offset (Hz)</string>
<string name="prefs_net_frequency_offset_help" translatable="false">Range: -50000 to 50000 Hz. Positive values increase reported frequency; negative values decrease it.</string>
<string name="prefs_data_sources_tle_switch">Custom TLE URL</string>
<string name="prefs_data_sources_transceivers_switch">Custom Transceivers URL</string>
<string name="prefs_data_sources_title">Свои источники</string>
<string name="prefs_data_sources_tle_switch">URL TLE</string>
<string name="prefs_data_sources_transceivers_switch">URL трансиверов</string>
<string name="prefs_data_sources_url_title" translatable="false">URL (HTTPS)</string>
<string name="prefs_data_output_title">Вывод данных</string>
<string name="prefs_data_output_title">Вывод</string>
<string name="prefs_net_output">Сеть</string>
<string name="prefs_bt_output">Bluetooth</string>
<string name="prefs_cat_output">CAT</string>
<string name="prefs_net_title">Вывод сетевых данных</string>
<string name="nav_radiocontrol">Управление радио</string>
<string name="rc_settings_title">CAT управление</string>
<string name="rc_radio_model">Модель радио</string>
<string name="rc_tx_device_hint">BT адрес TX</string>
<string name="rc_rx_device_hint">BT адрес RX</string>
<string name="rc_tx_name_hint">Имя радио TX</string>
<string name="rc_rx_name_hint">Имя радио RX</string>
<string name="rc_enable_switch">Включить CAT</string>
<string name="prefs_net_title">Сетевой вывод</string>
<string name="prefs_net_rotator_switch">Включить вывод ротатора</string>
<string name="prefs_net_rotator_address_hint">IP:Порт</string>
<string name="prefs_net_rotator_format_hint">Формат</string>
@@ -134,24 +144,22 @@
<string name="prefs_net_frequency_address_hint">IP:Порт</string>
<string name="prefs_net_frequency_format_hint">Формат</string>
<string name="prefs_bt_title">Вывод данных Bluetooth</string>
<string name="prefs_bt_title">Вывод Bluetooth</string>
<string name="prefs_bt_rotator_switch">Включить вывод ротатора</string>
<string name="prefs_bt_rotator_device_hint">Id устройства</string>
<string name="prefs_bt_rotator_device_hint">ID устройства</string>
<string name="prefs_bt_rotator_output_hint">Формат</string>
<string name="prefs_bt_frequency_switch">Включить вывод частоты</string>
<string name="prefs_bt_frequency_device_hint">Id устройства</string>
<string name="prefs_bt_frequency_device_hint">ID устройства</string>
<string name="prefs_bt_frequency_output_hint">Формат</string>
<string name="prefs_bt_perm_error">Нет разрешения использовать bluetooth</string>
<string name="prefs_net_perm_error">Нет разрешения использовать сеть</string>
<string name="prefs_other_title">Другие настройки</string>
<string name="prefs_other_switch_utc">Показывать время по UTC</string>
<string name="prefs_other_switch_update">Обновлять данные автоматически</string>
<string name="prefs_other_switch_lotw_sync">Автосинхронизация подтверждённых сеток LoTW</string>
<string name="prefs_other_switch_sweep">Показывать анимацию радара</string>
<string name="prefs_other_switch_sensors">Использовать сенсоры устройства</string>
<string name="prefs_other_switch_night_mode">Включить красный ночной фильтр</string>
<string name="prefs_other_switch_map_grid">Показывать сетку Maidenhead на карте</string>
<string name="prefs_other_title">Прочее</string>
<string name="prefs_other_switch_utc">Время в UTC</string>
<string name="prefs_other_switch_update">Автообновление данных</string>
<string name="prefs_other_switch_sweep">Анимация радара</string>
<string name="prefs_other_switch_sensors">Сенсоры</string>
<string name="prefs_other_switch_night_mode">Ночной фильтр</string>
<string name="prefs_highlight_title">Подсветка высоты</string>
<string name="prefs_highlight_low">Низко &lt; %1$d°</string>
@@ -13,30 +13,33 @@
<string name="nav_prefs">පසුතල</string>
<!-- Satellites screen -->
<string name="sat_type_hint">වර්ගය: %s</string>
<string name="sat_type_title">චන්ද්‍රිකා ආකාරය තෝරන්න</string>
<string name="sat_type_hint">මාදිලි: %s</string>
<string name="sat_type_title">මාදිලි තෝරන්න</string>
<string name="sat_search_hint">Id - නම</string>
<string name="sat_search_clear">පිරිසිදු ක°</string>
<string name="sat_clear_all">සියල්ල පිරිසිදු ක°</string>
<string name="sat_select_all">සියල්ල තෝරන්න</string>
<string name="sat_group_selected">තෝරාගත්</string>
<string name="sat_group_available">තිබෙන</string>
<string name="sat_group_selected_count">තෝරාගත් (%1$d)</string>
<string name="sat_group_available_count">තිබෙන (%1$d)</string>
<string name="sat_empty_list_message">
ඔබගේ සෙවුම් විමසුම නිවැරදි බවත් දත්ත සමුදාය යාවත්කාලීන කර ඇති බවත් සහතික කර ගන්න</string>
<string name="sat_warning_title">අවවාදයයි\!</string>
<string name="sat_warning_message">
මෙම යෙදුමේ ලැයිස්තුගත කර ඇති චන්ද්‍රිකා 9000 කට වඩා තිබේ.
ඒවා සියල්ලම එකවර නිරීක්ෂණය කිරීම තේරුමක් නැති දෙයක්.
\n\nසෙවීම සහ වර්ග තේරීම හරහා ඔබ උනන්දුවක් දක්වන
\n\nසෙවීම සහ මාදිලි තේරීම හරහා ඔබ උනන්දුවක් දක්වන
ඒවාට පමණක් ලැයිස්තුව පටු කිරීමට සැමවිටම උත්සාහ කරන්න.</string>
<!-- Passes screen -->
<string name="pass_filter_title">පසුකිරිම් පිරිපහදුව</string>
<string name="pass_filter_elev">අවම උත්තෝලනය</string>
<string name="pass_filter_hours">ඉදිරි කාලය</string>
<string name="pass_filter_history_hours">පෙර කාලය</string>
<string name="pass_filter_aos_time">AOS කවුළුව</string>
<string name="pass_filter_invert_time">AOS කවුළුව ප්‍රතිවිරුද්ධ කරන්න</string>
<string name="pass_filter_deep_space">DeepSpace (කාලය &gt;225min)</string>
<string name="pass_modes_title">මූර්ජන ආකාරය තෝරන්න</string>
<string name="pass_modes_title">මූර්ජන තෝරන්න</string>
<string name="pass_elevation">උත්තෝලනය: %.1f°</string>
<string name="pass_altitude">උන්නතාශය: %d km</string>
<string name="pass_empty_list_message">
@@ -71,7 +74,7 @@
<string name="map_next">ඊළග</string>
<string name="map_azimuth">දිගංශය: %.1f°</string>
<string name="map_elevation">උත්තෝලනය: %.1f°</string>
<string name="map_altitude">උන්නතාශය: %.0f km</string>
<string name="map_altitude">උන්නතාශය: %.0f km</string>,
<string name="map_distance">පරතරය: %.0f km</string>
<string name="map_latitude">අක්‍ෂාංශ: %.1f°</string>
<string name="map_longitude">දේශාංශ: %.1f°</string>
@@ -97,11 +100,11 @@
<string name="prefs_loc_qth_title">QTH</string>
<string name="prefs_loc_qth_error">QTH locator වලංගු නොවේ</string>
<string name="prefs_loc_success">පිහිටීම යාවත්කාලීනය සාර්ථකයි</string>
<string name="prefs_station_title">පොළෙහි පිහිටීම් පසුතල</string>
<string name="prefs_station_lat_text">ඔබගේ පොළෙහි අක්‍ෂාංශය සකසන්න</string>
<string name="prefs_station_lon_text">ඔබගේ පොළෙහි දේශාංශය සකසන්න</string>
<string name="prefs_locator_title">QTH locator පසුතල</string>
<string name="prefs_locator_text"> ඔබගේ locator භාවිතා කර පොළහි පිහිටීම සකසන්න</string>
<string name="prefs_station_title">පොළ පිහිටීම</string>
<string name="prefs_station_lat_text">පොළ අක්‍ෂාංශය</string>
<string name="prefs_station_lon_text">පොළ දේශාංශය</string>
<string name="prefs_locator_title">QTH locator</string>
<string name="prefs_locator_text">locator මඟින් පොළ පිහිටීම සකසන්න</string>
<string name="prefs_data_title">චන්ද්‍රිකා දත්ත</string>
<string name="prefs_data_entries">චන්ද්‍රිකා: %s</string>
@@ -111,48 +114,52 @@
<string name="prefs_data_clear">පිරිසිදු ක°</string>
<string name="prefs_data_clear_success">දත්ත ඉවත් කිරීම සාර්ථකයි</string>
<string name="prefs_data_update_success">යාවත්කාලීනය සම්පූර්ණ කිරීම සාර්ථකයි</string>
<string name="prefs_data_import_satellites_error">චන්ද්‍රිකා ආයාත නොවීය. වලංගු TLE/3LE (.txt) හෝ OMM (.csv) ගොනුවක් තෝරන්න.</string>
<string name="prefs_data_import_transceivers_error">සම්ප්‍රේෂක ආයාත නොවීය. වලංගු SatNOGS (.json) ගොනුවක් තෝරන්න.</string>
<string name="prefs_data_sources_title">Custom data sources</string>
<string name="prefs_data_import_satellites_error">No satellites imported. Select a valid TLE/3LE (.txt) or OMM (.csv) file.</string>
<string name="prefs_data_import_transceivers_error">No transceivers imported. Select a valid SatNOGS (.json) file.</string>
<string name="prefs_data_sources_url_title" translatable="false">URL</string>
<string name="prefs_data_sources_satellites_label" translatable="false">Satellites data</string>
<string name="prefs_data_sources_transceivers_label" translatable="false">Transceivers data</string>
<string name="prefs_net_frequency_offset_hint" translatable="false">Frequency offset (Hz)</string>
<string name="prefs_net_frequency_offset_help" translatable="false">Range: -50000 to 50000 Hz. Positive values increase reported frequency; negative values decrease it.</string>
<string name="prefs_data_sources_tle_switch">Custom TLE URL</string>
<string name="prefs_data_sources_transceivers_switch">Custom transceivers URL</string>
<string name="prefs_data_sources_title">අභිරුචි මූලාශ්‍ර</string>
<string name="prefs_data_sources_tle_switch">TLE URL</string>
<string name="prefs_data_sources_transceivers_switch">Transceivers URL</string>
<string name="prefs_data_sources_url_title" translatable="false">URL (HTTPS)</string>
<string name="prefs_data_output_title">Data output</string>
<string name="prefs_net_output">Network</string>
<string name="prefs_data_output_title">දත්ත ප්‍රතිදානය</string>
<string name="prefs_net_output">ජාලය</string>
<string name="prefs_bt_output">Bluetooth</string>
<string name="prefs_cat_output">CAT</string>
<string name="nav_radiocontrol">රේඩියෝ පාලනය</string>
<string name="rc_settings_title">CAT පාලනය</string>
<string name="rc_radio_model">රේඩියෝ මාදිලිය</string>
<string name="rc_tx_device_hint">TX BT ලිපිනය</string>
<string name="rc_rx_device_hint">RX BT ලිපිනය</string>
<string name="rc_tx_name_hint">TX රේඩියෝ නම</string>
<string name="rc_rx_name_hint">RX රේඩියෝ නම</string>
<string name="rc_enable_switch">CAT සබල කරන්න</string>
<string name="prefs_net_title">ජාල ප්‍රතිදානය</string>
<string name="prefs_net_rotator_switch">Enable rotation output</string>
<string name="prefs_net_rotator_switch">Rotation ප්‍රතිදානය සබල කරන්න</string>
<string name="prefs_net_rotator_address_hint">IP:Port</string>
<string name="prefs_net_rotator_format_hint">දත්ත අකාරය</string>
<string name="prefs_net_frequency_switch">Enable frequency output</string>
<string name="prefs_net_rotator_format_hint">දත්ත ආකෘතිය</string>
<string name="prefs_net_frequency_switch">Frequency ප්‍රතිදානය සබල කරන්න</string>
<string name="prefs_net_frequency_address_hint">IP:Port</string>
<string name="prefs_net_frequency_format_hint">දත්ත අකාරය</string>
<string name="prefs_net_frequency_format_hint">දත්ත ආකෘතිය</string>
<string name="prefs_bt_title">Bluetooth දත්ත ප්‍රතිදානය</string>
<string name="prefs_bt_rotator_switch">Enable rotation output</string>
<string name="prefs_bt_rotator_device_hint">උපාංග id</string>
<string name="prefs_bt_rotator_output_hint">දත්ත අකාරය</string>
<string name="prefs_bt_frequency_switch">Enable frequency output</string>
<string name="prefs_bt_frequency_device_hint">උපාංග id</string>
<string name="prefs_bt_frequency_output_hint">දත්ත අකාරය</string>
<string name="prefs_bt_title">Bluetooth ප්‍රතිදානය</string>
<string name="prefs_bt_rotator_switch">Rotation ප්‍රතිදානය සබල කරන්න</string>
<string name="prefs_bt_rotator_device_hint">උපාංග ID</string>
<string name="prefs_bt_rotator_output_hint">දත්ත ආකෘතිය</string>
<string name="prefs_bt_frequency_switch">Frequency ප්‍රතිදානය සබල කරන්න</string>
<string name="prefs_bt_frequency_device_hint">උපාංග ID</string>
<string name="prefs_bt_frequency_output_hint">දත්ත ආකෘතිය</string>
<string name="prefs_bt_perm_error">Bluetooth අවසර පරික්‍ෂා ක°</string>
<string name="prefs_net_perm_error">Network අවසර පරික්‍ෂා කරන්න</string>
<string name="prefs_other_title">වෙනත් සැකසුම්</string>
<string name="prefs_other_switch_utc">පසුකර වේලාවන් UTC මගින්</string>
<string name="prefs_other_switch_update">ස්වයං දත්ත යාවත්කාලීනය</string>
<string name="prefs_other_switch_lotw_sync">LoTW තහවුරු කළ ජාල ස්වයං සමමුහුර්තකරණය</string>
<string name="prefs_other_switch_sweep">radar sweep සජීවිකරණය සබල කරන්න</string>
<string name="prefs_other_switch_sensors">Radar දර්ශනය කරකැවීමට සංවේදක භාවිතා කරන්න </string>
<string name="prefs_other_switch_night_mode">රතු රාත්‍රී පෙරහන සබල කරන්න</string>
<string name="prefs_other_switch_map_grid">සිතියමේ Maidenhead ජාලකය පෙන්වන්න</string>
<string name="prefs_other_title">වෙනත්</string>
<string name="prefs_other_switch_utc">UTC වේලාව</string>
<string name="prefs_other_switch_update">දත්ත ස්වයං යාවත්කාලීන</string>
<string name="prefs_other_switch_sweep">Radar sweep</string>
<string name="prefs_other_switch_sensors">සංවේදක</string>
<string name="prefs_other_switch_night_mode">රාත්‍රී පෙරහන</string>
<string name="prefs_highlight_title">උස් උද්දීපනය</string>
<string name="prefs_highlight_low">අඩු &lt; %1$d°</string>
@@ -14,30 +14,33 @@
<string name="nav_prefs">Ayarlar</string>
<!-- Satellites screen -->
<string name="sat_type_hint">Uydu türü: %s</string>
<string name="sat_type_title">Uydu türü seçin</string>
<string name="sat_type_hint">Modlar: %s</string>
<string name="sat_type_title">Modları seçin</string>
<string name="sat_search_hint">Id - Ad</string>
<string name="sat_search_clear">Temizle</string>
<string name="sat_clear_all">Tümünü temizle</string>
<string name="sat_select_all">Tümünü seç</string>
<string name="sat_group_selected">Seçilenler</string>
<string name="sat_group_available">Kullanılabilir</string>
<string name="sat_group_selected_count">Seçilenler (%1$d)</string>
<string name="sat_group_available_count">Kullanılabilir (%1$d)</string>
<string name="sat_empty_list_message">"Arama sorgunuzun doğru olduğundan ve veritabanının güncellendiğinden emin olun"</string>
<string name="sat_warning_title">Uyarı\!</string>
<string name="sat_warning_message">
Bu uygulamada 9000\'den fazla uydu listelenmiştir.
Hepsini aynı anda takip etmek anlamsızdır.
\n\nListeyi yalnızca ilgilendiğiniz uydularla
daraltmak için arama ve tür seçiciyi kullanın.</string>
daraltmak için arama ve mod seçiciyi kullanın.</string>
<!-- Passes screen -->
<string name="pass_filter_title">Geçişleri filtrele</string>
<string name="pass_filter_elev">Minimum yükseklik açısı</string>
<string name="pass_filter_hours">Gösterilecek zaman</string>
<string name="pass_filter_history_hours">Geçmiş süre</string>
<string name="pass_filter_aos_time">AOS aralığı</string>
<string name="pass_filter_invert_time">AOS aralığını tersine çevir</string>
<string name="pass_filter_deep_space">DeepSpace (periyot &gt;225dk)</string>
<string name="pass_time_placeholder" translatable="false"> -- : -- : -- </string>
<string name="pass_modes_title">Modulasyon türü seçin</string>
<string name="pass_modes_title">Modları seçin</string>
<string name="pass_satId" translatable="false">%05d</string>
<string name="pass_elevation">Yükseklik açısı: %.1f°</string>
<string name="pass_deep_space" translatable="false">DeepSpace</string>
@@ -128,11 +131,11 @@
<string name="prefs_loc_qth_title">QTH</string>
<string name="prefs_loc_qth_error">Geçersiz QTH konumlandırıcısı</string>
<string name="prefs_loc_success">Konum başarıyla güncellendi</string>
<string name="prefs_station_title">İstasyon konumu ayarları</string>
<string name="prefs_station_lat_text">Yer istasyonunuzun enlemini girin</string>
<string name="prefs_station_lon_text">Yer istasyonunuzun boylamını girin</string>
<string name="prefs_locator_title">QTH konumlandırıcı ayarları</string>
<string name="prefs_locator_text">İstasyon konumunu konumlandırıcı ile ayarlayın</string>
<string name="prefs_station_title">İstasyon konumu</string>
<string name="prefs_station_lat_text">İstasyon enlemi</string>
<string name="prefs_station_lon_text">İstasyon boylamı</string>
<string name="prefs_locator_title">QTH konumlandırıcı</string>
<string name="prefs_locator_text">Konumu lokatörle ayarla</string>
<string name="prefs_data_title">Uydu verisi</string>
<string name="prefs_data_entries">Uydular: %s</string>
@@ -142,34 +145,30 @@
<string name="prefs_data_clear">Temizle</string>
<string name="prefs_data_clear_success">Veriler başarıyla temizlendi</string>
<string name="prefs_data_update_success">Güncelleme başarıyla tamamlandı</string>
<string name="prefs_data_import_satellites_error">Uydu içe aktarılmadı. Geçerli bir TLE/3LE (.txt) veya OMM (.csv) dosyası seçin.</string>
<string name="prefs_data_import_transceivers_error">Transceiver içe aktarılmadı. Geçerli bir SatNOGS (.json) dosyası seçin.</string>
<string name="prefs_data_sources_title">Özel veri kaynakları</string>
<string name="prefs_data_import_satellites_error">No satellites imported. Select a valid TLE/3LE (.txt) or OMM (.csv) file.</string>
<string name="prefs_data_import_transceivers_error">No transceivers imported. Select a valid SatNOGS (.json) file.</string>
<string name="prefs_data_sources_satellites_label" translatable="false">Satellites data</string>
<string name="prefs_data_sources_transceivers_label" translatable="false">Transceivers data</string>
<string name="prefs_net_frequency_offset_hint" translatable="false">Frequency offset (Hz)</string>
<string name="prefs_net_frequency_offset_help" translatable="false">Range: -50000 to 50000 Hz. Positive values increase reported frequency; negative values decrease it.</string>
<string name="prefs_data_sources_tle_switch">Özel TLE URL</string>
<string name="prefs_data_sources_transceivers_switch">Özel transceiver URL</string>
<string name="prefs_data_sources_title">Özel kaynaklar</string>
<string name="prefs_data_sources_tle_switch">TLE URL</string>
<string name="prefs_data_sources_transceivers_switch">Transceiver URL</string>
<string name="prefs_data_sources_url_title" translatable="false">URL (HTTPS)</string>
<string name="prefs_data_output_title">Veri aktarımı</string>
<string name="prefs_data_output_title">Veri çıkışı</string>
<string name="prefs_net_output">Ağ</string>
<string name="prefs_bt_output">Bluetooth</string>
<string name="prefs_cat_output">CAT</string>
<!-- Radio Control -->
<string name="nav_radiocontrol">Radyo Kontrolü</string>
<string name="rc_settings_title">CAT Radyo Kontrolü</string>
<string name="rc_settings_title">CAT kontrolü</string>
<string name="rc_radio_model">Radyo Modeli</string>
<string name="rc_tx_device_hint">TX Radyo BT Adresi</string>
<string name="rc_rx_device_hint">RX Radyo BT Adresi</string>
<string name="rc_tx_device_hint">TX BT adresi</string>
<string name="rc_rx_device_hint">RX BT adresi</string>
<string name="rc_tx_name_hint">TX Radyo Adı</string>
<string name="rc_rx_name_hint">RX Radyo Adı</string>
<string name="rc_enable_switch">CAT Kontrolünü Etkinleştir</string>
<string name="rc_enable_switch">CAT\'i etkinleştir</string>
<string name="prefs_net_title">Ağ veri çıkışı</string>
<string name="prefs_net_title">Ağ çıkışı</string>
<string name="prefs_net_rotator_switch">Döndürme çıkışını etkinleştir</string>
<string name="prefs_net_rotator_address_hint">IP:Port</string>
<string name="prefs_net_rotator_format_hint">Biçim</string>
@@ -177,24 +176,22 @@
<string name="prefs_net_frequency_address_hint">IP:Port</string>
<string name="prefs_net_frequency_format_hint">Biçim</string>
<string name="prefs_bt_title">Bluetooth veri çıkışı</string>
<string name="prefs_bt_title">Bluetooth çıkışı</string>
<string name="prefs_bt_rotator_switch">Döndürme çıkışını etkinleştir</string>
<string name="prefs_bt_rotator_device_hint">Cihaz kimliği</string>
<string name="prefs_bt_rotator_output_hint">Veri biçimi</string>
<string name="prefs_bt_rotator_output_hint">Biçim</string>
<string name="prefs_bt_frequency_switch">Frekans çıkışını etkinleştir</string>
<string name="prefs_bt_frequency_device_hint">Cihaz kimliği</string>
<string name="prefs_bt_frequency_output_hint">Veri biçimi</string>
<string name="prefs_bt_frequency_output_hint">Biçim</string>
<string name="prefs_bt_perm_error">Bluetooth izninizi kontrol edin</string>
<string name="prefs_net_perm_error">Ağ izninizi kontrol edin</string>
<string name="prefs_other_title">Diğer ayarlar</string>
<string name="prefs_other_switch_utc">Geçiş saatini UTC olarak göster</string>
<string name="prefs_other_switch_update">Otomatik veri güncellemeyi etkinleştir</string>
<string name="prefs_other_switch_lotw_sync">LoTW onaylı kareleri otomatik senkronize et</string>
<string name="prefs_other_switch_sweep">Radar taramasını etkinleştir</string>
<string name="prefs_other_switch_sensors">Radar görünümünü döndürmek için sensörleri kullan</string>
<string name="prefs_other_switch_night_mode">Kırmızı gece filtresini etkinleştir</string>
<string name="prefs_other_switch_map_grid">Haritada Maidenhead ızgarasını göster</string>
<string name="prefs_other_title">Diğer</string>
<string name="prefs_other_switch_utc">UTC saati</string>
<string name="prefs_other_switch_update">Veriyi otomatik güncelle</string>
<string name="prefs_other_switch_sweep">Radar taraması</string>
<string name="prefs_other_switch_sensors">Sensör</string>
<string name="prefs_other_switch_night_mode">Gece filtresi</string>
<string name="prefs_highlight_title">Elevasyon vurgusu</string>
<string name="prefs_highlight_low">Düşük &lt; %1$d°</string>
@@ -208,8 +205,7 @@
\n• Dave Moten (predict4java)
\n• Alexandru Csete (Gpredict)
\n• Dr T.S. Kelso (Celestrak)
\n• Libre Space Foundation (SatNOGS)
\n• BG7NTA BG5JSU (CW decoding feature)</string>
\n• Libre Space Foundation (SatNOGS)</string>
<string name="prefs_outro_license">Bu uygulama herhangi bir garanti sunmaz</string>
</resources>
@@ -13,12 +13,16 @@
<string name="nav_prefs">Налаштування</string>
<!-- Satellites screen -->
<string name="sat_type_hint">Тип: %s</string>
<string name="sat_type_title">Виберіть тип супутника</string>
<string name="sat_type_hint">Режими: %s</string>
<string name="sat_type_title">Виберіть режими</string>
<string name="sat_search_hint">Id - Назва</string>
<string name="sat_search_clear">Очистити</string>
<string name="sat_clear_all">Очистити всі</string>
<string name="sat_select_all">Вибрати всі</string>
<string name="sat_group_selected">Обрані</string>
<string name="sat_group_available">Доступні</string>
<string name="sat_group_selected_count">Обрані (%1$d)</string>
<string name="sat_group_available_count">Доступні (%1$d)</string>
<string name="sat_empty_list_message">
Переконайтеся, що ваш пошуковий запит правильний, а база даних оновлена</string>
<string name="sat_warning_title">Увага\!</string>
@@ -26,17 +30,16 @@
У цьому додатку перелічено понад 9000 супутників.
Немає сенсу відстежувати їх усі одночасно.
\n\nЗавжди намагайтеся звузити список лише до тих,
які вас цікавлять, за допомогою пошуку та селектора типів.</string>
які вас цікавлять, за допомогою пошуку та вибору режимів.</string>
<!-- Passes screen -->
<string name="pass_filter_title">Фільтр прольотів</string>
<string name="pass_filter_elev">Мінімальне піднесень</string>
<string name="pass_filter_hours">Час вперед</string>
<string name="pass_filter_history_hours">Час назад</string>
<string name="pass_filter_aos_time">Вікно AOS</string>
<string name="pass_filter_invert_time">Інвертувати вікно AOS</string>
<string name="pass_filter_deep_space">DeepSpace (період &gt;225хв)</string>
<string name="pass_modes_title">Виберіть тип модуляції</string>
<string name="pass_modes_title">Виберіть режими</string>
<string name="pass_elevation">Піднес.: %.1f°</string>
<string name="pass_altitude">Висота: %.0f км</string>
<string name="pass_empty_list_message">
@@ -97,11 +100,11 @@
<string name="prefs_loc_qth_title">QTH</string>
<string name="prefs_loc_qth_error">Некоректний локатор QTH</string>
<string name="prefs_loc_success">Позицію успішно оновлено</string>
<string name="prefs_station_title">Налаштування місцезнаходження станції</string>
<string name="prefs_station_lat_text">Широта місцезнаходження станції</string>
<string name="prefs_station_lon_text">Довгота місцезнаходження станції</string>
<string name="prefs_locator_title">Налаштування QTH локатора</string>
<string name="prefs_locator_text">Задати позицію за QTH локатором</string>
<string name="prefs_station_title">Позиція станції</string>
<string name="prefs_station_lat_text">Широта станції</string>
<string name="prefs_station_lon_text">Довгота станції</string>
<string name="prefs_locator_title">Локатор QTH</string>
<string name="prefs_locator_text">Позиція за локатором</string>
<string name="prefs_data_title">Супутникові дані</string>
<string name="prefs_data_entries">Супутників: %s</string>
@@ -111,48 +114,52 @@
<string name="prefs_data_clear">Очистити</string>
<string name="prefs_data_clear_success">Дані успішно очищено</string>
<string name="prefs_data_update_success">Оновлення успішне</string>
<string name="prefs_data_import_satellites_error">Супутники не імпортовано. Потрібен TLE/3LE (.txt) або OMM (.csv).</string>
<string name="prefs_data_import_transceivers_error">Трансивери не імпортовано. Потрібен SatNOGS (.json).</string>
<string name="prefs_data_sources_title">Custom data sources</string>
<string name="prefs_data_import_satellites_error">No satellites imported. Select a valid TLE/3LE (.txt) or OMM (.csv) file.</string>
<string name="prefs_data_import_transceivers_error">No transceivers imported. Select a valid SatNOGS (.json) file.</string>
<string name="prefs_data_sources_url_title" translatable="false">URL</string>
<string name="prefs_data_sources_satellites_label" translatable="false">Satellites data</string>
<string name="prefs_data_sources_transceivers_label" translatable="false">Transceivers data</string>
<string name="prefs_net_frequency_offset_hint" translatable="false">Frequency offset (Hz)</string>
<string name="prefs_net_frequency_offset_help" translatable="false">Range: -50000 to 50000 Hz. Positive values increase reported frequency; negative values decrease it.</string>
<string name="prefs_data_sources_tle_switch">Custom TLE URL</string>
<string name="prefs_data_sources_transceivers_switch">Custom transceivers URL</string>
<string name="prefs_data_sources_title">Власні джерела</string>
<string name="prefs_data_sources_tle_switch">URL TLE</string>
<string name="prefs_data_sources_transceivers_switch">URL трансиверів</string>
<string name="prefs_data_sources_url_title" translatable="false">URL (HTTPS)</string>
<string name="prefs_data_output_title">Data output</string>
<string name="prefs_net_output">Network</string>
<string name="prefs_data_output_title">Вивід даних</string>
<string name="prefs_net_output">Мережа</string>
<string name="prefs_bt_output">Bluetooth</string>
<string name="prefs_cat_output">CAT</string>
<string name="prefs_net_title">Вивід мережевих даних</string>
<string name="prefs_net_rotator_switch">Enable rotation output</string>
<string name="nav_radiocontrol">Керування радіо</string>
<string name="rc_settings_title">CAT керування</string>
<string name="rc_radio_model">Модель радіо</string>
<string name="rc_tx_device_hint">BT адреса TX</string>
<string name="rc_rx_device_hint">BT адреса RX</string>
<string name="rc_tx_name_hint">Назва радіо TX</string>
<string name="rc_rx_name_hint">Назва радіо RX</string>
<string name="rc_enable_switch">Увімкнути CAT</string>
<string name="prefs_net_title">Мережевий вивід</string>
<string name="prefs_net_rotator_switch">Увімкнути вивід повороту</string>
<string name="prefs_net_rotator_address_hint">IP:Порт</string>
<string name="prefs_net_rotator_format_hint">Формат даних</string>
<string name="prefs_net_frequency_switch">Enable frequency output</string>
<string name="prefs_net_frequency_switch">Увімкнути вивід частоти</string>
<string name="prefs_net_frequency_address_hint">IP:Порт</string>
<string name="prefs_net_frequency_format_hint">Формат даних</string>
<string name="prefs_bt_title">Вивід даних Bluetooth</string>
<string name="prefs_bt_rotator_switch">Enable rotation output</string>
<string name="prefs_bt_rotator_device_hint">Id пристрою</string>
<string name="prefs_bt_title">Вивід Bluetooth</string>
<string name="prefs_bt_rotator_switch">Увімкнути вивід повороту</string>
<string name="prefs_bt_rotator_device_hint">ID пристрою</string>
<string name="prefs_bt_rotator_output_hint">Формат даних</string>
<string name="prefs_bt_frequency_switch">Enable frequency output</string>
<string name="prefs_bt_frequency_device_hint">Id пристрою</string>
<string name="prefs_bt_frequency_switch">Увімкнути вивід частоти</string>
<string name="prefs_bt_frequency_device_hint">ID пристрою</string>
<string name="prefs_bt_frequency_output_hint">Формат даних</string>
<string name="prefs_bt_perm_error">Перевірте дозвіл Bluetooth</string>
<string name="prefs_net_perm_error">Перевірте дозвіл мережі</string>
<string name="prefs_other_title">Інші налаштування</string>
<string name="prefs_other_switch_utc">Показувати час в UTC</string>
<string name="prefs_other_switch_update">Автоматичне оновлення даних</string>
<string name="prefs_other_switch_lotw_sync">Автосинхронізація підтверджених сіток LoTW</string>
<string name="prefs_other_switch_sweep">Показувати анімацію радара</string>
<string name="prefs_other_switch_sensors">Використовувати сенсори пристрою</string>
<string name="prefs_other_switch_night_mode">Увімкнути червоний нічний фільтр</string>
<string name="prefs_other_switch_map_grid">Показувати сітку Maidenhead на мапі</string>
<string name="prefs_other_title">Інше</string>
<string name="prefs_other_switch_utc">Час в UTC</string>
<string name="prefs_other_switch_update">Автооновлення даних</string>
<string name="prefs_other_switch_sweep">Анімація радара</string>
<string name="prefs_other_switch_sensors">Сенсори</string>
<string name="prefs_other_switch_night_mode">Нічний фільтр</string>
<string name="prefs_highlight_title">Підсвічування висоти</string>
<string name="prefs_highlight_low">Низько &lt; %1$d°</string>
@@ -9,30 +9,32 @@
<string name="nav_sat">卫星</string>
<string name="nav_pass">过境</string>
<string name="nav_radar">雷达</string>
<string name="nav_mutual">匹配</string>
<string name="nav_map">地图</string>
<string name="nav_prefs">设置</string>
<!-- Satellites screen -->
<string name="sat_type_hint">类型:%s</string>
<string name="sat_type_title">选择卫星类型</string>
<string name="sat_type_hint">模式:%s</string>
<string name="sat_type_title">选择模式</string>
<string name="sat_search_hint">Id - 名称</string>
<string name="sat_search_clear">清空</string>
<string name="sat_clear_all">全部清空</string>
<string name="sat_select_all">全选</string>
<string name="sat_group_selected">已选择</string>
<string name="sat_group_available">可用</string>
<string name="sat_group_selected_count">已选择(%1$d)</string>
<string name="sat_group_available_count">可用(%1$d)</string>
<string name="sat_empty_list_message">请确保您的搜索查询正确且数据库已更新</string>
<string name="sat_warning_title">警告\!</string>
<string name="sat_warning_message">此应用收录了超过9000颗卫星信息\n同时追踪所有卫星并不现实\n建议始终通过搜索和分类筛选功能仅勾选您感兴趣的卫星</string>
<string name="sat_warning_message">此应用收录了超过9000颗卫星信息\n同时追踪所有卫星并不现实\n建议始终通过搜索和模式筛选功能仅勾选您感兴趣的卫星</string>
<!-- Passes screen -->
<string name="pass_filter_title">筛选过境</string>
<string name="pass_filter_elev">仰角值</string>
<string name="pass_filter_hours">提前时间</string>
<string name="pass_filter_history_hours">历史过境时间</string>
<string name="pass_filter_aos_time">AOS 时间段</string>
<string name="pass_filter_invert_time">反选 AOS 时间段</string>
<string name="pass_filter_deep_space">DeepSpace(周期 &gt;225分钟)</string>
<string name="pass_modes_title">选择调制类型</string>
<string name="pass_modes_title">选择模式</string>
<string name="pass_elevation">仰角:%.1f°</string>
<string name="pass_altitude">高度:%d km</string>
<string name="pass_empty_list_message">请确保您的过滤器设置正确,并且已选择卫星</string>
@@ -40,43 +42,6 @@
<string name="pass_welcome_title">欢迎来到 Look4Sat\!</string>
<string name="pass_welcome_message">请务必在设置中通过GPS、经纬度或QTH定位您的位置\n建议至少每周更新一次数据库,以确保预测结果的准确性</string>
<!-- AMSAT Status screen -->
<string name="pass_whatsnew_message">4.4.6 以来的全部更新(4.4.7 系列):\n\n• 网格模式地图:LoTW 已确认网格绿色填充、漫游网格蓝色条纹、当前网格加粗框;右上角网格/卫星模式开关。\n\n• 首通呼号(VUCC 视图):绿格显示该格最早通联的呼号,非绿格空白。\n\n• worked 网格可按操作网格筛选(含“全部”);点击网格弹出 QSO 明细;每格 QSO 计数。\n\n• 各操作网格独立 VUCC 计数;极区网格标签;反经线修复;漫游条纹密度一致。\n\n• WAPC/WAJA 地图标签随系统语言。\n\n• 网格模式视口与筛选跨页保持。\n\n• LoTW 同步:账号直连、全量/增量模式、实时进度、可取消、启动自动同步(独立开关)、设置页显示上次同步时间。\n\n• 历史过境:过境筛选可回看过去数小时(历史过境时间)。\n\n• 指南针校准:8 字动作精度指示 + 手动航向偏置。\n\n• AMSAT 状态页:连续相同状态报告计数。\n\n• 过境/雷达:UTC 切换重算过境;日出日落与仰角颜色修复;卫星模糊搜索;相互过境页滚动保持、跟随 UTC、雷达快捷入口。\n\n• CW 解码器支持 32/64 位设备;Android 17 (API 37) 适配。</string>
<string name="nav_amsat">AMSAT</string>
<string name="amsat_title">AMSAT 卫星状态</string>
<string name="amsat_refresh">刷新</string>
<string name="amsat_retry">重试</string>
<string name="amsat_updated">更新于:</string>
<string name="amsat_active">活跃</string>
<string name="amsat_tlm">遥测/信标</string>
<string name="amsat_not_heard">未听到</string>
<string name="amsat_conflict">冲突</string>
<string name="amsat_name">名称</string>
<string name="amsat_load_failed">加载失败 - 检查网络后重试</string>
<string name="amsat_no_reports">此时间段无报告</string>
<string name="amsat_close">关闭</string>
<string name="amsat_upload">上传</string>
<string name="amsat_upload_back">返回</string>
<string name="amsat_upload_report">上传报告到 AMSAT</string>
<string name="amsat_upload_status">状态</string>
<string name="amsat_upload_callsign">呼号</string>
<string name="amsat_upload_grid">网格</string>
<string name="amsat_upload_time_now">时间:当前 UTC %s</string>
<string name="amsat_upload_submit">提交到 AMSAT</string>
<string name="amsat_upload_confirm">确认上传</string>
<string name="amsat_upload_confirm_title">确认上传到 AMSAT</string>
<string name="amsat_upload_confirm_message">这条公开报告将上传到 AMSAT。\n卫星:%1$s\n状态:%2$s\n呼号:%3$s\n网格:%4$s</string>
<string name="amsat_upload_grid_none">未填写</string>
<string name="amsat_upload_success">报告已上传</string>
<string name="amsat_upload_failed">上传失败:%s</string>
<string name="amsat_upload_callsign_required">请填写呼号</string>
<string name="amsat_upload_grid_invalid">网格应为 4 或 6 位 Maidenhead 定位符</string>
<string name="amsat_upload_active">活跃</string>
<string name="amsat_upload_tlm">遥测/信标</string>
<string name="amsat_upload_not_heard">未听到</string>
<string name="amsat_upload_crew_active">ISS 语音</string>
<!-- Radar screen -->
<string name="radar_back">后退</string>
<string name="radar_notify">通知</string>
@@ -95,24 +60,13 @@
<string name="radar_string_no">否</string>
<string name="radar_string_yes">是</string>
<string name="radar_visible">日照中</string>
<string name="radar_doppler_calc">多普勒频率计算器</string>
<string name="radar_doppler_tx_hint">输入上行频率 (MHz)</string>
<string name="radar_doppler_rx_hint">输入下行频率 (MHz)</string>
<string name="radar_doppler_offset_hint">偏移 (kHz)</string>
<string name="radar_doppler_info">线性转发器:输入一个频率即可算出另一个</string>
<string name="radar_cw_decoder">CW 解码器</string>
<string name="radar_cw_start">开始</string>
<string name="radar_cw_stop">停止</string>
<string name="radar_cw_reset">清空</string>
<!-- Map screen -->
<string name="map_prev">上一个</string>
<string name="map_next">下一个</string>
<string name="map_grid_mode">网格模式</string>
<string name="map_satellite_mode">卫星模式</string>
<string name="map_first_call_mode">首通呼号</string>
<string name="map_azimuth">方位角:%.1f°</string>
<string name="map_elevation">仰角:%.1f°</string>
<string name="map_altitude">高度:%.0f km</string>
@@ -124,20 +78,6 @@
<string name="map_period">周期:% .0f min</string>
<string name="map_velocity">速度:%.2f km/s</string>
<string name="map_visibility">能见度:%s</string>
<!-- Worked-grid QSO dialog -->
<string name="grid_qso_calls_count" formatted="false">%d 个呼号 · %d 次通联</string>
<string name="grid_qso_count_one">%d QSO</string>
<string name="grid_qso_count_many">%d QSOs</string>
<string name="grid_qso_first">首通</string>
<string name="grid_qso_no_sat">卫星未知</string>
<string name="grid_qso_match">匹配</string>
<!-- 未通联网格中的“标记想通联的电台”提醒 -->
<string name="grid_mark_station">标记你想通联的电台</string>
<string name="grid_mark_callsign">呼号</string>
<string name="grid_mark_confirm">标记</string>
<string name="grid_mark_label">标记</string>
<string name="grid_mark_delete">删除标记</string>
<string name="grid_mark_pin">置顶</string>
<string name="map_visible">日照中</string>
<!-- Settings screen -->
@@ -145,7 +85,7 @@
<string name="prefs_privacy_title">隐私政策</string>
<string name="prefs_updated_title">更新:%s</string>
<string name="prefs_updated_time">yyyy年M月d日 HH:mm:ss</string>
<string name="prefs_updated_time">yyyy MMM d - HH:mm:ss</string>
<string name="prefs_loc_title">站点位置</string>
<string name="prefs_loc_gps_title">GPS 定位</string>
@@ -155,41 +95,11 @@
<string name="prefs_loc_qth_title">QTH 网格</string>
<string name="prefs_loc_qth_error">无效的 QTH 网格</string>
<string name="prefs_loc_success">位置更新成功</string>
<string name="prefs_station_title">站点位置设置</string>
<string name="prefs_station_lat_text">输入站点的纬度</string>
<string name="prefs_station_lon_text">输入站点的经度</string>
<string name="prefs_locator_title">QTH 网格</string>
<string name="prefs_wavelog_title">Wavelog 已通联网格</string>
<string name="prefs_wavelog_configure">配置</string>
<string name="prefs_wavelog_configured">已从 Wavelog 同步 — 通联 %1$d 个网格</string>
<string name="prefs_wavelog_not_configured">未配置 — 连接你的 Wavelog 日志以在地图上高亮已通联网格</string>
<string name="prefs_wavelog_url">Wavelog 地址</string>
<string name="prefs_wavelog_token">API key :日志 ID</string>
<string name="prefs_wavelog_hint">已同步网格数:%1$d。格式:API key:日志ID。填好直接点同步,会自动保存并拉取。</string>
<string name="prefs_wavelog_sync">立即同步</string>
<string name="prefs_wavelog_syncing">同步中…</string>
<string name="prefs_lotw_title">LoTW 已确认网格</string>
<string name="prefs_lotw_callsign">LoTW 呼号</string>
<string name="prefs_lotw_password">LoTW 密码</string>
<string name="prefs_lotw_hint">直接从 ARRL LoTW 拉取该呼号已确认 QSO 的网格并覆盖本地已存集合(当前 %1$d 个)。密码仅保存在手机本地。点"同步"会自动保存凭据并拉取。</string>
<string name="prefs_lotw_sync">同步</string>
<string name="prefs_lotw_syncing">同步中…</string>
<string name="prefs_lotw_configured">已从 LoTW 同步 — 共 %1$d 个网格</string>
<string name="prefs_lotw_not_configured">未配置 — 直接登录 ARRL LoTW 拉取已确认 QSO 的网格,无需自建服务器</string>
<string name="lotw_sync_error_not_configured">LoTW 呼号/密码未配置</string>
<string name="lotw_sync_error_credentials">LoTW 同步失败——呼号或密码错误</string>
<string name="lotw_sync_error_rate_limited">LoTW 同步失败——服务器限流,请等几分钟后再试</string>
<string name="lotw_sync_error_timeout">LoTW 同步失败——连接超时,请更换网络重试</string>
<string name="lotw_sync_error_network">LoTW 同步失败——网络错误(%1$s)</string>
<string name="lotw_sync_full">全量同步</string>
<string name="lotw_sync_incremental">增量合并</string>
<string name="lotw_sync_rate_hint">下载速度约每 100 条 QSO 需 8 秒(另有 5–40 秒服务器生成时间)</string>
<string name="lotw_sync_progress_connecting">正在连接 LoTW 服务器…</string>
<string name="lotw_sync_progress_downloading">正在下载报告…</string>
<string name="lotw_sync_progress_saving">正在处理下载的数据…</string>
<string name="lotw_sync_progress_count">本次同步 %1$d 条 QSO…</string>
<string name="lotw_sync_progress_qso">本次同步 %1$d 条 QSO,预计还需 %2$d 秒</string>
<string name="prefs_locator_text">使用梅登黑德网格设置站点位置</string>
<string name="prefs_station_title">站点位置</string>
<string name="prefs_station_lat_text">站点纬度</string>
<string name="prefs_station_lon_text">站点经度</string>
<string name="prefs_locator_title">QTH 定位</string>
<string name="prefs_locator_text">通过 QTH 设置站点位置</string>
<string name="prefs_data_title">卫星数据更新</string>
<string name="prefs_data_entries">卫星:%s</string>
@@ -199,34 +109,37 @@
<string name="prefs_data_clear">清空</string>
<string name="prefs_data_clear_success">数据清空成功</string>
<string name="prefs_data_update_success">更新成功</string>
<string name="prefs_data_import_satellites_error">未导入卫星。请选择有效的 TLE/3LE (.txt) 或 OMM (.csv) 文件。</string>
<string name="prefs_data_import_transceivers_error">未导入收发器。请选择有效的 SatNOGS (.json) 文件。</string>
<string name="prefs_data_sources_title">自定义数据源</string>
<string name="prefs_data_sources_restore">恢复默认数据源</string>
<string name="prefs_data_sources_tle_switch">自定义TLE URL</string>
<string name="prefs_data_sources_transceivers_switch">自定义收发器URL</string>
<string name="prefs_data_sources_url_title" translatable="false">URL</string>
<string name="prefs_data_sources_satellites_label">卫星数据</string>
<string name="prefs_data_sources_transceivers_label">收发器数据</string>
<string name="prefs_data_sources_title">自定义源</string>
<string name="prefs_data_sources_tle_switch">TLE URL</string>
<string name="prefs_data_sources_transceivers_switch">收发器 URL</string>
<string name="prefs_data_sources_url_title" translatable="false">URL (HTTPS)</string>
<string name="prefs_data_output_title">数据输出</string>
<string name="prefs_net_output">网络</string>
<string name="prefs_bt_output">蓝牙</string>
<string name="prefs_cat_output">CAT</string>
<string name="prefs_net_title">网络数据输出</string>
<string name="nav_radiocontrol">电台控制</string>
<string name="rc_settings_title">CAT 控制</string>
<string name="rc_radio_model">电台型号</string>
<string name="rc_tx_device_hint">TX 电台蓝牙地址</string>
<string name="rc_rx_device_hint">RX 电台蓝牙地址</string>
<string name="rc_tx_name_hint">TX 电台名称</string>
<string name="rc_rx_name_hint">RX 电台名称</string>
<string name="rc_enable_switch">启用 CAT</string>
<string name="prefs_net_title">网络输出</string>
<string name="prefs_net_rotator_switch">启用方位俯仰角输出</string>
<string name="prefs_net_rotator_address_hint">IP:端口</string>
<string name="prefs_net_rotator_format_hint">数据格式</string>
<string name="prefs_net_frequency_switch">启用多普勒频率输出</string>
<string name="prefs_net_frequency_address_hint">IP:端口</string>
<string name="prefs_net_frequency_format_hint">数据格式</string>
<string name="prefs_net_frequency_offset_hint" translatable="false">频率偏移 (Hz)</string>
<string name="prefs_net_frequency_offset_help" translatable="false">范围:-50000 到 50000 Hz。正值提高上报频率,负值降低上报频率。</string>
<string name="prefs_bt_title">蓝牙数据输出</string>
<string name="prefs_bt_title">蓝牙输出</string>
<string name="prefs_bt_rotator_switch">启用方位俯仰角输出</string>
<string name="prefs_bt_rotator_device_hint">蓝牙设备 ID</string>
<string name="prefs_bt_rotator_output_hint">数据格式</string>
@@ -236,37 +149,14 @@
<string name="prefs_bt_perm_error">请检查蓝牙权限</string>
<string name="prefs_net_perm_error">请检查网络权限</string>
<!-- Radio Control -->
<string name="nav_radiocontrol">电台控制</string>
<string name="rc_settings_title">CAT 电台控制</string>
<string name="rc_radio_model">电台型号</string>
<string name="rc_tx_device_hint">发射电台蓝牙地址</string>
<string name="rc_rx_device_hint">接收电台蓝牙地址</string>
<string name="rc_tx_name_hint">发射电台名称</string>
<string name="rc_rx_name_hint">接收电台名称</string>
<string name="rc_enable_switch">启用 CAT 控制</string>
<string name="prefs_other_title">其他设置</string>
<string name="prefs_other_switch_utc">以 UTC 时间显示</string>
<string name="prefs_other_switch_update">启用卫星数据自动更新</string>
<string name="prefs_other_switch_lotw_sync">自动同步 LoTW 已确认网格</string>
<string name="prefs_other_switch_sweep">启用雷达扫描动画</string>
<string name="prefs_other_switch_sensors">使用传感器旋转雷达视图</string>
<string name="prefs_compass_calibration_button">校准指南针</string>
<string name="prefs_compass_calibration_title">指南针校准</string>
<string name="prefs_compass_calibration_instruction">缓慢移动手机画“8”字,直到精度提高。请远离磁铁和金属物体。</string>
<string name="prefs_compass_accuracy">精度:%s</string>
<string name="prefs_compass_accuracy_high">高——校准完成</string>
<string name="prefs_compass_accuracy_medium">中——请继续移动</string>
<string name="prefs_compass_accuracy_low">低——请继续移动</string>
<string name="prefs_compass_accuracy_unreliable">不可靠——请开始“8”字动作</string>
<string name="prefs_compass_accuracy_unavailable">设备没有可用的磁场传感器</string>
<string name="prefs_compass_heading">校正后航向:%.1f°</string>
<string name="prefs_compass_offset">手动航向偏置(°)</string>
<string name="prefs_compass_offset_support">范围 −180° 至 +180°;正值为顺时针偏移。</string>
<string name="prefs_compass_offset_reset">偏置归零</string>
<string name="prefs_other_switch_night_mode">启用红色夜间模式</string>
<string name="prefs_other_switch_map_grid">地图显示 Maidenhead 网格</string>
<string name="prefs_other_title">其他</string>
<string name="prefs_other_switch_utc">UTC 时间</string>
<string name="prefs_other_switch_update">自动更新数据</string>
<string name="prefs_other_switch_sweep">雷达扫描动画</string>
<string name="prefs_other_switch_sensors">传感器控制雷达</string>
<string name="prefs_other_switch_night_mode">红色夜间模式</string>
<string name="prefs_other_compass_offset">雷达罗盘水平偏移量</string>
<string name="prefs_other_compass_offset_elev">雷达罗盘俯仰偏移量</string>
<string name="prefs_highlight_title">仰角高亮</string>
<string name="prefs_highlight_low">低 &lt; %1$d°</string>
@@ -280,56 +170,7 @@
\n• Dave Moten (predict4java)
\n• Alexandru Csete (Gpredict)
\n• Dr T.S. Kelso (Celestrak)
\n• Libre Space Foundation (SatNOGS)
\n• xdsopl 和 Robot36 贡献者!
\n• BG7NTA BG5JSU(CW解码功能)</string>
\n• Libre Space Foundation (SatNOGS)</string>
<string name="prefs_outro_license">该应用程序不提供任何保修.</string>
<!-- 匹配页 Mutual match page -->
<string name="mutual_title">过境匹配</string>
<string name="mutual_station_you">你的位置</string>
<string name="mutual_station_opposite">友台位置</string>
<string name="mutual_label_you">你</string>
<string name="mutual_label_opposite">友台</string>
<string name="mutual_status_calculating">正在计算双方共同可见窗口…</string>
<string name="mutual_status_error">请修正提示后重新查询</string>
<string name="mutual_status_matches">找到 %d 个匹配 · 点击卡片展开曲线</string>
<string name="mutual_status_none">未找到共同可见窗口,调整时间或仰角后重试</string>
<string name="mutual_status_idle">输入双方位置后点击查询</string>
<string name="mutual_chip_calculating">计算中</string>
<string name="mutual_chip_error">有错误</string>
<string name="mutual_chip_matches">%d 个匹配</string>
<string name="mutual_chip_none">无匹配</string>
<string name="mutual_chip_idle">待查询</string>
<string name="mutual_use_current">填入当前位置</string>
<string name="mutual_lat">纬度</string>
<string name="mutual_lon">经度</string>
<string name="mutual_grid">网格</string>
<string name="mutual_grid_hint">支持 4/6/8 位 Maidenhead 网格;也可直接输入经纬度</string>
<string name="mutual_min_elevation">最小仰角:%d°</string>
<string name="mutual_time_range">时间范围</string>
<string name="mutual_filter_transponder">转发器</string>
<string name="mutual_filter_fm">FM</string>
<string name="mutual_filter_linear">线性</string>
<string name="mutual_calculating">计算中…</string>
<string name="mutual_query">查询匹配</string>
<string name="mutual_elevation_you">你:%d°</string>
<string name="mutual_elevation_opposite">友台:%d°</string>
<string name="mutual_both_tracks">双方轨迹</string>
<string name="mutual_open_radar">查看雷达</string>
<string name="mutual_station_a">站点A</string>
<string name="mutual_station_b">站点B</string>
<string name="update_check_title">检查更新</string>
<string name="update_check_button">检查更新</string>
<string name="update_check_current">当前版本:%s</string>
<string name="update_check_latest">最新版本:%s</string>
<string name="update_check_up_to_date">已是最新版本</string>
<string name="update_check_available">发现新版本</string>
<string name="update_check_release_notes">更新内容</string>
<string name="update_check_download">下载并安装</string>
<string name="update_check_downloading">正在下载…</string>
<string name="update_check_error">检查更新失败,请检查网络连接。</string>
<string name="update_check_download_error">下载失败,请重试。</string>
<string name="update_check_no_apk">该版本未附带 APK 安装包。</string>
</resources>
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