Added support for Icom IC-705 CAT (#229)

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Arty Bishop authored and GitHub committed 2026-07-30 11:43:03 +02:00
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/*
* 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.framework
import android.bluetooth.BluetoothManager
import android.bluetooth.BluetoothSocket
import android.util.Log
import com.rtbishop.look4sat.core.domain.repository.IRadioController
import kotlinx.coroutines.Dispatchers
import kotlinx.coroutines.delay
import kotlinx.coroutines.sync.Mutex
import kotlinx.coroutines.sync.withLock
import kotlinx.coroutines.withContext
import java.io.InputStream
import java.io.OutputStream
import java.util.UUID
/**
* Icom IC-705 CI-V controller over Bluetooth SPP.
*
* The IC-705 emits broadcast frames continuously (band scope, UTC, signal
* level, …). A reply to any command we send may therefore be buried in
* that noise. All response reads drain up to [ACK_TIMEOUT_MS] and scan the
* entire accumulated buffer for the frame we expect rather than assuming
* the very next byte is the response.
*/
class Ic705Controller(
private val bluetoothManager: BluetoothManager,
private val deviceAddress: String
) : IRadioController {
private val tag = "IC705"
private val sppId: UUID = UUID.fromString("00001101-0000-1000-8000-00805f9b34fb")
private val ioMutex = Mutex()
/** Time budget (ms) to wait for a response amid broadcast noise. */
private val ACK_TIMEOUT_MS = 500L
/** Polling interval while draining the input buffer. */
private val POLL_INTERVAL_MS = 20L
/** Small pause after writing a command before reading the response. */
private val WRITE_SETTLE_MS = 50L
private var socket: BluetoothSocket? = null
private var outputStream: OutputStream? = null
private var inputStream: InputStream? = null
override var isConnected: Boolean = false
private set
// ── Connection ──────────────────────────────────────────────────────────
override suspend fun connect(): Boolean = withContext(Dispatchers.IO) {
if (isConnected) return@withContext true
if (deviceAddress.isBlank()) return@withContext false
try {
val device = bluetoothManager.adapter.getRemoteDevice(deviceAddress)
val btSocket = device.createInsecureRfcommSocketToServiceRecord(sppId)
btSocket.connect()
socket = btSocket
outputStream = btSocket.outputStream
inputStream = btSocket.inputStream
isConnected = true
// Enter VFO mode — frequency/mode commands return FA if the radio
// is in memory-channel mode. Safe to send regardless of current state.
Log.i(tag, "Connected to $deviceAddress — entering VFO mode")
val vfoCmd = IcomCivProtocol.buildEnterVfoModeCommand()
Log.d(tag, "CMD enterVfoMode → ${IcomCivProtocol.toHex(vfoCmd)}")
ioMutex.withLock { sendAndWaitAck(vfoCmd) }
true
} catch (e: Exception) {
Log.e(tag, "Connect error: ${e.message}")
isConnected = false
false
}
}
override suspend fun disconnect() {
withContext(Dispatchers.IO) {
try {
inputStream?.close()
outputStream?.close()
socket?.close()
} catch (e: Exception) {
Log.e(tag, "Disconnect error: ${e.message}")
} finally {
inputStream = null
outputStream = null
socket = null
isConnected = false
Log.i(tag, "Disconnected from $deviceAddress")
}
}
}
// ── IRadioController – standard operations ──────────────────────────────
override suspend fun setFrequency(frequencyHz: Long): Boolean = withContext(Dispatchers.IO) {
Log.d(tag, "setFrequency: ${frequencyHz}Hz")
ioMutex.withLock {
val cmd = IcomCivProtocol.buildSetFreqCommand(frequencyHz)
Log.d(tag, "CMD setFreq → ${IcomCivProtocol.toHex(cmd)}")
sendAndWaitAck(cmd)
}
}
override suspend fun setMode(mode: String): Boolean = withContext(Dispatchers.IO) {
val cmd = IcomCivProtocol.buildSetModeCommand(mode) ?: run {
Log.w(tag, "setMode: unknown mode '$mode'")
return@withContext false
}
Log.d(tag, "setMode: $mode")
Log.d(tag, "CMD setMode → ${IcomCivProtocol.toHex(cmd)}")
ioMutex.withLock { sendAndWaitAck(cmd) }
}
override suspend fun setCtcssMode(enabled: Boolean): Boolean = withContext(Dispatchers.IO) {
Log.d(tag, "setCtcssMode: $enabled")
val cmd = IcomCivProtocol.buildCtcssModeCommand(enabled)
Log.d(tag, "CMD ctcssMode → ${IcomCivProtocol.toHex(cmd)}")
ioMutex.withLock { sendAndWaitAck(cmd) }
}
override suspend fun setCtcssTone(toneHz: Double): Boolean = withContext(Dispatchers.IO) {
Log.d(tag, "setCtcssTone: ${toneHz}Hz")
val cmd = IcomCivProtocol.buildSetCtcssToneCommand(toneHz)
Log.d(tag, "CMD ctcssTone → ${IcomCivProtocol.toHex(cmd)}")
ioMutex.withLock { sendAndWaitAck(cmd) }
}
override suspend fun readFrequencyAndMode(): Pair<Long, String>? = withContext(Dispatchers.IO) {
ioMutex.withLock {
val cmd = IcomCivProtocol.buildReadFreqCommand()
Log.d(tag, "CMD readFreq → ${IcomCivProtocol.toHex(cmd)}")
val payload = sendAndReadResponse(cmd, IcomCivProtocol.CMD_READ_FREQ) ?: return@withContext null
// Read-freq reply payload: [cmd byte already stripped by parseResponse] [5 freq bytes] [mode] [filter]
IcomCivProtocol.parseFreqModePayload(payload).also {
if (it != null) Log.d(tag, "readFreqMode: ${it.first}Hz, ${it.second}")
else Log.w(tag, "readFreqMode: parse failed, payload=${IcomCivProtocol.toHex(payload)}")
}
}
}
override suspend fun pttOn(): Boolean = withContext(Dispatchers.IO) {
Log.w(tag, "pttOn: not used for IC-705")
true
}
override suspend fun pttOff(): Boolean = withContext(Dispatchers.IO) {
Log.w(tag, "pttOff: not used for IC-705")
true
}
// ── IRadioController – IC-705 extended operations ───────────────────────
/** Select the band for [frequencyHz] via CMD 0x1A sub 0x00 (band stacking register). */
override suspend fun setBand(frequencyHz: Long): Boolean = withContext(Dispatchers.IO) {
val cmd = IcomCivProtocol.buildBandSelectCommand(frequencyHz) ?: run {
Log.w(tag, "setBand: no band code for ${frequencyHz}Hz — skipping")
return@withContext false
}
Log.d(tag, "CMD setBand (${frequencyHz}Hz) → ${IcomCivProtocol.toHex(cmd)}")
ioMutex.withLock { sendAndWaitAck(cmd) }
}
/** Select VFO-A (main/RX) or VFO-B (sub/TX). */
override suspend fun setVfo(vfoA: Boolean): Boolean = withContext(Dispatchers.IO) {
val cmd = if (vfoA) IcomCivProtocol.buildSelectVfoACommand()
else IcomCivProtocol.buildSelectVfoBCommand()
Log.d(tag, "CMD selectVFO${if (vfoA) "A" else "B"} → ${IcomCivProtocol.toHex(cmd)}")
ioMutex.withLock { sendAndWaitAck(cmd) }
}
/**
* Enable or disable SPLIT mode (TX on sub-VFO while listening on main VFO).
*/
override suspend fun setSplitMode(enabled: Boolean): Boolean = withContext(Dispatchers.IO) {
val cmd = IcomCivProtocol.buildSplitModeCommand(enabled)
Log.d(tag, "CMD split ${if (enabled) "ON" else "OFF"} → ${IcomCivProtocol.toHex(cmd)}")
ioMutex.withLock { sendAndWaitAck(cmd) }
}
/**
* Set the frequency of the **currently active** VFO (CMD 0x25 sub 0x00).
* In split mode the radio automatically switches active VFO on PTT, so
* always writing to the active VFO is the correct strategy.
*/
override suspend fun setWorkingFrequency(frequencyHz: Long): Boolean = withContext(Dispatchers.IO) {
Log.d(tag, "setWorkingFrequency (0x25/00): ${frequencyHz}Hz")
val cmd = IcomCivProtocol.buildSetWorkingFreqCommand(frequencyHz)
Log.d(tag, "CMD setWorkingFreq → ${IcomCivProtocol.toHex(cmd)}")
ioMutex.withLock { sendAndWaitAck(cmd) }
}
/**
* Set TX VFO frequency via CMD 0x25 sub 0x01 (unselected VFO).
* Sent every tracking cycle in split mode alongside [setWorkingFrequency].
*/
override suspend fun setTxVfoFrequency(frequencyHz: Long): Boolean = withContext(Dispatchers.IO) {
Log.d(tag, "setTxVfoFrequency (0x25/01): ${frequencyHz}Hz")
val cmd = IcomCivProtocol.buildSetUnselectedVfoFreqCommand(frequencyHz)
Log.d(tag, "CMD setTxVfoFreq → ${IcomCivProtocol.toHex(cmd)}")
ioMutex.withLock { sendAndWaitAck(cmd) }
}
/**
* Read the frequency of the currently active VFO (CMD 0x25 sub 0x00).
* Used for tuning detection in split mode.
*/
override suspend fun readWorkingFrequency(): Long? = withContext(Dispatchers.IO) {
ioMutex.withLock {
val cmd = IcomCivProtocol.buildReadWorkingFreqCommand()
Log.d(tag, "CMD readWorkingFreq → ${IcomCivProtocol.toHex(cmd)}")
val payload = sendAndReadResponse(cmd, IcomCivProtocol.CMD_SELECTED_VFO_FREQ) ?: return@withContext null
// Response payload: [sub] [5 freq bytes] — CMD byte already stripped by parseResponse
Log.d(tag, "readWorkingFreq: got ${payload.size} bytes: ${IcomCivProtocol.toHex(payload)}")
if (payload.size < 6) {
Log.w(tag, "readWorkingFreq: payload too short (${payload.size} bytes)")
return@withContext null
}
val freqBcd = payload.sliceArray(1..5)
val freq = IcomCivProtocol.decodeFrequencyBcd(freqBcd)
Log.d(tag, "readWorkingFreq: ${freq}Hz")
freq
}
}
/**
* Read the frequency of the inactive/TX VFO (CMD 0x25 sub 0x01).
* Used for tuning detection in split mode.
*/
override suspend fun readTxVfoFrequency(): Long? = withContext(Dispatchers.IO) {
ioMutex.withLock {
val cmd = IcomCivProtocol.buildReadTxVfoFreqCommand()
Log.d(tag, "CMD readTxVfoFreq → ${IcomCivProtocol.toHex(cmd)}")
val payload = sendAndReadResponse(cmd, IcomCivProtocol.CMD_SELECTED_VFO_FREQ) ?: return@withContext null
// Response payload: [sub] [5 freq bytes] — CMD byte already stripped by parseResponse
Log.d(tag, "readTxVfoFreq: got ${payload.size} bytes: ${IcomCivProtocol.toHex(payload)}")
if (payload.size < 6) {
Log.w(tag, "readTxVfoFreq: payload too short (${payload.size} bytes)")
return@withContext null
}
val freqBcd = payload.sliceArray(1..5)
val freq = IcomCivProtocol.decodeFrequencyBcd(freqBcd)
Log.d(tag, "readTxVfoFreq: ${freq}Hz")
freq
}
}
// ── Internal I/O helpers ────────────────────────────────────────────────
/**
* Write [cmd] to the radio and drain the input stream for up to
* [ACK_TIMEOUT_MS], looking for an OK/NG acknowledgement frame.
*/
private suspend fun sendAndWaitAck(cmd: ByteArray): Boolean {
if (!write(cmd)) return false
delay(WRITE_SETTLE_MS)
val buf = drainWithTimeout(ACK_TIMEOUT_MS)
val ok = IcomCivProtocol.containsAck(buf)
if (!ok) Log.w(tag, "ACK not found in ${buf.size} bytes: ${IcomCivProtocol.toHex(buf)}")
return ok
}
/**
* Write [cmd] to the radio and drain the input stream for up to
* [ACK_TIMEOUT_MS], scanning for a response frame carrying [expectCmd].
* Returns the payload bytes of that frame, or null on timeout/error.
*/
private suspend fun sendAndReadResponse(cmd: ByteArray, expectCmd: Byte): ByteArray? {
if (!write(cmd)) return null
delay(WRITE_SETTLE_MS)
val buf = drainWithTimeout(ACK_TIMEOUT_MS)
val response = IcomCivProtocol.parseResponse(buf, expectCmd)
if (response == null) {
Log.w(tag, "No response for cmd 0x${String.format("%02X", expectCmd.toInt() and 0xFF)} " +
"in ${buf.size} bytes: ${IcomCivProtocol.toHex(buf)}")
}
return response?.payload
}
/**
* Drain whatever bytes the radio has buffered within a [timeoutMs] window.
* Exits early as soon as a complete CI-V frame addressed to us is present
* in the buffer (i.e., FE FE E0 A4 … FD), so we don't waste the remaining
* timeout on responses that already arrived.
*/
private suspend fun drainWithTimeout(timeoutMs: Long): ByteArray {
val result = mutableListOf<Byte>()
val deadline = System.currentTimeMillis() + timeoutMs
val stream = inputStream ?: return ByteArray(0)
while (System.currentTimeMillis() < deadline) {
try {
val available = stream.available()
if (available > 0) {
val chunk = ByteArray(available)
val read = stream.read(chunk)
if (read > 0) {
result.addAll(chunk.take(read))
// Exit early once we have a complete frame for us
if (hasCompleteFrameForUs(result)) break
}
} else {
delay(POLL_INTERVAL_MS)
}
} catch (e: Exception) {
Log.e(tag, "Drain error: ${e.message}")
isConnected = false
break
}
}
return result.toByteArray()
}
/**
* Returns true if [buf] contains a complete CI-V frame addressed to the
* controller (FE FE [ADDR_CTRL] [ADDR_IC705] … FD).
* CI-V data bytes cannot be 0xFD, so the first 0xFD after the header is
* always the frame terminator.
*/
private fun hasCompleteFrameForUs(buf: List<Byte>): Boolean {
var i = 0
while (i < buf.size - 4) {
if (buf[i] == IcomCivProtocol.PREAMBLE &&
buf[i + 1] == IcomCivProtocol.PREAMBLE &&
buf[i + 2] == IcomCivProtocol.ADDR_CTRL &&
buf[i + 3] == IcomCivProtocol.ADDR_IC705
) {
for (k in i + 4 until buf.size) {
if (buf[k] == IcomCivProtocol.END_OF_MSG) return true
}
return false // header found but no FD yet
}
i++
}
return false
}
private fun write(bytes: ByteArray): Boolean {
return try {
outputStream?.write(bytes)
outputStream?.flush()
true
} catch (e: Exception) {
Log.e(tag, "Write error: ${e.message}")
isConnected = false
false
}
}
}
@@ -0,0 +1,352 @@
/*
* 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.framework
import java.util.Locale
/**
* Icom CI-V protocol encoder/decoder for the IC-705.
*
* Frame structure:
* FE FE <DEST> <SRC> <CMD> [<SUB>] [<DATA...>] FD
*
* IC-705 default CI-V address : 0xA4
* Controller (us) address : 0xE0
*/
object IcomCivProtocol {
// ── Framing constants ──────────────────────────────────────────────────
const val PREAMBLE: Byte = 0xFE.toByte()
const val END_OF_MSG: Byte = 0xFD.toByte()
const val ACK_OK: Byte = 0xFB.toByte()
const val ACK_NG: Byte = 0xFA.toByte()
// ── Address constants ──────────────────────────────────────────────────
/** Default CI-V address of the IC-705. */
const val ADDR_IC705: Byte = 0xA4.toByte()
/** Default CI-V address of the controller (us). */
const val ADDR_CTRL: Byte = 0xE0.toByte()
// ── Command bytes ──────────────────────────────────────────────────────
/** Read operating frequency (main VFO). */
const val CMD_READ_FREQ: Byte = 0x03
/** Set operating frequency (main VFO). */
const val CMD_SET_FREQ: Byte = 0x05
/** Set operating mode. */
const val CMD_SET_MODE: Byte = 0x06
/** Select VFO / memory. */
const val CMD_SELECT_VFO: Byte = 0x07
/**
* Select operating mode (VFO vs memory-channel).
* Sub 0x00 = VFO mode. Must be sent after connect if the radio is in
* memory-channel mode — frequency/mode commands return FA until it is.
*/
const val CMD_SELECT_OP_MODE: Byte = 0x08
/** Set repeater duplex / SPLIT. */
const val CMD_DUPLEX_SPLIT: Byte = 0x0F
/** Band stacking register / band select (sub 0x00 = select, data = BCD band number). */
const val CMD_BAND_SELECT: Byte = 0x1A
/** Read/write CTCSS tone frequency. */
const val CMD_CTCSS_TONE: Byte = 0x1B
/** Read/write misc settings (used for enabling CTCSS encode). */
const val CMD_MISC_SETTING: Byte = 0x16
/** Read/write selected-VFO frequency (cmd 0x25). */
const val CMD_SELECTED_VFO_FREQ: Byte = 0x25
// ── Sub-command bytes ──────────────────────────────────────────────────
/** Sub for CMD_SELECT_VFO: select VFO-A (main). */
const val SUB_VFO_A: Byte = 0x00
/** Sub for CMD_SELECT_VFO: select VFO-B (sub). */
const val SUB_VFO_B: Byte = 0x01
/** Sub for CMD_DUPLEX_SPLIT: simplex / split OFF. */
const val SUB_SPLIT_OFF: Byte = 0x00
/** Sub for CMD_DUPLEX_SPLIT: SPLIT ON. */
const val SUB_SPLIT_ON: Byte = 0x01
/** Sub for CMD_SELECTED_VFO_FREQ: selected (active) VFO frequency. */
const val SUB_SELECTED_VFO: Byte = 0x00
/** Sub for CMD_SELECTED_VFO_FREQ: unselected (inactive / TX in split) VFO frequency. */
const val SUB_UNSELECTED_VFO: Byte = 0x01
/** Sub for CMD_MISC_SETTING: CTCSS/DTCS tone squelch. */
const val SUB_CTCSS_SETTING: Byte = 0x42.toByte()
// ── Mode bytes ────────────────────────────────────────────────────────
/** Maps mode strings (upper-case) → IC-705 mode bytes. */
val MODE_TO_BYTE: Map<String, Byte> = mapOf(
"LSB" to 0x00,
"USB" to 0x01,
"AM" to 0x02,
"CW" to 0x03,
"RTTY" to 0x04,
"FM" to 0x05,
"WFM" to 0x06,
"CW-R" to 0x07,
"RTTY-R" to 0x08,
"DV" to 0x12,
"AFSK" to 0x05 // AFSK uses FM modulation
)
val BYTE_TO_MODE: Map<Byte, String> = MODE_TO_BYTE.entries.associate { it.value to it.key }
// ── Frequency BCD encoding ─────────────────────────────────────────────
/**
* Encode a frequency in Hz to the IC-705's 5-byte BCD format.
*
* The IC-705 uses 5 bytes, LSB pair first, with 1 Hz resolution.
* Example: 145,500,000 Hz → "0145500000" → pairs LSB→MSB:
* [00, 00, 50, 45, 01]
*/
fun encodeFrequencyBcd(frequencyHz: Long): ByteArray {
val digits = String.format(Locale.US, "%010d", frequencyHz)
val bcd = ByteArray(5)
for (i in 0 until 5) {
// digits are MSB first; we want pair index 0 = LSB pair
val pairIndex = 4 - i
val high = digits[pairIndex * 2] - '0'
val low = digits[pairIndex * 2 + 1] - '0'
bcd[i] = ((high shl 4) or low).toByte()
}
return bcd
}
/**
* Decode 5-byte BCD frequency (LSB pair first) to Hz.
*/
fun decodeFrequencyBcd(bcd: ByteArray): Long {
// Build digit string MSB→LSB by reversing the byte order
var freqHz = 0L
for (i in 4 downTo 0) {
val b = bcd[i].toInt() and 0xFF
val high = b shr 4
val low = b and 0x0F
freqHz = freqHz * 100 + high * 10 + low
}
return freqHz
}
/**
* Encode a CTCSS tone (Hz, e.g. 67.0) to 2-byte BCD (0.1 Hz resolution).
* 67.0 → 670 (tenths of Hz) → BCD bytes [0x06, 0x70].
*/
fun encodeCtcssToneBcd(toneHz: Double): ByteArray {
val tone01 = (toneHz * 10).toLong()
val digits = String.format(Locale.US, "%04d", tone01)
return byteArrayOf(
((digits[0] - '0') shl 4 or (digits[1] - '0')).toByte(),
((digits[2] - '0') shl 4 or (digits[3] - '0')).toByte()
)
}
// ── Message builders ───────────────────────────────────────────────────
/** Wrap payload bytes in a CI-V frame: FE FE DEST SRC ... FD. */
private fun frame(vararg payload: Byte): ByteArray {
return byteArrayOf(PREAMBLE, PREAMBLE, ADDR_IC705, ADDR_CTRL) +
payload +
byteArrayOf(END_OF_MSG)
}
/** Set operating frequency via CMD 0x05 (main VFO). */
fun buildSetFreqCommand(frequencyHz: Long): ByteArray {
return frame(CMD_SET_FREQ, *encodeFrequencyBcd(frequencyHz))
}
/**
* Set selected-VFO frequency via CMD 0x25 sub 0x00.
* This updates whichever VFO is currently active (RX or TX after split).
*/
fun buildSetWorkingFreqCommand(frequencyHz: Long): ByteArray {
return frame(CMD_SELECTED_VFO_FREQ, SUB_SELECTED_VFO, *encodeFrequencyBcd(frequencyHz))
}
/**
* Set unselected-VFO frequency via CMD 0x25 sub 0x01.
* In split mode while PTT is pressed the IC-705 makes VFO-B active, so
* this command targets VFO-A (the RX VFO) — and vice-versa when in RX.
* Use this to update the TX VFO when PTT is on.
*/
fun buildSetUnselectedVfoFreqCommand(frequencyHz: Long): ByteArray {
return frame(CMD_SELECTED_VFO_FREQ, SUB_UNSELECTED_VFO, *encodeFrequencyBcd(frequencyHz))
}
/** Read operating frequency (CMD 0x03). */
fun buildReadFreqCommand(): ByteArray = frame(CMD_READ_FREQ)
/** Read selected (active) VFO frequency (CMD 0x25 sub 0x00). */
fun buildReadWorkingFreqCommand(): ByteArray = frame(CMD_SELECTED_VFO_FREQ, SUB_SELECTED_VFO)
/** Read unselected (inactive/TX in split) VFO frequency (CMD 0x25 sub 0x01). */
fun buildReadTxVfoFreqCommand(): ByteArray = frame(CMD_SELECTED_VFO_FREQ, SUB_UNSELECTED_VFO)
/**
* Select band via CMD 0x1A sub 0x00.
* Band codes are BCD-numbered: 1=160m, 2=80m, …, 9=10m, 0x10=6m, 0x11=2m, 0x12=70cm, 0x13=23cm.
* Returns null if [frequencyHz] doesn't fall in a known amateur band.
*/
fun buildBandSelectCommand(frequencyHz: Long): ByteArray? {
val code = bandCodeForFrequency(frequencyHz) ?: return null
return frame(CMD_BAND_SELECT, 0x00, code)
}
/**
* Map a frequency in Hz to the IC-705 band stacking register code.
* Codes are BCD (band number in decimal expressed as hex nibbles).
*/
fun bandCodeForFrequency(frequencyHz: Long): Byte? = when {
frequencyHz in 1_800_000L ..1_999_999L -> 0x01 // 160 m
frequencyHz in 3_500_000L ..3_999_999L -> 0x02 // 80 m
frequencyHz in 7_000_000L ..7_299_999L -> 0x03 // 40 m
frequencyHz in 10_100_000L ..10_149_999L -> 0x04 // 30 m
frequencyHz in 14_000_000L ..14_349_999L -> 0x05 // 20 m
frequencyHz in 18_068_000L ..18_167_999L -> 0x06 // 17 m
frequencyHz in 21_000_000L ..21_449_999L -> 0x07 // 15 m
frequencyHz in 24_890_000L ..24_989_999L -> 0x08 // 12 m
frequencyHz in 28_000_000L ..29_699_999L -> 0x09 // 10 m
frequencyHz in 50_000_000L ..53_999_999L -> 0x10 // 6 m (BCD 10)
frequencyHz in 144_000_000L ..147_999_999L -> 0x11 // 2 m (BCD 11)
frequencyHz in 420_000_000L ..449_999_999L -> 0x12 // 70 cm (BCD 12)
frequencyHz in 1_240_000_000L ..1_299_999_999L -> 0x13 // 23 cm (BCD 13)
else -> null
}
/** Set operating mode (CMD 0x06). Filter byte is omitted — radio uses its default filter for the mode. */
fun buildSetModeCommand(mode: String): ByteArray? {
val modeByte = MODE_TO_BYTE[mode.uppercase(Locale.US)] ?: return null
return frame(CMD_SET_MODE, modeByte)
}
/** Select VFO-A (CMD 0x07 sub 0x00). */
fun buildSelectVfoACommand(): ByteArray = frame(CMD_SELECT_VFO, SUB_VFO_A)
/** Select VFO-B (CMD 0x07 sub 0x01). */
fun buildSelectVfoBCommand(): ByteArray = frame(CMD_SELECT_VFO, SUB_VFO_B)
/**
* Enter VFO operating mode (CMD 0x08 sub 0x00).
* Sent after connect — if the radio is in memory-channel mode frequency
* and mode commands return FA until this is issued.
*/
fun buildEnterVfoModeCommand(): ByteArray = frame(CMD_SELECT_OP_MODE, 0x00)
/** Enable or disable SPLIT mode (CMD 0x0F). */
fun buildSplitModeCommand(enable: Boolean): ByteArray {
val sub = if (enable) SUB_SPLIT_ON else SUB_SPLIT_OFF
return frame(CMD_DUPLEX_SPLIT, sub)
}
/**
* Enable/disable CTCSS encode (CMD 0x16 sub 0x42).
* 0x01 = CTCSS encoder ON, 0x00 = OFF.
*/
fun buildCtcssModeCommand(enabled: Boolean): ByteArray {
val value: Byte = if (enabled) 0x01 else 0x00
return frame(CMD_MISC_SETTING, SUB_CTCSS_SETTING, value)
}
/**
* Set CTCSS tone frequency (CMD 0x1B sub 0x00).
*/
fun buildSetCtcssToneCommand(toneHz: Double): ByteArray {
val bcd = encodeCtcssToneBcd(toneHz)
return frame(CMD_CTCSS_TONE, 0x00, *bcd)
}
// ── Response parsing ───────────────────────────────────────────────────
/**
* Find and parse a complete CI-V response frame from a buffer.
*
* Returns the bytes between "FE FE E0 A4 <CMD>" and FD, or null if no
* complete frame was found. The search is tolerant of interleaved
* broadcast traffic.
*
* @param buf bytes accumulated from the radio
* @param expectCmd the command byte we are looking for in the reply, or
* null to accept any command response from the radio
*/
fun parseResponse(buf: ByteArray, expectCmd: Byte?): ParsedResponse? {
var i = 0
while (i < buf.size - 5) {
// Look for FE FE preamble
if (buf[i] != PREAMBLE || buf[i + 1] != PREAMBLE) { i++; continue }
val dest = buf[i + 2]
val src = buf[i + 3]
val cmd = buf[i + 4]
// We only care about frames addressed to us from the radio
if (dest != ADDR_CTRL || src != ADDR_IC705) { i++; continue }
// Find the terminating FD
val fdIdx = buf.indexOf(END_OF_MSG, startIndex = i + 5)
if (fdIdx < 0) break // incomplete frame, wait for more data
val payload = buf.copyOfRange(i + 5, fdIdx)
if (expectCmd == null || cmd == expectCmd) {
return ParsedResponse(cmd, payload, fdIdx + 1)
}
i = fdIdx + 1
}
return null
}
private fun ByteArray.indexOf(b: Byte, startIndex: Int): Int {
for (k in startIndex until size) if (this[k] == b) return k
return -1
}
/**
* Check whether a buffer contains an OK acknowledgement (FB FD) from
* the radio. Tolerates broadcast noise before the ACK.
*/
fun containsAck(buf: ByteArray): Boolean {
var i = 0
while (i < buf.size - 5) {
if (buf[i] != PREAMBLE || buf[i + 1] != PREAMBLE) { i++; continue }
val dest = buf[i + 2]
val src = buf[i + 3]
val cmd = buf[i + 4]
if (dest != ADDR_CTRL || src != ADDR_IC705) { i++; continue }
// Skip to FD
val fdIdx = buf.indexOf(END_OF_MSG, startIndex = i + 5)
if (fdIdx < 0) break
if (cmd == ACK_OK) return true
if (cmd == ACK_NG) return false
i = fdIdx + 1
}
return false
}
/**
* Parse frequency + mode from a CMD_READ_FREQ reply payload.
* Payload layout after stripping command byte: [5 freq bytes] [mode byte] [filter byte]
*/
fun parseFreqModePayload(payload: ByteArray): Pair<Long, String>? {
if (payload.size < 6) return null
val freqHz = decodeFrequencyBcd(payload.copyOfRange(0, 5))
val mode = BYTE_TO_MODE[payload[5]] ?: return null
return freqHz to mode
}
/** Hex dump of bytes, useful for debug logging. */
fun toHex(bytes: ByteArray): String =
bytes.joinToString(" ") { String.format(Locale.US, "%02X", it.toInt() and 0xFF) }
data class ParsedResponse(
val cmd: Byte,
val payload: ByteArray,
/** Index in the source buffer immediately after the FD terminator. */
val nextOffset: Int
)
}
@@ -19,8 +19,10 @@ package com.rtbishop.look4sat.core.data.framework
import android.bluetooth.BluetoothManager
import android.util.Log
import com.rtbishop.look4sat.core.domain.model.RadioControlSettings
import com.rtbishop.look4sat.core.domain.model.SatRadio
import com.rtbishop.look4sat.core.domain.predict.OrbitalPass
import com.rtbishop.look4sat.core.domain.predict.SPEED_OF_LIGHT
import com.rtbishop.look4sat.core.domain.repository.IRadioController
import com.rtbishop.look4sat.core.domain.repository.IRadioTrackingService
import com.rtbishop.look4sat.core.domain.repository.ISatelliteRepo
@@ -29,6 +31,7 @@ import com.rtbishop.look4sat.core.domain.repository.RadioTrackingState
import com.rtbishop.look4sat.core.domain.utility.TransponderMapper
import kotlinx.coroutines.CoroutineScope
import kotlinx.coroutines.Job
import kotlinx.coroutines.currentCoroutineContext
import kotlinx.coroutines.delay
import kotlinx.coroutines.flow.MutableStateFlow
import kotlinx.coroutines.flow.StateFlow
@@ -44,6 +47,8 @@ class RadioTrackingService(
) : IRadioTrackingService {
private val tag = "RadioTracking"
/** Delay between each step of the split-mode init sequence (ms). */
private val INIT_STEP_DELAY_MS = 200L
private val _state = MutableStateFlow(RadioTrackingState())
override val state: StateFlow<RadioTrackingState> = _state
@@ -51,227 +56,427 @@ class RadioTrackingService(
private var rxController: IRadioController? = null
private var trackingJob: Job? = null
// ── Connection ──────────────────────────────────────────────────────────
override suspend fun connectRadios() {
// Disconnect old controllers if any
txController?.disconnect()
rxController?.disconnect()
// Read current addresses from settings
val rcSettings = settingsRepo.radioControlSettings.value
val txAddr = rcSettings.txRadioAddress
val rxAddr = rcSettings.rxRadioAddress
val txAddr = rcSettings.txRadioAddress
val rxAddr = rcSettings.rxRadioAddress
val isIcom = rcSettings.radioModel == RadioControlSettings.MODEL_ICOM_IC705
val isSplit = isIcom && rcSettings.splitMode
Log.i(tag, "Connecting TX=$txAddr RX=$rxAddr")
Log.i(tag, "connectRadios model=${rcSettings.radioModel} split=$isSplit TX=$txAddr RX=$rxAddr")
if (txAddr.isBlank() && rxAddr.isBlank()) {
_state.update { it.copy(errorMessage = "No radio addresses configured in Settings") }
return
}
val tx = Ft817Controller(bluetoothManager, txAddr)
val rx = Ft817Controller(bluetoothManager, rxAddr)
txController = tx
rxController = rx
_state.update { it.copy(errorMessage = null) }
val txOk = if (txAddr.isNotBlank()) tx.connect() else false
val rxOk = if (rxAddr.isNotBlank()) rx.connect() else false
_state.update {
it.copy(
txConnected = txOk,
rxConnected = rxOk,
errorMessage = when {
!txOk && !rxOk -> "Could not connect to TX and RX radios"
!txOk -> "Could not connect to TX radio ($txAddr)"
!rxOk -> "Could not connect to RX radio ($rxAddr)"
else -> null
}
)
if (isSplit) {
// Single-radio split mode: only TX slot is used
if (txAddr.isBlank()) {
_state.update { it.copy(errorMessage = "No radio address configured in Settings") }
return
}
val tx = makeController(isIcom, txAddr)
txController = tx
rxController = null
_state.update { it.copy(errorMessage = null) }
val txOk = tx.connect()
_state.update {
it.copy(
txConnected = txOk,
rxConnected = false,
errorMessage = if (!txOk) "Could not connect to radio ($txAddr)" else null
)
}
Log.i(tag, "IC-705 split mode connected: txOk=$txOk")
} else {
if (txAddr.isBlank() && rxAddr.isBlank()) {
_state.update { it.copy(errorMessage = "No radio addresses configured in Settings") }
return
}
val tx = makeController(isIcom, txAddr)
val rx = makeController(isIcom, rxAddr)
txController = tx
rxController = rx
_state.update { it.copy(errorMessage = null) }
val txOk = if (txAddr.isNotBlank()) tx.connect() else false
val rxOk = if (rxAddr.isNotBlank()) rx.connect() else false
_state.update {
it.copy(
txConnected = txOk,
rxConnected = rxOk,
errorMessage = when {
!txOk && !rxOk -> "Could not connect to TX and RX radios"
!txOk -> "Could not connect to TX radio ($txAddr)"
!rxOk -> "Could not connect to RX radio ($rxAddr)"
else -> null
}
)
}
Log.i(tag, "Dual-radio connected: txOk=$txOk rxOk=$rxOk")
}
}
private fun makeController(isIcom: Boolean, address: String): IRadioController =
if (isIcom) Ic705Controller(bluetoothManager, address)
else Ft817Controller(bluetoothManager, address)
override suspend fun disconnectRadios() {
stopTracking()
txController?.disconnect()
rxController?.disconnect()
txController = null
rxController = null
_state.update {
it.copy(
txConnected = false,
rxConnected = false,
isActive = false
)
}
_state.update { it.copy(txConnected = false, rxConnected = false, isActive = false) }
}
// ── Tracking ────────────────────────────────────────────────────────────
override fun startTracking(pass: OrbitalPass, transponder: SatRadio, txBaseFreqHz: Long?) {
_state.update {
it.copy(
isActive = true,
currentPass = pass,
selectedTransponder = transponder,
txBaseFrequencyHz = txBaseFreqHz
isActive = true,
currentPass = pass,
selectedTransponder = transponder,
txBaseFrequencyHz = txBaseFreqHz
)
}
trackingJob?.cancel()
trackingJob = appScope.launch {
// Set modes on both radios at tracking start
val tx = txController
val rx = rxController
val txMode = transponder.uplinkMode
val rxMode = transponder.downlinkMode
?: transponder.uplinkMode?.let {
TransponderMapper.mapUplinkModeToDownlinkMode(it, transponder.isInverted)
}
if (tx != null && tx.isConnected && txMode != null) {
tx.setMode(txMode)
Log.i(tag, "TX mode set to $txMode")
}
if (rx != null && rx.isConnected && rxMode != null) {
rx.setMode(rxMode)
Log.i(tag, "RX mode set to $rxMode")
}
// Set CTCSS if FM
if (txMode?.uppercase() == "FM") {
_state.value.ctcssTone?.let { tone ->
tx?.setCtcssTone(tone)
tx?.setCtcssMode(true)
}
}
_state.update { it.copy(txMode = txMode, rxMode = rxMode) }
var lastSetTxFreq = 0.0
var lastSetRxFreq = 0.0
var tuningRadio = "" // "", "tx", or "rx" - which radio the user is tuning
var lastReadFreq = 0L
var stableCount = 0
val rcSettings = settingsRepo.radioControlSettings.value
val isIcom = rcSettings.radioModel == RadioControlSettings.MODEL_ICOM_IC705
val isSplit = isIcom && rcSettings.splitMode
while (isActive) {
val currentState = _state.value
if (!currentState.isActive) break
val satPass = currentState.currentPass ?: break
val xpdr = currentState.selectedTransponder ?: break
var txBaseFreq = currentState.txBaseFrequencyHz
val stationPos = settingsRepo.stationPosition.value
val timeNow = System.currentTimeMillis()
val pos = satelliteRepo.getPosition(satPass.orbitalObject, stationPos, timeNow)
val tx = txController
val rx = rxController
val hasUplink = txBaseFreq != null
val c = com.rtbishop.look4sat.core.domain.predict.SPEED_OF_LIGHT
val v = pos.distanceRate * 1000.0
if (tuningRadio.isNotEmpty()) {
// --- User is tuning: keep reading, wait for stabilization ---
val radio = if (tuningRadio == "tx") tx else rx
if (radio != null && radio.isConnected) {
val readResult = radio.readFrequencyAndMode()
if (readResult != null) {
val (freq, _) = readResult
if (kotlin.math.abs(freq - lastReadFreq) <= 20) {
stableCount++
} else {
stableCount = 0
lastReadFreq = freq
}
// Stable for 2 reads → user stopped turning
if (stableCount >= 2) {
if (tuningRadio == "tx" && txBaseFreq != null) {
val newBase = (freq.toDouble() * c / (c + v)).toLong()
if (newBase > 0) {
txBaseFreq = newBase
_state.update { it.copy(txBaseFrequencyHz = newBase) }
Log.i(tag, "TX tuning done → base=$newBase")
}
} else if (tuningRadio == "rx") {
val rxNominal = (freq.toDouble() * c / (c - v)).toLong()
val newTxBase = TransponderMapper.mapDownlinkToUplink(rxNominal, xpdr)
if (newTxBase != null && newTxBase > 0) {
txBaseFreq = newTxBase
_state.update { it.copy(txBaseFrequencyHz = newTxBase) }
Log.i(tag, "RX tuning done → txBase=$newTxBase")
}
}
tuningRadio = ""
stableCount = 0
lastSetTxFreq = 0.0
lastSetRxFreq = 0.0
}
}
}
} else {
// --- Normal tracking: read, detect changes, command ---
// TX dial feedback
if (hasUplink && tx != null && tx.isConnected && lastSetTxFreq > 0.0) {
val readResult = tx.readFrequencyAndMode()
if (readResult != null) {
val (actualTxFreq, _) = readResult
if (kotlin.math.abs(actualTxFreq - lastSetTxFreq) >= 20.0) {
tuningRadio = "tx"
lastReadFreq = actualTxFreq
stableCount = 0
Log.i(tag, "TX tuning detected (read=$actualTxFreq, lastSet=$lastSetTxFreq)")
}
}
}
// RX dial feedback (only if TX not tuning)
if (tuningRadio.isEmpty() && rx != null && rx.isConnected && lastSetRxFreq > 0.0) {
val readResult = rx.readFrequencyAndMode()
if (readResult != null) {
val (actualRxFreq, _) = readResult
if (kotlin.math.abs(actualRxFreq - lastSetRxFreq) >= 20.0) {
tuningRadio = "rx"
lastReadFreq = actualRxFreq
stableCount = 0
Log.i(tag, "RX tuning detected (read=$actualRxFreq, lastSet=$lastSetRxFreq)")
}
}
}
}
// Compute Doppler-corrected frequencies
val txRadioFreq = txBaseFreq?.let { pos.getUplinkFreq(it) }
val rxBaseFreq = if (txBaseFreq != null) {
TransponderMapper.mapUplinkToDownlink(txBaseFreq, xpdr)
} else {
xpdr.downlinkLow
}
val rxRadioFreq = rxBaseFreq?.let { pos.getDownlinkFreq(it) }
// Command radios (only when not tuning)
if (tuningRadio.isEmpty()) {
if (tx != null && tx.isConnected && txRadioFreq != null) {
tx.setFrequency(txRadioFreq)
lastSetTxFreq = txRadioFreq.toDouble()
}
if (rx != null && rx.isConnected && rxRadioFreq != null) {
rx.setFrequency(rxRadioFreq)
lastSetRxFreq = rxRadioFreq.toDouble()
}
}
_state.update {
it.copy(
txConnected = tx?.isConnected ?: false,
rxConnected = rx?.isConnected ?: false,
txFrequencyHz = txRadioFreq,
rxFrequencyHz = rxRadioFreq,
azimuth = Math.toDegrees(pos.azimuth),
elevation = Math.toDegrees(pos.elevation),
distance = pos.distance
)
}
delay(1000)
}
if (isSplit) {
trackingJob = appScope.launch { runSplitTracking(transponder, txBaseFreqHz) }
} else {
trackingJob = appScope.launch { runDualRadioTracking(transponder, txBaseFreqHz) }
}
}
// ── Dual-radio tracking (Yaesu or two IC-705s) ──────────────────────────
private suspend fun runDualRadioTracking(transponder: SatRadio, initialTxBaseFreqHz: Long?) {
val tx = txController
val rx = rxController
// Initial setup: set band/mode/CTCSS on both radios
val txMode = transponder.uplinkMode
val rxMode = transponder.downlinkMode
?: transponder.uplinkMode?.let {
TransponderMapper.mapUplinkModeToDownlinkMode(it, transponder.isInverted)
}
Log.i(tag, "DualRadio start: txMode=$txMode rxMode=$rxMode")
if (tx != null && tx.isConnected && txMode != null) {
Log.d(tag, "Setting TX mode: $txMode")
tx.setMode(txMode)
}
if (rx != null && rx.isConnected && rxMode != null) {
Log.d(tag, "Setting RX mode: $rxMode")
rx.setMode(rxMode)
}
if (txMode?.uppercase() == "FM") {
_state.value.ctcssTone?.let { tone ->
Log.d(tag, "Setting CTCSS: ${tone}Hz")
tx?.setCtcssTone(tone)
tx?.setCtcssMode(true)
}
}
_state.update { it.copy(txMode = txMode, rxMode = rxMode) }
var lastSetTxFreq = 0.0
var lastSetRxFreq = 0.0
var tuningRadio = ""
var lastReadFreq = 0L
var stableCount = 0
while (currentCoroutineContext().isActive) {
val currentState = _state.value
if (!currentState.isActive) break
val satPass = currentState.currentPass ?: break
val xpdr = currentState.selectedTransponder ?: break
var txBaseFreq = currentState.txBaseFrequencyHz
val stationPos = settingsRepo.stationPosition.value
val pos = satelliteRepo.getPosition(satPass.orbitalObject, stationPos, System.currentTimeMillis())
val txNow = txController
val rxNow = rxController
val v = pos.distanceRate * 1000.0
if (tuningRadio.isNotEmpty()) {
val radio = if (tuningRadio == "tx") txNow else rxNow
if (radio != null && radio.isConnected) {
val read = radio.readFrequencyAndMode()
if (read != null) {
val (freq, _) = read
if (kotlin.math.abs(freq - lastReadFreq) <= 20) stableCount++
else { stableCount = 0; lastReadFreq = freq }
if (stableCount >= 2) {
if (tuningRadio == "tx" && txBaseFreq != null) {
val newBase = (freq.toDouble() * SPEED_OF_LIGHT / (SPEED_OF_LIGHT + v)).toLong()
if (newBase > 0) {
txBaseFreq = newBase
_state.update { it.copy(txBaseFrequencyHz = newBase) }
Log.i(tag, "TX tuning done → base=$newBase")
}
} else if (tuningRadio == "rx") {
val rxNominal = (freq.toDouble() * SPEED_OF_LIGHT / (SPEED_OF_LIGHT - v)).toLong()
val newTxBase = TransponderMapper.mapDownlinkToUplink(rxNominal, xpdr)
if (newTxBase != null && newTxBase > 0) {
txBaseFreq = newTxBase
_state.update { it.copy(txBaseFrequencyHz = newTxBase) }
Log.i(tag, "RX tuning done → txBase=$newTxBase")
}
}
tuningRadio = ""
stableCount = 0
lastSetTxFreq = 0.0
lastSetRxFreq = 0.0
}
}
}
} else {
// Detect manual dial changes
if (txBaseFreq != null && txNow != null && txNow.isConnected && lastSetTxFreq > 0.0) {
val read = txNow.readFrequencyAndMode()
if (read != null && kotlin.math.abs(read.first - lastSetTxFreq) >= 20.0) {
tuningRadio = "tx"
lastReadFreq = read.first
stableCount = 0
Log.i(tag, "TX tuning detected (read=${read.first}, lastSet=$lastSetTxFreq)")
}
}
if (tuningRadio.isEmpty() && rxNow != null && rxNow.isConnected && lastSetRxFreq > 0.0) {
val read = rxNow.readFrequencyAndMode()
if (read != null && kotlin.math.abs(read.first - lastSetRxFreq) >= 20.0) {
tuningRadio = "rx"
lastReadFreq = read.first
stableCount = 0
Log.i(tag, "RX tuning detected (read=${read.first}, lastSet=$lastSetRxFreq)")
}
}
}
val txRadioFreq = txBaseFreq?.let { pos.getUplinkFreq(it) }
val rxBaseFreq = if (txBaseFreq != null) {
TransponderMapper.mapUplinkToDownlink(txBaseFreq, xpdr)
} else xpdr.downlinkLow
val rxRadioFreq = rxBaseFreq?.let { pos.getDownlinkFreq(it) }
if (tuningRadio.isEmpty()) {
if (txNow != null && txNow.isConnected && txRadioFreq != null) {
txNow.setFrequency(txRadioFreq)
lastSetTxFreq = txRadioFreq.toDouble()
}
if (rxNow != null && rxNow.isConnected && rxRadioFreq != null) {
rxNow.setFrequency(rxRadioFreq)
lastSetRxFreq = rxRadioFreq.toDouble()
}
}
_state.update {
it.copy(
txConnected = txNow?.isConnected ?: false,
rxConnected = rxNow?.isConnected ?: false,
txFrequencyHz = txRadioFreq,
rxFrequencyHz = rxRadioFreq,
azimuth = Math.toDegrees(pos.azimuth),
elevation = Math.toDegrees(pos.elevation),
distance = pos.distance
)
}
delay(1000)
}
}
// ── IC-705 split-radio tracking ─────────────────────────────────────────
private suspend fun runSplitTracking(transponder: SatRadio, initialTxBaseFreqHz: Long?) {
val radio = txController ?: return
if (!radio.isConnected) return
val txMode = transponder.uplinkMode
val rxMode = transponder.downlinkMode
?: transponder.uplinkMode?.let {
TransponderMapper.mapUplinkModeToDownlinkMode(it, transponder.isInverted)
}
// Compute nominal base frequencies
val txCenter = when {
transponder.uplinkLow != null && transponder.uplinkHigh != null ->
(transponder.uplinkLow!! + transponder.uplinkHigh!!) / 2
transponder.uplinkLow != null -> transponder.uplinkLow!!
else -> null
}
val rxNominal = if (txCenter != null) {
TransponderMapper.mapUplinkToDownlink(txCenter, transponder)
} else transponder.downlinkLow
val txBase = initialTxBaseFreqHz ?: txCenter
Log.i(tag, "IC-705 split setup: txBase=${txBase}Hz rxNominal=${rxNominal}Hz txMode=$txMode rxMode=$rxMode")
// ── Initial setup sequence ──────────────────────────────────────────
// Sequence per IC-705: explicitly select VFO, then band → freq → mode.
// ACK from each command gates the next — no fixed delays needed.
// VFO-A = RX (downlink)
Log.d(tag, "Split init: selecting VFO-A for RX (downlink)")
radio.setVfo(vfoA = true)
if (rxNominal != null) {
Log.d(tag, "Split init: VFO-A band for ${rxNominal}Hz")
radio.setBand(rxNominal)
Log.d(tag, "Split init: VFO-A freq=${rxNominal}Hz")
radio.setFrequency(rxNominal)
}
if (rxMode != null) {
Log.d(tag, "Split init: VFO-A mode=$rxMode")
radio.setMode(rxMode)
}
// VFO-B = TX (uplink)
Log.d(tag, "Split init: selecting VFO-B for TX (uplink)")
radio.setVfo(vfoA = false)
if (txBase != null) {
Log.d(tag, "Split init: VFO-B band for ${txBase}Hz")
radio.setBand(txBase)
Log.d(tag, "Split init: VFO-B freq=${txBase}Hz")
radio.setFrequency(txBase)
}
if (txMode != null) {
Log.d(tag, "Split init: VFO-B mode=$txMode")
radio.setMode(txMode)
}
if (txMode?.uppercase() == "FM") {
val tone = _state.value.ctcssTone
if (tone != null) {
Log.d(tag, "Split init: CTCSS=${tone}Hz")
radio.setCtcssTone(tone)
radio.setCtcssMode(true)
} else {
radio.setCtcssMode(false)
}
}
// Enable SPLIT on VFO-A (return display to RX VFO first)
Log.d(tag, "Split init: returning to VFO-A, then enabling SPLIT mode")
radio.setVfo(vfoA = true)
radio.setSplitMode(enabled = true)
_state.update { it.copy(txMode = txMode, rxMode = rxMode, txBaseFrequencyHz = txBase) }
Log.i(tag, "IC-705 split init done — entering tracking loop")
// ── Tracking loop with tuning detection ─────────────────────────────
var lastSetTxFreq = 0.0
var lastSetRxFreq = 0.0
var tuningRadio = "" // "tx" or "rx" when manual tuning detected
var lastReadFreq = 0L
var stableCount = 0
while (currentCoroutineContext().isActive) {
val currentState = _state.value
if (!currentState.isActive) break
val satPass = currentState.currentPass ?: break
val xpdr = currentState.selectedTransponder ?: break
var txBaseFreq = currentState.txBaseFrequencyHz
val stationPos = settingsRepo.stationPosition.value
val pos = satelliteRepo.getPosition(satPass.orbitalObject, stationPos, System.currentTimeMillis())
val v = pos.distanceRate * 1000.0
if (tuningRadio.isNotEmpty()) {
// User is tuning — wait for frequency to stabilize
val readFreq = if (tuningRadio == "tx") radio.readTxVfoFrequency() else radio.readWorkingFrequency()
if (readFreq != null) {
if (kotlin.math.abs(readFreq - lastReadFreq) <= 20) stableCount++
else { stableCount = 0; lastReadFreq = readFreq }
if (stableCount >= 2) {
// Frequency stable — reverse-calculate base frequency
if (tuningRadio == "tx" && txBaseFreq != null) {
val newBase = (readFreq.toDouble() * SPEED_OF_LIGHT / (SPEED_OF_LIGHT + v)).toLong()
if (newBase > 0) {
txBaseFreq = newBase
_state.update { it.copy(txBaseFrequencyHz = newBase) }
Log.i(tag, "Split TX tuning done → base=$newBase")
}
} else if (tuningRadio == "rx") {
val rxNominal = (readFreq.toDouble() * SPEED_OF_LIGHT / (SPEED_OF_LIGHT - v)).toLong()
val newTxBase = TransponderMapper.mapDownlinkToUplink(rxNominal, xpdr)
if (newTxBase != null && newTxBase > 0) {
txBaseFreq = newTxBase
_state.update { it.copy(txBaseFrequencyHz = newTxBase) }
Log.i(tag, "Split RX tuning done → txBase=$newTxBase")
}
}
tuningRadio = ""
stableCount = 0
lastSetTxFreq = 0.0
lastSetRxFreq = 0.0
}
}
} else {
// Detect manual dial changes
if (txBaseFreq != null && lastSetTxFreq > 0.0) {
val readTx = radio.readTxVfoFrequency()
if (readTx != null && kotlin.math.abs(readTx - lastSetTxFreq) >= 20.0) {
tuningRadio = "tx"
lastReadFreq = readTx
stableCount = 0
Log.i(tag, "Split TX tuning detected (read=${readTx}, lastSet=$lastSetTxFreq)")
}
}
if (tuningRadio.isEmpty() && lastSetRxFreq > 0.0) {
val readRx = radio.readWorkingFrequency()
if (readRx != null && kotlin.math.abs(readRx - lastSetRxFreq) >= 20.0) {
tuningRadio = "rx"
lastReadFreq = readRx
stableCount = 0
Log.i(tag, "Split RX tuning detected (read=${readRx}, lastSet=$lastSetRxFreq)")
}
}
}
// Determine Doppler-corrected frequencies
val txRadioFreq = txBaseFreq?.let { pos.getUplinkFreq(it) }
val rxBaseCalc = if (txBaseFreq != null) {
TransponderMapper.mapUplinkToDownlink(txBaseFreq, xpdr)
} else xpdr.downlinkLow
val rxRadioFreq = rxBaseCalc?.let { pos.getDownlinkFreq(it) }
if (radio.isConnected && tuningRadio.isEmpty()) {
// Update both VFOs every cycle — no PTT polling needed.
// 0x25/00 = active (RX) VFO, 0x25/01 = inactive (TX) VFO.
if (rxRadioFreq != null) {
Log.d(tag, "Split loop RX (0x25/00): ${rxRadioFreq}Hz")
radio.setWorkingFrequency(rxRadioFreq)
lastSetRxFreq = rxRadioFreq.toDouble()
}
if (txRadioFreq != null) {
Log.d(tag, "Split loop TX (0x25/01): ${txRadioFreq}Hz")
radio.setTxVfoFrequency(txRadioFreq)
lastSetTxFreq = txRadioFreq.toDouble()
}
}
_state.update {
it.copy(
txConnected = radio.isConnected,
rxConnected = false, // single radio
txFrequencyHz = txRadioFreq,
rxFrequencyHz = rxRadioFreq,
azimuth = Math.toDegrees(pos.azimuth),
elevation = Math.toDegrees(pos.elevation),
distance = pos.distance
)
}
delay(1000)
}
}
// ── Other IRadioTrackingService methods ─────────────────────────────────
override fun stopTracking() {
trackingJob?.cancel()
trackingJob = null
@@ -288,7 +493,6 @@ class RadioTrackingService(
TransponderMapper.mapUplinkModeToDownlinkMode(it, transponder.isInverted)
}
rxMode?.let { rx?.setMode(it) }
if (transponder.uplinkMode?.uppercase() == "FM") {
_state.value.ctcssTone?.let { tone ->
tx?.setCtcssTone(tone)
@@ -302,21 +506,17 @@ class RadioTrackingService(
transponder.uplinkLow != null -> transponder.uplinkLow!!
else -> null
}
// Show nominal frequencies immediately
val rxNominal = if (txCenter != null) {
TransponderMapper.mapUplinkToDownlink(txCenter, transponder)
} else {
// Downlink-only transponder (beacon etc.) - use downlink directly
transponder.downlinkLow
}
} else transponder.downlinkLow
_state.update {
it.copy(
selectedTransponder = transponder,
txBaseFrequencyHz = txCenter,
txFrequencyHz = txCenter,
rxFrequencyHz = rxNominal,
txMode = transponder.uplinkMode,
rxMode = transponder.downlinkMode
txBaseFrequencyHz = txCenter,
txFrequencyHz = txCenter,
rxFrequencyHz = rxNominal,
txMode = transponder.uplinkMode,
rxMode = transponder.downlinkMode
?: transponder.uplinkMode?.let { m ->
TransponderMapper.mapUplinkModeToDownlinkMode(m, transponder.isInverted)
}
@@ -353,5 +553,4 @@ class RadioTrackingService(
}
_state.update { it.copy(txMode = txMode, rxMode = rxMode) }
}
}
@@ -26,6 +26,7 @@ import androidx.room.Room
import com.rtbishop.look4sat.core.data.database.Look4SatDb
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.DatabaseRepo
@@ -39,6 +40,7 @@ import com.rtbishop.look4sat.core.data.usecase.AddToCalendar
import com.rtbishop.look4sat.core.data.usecase.AudioCapture
import com.rtbishop.look4sat.core.data.usecase.SaveImage
import com.rtbishop.look4sat.core.data.usecase.ShowToast
import com.rtbishop.look4sat.core.domain.model.RadioControlSettings
import com.rtbishop.look4sat.core.domain.repository.IDatabaseRepo
import com.rtbishop.look4sat.core.domain.repository.IMainContainer
import com.rtbishop.look4sat.core.domain.repository.IRadioController
@@ -106,15 +108,25 @@ class MainContainer(private val context: Context) : IMainContainer {
}
override fun provideTxRadioController(): IRadioController {
val manager = context.getSystemService(Context.BLUETOOTH_SERVICE) as BluetoothManager
val address = settingsRepo.radioControlSettings.value.txRadioAddress
return Ft817Controller(manager, address)
val manager = context.getSystemService(Context.BLUETOOTH_SERVICE) as BluetoothManager
val settings = settingsRepo.radioControlSettings.value
val address = settings.txRadioAddress
return if (settings.radioModel == RadioControlSettings.MODEL_ICOM_IC705) {
Ic705Controller(manager, address)
} else {
Ft817Controller(manager, address)
}
}
override fun provideRxRadioController(): IRadioController {
val manager = context.getSystemService(Context.BLUETOOTH_SERVICE) as BluetoothManager
val address = settingsRepo.radioControlSettings.value.rxRadioAddress
return Ft817Controller(manager, address)
val manager = context.getSystemService(Context.BLUETOOTH_SERVICE) as BluetoothManager
val settings = settingsRepo.radioControlSettings.value
val address = settings.rxRadioAddress
return if (settings.radioModel == RadioControlSettings.MODEL_ICOM_IC705) {
Ic705Controller(manager, address)
} else {
Ft817Controller(manager, address)
}
}
override fun provideSensorsRepo(): ISensorsRepo {
@@ -383,6 +383,7 @@ class SettingsRepo(
private val keyTxRadioName = "txRadioName"
private val keyRxRadioName = "rxRadioName"
private val keyRadioBaudRate = "radioBaudRate"
private val keyRadioSplitMode = "radioSplitMode"
private val _radioControlSettings = MutableStateFlow(getRadioControlSettings())
override val radioControlSettings: StateFlow<RadioControlSettings> = _radioControlSettings
@@ -396,18 +397,20 @@ class SettingsRepo(
putString(keyTxRadioName, settings.txRadioName)
putString(keyRxRadioName, settings.rxRadioName)
putInt(keyRadioBaudRate, settings.baudRate)
putBoolean(keyRadioSplitMode, settings.splitMode)
}
_radioControlSettings.value = settings
}
private fun getRadioControlSettings(): RadioControlSettings = RadioControlSettings(
enabled = preferences.getBoolean(keyRadioControlEnabled, false),
radioModel = preferences.getString(keyRadioModel, null) ?: "Yaesu FT-817/818",
radioModel = preferences.getString(keyRadioModel, null) ?: RadioControlSettings.MODEL_YAESU_FT817,
txRadioAddress = preferences.getString(keyTxRadioAddress, null) ?: "",
rxRadioAddress = preferences.getString(keyRxRadioAddress, null) ?: "",
txRadioName = preferences.getString(keyTxRadioName, null) ?: "TX Radio",
rxRadioName = preferences.getString(keyRxRadioName, null) ?: "RX Radio",
baudRate = preferences.getInt(keyRadioBaudRate, 4800)
baudRate = preferences.getInt(keyRadioBaudRate, 4800),
splitMode = preferences.getBoolean(keyRadioSplitMode, false)
)
//endregion
}
@@ -74,12 +74,20 @@ data class RadioControlSettings(
val rxRadioAddress: String,
val txRadioName: String,
val rxRadioName: String,
val baudRate: Int
val baudRate: Int,
/** IC-705 only: use single-radio split-VFO mode instead of two radios. */
val splitMode: Boolean = false
) {
companion object {
val SUPPORTED_RADIOS = listOf(
"Yaesu FT-817/818",
"Yaesu FT-857/897"
)
const val MODEL_YAESU_FT817 = "Yaesu FT-817/818"
const val MODEL_YAESU_FT857 = "Yaesu FT-857/897"
const val MODEL_ICOM_IC705 = "Icom IC-705"
val SUPPORTED_RADIOS = listOf(MODEL_YAESU_FT817, MODEL_YAESU_FT857, MODEL_ICOM_IC705)
/** Baud rates available for Yaesu radios. */
val BAUD_RATES_YAESU = listOf(4800, 9600, 38400)
/** Baud rates available for Icom IC-705 (higher speeds supported via CI-V USB/BT). */
val BAUD_RATES_ICOM = listOf(4800, 9600, 19200, 38400, 57600, 115200)
}
}
@@ -38,4 +38,51 @@ interface IRadioController {
suspend fun pttOn(): Boolean
suspend fun pttOff(): Boolean
// ── Extended operations (IC-705 / CI-V) ──────────────────────────────
/**
* Select the band matching [frequencyHz] via the band stacking register.
* Must be called before [setFrequency] and [setMode] when first tracking.
* Default: no-op (Yaesu radios auto-switch band via frequency).
*/
suspend fun setBand(frequencyHz: Long): Boolean = false
/**
* Select the active VFO.
* @param vfoA true → VFO-A (main/RX), false → VFO-B (sub/TX in split).
*/
suspend fun setVfo(vfoA: Boolean): Boolean = false
/**
* Enable or disable SPLIT mode (TX on sub-VFO, RX on main VFO).
* Default: not supported.
*/
suspend fun setSplitMode(enabled: Boolean): Boolean = false
/**
* Set the frequency of the currently active VFO (IC-705: CMD 0x25 sub 0x00).
* Default: delegates to [setFrequency].
*/
suspend fun setWorkingFrequency(frequencyHz: Long): Boolean = setFrequency(frequencyHz)
/**
* Set the frequency of the inactive/TX VFO (IC-705: CMD 0x25 sub 0x01).
* Sent every tracking cycle alongside [setWorkingFrequency] in split mode.
* Default: delegates to [setWorkingFrequency].
*/
suspend fun setTxVfoFrequency(frequencyHz: Long): Boolean = setWorkingFrequency(frequencyHz)
/**
* Read the frequency of the currently active VFO (IC-705: CMD 0x25 sub 0x00).
* Default: delegates to [readFrequencyAndMode].
*/
suspend fun readWorkingFrequency(): Long? = readFrequencyAndMode()?.first
/**
* Read the frequency of the inactive/TX VFO (IC-705: CMD 0x25 sub 0x01).
* Used for tuning detection in split mode.
* Default: delegates to [readWorkingFrequency].
*/
suspend fun readTxVfoFrequency(): Long? = readWorkingFrequency()
}
@@ -22,11 +22,14 @@ import android.content.Context
import androidx.compose.foundation.clickable
import androidx.compose.foundation.layout.Arrangement
import androidx.compose.foundation.layout.Column
import androidx.compose.foundation.layout.ExperimentalLayoutApi
import androidx.compose.foundation.layout.FlowRow
import androidx.compose.foundation.layout.Row
import androidx.compose.foundation.layout.Spacer
import androidx.compose.foundation.layout.fillMaxWidth
import androidx.compose.foundation.layout.height
import androidx.compose.foundation.layout.padding
import androidx.compose.material3.FilterChip
import androidx.compose.material3.OutlinedTextField
import androidx.compose.material3.Switch
import androidx.compose.material3.Text
@@ -38,6 +41,7 @@ import androidx.compose.runtime.saveable.rememberSaveable
import androidx.compose.ui.Alignment
import androidx.compose.ui.Modifier
import androidx.compose.ui.res.stringResource
import androidx.compose.ui.text.font.FontWeight
import androidx.compose.ui.tooling.preview.Preview
import androidx.compose.ui.unit.dp
import androidx.compose.ui.unit.sp
@@ -438,114 +442,164 @@ private fun OutputChannelSection(
}
}
@OptIn(ExperimentalLayoutApi::class)
@Composable
fun RadioControlDialog(
initialSettings: RadioControlSettings,
onDismiss: () -> Unit,
onSave: (RadioControlSettings) -> Unit
) {
val context = androidx.compose.ui.platform.LocalContext.current
val padding = LocalSpacing.current.large
val baudRates = listOf(4800, 9600, 38400)
val enabled = rememberSaveable { mutableStateOf(initialSettings.enabled) }
val context = androidx.compose.ui.platform.LocalContext.current
val padding = LocalSpacing.current.large
val enabled = rememberSaveable { mutableStateOf(initialSettings.enabled) }
val radioModel = rememberSaveable { mutableStateOf(initialSettings.radioModel) }
val txAddress = rememberSaveable { mutableStateOf(initialSettings.txRadioAddress) }
val rxAddress = rememberSaveable { mutableStateOf(initialSettings.rxRadioAddress) }
val txName = rememberSaveable { mutableStateOf(initialSettings.txRadioName) }
val rxName = rememberSaveable { mutableStateOf(initialSettings.rxRadioName) }
val baudRate = rememberSaveable { mutableIntStateOf(initialSettings.baudRate) }
val splitMode = rememberSaveable { mutableStateOf(initialSettings.splitMode) }
val txAddress = rememberSaveable { mutableStateOf(initialSettings.txRadioAddress) }
val rxAddress = rememberSaveable { mutableStateOf(initialSettings.rxRadioAddress) }
val txName = rememberSaveable { mutableStateOf(initialSettings.txRadioName) }
val rxName = rememberSaveable { mutableStateOf(initialSettings.rxRadioName) }
val baudRate = rememberSaveable { mutableIntStateOf(initialSettings.baudRate) }
val selectingFor = rememberSaveable { mutableStateOf("") } // "tx", "rx", or ""
val pairedDevices = remember {
try {
val manager = context.getSystemService(Context.BLUETOOTH_SERVICE) as BluetoothManager
manager.adapter?.bondedDevices?.map { Pair(it.name ?: "Unknown", it.address) } ?: emptyList()
} catch (_: SecurityException) {
emptyList()
val isIcom = radioModel.value == RadioControlSettings.MODEL_ICOM_IC705
val isSingleRadio = isIcom && splitMode.value
// Reset split mode when switching away from IC-705
if (!isIcom && splitMode.value) splitMode.value = false
val baudRates = if (isIcom) RadioControlSettings.BAUD_RATES_ICOM
else RadioControlSettings.BAUD_RATES_YAESU
// If current baud rate is not in the new list, default to the first available
if (baudRate.intValue !in baudRates) baudRate.intValue = baudRates.first()
val pairedDevices: List<Pair<String, String>> = remember {
buildList {
try {
val manager = context.getSystemService(Context.BLUETOOTH_SERVICE) as BluetoothManager
manager.adapter?.bondedDevices?.forEach {
add(Pair(it.name ?: "Unknown", it.address ?: ""))
}
} catch (_: SecurityException) { }
}
}
val onAccept = {
onSave(
RadioControlSettings(
enabled = enabled.value,
radioModel = radioModel.value,
enabled = enabled.value,
radioModel = radioModel.value,
txRadioAddress = txAddress.value,
rxRadioAddress = rxAddress.value,
txRadioName = txName.value,
rxRadioName = rxName.value,
baudRate = baudRate.intValue
rxRadioAddress = if (isSingleRadio) "" else rxAddress.value,
txRadioName = txName.value,
rxRadioName = if (isSingleRadio) "" else rxName.value,
baudRate = baudRate.intValue,
splitMode = splitMode.value
)
)
onDismiss()
}
SharedDialog(
title = stringResource(R.string.rc_settings_title),
title = stringResource(R.string.rc_settings_title),
onCancel = onDismiss,
onAccept = onAccept
) {
Column(modifier = Modifier.padding(horizontal = padding)) {
// Enable switch
Row(
horizontalArrangement = Arrangement.SpaceBetween,
verticalAlignment = Alignment.CenterVertically,
modifier = Modifier.fillMaxWidth()
verticalAlignment = Alignment.CenterVertically,
modifier = Modifier.fillMaxWidth()
) {
Text(stringResource(R.string.rc_enable_switch))
Switch(checked = enabled.value, onCheckedChange = { enabled.value = it })
}
Spacer(modifier = Modifier.height(6.dp))
// Radio model selection
// Radio model — FlowRow so chips wrap on small screens
Text(
stringResource(R.string.rc_radio_model),
fontWeight = androidx.compose.ui.text.font.FontWeight.Medium,
color = androidx.compose.material3.MaterialTheme.colorScheme.primary
text = stringResource(R.string.rc_radio_model),
fontWeight = FontWeight.Medium,
color = androidx.compose.material3.MaterialTheme.colorScheme.primary
)
Row(horizontalArrangement = Arrangement.spacedBy(4.dp)) {
FlowRow(horizontalArrangement = Arrangement.spacedBy(4.dp)) {
RadioControlSettings.SUPPORTED_RADIOS.forEach { model ->
androidx.compose.material3.FilterChip(
FilterChip(
selected = radioModel.value == model,
onClick = { radioModel.value = model },
label = { Text(model, fontSize = 12.sp) },
enabled = enabled.value
onClick = { radioModel.value = model },
label = { Text(model, fontSize = 12.sp) },
enabled = enabled.value
)
}
}
Spacer(modifier = Modifier.height(6.dp))
// TX Radio selection
Text("TX Radio (Uplink)", fontWeight = androidx.compose.ui.text.font.FontWeight.Medium)
// IC-705 split-mode toggle (only shown for IC-705)
if (isIcom) {
Row(
horizontalArrangement = Arrangement.SpaceBetween,
verticalAlignment = Alignment.CenterVertically,
modifier = Modifier.fillMaxWidth()
) {
Column(modifier = Modifier.weight(1f)) {
Text("Split mode (single radio)", fontWeight = FontWeight.Medium)
Text(
text = "Use VFO-A/B split on one IC-705 instead of two radios",
fontSize = 12.sp,
color = androidx.compose.material3.MaterialTheme.colorScheme.onSurfaceVariant
)
}
Switch(
checked = splitMode.value,
onCheckedChange = { splitMode.value = it },
enabled = enabled.value
)
}
Spacer(modifier = Modifier.height(6.dp))
}
// TX Radio (always shown; in split mode this is the single IC-705)
val txLabel = if (isSingleRadio) "Radio (IC-705)" else "TX Radio (Uplink)"
Text(txLabel, fontWeight = FontWeight.Medium)
if (txAddress.value.isNotBlank()) {
Text("${txName.value} - ${txAddress.value}", fontSize = 13.sp)
Text("${txName.value} — ${txAddress.value}", fontSize = 13.sp)
}
CardButton(
onClick = { selectingFor.value = "tx" },
text = "Select TX Device",
onClick = { selectingFor.value = "tx" },
text = if (isSingleRadio) "Select Device" else "Select TX Device",
modifier = Modifier.fillMaxWidth()
)
Spacer(modifier = Modifier.height(6.dp))
// RX Radio selection
Text("RX Radio (Downlink)", fontWeight = androidx.compose.ui.text.font.FontWeight.Medium)
if (rxAddress.value.isNotBlank()) {
Text("${rxName.value} - ${rxAddress.value}", fontSize = 13.sp)
}
CardButton(
onClick = { selectingFor.value = "rx" },
text = "Select RX Device",
modifier = Modifier.fillMaxWidth()
)
// Paired devices list (shown when selecting)
if (selectingFor.value.isNotBlank()) {
Spacer(modifier = Modifier.height(6.dp))
Text(
text = "Paired Bluetooth Devices:",
fontWeight = androidx.compose.ui.text.font.FontWeight.Medium,
color = androidx.compose.material3.MaterialTheme.colorScheme.primary
// RX Radio (hidden in split mode — the same radio handles both)
if (!isSingleRadio) {
Text("RX Radio (Downlink)", fontWeight = FontWeight.Medium)
if (rxAddress.value.isNotBlank()) {
Text("${rxName.value} — ${rxAddress.value}", fontSize = 13.sp)
}
CardButton(
onClick = { selectingFor.value = "rx" },
text = "Select RX Device",
modifier = Modifier.fillMaxWidth()
)
Spacer(modifier = Modifier.height(6.dp))
}
// Paired device picker (inline, shown while selecting)
if (selectingFor.value.isNotBlank()) {
Text(
text = "Paired Bluetooth Devices:",
fontWeight = FontWeight.Medium,
color = androidx.compose.material3.MaterialTheme.colorScheme.primary
)
Spacer(modifier = Modifier.height(2.dp))
if (pairedDevices.isEmpty()) {
Text("No paired devices found. Pair your BT adapter in Android Bluetooth settings first.")
Text(
"No paired devices found. Pair your BT adapter in Android Bluetooth settings first.",
fontSize = 13.sp
)
} else {
pairedDevices.forEach { (name, address) ->
androidx.compose.material3.Surface(
@@ -554,17 +608,17 @@ fun RadioControlDialog(
.clickable {
if (selectingFor.value == "tx") {
txAddress.value = address
txName.value = name
txName.value = name
} else {
rxAddress.value = address
rxName.value = name
rxName.value = name
}
selectingFor.value = ""
}
.padding(vertical = 4.dp)
) {
Row(
modifier = Modifier.fillMaxWidth(),
modifier = Modifier.fillMaxWidth(),
horizontalArrangement = Arrangement.SpaceBetween
) {
Text(name, modifier = Modifier.weight(1f))
@@ -573,23 +627,19 @@ fun RadioControlDialog(
}
}
}
Spacer(modifier = Modifier.height(6.dp))
}
Spacer(modifier = Modifier.height(6.dp))
Row(
horizontalArrangement = Arrangement.SpaceBetween,
verticalAlignment = Alignment.CenterVertically,
modifier = Modifier.fillMaxWidth()
) {
Text("Baud Rate:")
Row(horizontalArrangement = Arrangement.spacedBy(4.dp)) {
baudRates.forEach { rate ->
CardButton(
onClick = { baudRate.intValue = rate },
text = if (rate == baudRate.intValue) "[$rate]" else rate.toString(),
modifier = Modifier
)
}
// Baud rate — FlowRow so all chips fit on narrow screens
Text("Baud Rate:", fontWeight = FontWeight.Medium)
FlowRow(horizontalArrangement = Arrangement.spacedBy(4.dp)) {
baudRates.forEach { rate ->
FilterChip(
selected = rate == baudRate.intValue,
onClick = { baudRate.intValue = rate },
label = { Text(rate.toString(), fontSize = 12.sp) },
enabled = enabled.value
)
}
}
}