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uv-k1-k5v3-firmware-custom/App/apps/app_overlay.c
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/* Copyright 2026 Armel F4HWN
* https://github.com/armel
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#include "apps/app_overlay.h"
#ifdef ENABLE_FEAT_F4HWN_OVERLAY_APPS
#include <string.h>
#include <stddef.h> /* offsetof */
#include "py32f0xx.h"
#include "driver/bk4819.h"
#include "driver/bk4819-regs.h"
#ifdef ENABLE_FMRADIO
#include "driver/bk1080.h"
#include "app/fm.h"
#endif
#include "driver/keyboard.h"
#include "driver/mb_flash.h"
#include "driver/py25q16.h"
#include "driver/st7565.h"
#include "driver/system.h"
#include "driver/backlight.h"
#ifdef ENABLE_FEAT_F4HWN_K5VIEWER
#include "k5viewer.h"
#endif
#include "app/app.h"
#include "ui/helper.h"
#include "ui/main.h"
#include "ui/status.h"
#include "board.h"
#include "audio.h"
#include "dcs.h"
#include "functions.h"
#include "frequencies.h"
#include "radio.h"
#include "helper/battery.h"
#include "settings.h"
#include "misc.h" /* dBmCorrTable */
_Static_assert(sizeof(app_header_t) == 64, "app_header_t must be 64 bytes");
_Static_assert(sizeof(app_api_t) <= UINT16_MAX, "app_api_t size field overflow");
enum {
APP_AVAILABLE_CAPS = 0u
#ifdef ENABLE_FMRADIO
| APP_CAP_FM
#endif
#ifdef ENABLE_FEAT_F4HWN_OVERLAY_TRIVFO
| APP_CAP_TRIVFO
#endif
#ifdef ENABLE_FEAT_F4HWN_OVERLAY_BEAM
| APP_CAP_BEAM
#endif
};
/* ---- ABI wrappers: the few resident calls that are not a direct signature match ---- */
static bool app_allow_screen_saver;
static bool app_screen_saver_wake;
static void app_backlight_on(void)
{
APP_ModalScreenSaverExit();
BACKLIGHT_TurnOn();
}
static void app_backlight_update(void)
{
APP_ModalBacklightTick(app_allow_screen_saver);
}
static uint8_t app_get_key(void)
{
#ifdef ENABLE_FEAT_F4HWN_K5VIEWER
/* Overlay apps run synchronously outside APP_Update(). Keep serial key
* injection alive while an app owns the foreground loop. */
K5VIEWER_ParseInput();
#endif
const KEY_Code_t key = KEYBOARD_GetKey();
if (app_screen_saver_wake) {
if (key == KEY_INVALID)
app_screen_saver_wake = false;
return APP_KEY_INVALID;
}
if (!APP_IsScreenSaverDisplayed())
return (uint8_t)key;
if (key == KEY_INVALID)
return APP_KEY_SAVER;
app_backlight_on();
if (key == KEY_PTT)
return APP_KEY_PTT;
app_screen_saver_wake = true;
return APP_KEY_WAKE;
}
#ifdef ENABLE_FEAT_F4HWN_K5VIEWER
static void app_blit_full(void)
{
ST7565_BlitFullScreen();
/* The normal loop mirrors completed frames after drawing. Overlay apps
* bypass that loop, so publish the frame from this ABI wrapper. */
K5VIEWER_Update(false);
}
#endif
static int8_t app_nav_dir(uint8_t key)
{
int8_t direction;
if (key == KEY_UP)
direction = 1;
else if (key == KEY_DOWN)
direction = -1;
else
return 0;
return gEeprom.SET_NAV ? direction : -direction;
}
static void app_led(bool on) { BK4819_ToggleGpioOut(BK4819_GPIO6_PIN2_GREEN, on); }
static void app_play_tone(uint16_t tone, uint16_t ms)
{
BK4819_PrepareToPlayTone(true);
AUDIO_AudioPathOn();
BK4819_PlayToneRaw(tone, ms);
AUDIO_AudioPathOff();
}
#ifdef ENABLE_FEAT_F4HWN_OVERLAY_TRIVFO
/* ---- optional resident triple-VFO engine --------------------------------
* The overlay owns the UI and key timing, while this resident engine owns all
* radio details. Keeping VFO_Info_t and BK4819 sequencing on this side makes
* the app independent of feature-dependent firmware layouts. */
#define APP_TRIVFO_COUNT 3u
#define APP_TRIVFO_TUNE_TICKS 5u /* 100 ms at one tick / 20 ms */
#define APP_TRIVFO_TX_HOLD_TICKS 125u /* keep the existing 2.5 s TX return */
static VFO_Info_t app_trivfo_c;
static VFO_Info_t *app_trivfo_saved_rx;
static VFO_Info_t *app_trivfo_saved_tx;
static VFO_Info_t *app_trivfo_saved_current;
static uint8_t app_trivfo_selected;
static uint8_t app_trivfo_pre_rx_selected;
static uint8_t app_trivfo_current;
static uint8_t app_trivfo_settle;
static uint16_t app_trivfo_hold;
static uint8_t app_trivfo_candidate_wait;
static uint32_t app_trivfo_tx_ticks;
static bool app_trivfo_running;
static bool app_trivfo_receiving;
static bool app_trivfo_transmitting;
static bool app_trivfo_sql_open;
static bool app_trivfo_ctcss_ok;
static bool app_trivfo_cdcss_ok;
static bool app_trivfo_ab_dirty;
static bool app_trivfo_restore_selection;
static bool app_trivfo_onepush_stop_armed;
static uint8_t app_trivfo_freq_dirty;
static void app_trivfo_end_tx(void);
static VFO_Info_t *app_trivfo_vfo(uint8_t vfo)
{
return vfo < 2u ? &gEeprom.VfoInfo[vfo] : &app_trivfo_c;
}
static bool app_trivfo_load_memory(VFO_Info_t *vfo, uint16_t channel)
{
ChannelScanDisplayInfo_t info;
if (!IS_MR_CHANNEL(channel) ||
!SETTINGS_FetchChannelScanDisplayInfo(channel, &info))
return false;
RADIO_InitInfo(vfo, channel, info.rx.Frequency);
vfo->freq_config_RX = info.rx;
vfo->freq_config_TX = info.tx;
vfo->TX_OFFSET_FREQUENCY = info.offset;
vfo->StepFrequency = info.stepFrequency;
vfo->STEP_SETTING = info.stepSetting;
vfo->Modulation = info.modulation;
vfo->TX_OFFSET_FREQUENCY_DIRECTION = info.txOffsetFrequencyDirection;
vfo->OUTPUT_POWER = info.outputPower;
vfo->FrequencyReverse = info.frequencyReverse;
vfo->CHANNEL_BANDWIDTH = info.channelBandwidth;
vfo->BUSY_CHANNEL_LOCK = info.busyChannelLock;
vfo->TX_LOCK = info.txLock;
#ifdef ENABLE_DTMF_CALLING
vfo->DTMF_DECODING_ENABLE = info.dtmfDecodingEnable;
#endif
vfo->DTMF_PTT_ID_TX_MODE = info.dtmfPttIdTxMode;
vfo->Band = FREQUENCY_GetBand(vfo->freq_config_RX.Frequency);
vfo->Compander = MR_GetChannelAttributes(channel)->compander;
SETTINGS_FetchChannelName(vfo->Name, channel);
vfo->pRX = vfo->FrequencyReverse ? &vfo->freq_config_TX : &vfo->freq_config_RX;
vfo->pTX = vfo->FrequencyReverse ? &vfo->freq_config_RX : &vfo->freq_config_TX;
RADIO_ConfigureSquelchAndOutputPower(vfo);
return true;
}
static uint16_t app_trivfo_next_channel(uint16_t channel, int8_t direction, uint8_t vfo)
{
if (direction == 0)
direction = 1;
channel = RADIO_FindNextChannel((uint16_t)(channel + direction), direction,
false, vfo < 2u ? vfo : 0u);
return channel;
}
static void app_trivfo_tune(uint8_t vfo)
{
app_trivfo_current = vfo % APP_TRIVFO_COUNT;
gRxVfo = app_trivfo_vfo(app_trivfo_current);
gCurrentVfo = gRxVfo;
app_trivfo_receiving = false;
app_trivfo_sql_open = false;
app_trivfo_ctcss_ok = false;
app_trivfo_cdcss_ok = false;
app_trivfo_candidate_wait = 0;
app_trivfo_settle = APP_TRIVFO_TUNE_TICKS;
AUDIO_AudioPathOff();
gEnableSpeaker = false;
RADIO_SetupRegisters(false);
FUNCTION_Init();
}
static void app_trivfo_poll_irq(void)
{
while (BK4819_ReadRegister(BK4819_REG_0C) & 1u) {
BK4819_WriteRegister(BK4819_REG_02, 0);
const uint16_t irq = BK4819_ReadRegister(BK4819_REG_02);
if (irq & BK4819_REG_02_SQUELCH_LOST) app_trivfo_sql_open = true;
if (irq & BK4819_REG_02_SQUELCH_FOUND) {
app_trivfo_sql_open = false;
app_trivfo_ctcss_ok = false;
app_trivfo_cdcss_ok = false;
}
/* A BK4819 CSS interrupt is a transition, not a persistent level.
* Depending on the silicon revision and the configured polarity, the
* first transition can be reported as FOUND or LOST. MAIN keeps the
* decoder state across both transitions; do the same here and use any
* CSS transition as proof that the configured decoder has acquired the
* signal. A wrong CTCSS/DCS does not generate either transition. */
if (irq & (BK4819_REG_02_CTCSS_LOST | BK4819_REG_02_CTCSS_FOUND))
app_trivfo_ctcss_ok = true;
if (irq & (BK4819_REG_02_CDCSS_LOST | BK4819_REG_02_CDCSS_FOUND))
app_trivfo_cdcss_ok = true;
}
}
static bool app_trivfo_qualified(void)
{
const VFO_Info_t *vfo = app_trivfo_vfo(app_trivfo_current);
if (!app_trivfo_sql_open)
return false;
if (vfo->Modulation != MODULATION_FM || vfo->pRX->CodeType == CODE_TYPE_OFF)
return true;
if (vfo->pRX->CodeType == CODE_TYPE_CONTINUOUS_TONE)
return app_trivfo_ctcss_ok;
return app_trivfo_cdcss_ok;
}
static uint16_t app_trivfo_enter(uint16_t c_channel)
{
app_trivfo_saved_rx = gRxVfo;
app_trivfo_saved_tx = gTxVfo;
app_trivfo_saved_current = gCurrentVfo;
if (!IS_MR_CHANNEL(c_channel) ||
!SETTINGS_FetchChannelScanInfo(c_channel, NULL, NULL)) {
uint16_t start = IS_MR_CHANNEL(gEeprom.ScreenChannel[1])
? gEeprom.ScreenChannel[1] : gEeprom.MrChannel[1];
c_channel = app_trivfo_next_channel(start, 1, 2);
}
if (c_channel == 0xFFFFu || !app_trivfo_load_memory(&app_trivfo_c, c_channel)) {
c_channel = RADIO_FindNextChannel(MR_CHANNEL_FIRST, RADIO_CHANNEL_UP, false, 0);
if (c_channel != 0xFFFFu)
app_trivfo_load_memory(&app_trivfo_c, c_channel);
}
const uint8_t initial_vfo = gEeprom.TX_VFO < 2u ? gEeprom.TX_VFO : 0u;
app_trivfo_selected = initial_vfo;
app_trivfo_pre_rx_selected = initial_vfo;
app_trivfo_restore_selection = false;
app_trivfo_hold = 0;
app_trivfo_running = true;
app_trivfo_transmitting = false;
app_trivfo_onepush_stop_armed = false;
app_trivfo_ab_dirty = false;
app_trivfo_freq_dirty = 0;
app_trivfo_tune(initial_vfo);
return c_channel;
}
static void app_trivfo_leave(void)
{
if (!app_trivfo_running)
return;
if (app_trivfo_transmitting)
app_trivfo_end_tx();
AUDIO_AudioPathOff();
gEnableSpeaker = false;
app_trivfo_running = false;
app_trivfo_transmitting = false;
gRxVfo = app_trivfo_saved_rx;
gTxVfo = app_trivfo_saved_tx;
gCurrentVfo = app_trivfo_saved_current;
}
static void app_trivfo_get(uint8_t index, app_trivfo_info_t *info)
{
if (info == NULL || index >= APP_TRIVFO_COUNT)
return;
const VFO_Info_t *vfo = app_trivfo_vfo(index);
memset(info, 0, sizeof(*info));
info->frequency = vfo->pRX->Frequency;
info->channel = vfo->CHANNEL_SAVE;
info->step = vfo->StepFrequency;
if (vfo->pRX->CodeType == CODE_TYPE_CONTINUOUS_TONE)
info->code_value = CTCSS_Options[vfo->pRX->Code];
else if (vfo->pRX->CodeType == CODE_TYPE_DIGITAL ||
vfo->pRX->CodeType == CODE_TYPE_REVERSE_DIGITAL)
info->code_value = DCS_Options[vfo->pRX->Code];
info->rssi_dbm = (index == app_trivfo_current)
? BK4819_GetRSSI_dBm() + dBmCorrTable[vfo->Band] : -160;
info->modulation = vfo->Modulation;
info->power = vfo->OUTPUT_POWER == OUTPUT_POWER_USER
? (uint8_t)(gSetting_set_pwr + 1u) : vfo->OUTPUT_POWER;
info->bandwidth = vfo->CHANNEL_BANDWIDTH;
#ifdef ENABLE_FEAT_F4HWN_NARROWER
if (info->bandwidth == BANDWIDTH_NARROW && gSetting_set_nfm == 1)
info->bandwidth++;
#endif
info->code_type = vfo->pRX->CodeType;
info->code = vfo->pRX->Code;
info->offset_direction = (vfo->freq_config_RX.Frequency != vfo->freq_config_TX.Frequency)
? vfo->TX_OFFSET_FREQUENCY_DIRECTION : 0u;
info->reverse = vfo->FrequencyReverse;
info->squelch = gEeprom.SQUELCH_LEVEL;
if (index == app_trivfo_selected) info->flags |= APP_TRIVFO_SELECTED;
if (index == app_trivfo_current) info->flags |= APP_TRIVFO_TUNED;
if (index == app_trivfo_current && app_trivfo_receiving) info->flags |= APP_TRIVFO_RECEIVING;
if (index == app_trivfo_selected && app_trivfo_transmitting) info->flags |= APP_TRIVFO_TX;
if (vfo->OUTPUT_POWER == OUTPUT_POWER_USER) info->flags |= APP_TRIVFO_USER_POWER;
#ifdef ENABLE_AUDIO_BAR
if (gSetting_mic_bar) info->flags |= APP_TRIVFO_AUDIO_BAR;
#endif
if (gSetting_set_gui) info->flags |= APP_TRIVFO_GUI_CLASSIC;
if (gSetting_set_ptt_session) info->flags |= APP_TRIVFO_PTT_ONEPUSH;
if (IS_MR_CHANNEL(vfo->CHANNEL_SAVE))
memcpy(info->name, vfo->Name, sizeof(info->name) - 1u);
}
static void app_trivfo_select(uint8_t vfo)
{
if (vfo < APP_TRIVFO_COUNT)
app_trivfo_selected = vfo;
}
static uint16_t app_trivfo_step(uint8_t index, int8_t direction)
{
if (index >= APP_TRIVFO_COUNT || app_trivfo_transmitting)
return 0xFFFFu;
VFO_Info_t *vfo = app_trivfo_vfo(index);
if (IS_FREQ_CHANNEL(vfo->CHANNEL_SAVE)) {
if (direction == 0)
direction = 1;
const uint32_t frequency = APP_SetFrequencyByStep(vfo, direction);
if (RX_freq_check(frequency) < 0)
return 0xFFFFu;
vfo->freq_config_RX.Frequency = frequency;
RADIO_ApplyOffset(vfo);
RADIO_ConfigureSquelchAndOutputPower(vfo);
if (index < 2u)
app_trivfo_freq_dirty |= (uint8_t)(1u << index);
app_trivfo_hold = 0;
app_trivfo_tune(index);
return vfo->CHANNEL_SAVE;
}
uint16_t base = IS_MR_CHANNEL(vfo->CHANNEL_SAVE) ? vfo->CHANNEL_SAVE
: (index < 2u ? gEeprom.MrChannel[index] : gEeprom.MrChannel[1]);
const uint16_t channel = app_trivfo_next_channel(base, direction, index);
if (channel == 0xFFFFu)
return channel;
if (index < 2u) {
gEeprom.ScreenChannel[index] = channel;
gEeprom.MrChannel[index] = channel;
RADIO_ConfigureChannel(index, VFO_CONFIGURE_RELOAD);
app_trivfo_ab_dirty = true;
} else {
app_trivfo_load_memory(&app_trivfo_c, channel);
}
app_trivfo_hold = 0;
app_trivfo_tune(index);
return channel;
}
static void app_trivfo_end_tx(void)
{
if (!app_trivfo_transmitting)
return;
RADIO_SendEndOfTransmission();
app_trivfo_transmitting = false;
app_trivfo_onepush_stop_armed = false;
BK4819_ToggleGpioOut(BK4819_GPIO5_PIN1_RED, false);
app_trivfo_hold = APP_TRIVFO_TX_HOLD_TICKS;
app_trivfo_tune(app_trivfo_selected);
}
static uint8_t app_trivfo_tick(void)
{
if (!app_trivfo_running)
return APP_TRIVFO_SCAN;
if (app_trivfo_transmitting) {
const uint32_t timeout = ((uint32_t)gEeprom.TX_TIMEOUT_TIMER + 1u) * 250u;
if (++app_trivfo_tx_ticks >= timeout) {
app_trivfo_end_tx();
return APP_TRIVFO_HOLD;
}
return APP_TRIVFO_TX_STATE;
}
app_trivfo_poll_irq();
if (app_trivfo_settle > 0) {
app_trivfo_settle--;
return APP_TRIVFO_SCAN;
}
const bool qualified = app_trivfo_qualified();
if (qualified) {
app_trivfo_hold = 0;
if (!app_trivfo_receiving) {
if (app_trivfo_selected != app_trivfo_current) {
app_trivfo_pre_rx_selected = app_trivfo_selected;
app_trivfo_restore_selection = true;
app_trivfo_selected = app_trivfo_current;
}
app_trivfo_receiving = true;
AUDIO_AudioPathOn();
gEnableSpeaker = true;
BK4819_SetRxAudioGain();
/* BK4819_SetupSquelch() ends by selecting AF_MUTE. Mirror
* APP_StartListening(): restore the channel demodulator only once
* the carrier/CSS has qualified. */
RADIO_SetModulation(gRxVfo->Modulation);
BK4819_ToggleGpioOut(BK4819_GPIO6_PIN2_GREEN, true);
}
return APP_TRIVFO_RX;
}
if (app_trivfo_receiving) {
app_trivfo_receiving = false;
AUDIO_AudioPathOff();
gEnableSpeaker = false;
BK4819_ToggleGpioOut(BK4819_GPIO6_PIN2_GREEN, false);
/* Use the same receive-response dwell as resident DWR. The resident
* value is expressed in 10 ms ticks; Triple VFO ticks every 20 ms. */
app_trivfo_hold = (dual_watch_count_after_2_10ms + 1u) / 2u;
app_trivfo_candidate_wait = 50u;
}
if (app_trivfo_hold > 0) {
app_trivfo_hold--;
if (app_trivfo_hold == 0 && app_trivfo_restore_selection) {
app_trivfo_selected = app_trivfo_pre_rx_selected;
app_trivfo_restore_selection = false;
}
return APP_TRIVFO_HOLD;
}
/* Like resident dual watch, give a coded carrier time to acquire its CSS.
* A wrong tone/code must not monopolise the receiver indefinitely. */
if (app_trivfo_sql_open && app_trivfo_candidate_wait < 50u) {
app_trivfo_candidate_wait++;
return APP_TRIVFO_HOLD;
}
app_trivfo_tune((uint8_t)((app_trivfo_current + 1u) % APP_TRIVFO_COUNT));
return APP_TRIVFO_SCAN;
}
static uint8_t app_trivfo_ptt(bool pressed)
{
if (!app_trivfo_running)
return 1;
if (!pressed) {
if (!app_trivfo_transmitting)
return 0;
/* ONEPUSH mirrors the resident PTT sequence: the first release keeps
* TX keyed; the release following the second press ends TX. */
if (gSetting_set_ptt_session && !app_trivfo_onepush_stop_armed)
return 0;
app_trivfo_end_tx();
return 0;
}
if (app_trivfo_transmitting) {
if (gSetting_set_ptt_session)
app_trivfo_onepush_stop_armed = true;
return 0;
}
VFO_Info_t *vfo = app_trivfo_vfo(app_trivfo_selected);
if ((TX_freq_check(vfo->pTX->Frequency) != 0 && vfo->TX_LOCK) ||
vfo->Modulation != MODULATION_FM ||
(vfo->BUSY_CHANNEL_LOCK && app_trivfo_receiving) ||
gBatteryDisplayLevel == 0 || gBatteryDisplayLevel > 6)
return 1;
AUDIO_AudioPathOff();
gEnableSpeaker = false;
BK4819_ToggleGpioOut(BK4819_GPIO6_PIN2_GREEN, false);
gRxVfo = gTxVfo = gCurrentVfo = vfo;
RADIO_SetTxParameters();
BK4819_ToggleGpioOut(BK4819_GPIO5_PIN1_RED, true);
BK4819_DisableScramble();
app_trivfo_current = app_trivfo_selected;
app_trivfo_receiving = false;
app_trivfo_transmitting = true;
app_trivfo_onepush_stop_armed = false;
app_trivfo_tx_ticks = 0;
return 0;
}
#endif
#ifdef ENABLE_FEAT_F4HWN_OVERLAY_BEAM
/* ---- optional BEAM radio/channel bridge -----------------------------------
* The modal app owns the packet format, CRC, UI and state machine. Resident
* code only translates the stable ABI channel structure and performs the FSK
* operations which depend on VFO_Info_t and the BK4819 driver. */
static VFO_Info_t app_beam_vfo;
static uint8_t app_beam_fsk_index;
static uint16_t app_beam_pending_channel;
static bool app_beam_dirty;
static void app_beam_prepare(void)
{
const uint16_t channel = FREQ_CHANNEL_FIRST + BAND6_400MHz;
RADIO_InitInfo(&app_beam_vfo, channel, DEFAULT_FREQ);
app_beam_vfo.CHANNEL_BANDWIDTH = BANDWIDTH_NARROW;
app_beam_vfo.OUTPUT_POWER = OUTPUT_POWER_LOW1;
RADIO_ConfigureSquelchAndOutputPower(&app_beam_vfo);
gRxVfo = &app_beam_vfo;
gTxVfo = &app_beam_vfo;
gCurrentVfo = &app_beam_vfo;
RADIO_SetupRegisters(true);
BK4819_SetupAircopy();
BK4819_ResetFSK();
app_beam_fsk_index = 0;
}
static void app_beam_leave(void)
{
BK4819_ResetFSK();
}
/* Wire<->VFO fields that are a plain one-byte copy in BOTH directions. Fields
* that differ in width (frequency, offset, band) or are enum-typed on the VFO
* side (modulation, code types, PTT-id) are excluded: enums are int-sized here
* (no -fshort-enums), so a byte copy would truncate them. Those stay as the
* explicit width-converting assignments below. Driving the byte fields from one
* table collapses two near-identical copy blocks into a single shared loop. */
#ifdef ENABLE_DTMF_CALLING
#define APP_BEAM_BYTE_FIELDS_DTMF(F) F(dtmf_decoding_enable, DTMF_DECODING_ENABLE)
#else
#define APP_BEAM_BYTE_FIELDS_DTMF(F)
#endif
#define APP_BEAM_BYTE_FIELDS(F) \
F(rx_code, freq_config_RX.Code) \
F(tx_code, freq_config_TX.Code) \
F(tx_offset_direction, TX_OFFSET_FREQUENCY_DIRECTION) \
F(tx_lock, TX_LOCK) \
F(busy_channel_lock, BUSY_CHANNEL_LOCK) \
F(output_power, OUTPUT_POWER) \
F(channel_bandwidth, CHANNEL_BANDWIDTH) \
F(scanlist, SCANLIST_PARTICIPATION) \
F(compander, Compander) \
APP_BEAM_BYTE_FIELDS_DTMF(F)
typedef struct { uint8_t wire_off, vfo_off; } app_beam_byte_map_t;
#define APP_BEAM_MAP_ROW(w, v) { offsetof(app_beam_channel_t, w), offsetof(VFO_Info_t, v) },
static const app_beam_byte_map_t app_beam_byte_map[] = {
APP_BEAM_BYTE_FIELDS(APP_BEAM_MAP_ROW)
};
#undef APP_BEAM_MAP_ROW
/* Widening either side of a mapped field must fail to compile here rather than
* silently truncate through the byte copy. */
#define APP_BEAM_MAP_CHECK(w, v) \
_Static_assert(sizeof(((app_beam_channel_t *)0)->w) == 1u, #w); \
_Static_assert(sizeof(((VFO_Info_t *)0)->v) == 1u, #v);
APP_BEAM_BYTE_FIELDS(APP_BEAM_MAP_CHECK)
#undef APP_BEAM_MAP_CHECK
_Static_assert(sizeof(VFO_Info_t) <= 256u && sizeof(app_beam_channel_t) <= 256u,
"app_beam_byte_map offsets must fit in uint8_t");
/* Copy every mapped byte field in one direction (to_vfo = save, else export). */
static void app_beam_copy_bytes(app_beam_channel_t *wire, VFO_Info_t *vfo, bool to_vfo)
{
for (unsigned i = 0; i < sizeof(app_beam_byte_map) / sizeof(app_beam_byte_map[0]); i++) {
uint8_t *w = (uint8_t *)wire + app_beam_byte_map[i].wire_off;
uint8_t *v = (uint8_t *)vfo + app_beam_byte_map[i].vfo_off;
if (to_vfo) *v = *w;
else *w = *v;
}
}
static void app_beam_get(app_beam_channel_t *out)
{
if (out == NULL)
return;
memset(out, 0, sizeof(*out));
VFO_Info_t *vfo = &gEeprom.VfoInfo[gEeprom.TX_VFO];
app_beam_copy_bytes(out, vfo, false); /* plain one-byte fields */
out->rx_frequency = vfo->freq_config_RX.Frequency;
out->tx_offset_frequency = vfo->TX_OFFSET_FREQUENCY;
out->rx_codetype = vfo->freq_config_RX.CodeType;
out->tx_codetype = vfo->freq_config_TX.CodeType;
out->modulation = vfo->Modulation;
out->frequency_reverse = vfo->FrequencyReverse;
out->dtmf_ptt_id_mode = vfo->DTMF_PTT_ID_TX_MODE;
out->step_setting = vfo->STEP_SETTING;
out->band = vfo->Band;
if (IS_MR_CHANNEL(vfo->CHANNEL_SAVE))
SETTINGS_FetchChannelName(out->name, vfo->CHANNEL_SAVE);
else
memcpy(out->name, vfo->Name, sizeof(out->name));
}
static uint16_t app_beam_save(const app_beam_channel_t *in)
{
if (in == NULL)
return 0xFFFFu;
uint16_t channel = MR_CHANNEL_FIRST;
while (IS_MR_CHANNEL(channel) && RADIO_CheckValidChannel(channel, false, 0))
channel++;
if (!IS_MR_CHANNEL(channel))
return 0xFFFFu;
/* Reuse the temporary BEAM VFO as resident staging RAM. No external-flash
* write is allowed while the overlay still executes from that flash's
* 4 KiB sector cache. */
RADIO_InitInfo(&app_beam_vfo, channel, in->rx_frequency);
app_beam_copy_bytes((app_beam_channel_t *)in, &app_beam_vfo, true); /* in read-only here */
app_beam_vfo.TX_OFFSET_FREQUENCY = in->tx_offset_frequency;
app_beam_vfo.freq_config_RX.CodeType = in->rx_codetype;
app_beam_vfo.freq_config_TX.CodeType = in->tx_codetype;
app_beam_vfo.Modulation = in->modulation;
app_beam_vfo.FrequencyReverse = in->frequency_reverse;
app_beam_vfo.DTMF_PTT_ID_TX_MODE = in->dtmf_ptt_id_mode;
app_beam_vfo.STEP_SETTING = in->step_setting < STEP_N_ELEM ? in->step_setting : STEP_12_5kHz;
app_beam_vfo.StepFrequency = gStepFrequencyTable[app_beam_vfo.STEP_SETTING];
memcpy(app_beam_vfo.Name, in->name, sizeof(app_beam_vfo.Name));
app_beam_vfo.Name[sizeof(app_beam_vfo.Name) - 1u] = '\0';
app_beam_pending_channel = channel;
app_beam_dirty = true;
return channel;
}
/* Called only after the overlay has returned and its code no longer executes
* from the PY25Q16 sector cache. */
static void app_beam_commit(void)
{
if (!app_beam_dirty)
return;
app_beam_dirty = false;
const uint16_t channel = app_beam_pending_channel;
SETTINGS_SaveChannel(channel, gEeprom.TX_VFO, &app_beam_vfo, 3);
#ifndef ENABLE_KEEP_MEM_NAME
SETTINGS_SaveChannelName(channel, app_beam_vfo.Name);
#endif
gEeprom.MrChannel[gEeprom.TX_VFO] = channel;
gEeprom.ScreenChannel[gEeprom.TX_VFO] = channel;
RADIO_ConfigureChannel(gEeprom.TX_VFO, VFO_CONFIGURE_RELOAD);
RADIO_SelectVfos();
RADIO_SetupRegisters(true);
PY25Q16_InvalidateCache();
}
static void app_beam_send(uint16_t *packet)
{
if (packet == NULL)
return;
RADIO_SetTxParameters();
BK4819_SendFSKData(packet);
BK4819_SetupPowerAmplifier(0, 0);
BK4819_ToggleGpioOut(BK4819_GPIO1_PIN29_PA_ENABLE, false);
RADIO_SelectVfos();
RADIO_SetupRegisters(true);
}
static void app_beam_rx(bool start)
{
app_beam_fsk_index = 0;
if (start)
BK4819_PrepareFSKReceive();
else
BK4819_ResetFSK();
}
static uint8_t app_beam_rx_poll(uint16_t *packet)
{
if (packet == NULL)
return APP_BEAM_RX_ERROR;
while (BK4819_ReadRegister(BK4819_REG_0C) & 1u) {
BK4819_WriteRegister(BK4819_REG_02, 0);
const uint16_t irq = BK4819_ReadRegister(BK4819_REG_02);
if (irq & (BK4819_REG_02_FSK_FIFO_ALMOST_FULL | BK4819_REG_02_FSK_RX_FINISHED)) {
const unsigned words = (irq & BK4819_REG_02_FSK_RX_FINISHED)
? (app_beam_fsk_index < 36u ? 36u - app_beam_fsk_index : 0u)
: 4u;
for (unsigned i = 0; i < words; i++) {
const uint16_t word = BK4819_ReadRegister(BK4819_REG_5F);
if (app_beam_fsk_index < 36u)
packet[app_beam_fsk_index++] = word;
}
}
}
if (app_beam_fsk_index < 36u)
return APP_BEAM_RX_WAIT;
app_beam_fsk_index = 0;
const uint16_t status = BK4819_ReadRegister(BK4819_REG_0B);
BK4819_PrepareFSKReceive();
return (status & 0x0010u) ? APP_BEAM_RX_ERROR : APP_BEAM_RX_READY;
}
static void app_beam_draw(const char *status)
{
UI_DisplayStatus();
UI_DisplayMain();
#ifdef ENABLE_FEAT_F4HWN
const uint8_t line = (gEeprom.DUAL_WATCH == DUAL_WATCH_OFF &&
gEeprom.CROSS_BAND_RX_TX == CROSS_BAND_OFF) ? 5u : 3u;
#else
const uint8_t line = 3u;
#endif
memset(gFrameBuffer[line], 0, LCD_WIDTH);
UI_PrintStringSmallBold(status, 2, LCD_WIDTH - 1u, line);
}
#endif
/* ---- radio wrappers ---- */
static int16_t app_rssi_dbm(void) { return BK4819_GetRSSI_dBm() + dBmCorrTable[gRxVfo->Band]; }
static uint16_t app_bk_read(uint8_t r) { return BK4819_ReadRegister((BK4819_REGISTER_t)r); }
static void app_bk_write(uint8_t r, uint16_t v) { BK4819_WriteRegister((BK4819_REGISTER_t)r, v); }
static void app_set_af(uint8_t m) { BK4819_SetAF((BK4819_AF_Type_t)m); }
static void app_audio_path(bool on){ if (on) AUDIO_AudioPathOn(); else AUDIO_AudioPathOff(); }
static void app_prepare_tone(void) { BK4819_PrepareToPlayTone(true); }
static void app_play_tone_raw(uint16_t hz, uint16_t ms) { BK4819_PlayToneRaw(hz, ms); }
static void app_tones_off_rx(void) { BK4819_TurnsOffTones_TurnsOnRX(); }
static uint32_t app_rx_freq(void) { return gRxVfo->pRX->Frequency; }
/* ---- v2 config (deferred, flash-backed) ----
* Stored per app slot in the header sector, just after the 64-byte header. cfg_load
* reads flash at launch (ReadBuffer bypasses the overlay cache). cfg_save only stages
* into RAM - the app runs from the sector cache, so it cannot write flash itself; the
* loader commits the staged bytes to flash after the app returns (RMW preserves the
* slot header). Erasing/reinstalling a slot resets its config, which is intended. */
#define APP_CFG_OFFSET 0x40u /* config area within the header sector */
static uint8_t app_cfg_buf[16];
static uint8_t app_cfg_len; /* staged length; 0 = nothing to commit */
static uint8_t app_run_slot; /* slot of the app currently running */
static void app_cfg_load(uint8_t *buf, uint8_t len)
{
if (len > sizeof(app_cfg_buf)) len = sizeof(app_cfg_buf);
PY25Q16_ReadBuffer(APP_SLOT_BASE(app_run_slot) + APP_CFG_OFFSET, buf, len);
}
static void app_cfg_save(const uint8_t *buf, uint8_t len)
{
if (len > sizeof(app_cfg_buf)) len = sizeof(app_cfg_buf);
memcpy(app_cfg_buf, buf, len);
app_cfg_len = len; /* mark dirty; the loader commits after the app returns */
}
/* ---- v2 battery / backlight ---- */
static void app_draw_battery(void)
{
char t[8];
UI_DrawStatusBattery(gStatusLine, t);
}
static void app_battery_sample(void)
{
/* The resident scheduler deliberately skips ADC battery updates while the
* PA is keyed. Do the same for Triple VFO: sampling the loaded voltage as
* capacity made an 80% pack appear to fall immediately to about 16%. */
#ifdef ENABLE_FEAT_F4HWN_OVERLAY_TRIVFO
if (app_trivfo_transmitting)
return;
#endif
BATTERY_Sample(false);
}
/* ---- v2 TX (beacon) ---- */
static uint8_t app_tx_state(void)
{
if (TX_freq_check(gTxVfo->pTX->Frequency) != 0 && gTxVfo->TX_LOCK) return 1; /* TX disable */
if (gBatteryDisplayLevel == 0) return 2; /* battery low */
if (gBatteryDisplayLevel > 6) return 3; /* voltage high */
if (gTxVfo->Modulation != MODULATION_FM) return 1;
return 0;
}
static void app_tx_set_params(void) { RADIO_SetTxParameters(); }
static void app_tx_tone(uint16_t hz) { BK4819_TransmitTone(false, hz); }
static void app_tx_mute(bool on) { if (on) BK4819_EnterTxMute(); else BK4819_ExitTxMute(); }
static void app_tx_end(void) { BK4819_ToggleGpioOut(BK4819_GPIO1_PIN29_PA_ENABLE, false); RADIO_SetupRegisters(true); }
static uint32_t app_tx_freq(void) { return gTxVfo->pTX->Frequency; }
static void app_boot_callsign(char *buf, uint8_t len)
{
char raw[12]; uint8_t n = 0;
PY25Q16_ReadBuffer(SETTINGS_BOOT_MESSAGE_LINE1_ADDR, raw, sizeof(raw));
for (uint8_t i = 0; i < sizeof(raw) && (uint8_t)(n + 1) < len; i++) {
char c = raw[i];
if (c == '\0' || (uint8_t)c == 0xFFu) break;
if (c >= 'a' && c <= 'z') c -= 32;
if ((c >= 'A' && c <= 'Z') || (c >= '0' && c <= '9') || c == '/') buf[n++] = c;
}
buf[n] = '\0';
}
#ifdef ENABLE_FMRADIO
/* ---- v2 broadcast FM (BK1080), sovereign (no BK4819 dual-watch) ---- */
static void app_fm_enter(uint16_t f, uint8_t b)
{
BK1080_Init(f, b);
BK4819_PickRXFilterPathBasedOnFrequency(10320000); /* FM band antenna filter */
AUDIO_AudioPathOn();
gEnableSpeaker = true;
}
static void app_fm_exit(void)
{
AUDIO_AudioPathOff();
gEnableSpeaker = false;
BK1080_Init0();
BK4819_PickRXFilterPathBasedOnFrequency(gRxVfo->pRX->Frequency); /* restore RX filter */
}
static void app_fm_set_freq(uint16_t f, uint8_t b) { BK1080_SetFrequency(f, b); }
static uint16_t app_fm_lo(uint8_t b) { return BK1080_GetFreqLoLimit(b); }
static uint16_t app_fm_hi(uint8_t b) { return BK1080_GetFreqHiLimit(b); }
static void app_fm_mute(bool m) { BK1080_Mute(m); }
static int8_t app_fm_valid(uint16_t f, uint16_t lo) { return (int8_t)FM_CheckFrequencyLock(f, lo); }
static bool app_fm_dirty; /* deferred: SETTINGS_SaveFM committed after the app returns */
static void app_fm_state(app_fm_state_t *s, bool write)
{
if (write) {
gEeprom.FM_FrequencyPlaying = s->freq_playing;
gEeprom.FM_SelectedFrequency = s->sel_freq;
gEeprom.FM_Band = s->band & 3u;
gEeprom.FM_IsMrMode = s->is_mr ? true : false;
gEeprom.FM_SelectedChannel = s->sel_ch;
} else {
s->freq_playing = gEeprom.FM_FrequencyPlaying;
s->sel_freq = gEeprom.FM_SelectedFrequency;
s->band = gEeprom.FM_Band;
s->is_mr = gEeprom.FM_IsMrMode;
s->sel_ch = gEeprom.FM_SelectedChannel;
}
}
static void app_fm_commit(void) { app_fm_dirty = true; }
#endif
uint8_t APP_ValidateSlot(uint8_t slot, app_header_t *out_header)
{
if (slot >= APP_SLOT_COUNT)
return APP_ERR_SLOT;
app_header_t h;
PY25Q16_ReadBuffer(APP_SLOT_BASE(slot), &h, sizeof(h));
if (h.magic != APP_MAGIC) return APP_ERR_MAGIC;
if (h.hdr_version != APP_HDR_VERSION) return APP_ERR_MAGIC;
if (h.abi_major != APP_ABI_MAJOR || h.api_min == 0u ||
h.api_min > APP_API_LEVEL) return APP_ERR_ABI;
if (!(h.flags & APP_FLAG_COMMITTED)) return APP_ERR_NOT_COMMITTED;
if (h.required_caps & ~APP_AVAILABLE_CAPS) return APP_ERR_CAP;
if (h.code_size < 2u || h.code_size > APP_OVERLAY_MAX ||
(uint32_t)h.entry_off > h.code_size - 2u || /* leave room for a 2-byte Thumb insn */
(h.entry_off & 1u) != 0u) /* entry must be Thumb-aligned (even) */
return APP_ERR_SIZE;
if (out_header)
*out_header = h;
return APP_OK;
}
static bool app_shortcuts_cached;
static uint8_t app_shortcut_mask;
static uint8_t app_shortcut_slots[4];
static int8_t app_shortcut_index(uint8_t shortcut)
{
if (shortcut == APP_SHORTCUT_FM) return 0;
if (shortcut == APP_SHORTCUT_FOXHUNT) return 1;
if (shortcut == APP_SHORTCUT_BEACON) return 2;
if (shortcut == APP_SHORTCUT_BEAM) return 3;
return -1;
}
static void app_cache_shortcuts(void)
{
if (app_shortcuts_cached)
return;
app_shortcut_mask = 0;
const uint32_t overlay_vma = (uint32_t)PY25Q16_OverlayBuffer();
for (uint8_t slot = 0; slot < APP_SLOT_COUNT; slot++) {
app_header_t h;
if (APP_ValidateSlot(slot, &h) != APP_OK || h.link_vma != overlay_vma)
continue;
const uint8_t shortcut = (uint8_t)((h.flags & APP_FLAG_SHORTCUT_MASK) >>
APP_FLAG_SHORTCUT_SHIFT);
const int8_t index = app_shortcut_index(shortcut);
if (index >= 0) {
if (!(app_shortcut_mask & shortcut)) {
app_shortcut_mask |= shortcut;
app_shortcut_slots[index] = slot;
}
}
}
app_shortcuts_cached = true;
}
uint8_t APP_OverlayShortcutMask(void)
{
app_cache_shortcuts();
return app_shortcut_mask;
}
uint8_t APP_LaunchOverlayShortcut(uint8_t shortcut)
{
const int8_t index = app_shortcut_index(shortcut);
if (index < 0)
return APP_ERR_MAGIC;
app_cache_shortcuts();
return (app_shortcut_mask & shortcut)
? APP_LaunchOverlay(app_shortcut_slots[index])
: APP_ERR_MAGIC;
}
uint8_t APP_SlotInfo(uint8_t slot, app_header_t *out_header)
{
if (slot >= APP_SLOT_COUNT)
return APP_ERR_SLOT;
app_header_t h;
PY25Q16_ReadBuffer(APP_SLOT_BASE(slot), &h, sizeof(h));
if (out_header)
*out_header = h;
return (h.magic == APP_MAGIC) ? APP_OK : APP_ERR_MAGIC;
}
/* All services are immutable. Keeping the table in flash avoids rebuilding a
* roughly quarter-kilobyte automatic object on every launch and removes that
* object from the launcher's stack frame. Callbacks must also obey the ABI's
* no-external-flash-write rule while entry() is running. */
static const app_api_t app_api = {
.abi_major = APP_ABI_MAJOR,
.api_level = APP_API_LEVEL,
.api_size = sizeof(app_api_t),
.fb = gFrameBuffer,
.display_clear = UI_DisplayClear,
.status_clear = UI_StatusClear,
.draw_line = UI_DrawLineBuffer,
.draw_rect = UI_DrawRectangleBuffer,
.print_bold = UI_PrintStringSmallBold,
.print_tiny = GUI_DisplaySmallest,
#ifdef ENABLE_FEAT_F4HWN_K5VIEWER
.blit_full = app_blit_full,
#else
.blit_full = ST7565_BlitFullScreen,
#endif
.blit_line = ST7565_BlitLine,
.blit_status = ST7565_BlitStatusLine,
.get_key = app_get_key,
.delay_ms = SYSTEM_DelayMs,
.play_tone = app_play_tone,
.led = app_led,
.print_normal = UI_PrintStringSmallNormal,
.print_inverse = GUI_DisplaySmallestInverse,
.display_freq = UI_DisplayFrequency,
.rssi_dbm = app_rssi_dbm,
.bk_read = app_bk_read,
.bk_write = app_bk_write,
.set_agc = BK4819_SetAGC,
.set_af = app_set_af,
.audio_path = app_audio_path,
.prepare_tone = app_prepare_tone,
.play_tone_raw = app_play_tone_raw,
.tones_off_rx = app_tones_off_rx,
.rx_freq = app_rx_freq,
.cfg_load = app_cfg_load,
.cfg_save = app_cfg_save,
.draw_battery = app_draw_battery,
.battery_sample = app_battery_sample,
.backlight_on = app_backlight_on,
.backlight_update = app_backlight_update,
.audio_scope = UI_DisplayAudioScopeOverlay,
.status_line = gStatusLine,
.tx_state = app_tx_state,
.tx_set_params = app_tx_set_params,
.tx_tone = app_tx_tone,
.tx_mute = app_tx_mute,
.tx_end = app_tx_end,
.tx_freq = app_tx_freq,
.boot_callsign = app_boot_callsign,
.print_string = UI_PrintString,
#ifdef ENABLE_FMRADIO
.fm_enter = app_fm_enter,
.fm_exit = app_fm_exit,
.fm_set_freq = app_fm_set_freq,
.fm_lo = app_fm_lo,
.fm_hi = app_fm_hi,
.fm_mute = app_fm_mute,
.fm_valid = app_fm_valid,
.fm_channels = gFM_Channels,
.fm_state = app_fm_state,
.fm_commit = app_fm_commit,
#endif
.nav_dir = app_nav_dir,
#ifdef ENABLE_FEAT_F4HWN_OVERLAY_TRIVFO
.trivfo_enter = app_trivfo_enter,
.trivfo_leave = app_trivfo_leave,
.trivfo_get = app_trivfo_get,
.trivfo_select = app_trivfo_select,
.trivfo_step = app_trivfo_step,
.trivfo_tick = app_trivfo_tick,
.trivfo_ptt = app_trivfo_ptt,
#endif
#ifdef ENABLE_FEAT_F4HWN_OVERLAY_BEAM
.beam_prepare = app_beam_prepare,
.beam_leave = app_beam_leave,
.beam_get = app_beam_get,
.beam_save = app_beam_save,
.beam_send = app_beam_send,
.beam_rx = app_beam_rx,
.beam_rx_poll = app_beam_rx_poll,
.beam_draw = app_beam_draw,
#endif
};
uint8_t APP_LaunchOverlay(uint8_t slot)
{
app_header_t h;
uint8_t rc = APP_ValidateSlot(slot, &h);
if (rc != APP_OK)
return rc;
/* The app's absolute data references only resolve if it runs at the exact
* VMA it was linked for. The overlay VMA varies with the firmware's RAM
* layout (per preset/features), so the app records its link VMA and we
* refuse a mismatch cleanly instead of jumping into misaddressed code. */
uint8_t *ws = PY25Q16_OverlayBuffer();
if (h.link_vma != (uint32_t)ws)
return APP_ERR_VMA;
/* Repurpose the sector cache: drop any cached config sector, load the code
* straight in (ReadBuffer bypasses the cache), and verify it in RAM before
* trusting it. Zeroing first leaves the app's .bss clean. */
PY25Q16_InvalidateCache();
memset(ws, 0, APP_OVERLAY_MAX);
PY25Q16_ReadBuffer(APP_SLOT_BASE(slot) + APP_CODE_OFFSET, ws, h.code_size);
if (MB_Crc32Bytes(ws, h.code_size) != h.code_crc32) {
PY25Q16_InvalidateCache();
return APP_ERR_CRC;
}
/* Ensure every store to the overlay is visible before we branch into it. */
__DSB();
__ISB();
app_run_slot = slot; /* for cfg_load / cfg_save */
app_cfg_len = 0;
#ifdef ENABLE_FMRADIO
app_fm_dirty = false;
#endif
#ifdef ENABLE_FEAT_F4HWN_OVERLAY_BEAM
app_beam_dirty = false;
#endif
app_allow_screen_saver = (h.flags & APP_FLAG_SCREEN_SAVER) != 0;
app_screen_saver_wake = false;
APP_ModalScreenSaverExit();
BACKLIGHT_TurnOn();
#ifdef ENABLE_FEAT_F4HWN_K5VIEWER
/* The caller enters from a debounced key event, so the resident key state
* still contains that trigger while the modal app is running. Clear it so
* K5Viewer is allowed to mirror overlay frames immediately. */
gKeyReading0 = KEY_INVALID;
gKeyReading1 = KEY_INVALID;
#endif
/* Pin RX to the user-selected VFO before the app runs. Under dual watch
* gRxVfo is whichever VFO the receiver was parked on when F+7 was pressed,
* so an RF app (FoxHunt, a future S-meter, ...) would measure and display a
* VFO the user did not pick - sometimes A, sometimes B. Point RX at the
* selected (TX) VFO and retune so rx_freq(), rssi_dbm() and the tuned
* hardware all agree on the selected channel. gTxVfo is left untouched, so
* Beacon's tx_freq() stays correct too. State is saved and restored on
* return so the resident dual watch resumes cleanly. */
const uint8_t saved_rx_vfo = gEeprom.RX_VFO;
VFO_Info_t *const saved_rx = gRxVfo;
gEeprom.RX_VFO = gEeprom.TX_VFO;
gRxVfo = gTxVfo;
RADIO_SetupRegisters(true);
app_entry_t entry = (app_entry_t)(((uint32_t)ws + h.entry_off) | 1u);
entry(&app_api);
APP_ModalScreenSaverExit();
app_allow_screen_saver = false;
app_screen_saver_wake = false;
/* A defensive leave also covers an app returning through an error path. */
#ifdef ENABLE_FEAT_F4HWN_OVERLAY_TRIVFO
app_trivfo_leave();
#endif
/* Restore the resident RX/dual-watch tuning the app ran on top of. */
gEeprom.RX_VFO = saved_rx_vfo;
gRxVfo = saved_rx;
RADIO_SetupRegisters(true);
/* The overlay held app code, not a valid config sector. */
PY25Q16_InvalidateCache();
#ifdef ENABLE_FEAT_F4HWN_OVERLAY_BEAM
app_beam_commit();
#endif
#ifdef ENABLE_FEAT_F4HWN_OVERLAY_TRIVFO
if (app_trivfo_ab_dirty) {
SETTINGS_SaveVfoIndices();
app_trivfo_ab_dirty = false;
}
for (uint8_t i = 0; i < 2u; i++) {
if (app_trivfo_freq_dirty & (1u << i))
SETTINGS_SaveChannel(gEeprom.VfoInfo[i].CHANNEL_SAVE, i,
&gEeprom.VfoInfo[i], 1);
}
app_trivfo_freq_dirty = 0;
#endif
/* Commit any deferred config the app staged (RMW keeps the slot header). */
if (app_cfg_len) {
PY25Q16_WriteBuffer(APP_SLOT_BASE(slot) + APP_CFG_OFFSET, app_cfg_buf, app_cfg_len, false);
PY25Q16_InvalidateCache();
}
#ifdef ENABLE_FMRADIO
/* Commit the FM config + 48 channels the app edited (shared with resident FM). */
if (app_fm_dirty) {
app_fm_dirty = false;
SETTINGS_SaveFM();
PY25Q16_InvalidateCache();
}
#endif
return APP_OK;
}
uint8_t APP_SlotErase(uint8_t slot)
{
if (slot >= APP_SLOT_COUNT)
return APP_ERR_SLOT;
uint32_t base = APP_SLOT_BASE(slot);
for (uint32_t off = 0; off < APP_SLOT_STRIDE; off += APP_SECTOR_SIZE)
PY25Q16_SectorErase(base + off);
PY25Q16_InvalidateCache();
app_shortcuts_cached = false;
return APP_OK;
}
uint8_t APP_SlotWrite(uint8_t slot, uint32_t offset, const uint8_t *data, uint32_t len)
{
if (slot >= APP_SLOT_COUNT)
return APP_ERR_SLOT;
if (offset > APP_SLOT_STRIDE || len > APP_SLOT_STRIDE - offset)
return APP_ERR_SIZE;
PY25Q16_WriteBuffer(APP_SLOT_BASE(slot) + offset, data, len, false);
PY25Q16_InvalidateCache();
app_shortcuts_cached = false;
return APP_OK;
}
#endif /* ENABLE_FEAT_F4HWN_OVERLAY_APPS */
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