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uv-k1-k5v3-firmware-custom/App/app/rxtx_log.c
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/* Copyright 2026
*
* Licensed under the Apache License, Version 2.0.
*/
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG
#include <assert.h>
#include <stddef.h>
#include <string.h>
#include "app/common.h"
#include "app/generic.h"
#include "app/rxtx_log.h"
#include "audio.h"
#include "driver/bk4819.h"
#include "driver/py25q16.h"
#include "driver/st7565.h"
#include "external/printf/printf.h"
#include "helper/battery.h"
#include "misc.h"
#include "settings.h"
#include "ui/helper.h"
#include "ui/menu.h"
#include "ui/ui.h"
#define RXTX_LOG_FLASH_BASE 0x1E0000u
#define RXTX_LOG_FLASH_SECTOR_SIZE 0x1000u
#define RXTX_LOG_FLASH_SECTOR_COUNT 8u
#define RXTX_LOG_FLASH_SIZE (RXTX_LOG_FLASH_SECTOR_SIZE * RXTX_LOG_FLASH_SECTOR_COUNT)
#define RXTX_LOG_FLASH_END (RXTX_LOG_FLASH_BASE + RXTX_LOG_FLASH_SIZE)
#define RXTX_LOG_SLOT_COUNT (RXTX_LOG_FLASH_SIZE / sizeof(RXTX_LogFlashEntry_t))
#define RXTX_LOG_VIEW_CACHE_COUNT 7u
#define RXTX_LOG_VIEW_SCAN_BUDGET 8u
#define RXTX_LOG_VIEW_ANCHOR_STRIDE 32u
#define RXTX_LOG_VIEW_ANCHOR_COUNT ((RXTX_LOG_SLOT_COUNT + RXTX_LOG_VIEW_ANCHOR_STRIDE - 1u) / RXTX_LOG_VIEW_ANCHOR_STRIDE)
#define RXTX_LOG_ENTRY_COMMIT 0xA5u
#define RXTX_LOG_CHANNEL_NONE 0xFFFFu
#define RXTX_LOG_FLAG_TX (1u << 0)
// (1u << 1) was FLAG_NAMED, retired: names are resolved from the channel.
#define RXTX_LOG_FLAG_MONITOR (1u << 2)
#define RXTX_LOG_FLAG_SESSION (1u << 3)
#define RXTX_LOG_FILTER_ALL 0u
#define RXTX_LOG_FILTER_RX 1u
#define RXTX_LOG_FILTER_TX 2u
#define RXTX_LOG_SMETER_UNKNOWN 0xFFu
// battVolt stores centivolts above 6.00 V, saturating at 8.54 V (254).
#define RXTX_LOG_BATT_UNKNOWN 0xFFu
#define RXTX_LOG_BATT_OFFSET 600u
#define RXTX_LOG_DETAIL_DURATION 0u
#define RXTX_LOG_DETAIL_SMETER 1u
#define RXTX_LOG_DETAIL_BATT 2u
typedef struct __attribute__((packed)) {
// Display fields come first: they form the prefix mirrored by
// RXTX_LogEntry_t and copied to the view cache in one pass. Scan-only
// fields (sequence) sit past the prefix so RAM does not carry them.
uint32_t frequency;
uint32_t trafficSeq;
uint16_t durationSeconds;
uint16_t channel;
uint8_t flags;
uint8_t sMeter;
uint8_t battVolt;
// Padding byte, written as 0xFF like reserved. It keeps sequence 32-bit
// aligned: Cortex-M0+ forbids unaligned word access, so without it the
// compiler falls back to byte-wise loads/stores that cost flash.
uint8_t pad;
uint32_t sequence;
uint8_t reserved[10];
uint8_t crc;
uint8_t commit;
} RXTX_LogFlashEntry_t;
static_assert(sizeof(RXTX_LogFlashEntry_t) == 32);
static_assert(offsetof(RXTX_LogFlashEntry_t, sequence) % 4 == 0);
static_assert(RXTX_LOG_VIEW_ANCHOR_COUNT <= 32);
#define RXTX_LOG_ENTRY_COPY_SIZE offsetof(RXTX_LogFlashEntry_t, pad)
// RXTX_LogEntry_t (RAM) and RXTX_LogFlashEntry_t must stay byte-identical for
// the copied prefix.
static_assert(RXTX_LOG_ENTRY_COPY_SIZE == offsetof(RXTX_LogEntry_t, battVolt) + sizeof(((RXTX_LogEntry_t *)0)->battVolt));
static_assert(sizeof(RXTX_LogEntry_t) >= RXTX_LOG_ENTRY_COPY_SIZE);
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_K5VIEWER
// Both sizes are hardcoded in k5viewer.js (RF_LOG_ROW_SIZE and
// RF_LOG_PACKET_SIZE): pin them so a struct change breaks the build
// instead of the viewer.
static_assert(sizeof(RXTX_LogK5ViewerRow_t) == 25);
static_assert(RXTX_LOG_K5VIEWER_PACKET_SIZE == 1629);
static_assert(RXTX_LOG_K5VIEWER_HISTORY_PACKET_SIZE == 1600);
#endif
static RXTX_LogEntry_t gViewCache[RXTX_LOG_VIEW_CACHE_COUNT];
static uint16_t gViewCacheStart;
static uint8_t gViewCacheCount;
static uint8_t gViewCacheFilter;
static bool gViewCacheHasOlder;
static bool gViewCacheComplete;
static bool gViewScanActive;
static uint16_t gViewScanSlot;
static uint16_t gViewScanScanned;
static uint16_t gViewScanSkip;
static uint16_t gViewScanIndex;
static uint16_t gViewAnchorSlots[RXTX_LOG_VIEW_ANCHOR_COUNT];
static uint32_t gViewAnchorMask;
static uint8_t gViewAnchorFilter;
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
// Wrap-around scrolling state: cycling UP past the first row (or DOWN past
// the last) requires discovering the total row count with a dedicated scan.
static bool gViewCacheCircular;
static bool gViewScanDiscoverTotal;
static bool gViewScanWrapped;
static bool gViewTotalKnown;
static bool gViewWrapPending;
static uint16_t gViewTotalRows;
#endif
static bool gClearActive;
static bool gClearConfirmActive;
static uint8_t gClearSector;
static bool gMenuClearHandled;
static bool gLogHasTraffic;
static uint32_t gNextSequence;
static uint32_t gNextTrafficSequence;
static uint32_t gNextFlashAddress;
static bool gSessionActive;
static uint8_t gSessionFlags;
static uint32_t gSessionFrequency;
static uint16_t gSessionChannel;
static uint16_t gSessionTicks500ms;
static uint8_t gSessionSMeter;
static uint8_t gSessionBattVolt;
static bool gSuspended;
static uint16_t gLogCursor;
static uint8_t gLogFilter;
static uint8_t gLogDetailMode;
bool RXTX_LOG_IsEnabled(void)
{
return gEeprom.KEY_1_SHORT_PRESS_ACTION == ACTION_OPT_RXTX_LOG ||
gEeprom.KEY_1_LONG_PRESS_ACTION == ACTION_OPT_RXTX_LOG ||
gEeprom.KEY_2_SHORT_PRESS_ACTION == ACTION_OPT_RXTX_LOG ||
gEeprom.KEY_2_LONG_PRESS_ACTION == ACTION_OPT_RXTX_LOG ||
gEeprom.KEY_M_LONG_PRESS_ACTION == ACTION_OPT_RXTX_LOG;
}
static void RXTX_LOG_ResetActiveSession(void)
{
gSessionActive = false;
gSessionSMeter = RXTX_LOG_SMETER_UNKNOWN;
gSessionBattVolt = RXTX_LOG_BATT_UNKNOWN;
}
static uint8_t RXTX_LOG_Crc8(const void *data, uint16_t size)
{
const uint8_t *p = (const uint8_t *)data;
uint8_t crc = 0x5Au;
while (size-- > 0) {
crc ^= *p++;
for (uint8_t bit = 0; bit < 8; bit++) {
crc = (crc & 0x80u) ? (uint8_t)((crc << 1) ^ 0x31u) : (uint8_t)(crc << 1);
}
}
return crc;
}
static bool RXTX_LOG_IsValidFlashEntry(const RXTX_LogFlashEntry_t *entry)
{
if (entry->commit != RXTX_LOG_ENTRY_COMMIT ||
entry->sequence == 0xFFFFFFFFu ||
entry->frequency == 0xFFFFFFFFu)
return false;
return entry->crc == RXTX_LOG_Crc8(entry, sizeof(*entry) - 2);
}
static bool RXTX_LOG_IsBlankFlashEntry(const RXTX_LogFlashEntry_t *entry)
{
const uint8_t *p = (const uint8_t *)entry;
for (uint8_t i = 0; i < sizeof(*entry); i++) {
if (p[i] != 0xFFu)
return false;
}
return true;
}
static bool RXTX_LOG_IsTx(const RXTX_LogEntry_t *entry)
{
return (entry->flags & RXTX_LOG_FLAG_TX) != 0;
}
static bool RXTX_LOG_IsSessionMarker(const RXTX_LogEntry_t *entry)
{
return (entry->flags & RXTX_LOG_FLAG_SESSION) != 0;
}
static bool RXTX_LOG_IsTrafficFlags(uint8_t flags)
{
return (flags & RXTX_LOG_FLAG_SESSION) == 0;
}
static bool RXTX_LOG_MatchesFlags(uint8_t flags)
{
if ((flags & RXTX_LOG_FLAG_SESSION) != 0)
return gLogFilter == RXTX_LOG_FILTER_ALL;
if (gLogFilter == RXTX_LOG_FILTER_RX)
return (flags & RXTX_LOG_FLAG_TX) == 0;
if (gLogFilter == RXTX_LOG_FILTER_TX)
return (flags & RXTX_LOG_FLAG_TX) != 0;
return true;
}
const char *RXTX_LOG_GetFilterName(void)
{
static const char *const filterNames[] = {"ALL", "RX", "TX"};
return filterNames[gLogFilter];
}
static void RXTX_LOG_UpdateSessionMeters(void)
{
if (!gSessionActive)
return;
// Track the lowest battery voltage seen during the session: under TX
// load this is the sag, which rebounds as soon as the PA keys off.
const uint16_t volt = gBatteryVoltageAverage;
const uint8_t battVolt = volt <= RXTX_LOG_BATT_OFFSET
? 0
: (uint8_t)MIN(volt - RXTX_LOG_BATT_OFFSET, 254u);
if (battVolt < gSessionBattVolt)
gSessionBattVolt = battVolt;
if ((gSessionFlags & RXTX_LOG_FLAG_TX) != 0)
return;
const int16_t rssiDbm =
BK4819_GetRSSI_dBm()
+ dBmCorrTable[gRxVfo->Band];
const uint8_t sMeter = rssiDbm >= -93
? (uint8_t)(9u + MIN((uint8_t)(rssiDbm + 93), 40u))
: (rssiDbm < -141 ? 0 : (uint8_t)((rssiDbm + 147) / 6));
if (gSessionSMeter == RXTX_LOG_SMETER_UNKNOWN || sMeter > gSessionSMeter)
gSessionSMeter = sMeter;
}
static uint32_t RXTX_LOG_SlotToAddress(uint16_t slot)
{
return RXTX_LOG_FLASH_BASE + ((uint32_t)slot * sizeof(RXTX_LogFlashEntry_t));
}
static uint16_t RXTX_LOG_AddressToSlot(uint32_t address)
{
return (uint16_t)((address - RXTX_LOG_FLASH_BASE) / sizeof(RXTX_LogFlashEntry_t));
}
static uint16_t RXTX_LOG_PreviousSlot(uint16_t slot)
{
return slot == 0 ? (uint16_t)(RXTX_LOG_SLOT_COUNT - 1u) : (uint16_t)(slot - 1u);
}
static uint16_t RXTX_LOG_NextSlot(uint16_t slot)
{
return (uint16_t)(slot + 1u) >= RXTX_LOG_SLOT_COUNT ? 0 : (uint16_t)(slot + 1u);
}
static void RXTX_LOG_StartViewCacheScan(uint16_t start, bool circular, bool discoverTotal);
static void RXTX_LOG_StartCursorView(uint16_t cursor)
{
gLogCursor = cursor;
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
gViewWrapPending = false;
RXTX_LOG_StartViewCacheScan(cursor,
gViewTotalKnown &&
gViewTotalRows > 0 &&
cursor < gViewTotalRows &&
(uint16_t)(cursor + RXTX_LOG_VIEW_CACHE_COUNT) > gViewTotalRows,
false);
#else
RXTX_LOG_StartViewCacheScan(cursor, false, false);
#endif
}
static void RXTX_LOG_InvalidateViewAnchors(void)
{
gViewAnchorMask = 0;
gViewAnchorFilter = 0xFFu;
}
static void RXTX_LOG_EnsureViewAnchors(void)
{
if (gViewAnchorFilter == gLogFilter)
return;
gViewAnchorMask = 0;
gViewAnchorFilter = gLogFilter;
}
static void RXTX_LOG_RecordViewAnchor(uint16_t indexFromNewest, uint16_t slot)
{
if ((indexFromNewest % RXTX_LOG_VIEW_ANCHOR_STRIDE) != 0)
return;
const uint16_t anchor = indexFromNewest / RXTX_LOG_VIEW_ANCHOR_STRIDE;
if (anchor >= RXTX_LOG_VIEW_ANCHOR_COUNT)
return;
gViewAnchorSlots[anchor] = slot;
gViewAnchorMask |= (uint32_t)(1u << anchor);
}
static bool RXTX_LOG_FindViewAnchor(uint16_t indexFromNewest, uint16_t *anchorIndex, uint16_t *slot)
{
uint16_t anchor = indexFromNewest / RXTX_LOG_VIEW_ANCHOR_STRIDE;
if (anchor >= RXTX_LOG_VIEW_ANCHOR_COUNT)
anchor = RXTX_LOG_VIEW_ANCHOR_COUNT - 1u;
do {
if ((gViewAnchorMask & (uint32_t)(1u << anchor)) != 0) {
*anchorIndex = (uint16_t)(anchor * RXTX_LOG_VIEW_ANCHOR_STRIDE);
*slot = gViewAnchorSlots[anchor];
return true;
}
} while (anchor-- > 0);
return false;
}
static void RXTX_LOG_InvalidateViewCache(void)
{
gViewCacheStart = 0xFFFFu;
gViewCacheCount = 0;
gViewCacheFilter = 0xFFu;
gViewCacheHasOlder = false;
gViewCacheComplete = false;
gViewScanActive = false;
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
gViewCacheCircular = false;
gViewTotalKnown = false;
gViewWrapPending = false;
gViewScanDiscoverTotal = false;
gViewScanWrapped = false;
#endif
RXTX_LOG_InvalidateViewAnchors();
}
static void RXTX_LOG_NextFilter(void)
{
gLogFilter++;
if (gLogFilter > RXTX_LOG_FILTER_TX)
gLogFilter = RXTX_LOG_FILTER_ALL;
gLogCursor = 0;
RXTX_LOG_InvalidateViewCache();
gUpdateStatus = true;
gUpdateDisplay = true;
}
static void RXTX_LOG_ResetLogCounters(void)
{
gClearSector = 0;
gLogHasTraffic = false;
gNextSequence = 0;
gNextTrafficSequence = 0;
gNextFlashAddress = RXTX_LOG_FLASH_BASE;
RXTX_LOG_InvalidateViewCache();
}
static void RXTX_LOG_StartClear(void)
{
if (gClearActive)
return;
gClearActive = true;
gClearConfirmActive = false;
gSessionActive = false;
gLogCursor = 0;
RXTX_LOG_ResetLogCounters();
}
static void RXTX_LOG_CancelClearConfirm(void)
{
if (!gClearConfirmActive)
return;
gClearConfirmActive = false;
gUpdateDisplay = true;
}
static void RXTX_LOG_StepClear(void)
{
if (!gClearActive)
return;
PY25Q16_SectorErase(RXTX_LOG_FLASH_BASE + ((uint32_t)gClearSector * RXTX_LOG_FLASH_SECTOR_SIZE));
gClearSector++;
if (gClearSector >= RXTX_LOG_FLASH_SECTOR_COUNT) {
gClearActive = false;
RXTX_LOG_ResetLogCounters();
}
}
static uint16_t RXTX_LOG_PageStart(uint16_t indexFromNewest)
{
if (indexFromNewest >= RXTX_LOG_SLOT_COUNT)
indexFromNewest = RXTX_LOG_SLOT_COUNT - 1u;
return indexFromNewest;
}
static bool RXTX_LOG_AlignLastViewPage(void)
{
if (gViewScanActive ||
!gViewCacheComplete ||
gViewCacheHasOlder ||
gViewCacheCount == 0)
return false;
if (gViewCacheCount >= RXTX_LOG_VIEW_CACHE_COUNT) {
if (gLogCursor == gViewCacheStart)
return false;
gLogCursor = gViewCacheStart;
return true;
}
const uint16_t missingRows = RXTX_LOG_VIEW_CACHE_COUNT - gViewCacheCount;
const uint16_t start = gViewCacheStart > missingRows ? (uint16_t)(gViewCacheStart - missingRows) : 0;
if (start == gViewCacheStart)
return false;
gLogCursor = start;
RXTX_LOG_StartViewCacheScan(start, false, false);
return true;
}
static void RXTX_LOG_StopViewScan(void)
{
gViewScanActive = false;
gViewCacheComplete = true;
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
gViewScanDiscoverTotal = false;
#endif
}
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
static bool RXTX_LOG_TryWrapViewCacheScan(void)
{
if (!gViewCacheCircular ||
gViewScanWrapped ||
!gViewTotalKnown ||
gViewCacheCount >= RXTX_LOG_VIEW_CACHE_COUNT ||
gViewScanIndex < gViewTotalRows)
return false;
gViewScanWrapped = true;
gViewScanSlot = RXTX_LOG_AddressToSlot(gNextFlashAddress);
gViewScanScanned = 0;
gViewScanSkip = 0;
gViewScanIndex = 0;
return true;
}
#endif
static void RXTX_LOG_StepViewCacheScan(void)
{
uint8_t budget = RXTX_LOG_VIEW_SCAN_BUDGET;
bool capReached = false;
while (gViewScanActive && budget-- > 0 && gViewScanScanned < RXTX_LOG_SLOT_COUNT) {
RXTX_LogFlashEntry_t flashEntry;
gViewScanSlot = RXTX_LOG_PreviousSlot(gViewScanSlot);
gViewScanScanned++;
PY25Q16_ReadBuffer(RXTX_LOG_SlotToAddress(gViewScanSlot), &flashEntry, sizeof(flashEntry));
if (RXTX_LOG_IsBlankFlashEntry(&flashEntry)) {
gViewScanScanned = RXTX_LOG_SLOT_COUNT;
break;
}
if (!RXTX_LOG_IsValidFlashEntry(&flashEntry) ||
!RXTX_LOG_MatchesFlags(flashEntry.flags))
continue;
if (RXTX_LOG_IsTrafficFlags(flashEntry.flags) &&
(gNextTrafficSequence - 1u - flashEntry.trafficSeq) >= RXTX_LOG_VISIBLE_COUNT) {
capReached = true;
RXTX_LOG_StopViewScan();
break;
}
RXTX_LOG_RecordViewAnchor(gViewScanIndex, gViewScanSlot);
if (gViewScanSkip > 0) {
gViewScanSkip--;
gViewScanIndex++;
continue;
}
if (gViewCacheCount < RXTX_LOG_VIEW_CACHE_COUNT) {
memcpy(&gViewCache[gViewCacheCount], &flashEntry, RXTX_LOG_ENTRY_COPY_SIZE);
gViewCacheCount++;
} else {
gViewCacheHasOlder = true;
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
if (!gViewScanDiscoverTotal) {
RXTX_LOG_StopViewScan();
break;
}
#else
RXTX_LOG_StopViewScan();
break;
#endif
}
gViewScanIndex++;
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
if (RXTX_LOG_TryWrapViewCacheScan())
continue;
#endif
}
if (gViewScanScanned >= RXTX_LOG_SLOT_COUNT || capReached) {
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
if (!gViewScanWrapped) {
gViewTotalRows = gViewScanIndex;
gViewTotalKnown = gViewTotalRows > 0;
}
if (gViewWrapPending) {
gViewWrapPending = false;
if (gViewTotalRows > 1u) {
RXTX_LOG_StartCursorView(gViewTotalRows - 1u);
return;
}
}
if (RXTX_LOG_TryWrapViewCacheScan())
return;
#endif
RXTX_LOG_StopViewScan();
#ifndef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
// A jump-to-end aims past the last row on purpose: when the whole
// scan was spent skipping, the leftover skip locates the actual
// last row, so retarget the view there.
if (gViewCacheCount == 0 &&
gViewScanSkip > 0 &&
gViewScanSkip < gViewCacheStart) {
RXTX_LOG_StartCursorView((uint16_t)(gViewCacheStart - gViewScanSkip - 1u));
return;
}
#endif
}
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
if (!gViewCacheCircular && RXTX_LOG_AlignLastViewPage())
return;
#else
if (RXTX_LOG_AlignLastViewPage())
return;
#endif
}
static void RXTX_LOG_StartViewCacheScan(uint16_t start, bool circular, bool discoverTotal)
{
uint16_t anchorIndex;
uint16_t anchorSlot;
start = RXTX_LOG_PageStart(start);
RXTX_LOG_EnsureViewAnchors();
gViewCacheStart = start;
gViewCacheCount = 0;
gViewCacheFilter = gLogFilter;
gViewCacheHasOlder = false;
gViewCacheComplete = false;
gViewScanActive = false;
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
gViewCacheCircular = circular;
gViewScanDiscoverTotal = discoverTotal;
gViewScanWrapped = false;
#else
(void)circular;
(void)discoverTotal;
#endif
if (gNextSequence == 0) {
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
gViewWrapPending = false;
gViewScanDiscoverTotal = false;
#endif
gViewCacheComplete = true;
return;
}
if (RXTX_LOG_FindViewAnchor(start, &anchorIndex, &anchorSlot)) {
gViewScanSlot = RXTX_LOG_NextSlot(anchorSlot);
gViewScanSkip = start - anchorIndex;
gViewScanIndex = anchorIndex;
} else {
gViewScanSlot = RXTX_LOG_AddressToSlot(gNextFlashAddress);
gViewScanSkip = start;
gViewScanIndex = 0;
}
gViewScanScanned = 0;
gViewScanActive = true;
}
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
static void RXTX_LOG_RequestWrapToLast(void)
{
gViewWrapPending = true;
if (gViewScanActive &&
gViewCacheFilter == gLogFilter &&
gViewCacheStart == 0 &&
!gViewCacheCircular) {
gViewScanDiscoverTotal = true;
return;
}
RXTX_LOG_StartViewCacheScan(0, false, true);
}
#endif
static void RXTX_LOG_GoToLastRow(void)
{
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
if (gViewTotalKnown && gViewTotalRows > 1u)
RXTX_LOG_StartCursorView(gViewTotalRows - 1u);
else
RXTX_LOG_RequestWrapToLast();
#else
// Aim past the end; the scan-completion retarget in StepViewCacheScan
// snaps the cursor back to the last existing row.
RXTX_LOG_StartCursorView(RXTX_LOG_SLOT_COUNT - 1u);
#endif
}
static bool RXTX_LOG_ViewCacheCovers(uint16_t indexFromNewest)
{
return gViewCacheFilter == gLogFilter &&
indexFromNewest >= gViewCacheStart &&
indexFromNewest < (uint16_t)(gViewCacheStart + gViewCacheCount);
}
static bool RXTX_LOG_SlotIsBlank(uint32_t address)
{
RXTX_LogFlashEntry_t entry;
PY25Q16_ReadBuffer(address, &entry, sizeof(entry));
return RXTX_LOG_IsBlankFlashEntry(&entry);
}
static void RXTX_LOG_PrepareNextSlot(void)
{
if (gNextFlashAddress >= RXTX_LOG_FLASH_END)
gNextFlashAddress = RXTX_LOG_FLASH_BASE;
if (!RXTX_LOG_SlotIsBlank(gNextFlashAddress)) {
if ((gNextFlashAddress % RXTX_LOG_FLASH_SECTOR_SIZE) != 0) {
gNextFlashAddress += RXTX_LOG_FLASH_SECTOR_SIZE - (gNextFlashAddress % RXTX_LOG_FLASH_SECTOR_SIZE);
if (gNextFlashAddress >= RXTX_LOG_FLASH_END)
gNextFlashAddress = RXTX_LOG_FLASH_BASE;
}
if (!RXTX_LOG_SlotIsBlank(gNextFlashAddress)) {
const uint32_t sector = gNextFlashAddress - (gNextFlashAddress % RXTX_LOG_FLASH_SECTOR_SIZE);
PY25Q16_SectorErase(sector);
}
}
}
static void RXTX_LOG_AdvanceFlashAddress(void)
{
gNextFlashAddress += sizeof(RXTX_LogFlashEntry_t);
if (gNextFlashAddress >= RXTX_LOG_FLASH_END)
gNextFlashAddress = RXTX_LOG_FLASH_BASE;
}
static void RXTX_LOG_WriteEntry(const RXTX_LogEntry_t *src)
{
RXTX_LogFlashEntry_t entry;
uint8_t commit = RXTX_LOG_ENTRY_COMMIT;
memset(&entry, 0xFF, sizeof(entry));
memcpy(&entry, src, RXTX_LOG_ENTRY_COPY_SIZE);
entry.sequence = gNextSequence++;
entry.crc = RXTX_LOG_Crc8(&entry, sizeof(entry) - 2);
RXTX_LOG_PrepareNextSlot();
PY25Q16_WriteBuffer(gNextFlashAddress, &entry, sizeof(entry), false);
PY25Q16_WriteBuffer(gNextFlashAddress + sizeof(entry) - 1u, &commit, 1, false);
RXTX_LOG_AdvanceFlashAddress();
}
static void RXTX_LOG_WriteSessionMarker(void)
{
RXTX_LogEntry_t entry;
memset(&entry, 0, sizeof(entry));
// Markers share the ordinal of the next traffic row. Their flash
// sequence remains unique and is used to order them in K5Viewer.
entry.trafficSeq = gNextTrafficSequence;
entry.channel = RXTX_LOG_CHANNEL_NONE;
entry.flags = RXTX_LOG_FLAG_SESSION;
entry.sMeter = RXTX_LOG_SMETER_UNKNOWN;
entry.battVolt = RXTX_LOG_BATT_UNKNOWN;
RXTX_LOG_WriteEntry(&entry);
RXTX_LOG_InvalidateViewCache();
}
static void RXTX_LOG_EnsureViewCache(void)
{
const uint16_t pageStart = RXTX_LOG_PageStart(gLogCursor);
if (gViewCacheFilter == gLogFilter &&
gViewCacheStart == pageStart &&
(gViewScanActive ||
gViewCacheComplete ||
RXTX_LOG_ViewCacheCovers(gLogCursor)))
return;
RXTX_LOG_StartCursorView(gLogCursor);
}
static bool RXTX_LOG_GetFilteredEntry(uint16_t indexFromNewest, RXTX_LogEntry_t *entry)
{
if (indexFromNewest >= RXTX_LOG_SLOT_COUNT)
return false;
if (!RXTX_LOG_ViewCacheCovers(indexFromNewest))
return false;
*entry = gViewCache[indexFromNewest - gViewCacheStart];
return true;
}
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_K5VIEWER
static uint32_t RXTX_LOG_K5ViewerMix(uint32_t hash, uint32_t value)
{
hash ^= value & 0xFFu;
hash *= 16777619u;
hash ^= (value >> 8) & 0xFFu;
hash *= 16777619u;
hash ^= (value >> 16) & 0xFFu;
hash *= 16777619u;
hash ^= (value >> 24) & 0xFFu;
hash *= 16777619u;
return hash;
}
uint32_t RXTX_LOG_K5ViewerSignature(void)
{
uint32_t hash = 2166136261u;
hash = RXTX_LOG_K5ViewerMix(hash, RXTX_LOG_IsEnabled());
hash = RXTX_LOG_K5ViewerMix(hash, gSessionActive);
hash = RXTX_LOG_K5ViewerMix(hash, gClearActive);
hash = RXTX_LOG_K5ViewerMix(hash, gLogHasTraffic);
hash = RXTX_LOG_K5ViewerMix(hash, gNextTrafficSequence);
hash = RXTX_LOG_K5ViewerMix(hash, gSessionFlags);
hash = RXTX_LOG_K5ViewerMix(hash, gSessionFrequency);
hash = RXTX_LOG_K5ViewerMix(hash, gSessionChannel);
// Mix the exported seconds, not the raw ticks: two consecutive ticks
// map to the same durationSeconds, hashing them would resend an
// identical packet every 500 ms during an active session.
hash = RXTX_LOG_K5ViewerMix(hash, (uint32_t)((gSessionTicks500ms + 1u) / 2u));
hash = RXTX_LOG_K5ViewerMix(hash, gSessionSMeter);
hash = RXTX_LOG_K5ViewerMix(hash, gSessionBattVolt);
return hash;
}
static void RXTX_LOG_SetK5ViewerChannelName(RXTX_LogK5ViewerRow_t *row, uint16_t channel)
{
memset(row->channelName, 0, sizeof(row->channelName));
if (channel == RXTX_LOG_CHANNEL_NONE)
return;
char name[RXTX_LOG_K5VIEWER_NAME_LENGTH + 1u];
SETTINGS_FetchChannelName(name, channel);
for (uint8_t i = 0; i < RXTX_LOG_K5VIEWER_NAME_LENGTH && name[i] != 0; i++)
row->channelName[i] = name[i];
}
static void RXTX_LOG_CopyK5ViewerRow(RXTX_LogK5ViewerRow_t *dst, const RXTX_LogFlashEntry_t *src)
{
dst->frequency = src->frequency;
dst->trafficSeq = src->sequence;
dst->durationSeconds = src->durationSeconds;
dst->channel = src->channel;
dst->flags = src->flags;
dst->meter = src->sMeter;
dst->battVolt = src->battVolt;
RXTX_LOG_SetK5ViewerChannelName(dst, src->channel);
}
// Send up to `count` rows whose flash sequence is below `beforeSeq`, newest
// first, scanning the ring backwards from the write head and zero-padding
// past the last valid entry. Returns the sequence of the oldest row
// sent when more visible history remains below it, 0 otherwise: feeding
// that value back as the next `beforeSeq` pages through the whole
// visible history without duplicating or skipping rows, even while new
// traffic keeps landing between pages (new entries sit above the bound).
static uint32_t RXTX_LOG_SendK5ViewerRows(uint32_t beforeSeq, uint8_t count,
void (*send)(const uint8_t *data, uint16_t size))
{
RXTX_LogK5ViewerRow_t row;
uint8_t rowsSent = 0;
uint32_t nextBefore = 0;
bool trafficLimitReached = false;
if (gLogHasTraffic && beforeSeq > 0) {
uint16_t slot = RXTX_LOG_AddressToSlot(gNextFlashAddress);
for (uint16_t scanned = 0; scanned < RXTX_LOG_SLOT_COUNT && rowsSent < count; scanned++) {
RXTX_LogFlashEntry_t flashEntry;
slot = RXTX_LOG_PreviousSlot(slot);
PY25Q16_ReadBuffer(RXTX_LOG_SlotToAddress(slot), &flashEntry, sizeof(flashEntry));
if (RXTX_LOG_IsBlankFlashEntry(&flashEntry))
break;
if (!RXTX_LOG_IsValidFlashEntry(&flashEntry))
continue;
if (RXTX_LOG_IsTrafficFlags(flashEntry.flags) &&
(gNextTrafficSequence - 1u - flashEntry.trafficSeq) >= RXTX_LOG_VISIBLE_COUNT) {
trafficLimitReached = true;
break;
}
if (flashEntry.sequence < beforeSeq) {
RXTX_LOG_CopyK5ViewerRow(&row, &flashEntry);
send((const uint8_t *)&row, sizeof(row));
rowsSent++;
nextBefore = flashEntry.sequence;
}
}
}
// A short page means the log ran out. Reaching 512 traffic rows is
// equally final; session markers never consume one of those rows.
if (rowsSent < count || trafficLimitReached)
nextBefore = 0;
memset(&row, 0, sizeof(row));
while (rowsSent++ < count)
send((const uint8_t *)&row, sizeof(row));
return nextBefore;
}
// Stream the whole packet through `send` without ever holding it in RAM:
// peak stack stays at one row plus one flash entry. The row area is always
// full-length; rowCount is not known before scanning, so the header
// announces every slot and padding rows are all-zero (the viewer already
// skips rows with frequency == 0).
void RXTX_LOG_SendK5ViewerPacket(void (*send)(const uint8_t *data, uint16_t size))
{
RXTX_LogK5ViewerRow_t row;
uint8_t header[4] = {RXTX_LOG_K5VIEWER_VERSION, 0, RXTX_LOG_K5VIEWER_ROW_COUNT, 0};
if (!RXTX_LOG_IsEnabled()) {
header[1] = RXTX_LOG_K5VIEWER_STATUS_DISABLED;
header[2] = 0;
send(header, sizeof(header));
return;
}
if (gSessionActive)
header[1] |= RXTX_LOG_K5VIEWER_STATUS_ACTIVE;
if (gLogHasTraffic)
header[1] |= RXTX_LOG_K5VIEWER_STATUS_HAS_TRAFFIC;
if (gClearActive)
header[1] |= RXTX_LOG_K5VIEWER_STATUS_CLEARING;
send(header, sizeof(header));
row.frequency = gSessionFrequency;
row.trafficSeq = gNextSequence;
row.durationSeconds = (gSessionTicks500ms + 1u) / 2u;
row.channel = gSessionChannel;
row.flags = gSessionFlags;
row.meter = gSessionSMeter;
row.battVolt = gSessionBattVolt;
RXTX_LOG_SetK5ViewerChannelName(&row, gSessionChannel);
send((const uint8_t *)&row, sizeof(row));
RXTX_LOG_SendK5ViewerRows(gNextSequence, RXTX_LOG_K5VIEWER_ROW_COUNT, send);
}
uint32_t RXTX_LOG_SendK5ViewerHistoryPage(uint32_t beforeSeq, void (*send)(const uint8_t *data, uint16_t size))
{
// Flash sequence counts every stored row, including session markers,
// so subtracting the live page size lands directly below that page.
if (beforeSeq == RXTX_LOG_K5VIEWER_HISTORY_START)
beforeSeq = gNextSequence > RXTX_LOG_K5VIEWER_ROW_COUNT
? gNextSequence - RXTX_LOG_K5VIEWER_ROW_COUNT
: 0;
return RXTX_LOG_SendK5ViewerRows(beforeSeq, RXTX_LOG_K5VIEWER_HISTORY_ROW_COUNT, send);
}
#endif
static void RXTX_LOG_CaptureSession(uint8_t flags, const VFO_Info_t *vfo)
{
if (gSuspended || !RXTX_LOG_IsEnabled() || vfo == NULL || gClearActive)
return;
const uint32_t frequency = (flags & RXTX_LOG_FLAG_TX) ? vfo->pTX->Frequency : vfo->pRX->Frequency;
const bool isMemoryChannel = IS_MR_CHANNEL(vfo->CHANNEL_SAVE);
const uint16_t channel = isMemoryChannel ? vfo->CHANNEL_SAVE : RXTX_LOG_CHANNEL_NONE;
if (gSessionActive &&
gSessionFlags == flags &&
gSessionFrequency == frequency &&
gSessionChannel == channel)
return;
RXTX_LOG_EndActive();
gSessionActive = true;
gSessionFlags = flags;
gSessionFrequency = frequency;
gSessionChannel = channel;
gSessionTicks500ms = 0;
// TX sessions repurpose the sMeter byte to store the TX power level
// (OUTPUT_POWER, indexes gSubMenu_TXP); RX sessions track the S-meter.
gSessionSMeter = (flags & RXTX_LOG_FLAG_TX) ? vfo->OUTPUT_POWER : RXTX_LOG_SMETER_UNKNOWN;
gSessionBattVolt = RXTX_LOG_BATT_UNKNOWN;
RXTX_LOG_UpdateSessionMeters();
}
void RXTX_LOG_Init(void)
{
uint32_t maxSequence = 0;
uint32_t maxAddress = RXTX_LOG_FLASH_BASE;
uint32_t maxTrafficSeq = 0;
uint8_t lastEntryFlags = 0;
bool found = false;
bool foundTraffic = false;
gLogCursor = 0;
gLogFilter = RXTX_LOG_FILTER_ALL;
gSessionActive = false;
gSuspended = false;
gSessionSMeter = RXTX_LOG_SMETER_UNKNOWN;
gSessionBattVolt = RXTX_LOG_BATT_UNKNOWN;
gClearActive = false;
gClearConfirmActive = false;
gClearSector = 0;
gMenuClearHandled = false;
gLogDetailMode = RXTX_LOG_DETAIL_DURATION;
gLogHasTraffic = false;
gNextFlashAddress = RXTX_LOG_FLASH_BASE;
RXTX_LOG_InvalidateViewCache();
for (uint32_t address = RXTX_LOG_FLASH_BASE; address < RXTX_LOG_FLASH_END; address += sizeof(RXTX_LogFlashEntry_t)) {
RXTX_LogFlashEntry_t flashEntry;
PY25Q16_ReadBuffer(address, &flashEntry, sizeof(flashEntry));
if (!RXTX_LOG_IsValidFlashEntry(&flashEntry))
continue;
if (RXTX_LOG_IsTrafficFlags(flashEntry.flags)) {
gLogHasTraffic = true;
if (!foundTraffic || flashEntry.trafficSeq > maxTrafficSeq) {
foundTraffic = true;
maxTrafficSeq = flashEntry.trafficSeq;
}
}
if (!found || flashEntry.sequence > maxSequence) {
found = true;
maxSequence = flashEntry.sequence;
maxAddress = address;
lastEntryFlags = flashEntry.flags;
}
}
if (found) {
gNextSequence = maxSequence + 1u;
gNextFlashAddress = maxAddress + sizeof(RXTX_LogFlashEntry_t);
if (gNextFlashAddress >= RXTX_LOG_FLASH_END)
gNextFlashAddress = RXTX_LOG_FLASH_BASE;
} else {
gNextSequence = 0;
}
gNextTrafficSequence = foundTraffic ? maxTrafficSeq + 1u : 0;
// Skip the marker if the log already ends with one (e.g. repeated
// reboots with no RX/TX in between) to avoid stacking empty separators.
if (RXTX_LOG_IsEnabled() &&
(!found || (lastEntryFlags & RXTX_LOG_FLAG_SESSION) == 0))
RXTX_LOG_WriteSessionMarker();
}
void RXTX_LOG_BeginRx(const VFO_Info_t *vfo, FUNCTION_Type_t function)
{
uint8_t flags = 0;
if (function == FUNCTION_MONITOR)
flags |= RXTX_LOG_FLAG_MONITOR;
RXTX_LOG_CaptureSession(flags, vfo);
}
void RXTX_LOG_BeginTx(const VFO_Info_t *vfo)
{
RXTX_LOG_CaptureSession(RXTX_LOG_FLAG_TX, vfo);
}
void RXTX_LOG_EndActive(void)
{
if (!gSessionActive)
return;
if (!RXTX_LOG_IsEnabled() || gClearActive) {
RXTX_LOG_ResetActiveSession();
return;
}
RXTX_LOG_UpdateSessionMeters();
RXTX_LogEntry_t entry;
memset(&entry, 0, sizeof(entry));
entry.trafficSeq = gNextTrafficSequence++;
entry.frequency = gSessionFrequency;
entry.durationSeconds = (gSessionTicks500ms + 1u) / 2u;
entry.channel = gSessionChannel;
entry.flags = gSessionFlags;
entry.sMeter = gSessionSMeter;
entry.battVolt = gSessionBattVolt;
if (entry.durationSeconds == 0)
entry.durationSeconds = 1;
RXTX_LOG_WriteEntry(&entry);
gLogHasTraffic = true;
RXTX_LOG_InvalidateViewCache();
RXTX_LOG_ResetActiveSession();
}
void RXTX_LOG_Suspend(void)
{
RXTX_LOG_EndActive();
gSuspended = true;
}
void RXTX_LOG_Resume(void)
{
gSuspended = false;
}
void RXTX_LOG_Tick500ms(void)
{
if (gSessionActive) {
RXTX_LOG_UpdateSessionMeters();
if (gSessionTicks500ms < 0xFFFEu)
gSessionTicks500ms++;
}
}
void RXTX_LOG_Task10ms(void)
{
if (gSessionActive && !RXTX_LOG_IsEnabled())
RXTX_LOG_ResetActiveSession();
if (gClearActive) {
RXTX_LOG_StepClear();
} else if (gViewScanActive) {
RXTX_LOG_StepViewCacheScan();
} else {
return;
}
if (gScreenToDisplay == DISPLAY_RXTX_LOG)
gUpdateDisplay = true;
}
void ACTION_RxTxLog(void)
{
gLogCursor = 0;
gLogDetailMode = RXTX_LOG_DETAIL_DURATION;
gClearConfirmActive = false;
gMenuClearHandled = false;
RXTX_LOG_InvalidateViewCache();
gUpdateStatus = true;
GUI_SelectNextDisplay(DISPLAY_RXTX_LOG);
}
void RXTX_LOG_ProcessKeys(KEY_Code_t Key, bool bKeyPressed, bool bKeyHeld)
{
if (Key == KEY_PTT) {
RXTX_LOG_CancelClearConfirm();
GENERIC_Key_PTT(bKeyPressed);
return;
}
if (!bKeyPressed && !bKeyHeld && Key != KEY_MENU)
return;
if (gClearActive) {
if (Key == KEY_MENU && !bKeyPressed)
gMenuClearHandled = false;
gUpdateDisplay = true;
return;
}
switch (Key) {
case KEY_F:
// GENERIC_Key_F only toggles the flag on the MAIN screen, so
// handle it here: F arms a go-to-first/last modifier for UP/DOWN.
if (bKeyPressed && bKeyHeld) {
RXTX_LOG_CancelClearConfirm();
HideFKeyIcon();
COMMON_KeypadLockToggle();
gUpdateStatus = true;
} else if (bKeyPressed) {
RXTX_LOG_CancelClearConfirm();
gWasFKeyPressed = !gWasFKeyPressed;
if (gWasFKeyPressed)
gKeyInputCountdown = key_input_timeout_500ms;
gUpdateStatus = true;
}
break;
case KEY_UP:
RXTX_LOG_CancelClearConfirm();
if (gWasFKeyPressed) {
HideFKeyIcon();
RXTX_LOG_StartCursorView(0);
} else if (gLogCursor > 0) {
RXTX_LOG_StartCursorView(gLogCursor - 1u);
}
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
else {
RXTX_LOG_GoToLastRow();
}
#endif
gUpdateDisplay = true;
break;
case KEY_DOWN:
RXTX_LOG_CancelClearConfirm();
if (gWasFKeyPressed) {
HideFKeyIcon();
RXTX_LOG_GoToLastRow();
gUpdateDisplay = true;
break;
}
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
gViewWrapPending = false;
#endif
RXTX_LOG_EnsureViewCache();
if (gViewCacheCount > 0) {
if (gViewScanActive)
break;
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
if (gViewTotalKnown && gViewTotalRows > 1u) {
uint16_t next = gLogCursor + 1u;
if (next >= gViewTotalRows)
next = 0;
RXTX_LOG_StartCursorView(next);
gUpdateDisplay = true;
break;
}
#endif
if (gViewCacheComplete && !gViewCacheHasOlder)
break;
const uint16_t next = gLogCursor + 1u;
if (next < (uint16_t)(gViewCacheStart + gViewCacheCount)) {
gLogCursor = next;
} else if (gViewCacheHasOlder) {
gLogCursor = gViewCacheStart + gViewCacheCount;
RXTX_LOG_StartCursorView(gLogCursor);
}
}
gUpdateDisplay = true;
break;
case KEY_MENU:
if (!bKeyPressed) {
if (!bKeyHeld && !gMenuClearHandled) {
RXTX_LOG_CancelClearConfirm();
RXTX_LOG_NextFilter();
}
gMenuClearHandled = false;
} else if (bKeyHeld && !gMenuClearHandled) {
gMenuClearHandled = true;
if (gClearConfirmActive) {
RXTX_LOG_StartClear();
} else {
gClearConfirmActive = true;
}
gBeepToPlay = BEEP_1KHZ_60MS_OPTIONAL;
gUpdateStatus = true;
gUpdateDisplay = true;
}
break;
case KEY_STAR:
if (bKeyPressed && !bKeyHeld) {
RXTX_LOG_CancelClearConfirm();
gLogDetailMode = gLogDetailMode >= RXTX_LOG_DETAIL_BATT
? RXTX_LOG_DETAIL_DURATION
: (uint8_t)(gLogDetailMode + 1u);
gUpdateDisplay = true;
}
break;
case KEY_EXIT:
if (gClearConfirmActive) {
RXTX_LOG_CancelClearConfirm();
break;
}
RXTX_LOG_CancelClearConfirm();
gRequestDisplayScreen = DISPLAY_MAIN;
gUpdateStatus = true;
break;
default:
if (!bKeyHeld)
gBeepToPlay = BEEP_500HZ_60MS_DOUBLE_BEEP_OPTIONAL;
break;
}
}
static void RXTX_LOG_FormatFrequency(uint32_t frequency, char *buffer)
{
sprintf(buffer, "%u.%05u", frequency / 100000u, frequency % 100000u);
}
static void RXTX_LOG_FormatTitle(const RXTX_LogEntry_t *entry, char *buffer)
{
buffer[0] = 0;
if (entry->channel != RXTX_LOG_CHANNEL_NONE)
SETTINGS_FetchChannelName(buffer, entry->channel);
if (buffer[0] == 0)
RXTX_LOG_FormatFrequency(entry->frequency, buffer);
}
static void RXTX_LOG_FormatSMeter(uint8_t sMeter, char *buffer)
{
if (sMeter > 9)
sprintf(buffer, "S9+%02u", sMeter - 9u);
else
sprintf(buffer, "S%u", sMeter);
}
static void RXTX_LOG_DrawIndexBadge(uint16_t indexFromNewest, uint8_t line)
{
char label[4];
sprintf(label, "%03u", indexFromNewest + 1u);
GUI_DisplaySmallestInverse(label, 2, line, false, true, 14);
}
static void RXTX_LOG_DrawSessionMarker(uint8_t line)
{
const int16_t y = (int16_t)(line * 8u) + 3;
UI_DrawLineBuffer(gFrameBuffer, 4, y, 123, y, true);
}
static void RXTX_LOG_ShowEmpty(bool showMessage)
{
if (showMessage)
UI_PrintString("NO LOG", 0, 127, 1, 8);
ST7565_BlitFullScreen();
}
static void RXTX_LOG_ShowClearConfirm(void)
{
UI_PrintString("CLEAR LOG", 0, 127, 1, 8);
UI_PrintString("SURE?", 0, 127, 3, 8);
ST7565_BlitFullScreen();
}
void UI_DisplayRxTxLog(void)
{
char detail[8];
char title[16];
RXTX_LogEntry_t entry;
UI_DisplayClear();
if (gClearActive) {
RXTX_LOG_ShowEmpty(true);
return;
}
if (gClearConfirmActive) {
RXTX_LOG_ShowClearConfirm();
return;
}
RXTX_LOG_EnsureViewCache();
if (gLogFilter == RXTX_LOG_FILTER_ALL && !gLogHasTraffic) {
RXTX_LOG_ShowEmpty(true);
return;
}
if (gViewCacheCount == 0) {
RXTX_LOG_ShowEmpty(!gViewScanActive);
return;
}
for (uint8_t row = 0; row < RXTX_LOG_VIEW_CACHE_COUNT; row++) {
#ifdef ENABLE_FEAT_F4HWN_RXTX_LOG_WRAP
if (gViewCacheCircular) {
if (row >= gViewCacheCount)
break;
entry = gViewCache[row];
} else
#endif
{
const uint16_t index = gLogCursor + row;
if (!RXTX_LOG_GetFilteredEntry(index, &entry))
break;
}
if (RXTX_LOG_IsSessionMarker(&entry)) {
RXTX_LOG_DrawSessionMarker(row);
continue;
}
const bool isTx = RXTX_LOG_IsTx(&entry);
RXTX_LOG_FormatTitle(&entry, title);
RXTX_LOG_DrawIndexBadge((uint16_t)(gNextTrafficSequence - 1u - entry.trafficSeq), row);
if (isTx)
UI_PrintStringSmallBold(title, 17, 0, row);
else
UI_PrintStringSmallNormal(title, 17, 0, row);
GUI_DisplaySmallest(isTx ? "TX" : "RX", 95, (uint8_t)((row * 8u) + 1u), false, true);
if (gLogDetailMode == RXTX_LOG_DETAIL_SMETER) {
if (isTx)
strcpy(detail, gSubMenu_TXP[MIN(entry.sMeter, ARRAY_SIZE(gSubMenu_TXP) - 1u)]);
else
RXTX_LOG_FormatSMeter(entry.sMeter, detail);
} else if (gLogDetailMode == RXTX_LOG_DETAIL_BATT) {
const uint16_t volt = RXTX_LOG_BATT_OFFSET + entry.battVolt;
sprintf(detail, "%u.%02u", volt / 100u, volt % 100u);
} else {
sprintf(detail, "%02u:%02u", entry.durationSeconds / 60u, entry.durationSeconds % 60u);
}
// Draw the fixed-width badge first, then punch the text out of it
// centered: text length varies (Sn vs S9+XX vs MM:SS), the badge
// must not. Each glyph cell is 4 px wide, 5 cells fill the badge.
GUI_DisplaySmallestInverse("", 107, row, false, true, 127);
GUI_DisplaySmallest(detail, (uint8_t)(107u + (5u - strlen(detail)) * 2u),
(uint8_t)((row * 8u) + 1u), false, false);
}
ST7565_BlitFullScreen();
}
#endif
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