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uv-k5-firmware-custom/ui/main.c
OneOfEleven 901fbbfb12 .
2023-11-21 10:56:34 +00:00

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/* Copyright 2023 Dual Tachyon
* https://github.com/DualTachyon
*
* 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 "app/dtmf.h"
#ifdef ENABLE_AM_FIX_SHOW_DATA
#include "am_fix.h"
#endif
#include "bitmaps.h"
#include "board.h"
#include "driver/backlight.h"
#include "driver/bk4819.h"
#include "driver/st7565.h"
#include "external/printf/printf.h"
#include "font.h"
#include "functions.h"
#ifdef ENABLE_SCAN_IGNORE_LIST
#include "freq_ignore.h"
#endif
#include "helper/battery.h"
#ifdef ENABLE_MDC1200
#include "mdc1200.h"
#endif
#include "misc.h"
#ifdef ENABLE_PANADAPTER
#include "panadapter.h"
#endif
#include "radio.h"
#include "settings.h"
#include "ui/helper.h"
#include "ui/inputbox.h"
#include "ui/main.h"
#include "ui/menu.h"
#include "ui/ui.h"
//#define SHOW_RX_TEST_VALUES
//const int rssi_offset_band_123 = 0;
//const int rssi_offset_band_4567 = 0;
const int rssi_offset_band_123 = -44;
const int rssi_offset_band_4567 = -18;
int single_vfo = -1;
center_line_t g_center_line = CENTER_LINE_NONE;
// ***************************************************************************
void draw_small_antenna_bars(uint8_t *p, unsigned int level)
{
unsigned int i;
if (level > 6)
level = 6;
memcpy(p, BITMAP_ANTENNA, ARRAY_SIZE(BITMAP_ANTENNA));
for (i = 1; i <= level; i++)
{
const uint8_t bar = (0xff << (6 - i)) & 0x7F;
memset(p + 2 + (i * 3), bar, 2);
}
}
void draw_bar(uint8_t *line, const int len, const int max_width)
{
int i;
#if 0
// solid bar
for (i = 0; i < max_width; i++)
line[i] = (i > len) ? ((i & 1) == 0) ? 0x41 : 0x00 : ((i & 1) == 0) ? 0x7f : 0x3e;
#elif 0
// knuled bar
for (i = 0; i < max_width; i += 2)
line[i] = (i <= len) ? 0x7f : 0x41;
#else
// segmented bar
for (i = 0; i < max_width; i += 4)
for (int k = i - 4; k < i && k < len; k++)
if (k >= 0)
// line[k] = (k < (i - 1)) ? 0x7f : 0x00;
if (k < (i - 1))
line[k] = 0x7f;
#endif
}
#ifdef ENABLE_TX_AUDIO_BAR
// linear search, ascending, using addition
uint16_t isqrt(const uint32_t y)
{
uint16_t L = 0;
uint32_t a = 1;
uint32_t d = 3;
while (a <= y)
{
a += d; // (a + 1) ^ 2
d += 2;
L += 1;
}
return L;
}
bool UI_DisplayAudioBar(const bool now)
{
if (g_current_function != FUNCTION_TRANSMIT || g_current_display_screen != DISPLAY_MAIN)
return false;
if (g_center_line != CENTER_LINE_NONE && g_center_line != CENTER_LINE_AUDIO_BAR)
return false;
if (g_dtmf_call_state != DTMF_CALL_STATE_NONE)
return false;
#if defined(ENABLE_ALARM) || defined(ENABLE_TX1750)
if (g_alarm_state != ALARM_STATE_OFF)
return false;
#endif
if (g_eeprom.config.setting.mic_bar)
{
const unsigned int line = 3;
const unsigned int txt_width = 7 * 3; // 3 text chars
const unsigned int bar_x = 2 + txt_width + 4; // X coord of bar graph
const unsigned int bar_width = LCD_WIDTH - 1 - bar_x;
const unsigned int secs = g_tx_timer_tick_500ms / 2;
uint8_t *p_line = g_frame_buffer[line];
char s[16];
// clear the line
memset(p_line, 0, LCD_WIDTH);
// TX timeout seconds
sprintf(s, "%3u", secs);
#ifdef ENABLE_SMALL_BOLD
UI_PrintStringSmallBold(s, 2, 0, line);
#else
UI_PrintStringSmall(s, 2, 0, line);
#endif
{ // TX audio level
const unsigned int voice_amp = BK4819_GetVoiceAmplitudeOut(); // 15:0
// const unsigned int max = 65535;
// const unsigned int level = ((voice_amp * bar_width) + (max / 2)) / max; // with rounding
// const unsigned int len = (level <= bar_width) ? level : bar_width;
// make non-linear to make more sensitive at low values
const unsigned int level = voice_amp * 8;
const unsigned int sqrt_level = isqrt((level < 65535) ? level : 65535);
const unsigned int len = (sqrt_level <= bar_width) ? sqrt_level : bar_width;
draw_bar(p_line + bar_x, len, bar_width);
if (now)
ST7565_BlitFullScreen();
}
}
return true;
}
#endif
#ifdef ENABLE_RX_SIGNAL_BAR
bool UI_DisplayRSSIBar(const int rssi, const unsigned int glitch, const unsigned int noise, const bool now)
{
if (g_eeprom.config.setting.enable_rssi_bar)
{
#ifdef SHOW_RX_TEST_VALUES
const unsigned int line = 3;
char str[22];
#ifdef ENABLE_KEYLOCK
if (g_eeprom.config.setting.key_lock && g_keypad_locked > 0)
return false; // display is in use
#endif
if (g_current_function == FUNCTION_TRANSMIT || g_current_display_screen != DISPLAY_MAIN || g_dtmf_call_state != DTMF_CALL_STATE_NONE)
return false; // display is in use
if (now)
memset(g_frame_buffer[line], 0, LCD_WIDTH);
sprintf(str, "r %3d g %3u n %3u", rssi, glitch, noise);
UI_PrintStringSmall(str, 2, 0, line);
if (now)
ST7565_BlitFullScreen();
return true;
#else
(void)glitch; // TODO:
(void)noise;
// const int s0_dBm = -127; // S0 .. base level
const int s0_dBm = -147; // S0 .. base level
const int s9_dBm = s0_dBm + (6 * 9); // S9 .. 6dB/S-Point
const int bar_max_dBm = s9_dBm + 80; // S9+80dB
// const int bar_min_dBm = s0_dBm + (6 * 0); // S0
const int bar_min_dBm = s0_dBm + (6 * 2); // S2
// ************
const unsigned int txt_width = 7 * 8; // 8 text chars
const unsigned int bar_x = 2 + txt_width + 4; // X coord of bar graph
const unsigned int bar_width = LCD_WIDTH - 1 - bar_x;
const int rssi_dBm = (rssi / 2) - 160;
const int clamped_dBm = (rssi_dBm <= bar_min_dBm) ? bar_min_dBm : (rssi_dBm >= bar_max_dBm) ? bar_max_dBm : rssi_dBm;
const unsigned int bar_range_dB = bar_max_dBm - bar_min_dBm;
const unsigned int len = ((clamped_dBm - bar_min_dBm) * bar_width) / bar_range_dB;
const unsigned int line = 3;
char s[16];
#ifdef ENABLE_KEYLOCK
if (g_eeprom.config.setting.key_lock && g_keypad_locked > 0)
return false; // display is in use
#endif
if (g_current_function == FUNCTION_TRANSMIT ||
g_current_display_screen != DISPLAY_MAIN ||
g_dtmf_call_state != DTMF_CALL_STATE_NONE)
return false; // display is in use
// clear the line
memset(g_frame_buffer[line], 0, LCD_WIDTH);
if (rssi_dBm >= (s9_dBm + 6))
{ // S9+XXdB, 1dB increment
const char *fmt[] = {"%3d 9+%u ", "%3d 9+%2u "};
const unsigned int s9_dB = ((rssi_dBm - s9_dBm) <= 99) ? rssi_dBm - s9_dBm : 99;
sprintf(s, (s9_dB < 10) ? fmt[0] : fmt[1], rssi_dBm, s9_dB);
}
else
{ // S0 ~ S9, 6dB per S-point
const unsigned int s_level = (rssi_dBm >= s0_dBm) ? (rssi_dBm - s0_dBm) / 6 : 0;
sprintf(s, "%4d S%u ", rssi_dBm, s_level);
}
UI_PrintStringSmall(s, 2, 0, line);
draw_bar(g_frame_buffer[line] + bar_x, len, bar_width);
if (now)
ST7565_BlitFullScreen();
return true;
#endif
}
return false;
}
#endif
void UI_update_rssi(const int rssi, const unsigned int glitch, const unsigned int noise, const unsigned int vfo)
{
#ifdef ENABLE_RX_SIGNAL_BAR
if (g_center_line == CENTER_LINE_RSSI)
{ // large RSSI dBm, S-point, bar level
const int rssi_level = (g_tx_vfo->channel_attributes.band < 3) ? rssi + rssi_offset_band_123 : rssi + rssi_offset_band_4567;
//if (g_current_function == FUNCTION_RECEIVE && g_squelch_open)
if (g_current_function == FUNCTION_RECEIVE)
UI_DisplayRSSIBar(rssi_level, glitch, noise, true);
}
#else
(void)glitch;
(void)noise;
#endif
{ // original little RSSI bars
const unsigned int line = (vfo == 0) ? 3 : 7;
uint8_t *pline = g_frame_buffer[line - 1];
unsigned int rssi_level = 0;
int rssi_cal[7];
#if 1
if (g_tx_vfo->channel_attributes.band < 3)
{
rssi_cal[0] = g_eeprom.calib.rssi_cal.band_123[0];
rssi_cal[2] = g_eeprom.calib.rssi_cal.band_123[1];
rssi_cal[4] = g_eeprom.calib.rssi_cal.band_123[2];
rssi_cal[6] = g_eeprom.calib.rssi_cal.band_123[3];
}
else
{
rssi_cal[0] = g_eeprom.calib.rssi_cal.band_4567[0];
rssi_cal[2] = g_eeprom.calib.rssi_cal.band_4567[1];
rssi_cal[4] = g_eeprom.calib.rssi_cal.band_4567[2];
rssi_cal[6] = g_eeprom.calib.rssi_cal.band_4567[3];
}
#else
rssi_cal[0] = (-110 + rssi_dBm_offset) * 2; // -110 dBm
rssi_cal[2] = ( -90 + rssi_dBm_offset) * 2; // -90 dBm
rssi_cal[4] = ( -70 + rssi_dBm_offset) * 2; // -70 dBm
rssi_cal[6] = ( -50 + rssi_dBm_offset) * 2; // -50 dBm
#endif
// linear interpolate the 4 values into 7
rssi_cal[1] = (rssi_cal[0] + rssi_cal[2]) / 2;
rssi_cal[3] = (rssi_cal[2] + rssi_cal[4]) / 2;
rssi_cal[5] = (rssi_cal[4] + rssi_cal[6]) / 2;
g_vfo_rssi[vfo] = rssi;
if (rssi >= rssi_cal[6])
rssi_level = 7;
else
if (rssi >= rssi_cal[5])
rssi_level = 6;
else
if (rssi >= rssi_cal[4])
rssi_level = 5;
else
if (rssi >= rssi_cal[3])
rssi_level = 4;
else
if (rssi >= rssi_cal[2])
rssi_level = 3;
else
if (rssi >= rssi_cal[1])
rssi_level = 2;
else
if (rssi >= rssi_cal[0] || g_current_function == FUNCTION_NEW_RECEIVE)
rssi_level = 1;
g_vfo_rssi_bar_level[vfo] = rssi_level;
// **********************************************************
#ifdef ENABLE_KEYLOCK
if (g_eeprom.config.setting.key_lock && g_keypad_locked > 0)
return; // display is in use
#endif
if (g_current_function == FUNCTION_TRANSMIT || g_current_display_screen != DISPLAY_MAIN)
return; // display is in use
memset(pline, 0, 23);
if (rssi_level == 0)
pline = NULL;
else
draw_small_antenna_bars(pline, rssi_level);
ST7565_DrawLine(0, line, 23, pline);
}
}
// ***************************************************************************
void big_freq(const uint32_t frequency, const unsigned int x, const unsigned int line)
{
char str[9];
NUMBER_ToDigits(frequency, str);
// show the main large frequency digits
UI_DisplayFrequencyBig(str, x, line, false, false, 6);
// show the remaining 2 small frequency digits
#ifdef ENABLE_TRIM_TRAILING_ZEROS
{
unsigned int small_num = 2;
if (str[7] == 0)
{
small_num--;
if (str[6] == 0)
small_num--;
}
UI_Displaysmall_digits(small_num, str + 6, x + 81, line + 1, true);
}
#else
UI_Displaysmall_digits(2, str + 6, x + 81, line + 1, true);
#endif
}
#ifdef ENABLE_PANADAPTER
uint8_t bit_reverse_8(uint8_t n)
{
n = ((n >> 1) & 0x55) | ((n << 1) & 0xAA);
n = ((n >> 2) & 0x33) | ((n << 2) & 0xCC);
n = ((n >> 4) & 0x0F) | ((n << 4) & 0xF0);
return n;
}
void UI_DisplayMain_pan(const bool now)
{
const unsigned int line = (g_eeprom.config.setting.tx_vfo_num == 0) ? 4 : 0;
uint8_t *base_line = g_frame_buffer[line + 2];
uint8_t max_rssi;
uint8_t min_rssi;
uint8_t span_rssi;
unsigned int i;
if (!g_eeprom.config.setting.panadapter ||
!g_panadapter_enabled ||
single_vfo < 0 ||
g_current_display_screen != DISPLAY_MAIN ||
g_current_function == FUNCTION_POWER_SAVE ||
g_monitor_enabled ||
g_dtmf_call_state != DTMF_CALL_STATE_NONE ||
g_dtmf_is_tx ||
g_dtmf_input_mode)
{ // don't draw the panadapter
return;
}
// auto vertical scale
if (g_panadapter_cycles > 0)
{
max_rssi = g_panadapter_max_rssi;
min_rssi = g_panadapter_min_rssi;
span_rssi = max_rssi - min_rssi;
if (span_rssi < 40) // minimum vertical range (20dB)
{
span_rssi = 40;
if (min_rssi > (255 - span_rssi))
min_rssi = 255 - span_rssi;
max_rssi = min_rssi + span_rssi;
}
}
// clear our assigned screen area
memset(g_frame_buffer[line], 0, LCD_WIDTH * 3);
#ifdef ENABLE_PANADAPTER_PEAK_FREQ
if (g_panadapter_peak_freq > 0 && g_panadapter_cycles > 0)
{ // print the peak frequency
char str[16];
sprintf(str, "%u.%05u", g_panadapter_peak_freq / 100000, g_panadapter_peak_freq % 100000);
NUMBER_trim_trailing_zeros(str);
UI_PrintStringSmall(str, 8, 0, line + 0);
}
#endif
// draw top center vertical marker (the VFO frequency)
base_line[PANADAPTER_BINS - (LCD_WIDTH * 2)] = 0x3F;
{ // draw top & bottom horizontal dotted line
const unsigned int top = PANADAPTER_BINS - (LCD_WIDTH * 2);
const unsigned int bot = PANADAPTER_BINS - (LCD_WIDTH * 0);
for (i = 0; i < PANADAPTER_BINS; i += 4)
{
// top line
base_line[top - i] |= 0x01;
base_line[top + i] |= 0x01;
// bottom line
base_line[bot - i] |= 0x20;
base_line[bot + i] |= 0x20;
}
}
// draw the panadapter vertical bins
if (g_panadapter_cycles > 0)
{
for (i = 0; i < ARRAY_SIZE(g_panadapter_rssi); i++)
{
uint32_t pixels;
uint8_t rssi = g_panadapter_rssi[i];
#if 0
rssi = (rssi < ((-129 + 160) * 2)) ? 0 : rssi - ((-129 + 160) * 2); // min of -129dBm (S3)
rssi = rssi >> 2;
#else
rssi = ((uint16_t)(rssi - min_rssi) * 21) / span_rssi; // 0 ~ 21
#endif
rssi += 2; // offset from the bottom
if (rssi > 22)
rssi = 22; // limit peak value
pixels = (1u << rssi) - 1; // set the line pixels
pixels &= 0xfffffffe; // clear the bottom line
base_line[i - (LCD_WIDTH * 2)] |= bit_reverse_8(pixels >> 16);
base_line[i - (LCD_WIDTH * 1)] |= bit_reverse_8(pixels >> 8);
base_line[i - (LCD_WIDTH * 0)] |= bit_reverse_8(pixels >> 0);
}
}
if (now)
ST7565_BlitFullScreen();
}
#endif
void UI_DisplayMain(void)
{
#if !defined(ENABLE_BIG_FREQ) && defined(ENABLE_SMALLEST_FONT)
const unsigned int smallest_char_spacing = ARRAY_SIZE(g_font3x5[0]) + 1;
#endif
const unsigned int line0 = 0; // text screen line
const unsigned int line1 = 4;
int main_vfo_num = g_eeprom.config.setting.tx_vfo_num;
int current_vfo_num = g_eeprom.config.setting.tx_vfo_num;
char str[22];
int vfo_num;
g_center_line = CENTER_LINE_NONE;
single_vfo = -1;
if (g_eeprom.config.setting.dual_watch != DUAL_WATCH_OFF && g_rx_vfo_is_active)
current_vfo_num = g_rx_vfo_num; // we're currently monitoring the other VFO
// clear the screen
memset(g_frame_buffer, 0, sizeof(g_frame_buffer));
if (g_serial_config_tick_500ms > 0)
{
BACKLIGHT_turn_on(5); // 5 seconds
UI_PrintString("UART", 0, LCD_WIDTH, 1, 8);
UI_PrintString("CONFIG COMMS", 0, LCD_WIDTH, 3, 8);
ST7565_BlitFullScreen();
g_center_line = CENTER_LINE_IN_USE;
return;
}
#ifdef ENABLE_KEYLOCK
if (g_eeprom.config.setting.key_lock && g_keypad_locked > 0)
{ // tell user how to unlock the keyboard
BACKLIGHT_turn_on(5); // 5 seconds
UI_PrintString("Long press #", 0, LCD_WIDTH, 1, 8);
UI_PrintString("to unlock", 0, LCD_WIDTH, 3, 8);
ST7565_BlitFullScreen();
g_center_line = CENTER_LINE_IN_USE;
return;
}
#endif
#ifdef ENABLE_PANADAPTER
if (g_eeprom.config.setting.dual_watch == DUAL_WATCH_OFF && g_eeprom.config.setting.cross_vfo == CROSS_BAND_OFF)
if (g_dtmf_call_state == DTMF_CALL_STATE_NONE && !g_dtmf_is_tx && !g_dtmf_input_mode)
if (g_eeprom.config.setting.panadapter && g_panadapter_enabled)
if (!g_monitor_enabled)
single_vfo = g_eeprom.config.setting.tx_vfo_num;
#endif
for (vfo_num = 0; vfo_num < 2; vfo_num++)
{
const unsigned int scrn_chan = g_eeprom.config.setting.indices.vfo[vfo_num].screen;
const unsigned int line = (vfo_num == 0) ? line0 : line1;
uint8_t *p_line0 = g_frame_buffer[line + 0];
uint8_t *p_line1 = g_frame_buffer[line + 1];
unsigned int mode = 0;
unsigned int state;
if (single_vfo >= 0 && single_vfo != vfo_num)
continue; // we're in single VFO mode - screen is dedicated to just one VFO
if (current_vfo_num != vfo_num)
{
if (g_dtmf_call_state != DTMF_CALL_STATE_NONE || g_dtmf_is_tx || g_dtmf_input_mode)
{ // show DTMF stuff
char contact[17];
if (!g_dtmf_input_mode)
{
memset(contact, 0, sizeof(contact));
if (g_dtmf_call_state == DTMF_CALL_STATE_CALL_OUT)
{
strcpy(str, (g_dtmf_state == DTMF_STATE_CALL_OUT_RSP) ? "CALL OUT RESP" : "CALL OUT");
}
else
if (g_dtmf_call_state == DTMF_CALL_STATE_RECEIVED || g_dtmf_call_state == DTMF_CALL_STATE_RECEIVED_STAY)
{
const bool found = DTMF_FindContact(g_dtmf_caller, contact);
contact[8] = 0;
sprintf(str, "FROM %s", found ? contact : g_dtmf_caller);
}
else
if (g_dtmf_is_tx)
{
strcpy(str, (g_dtmf_state == DTMF_STATE_TX_SUCC) ? "DTMF TX SUCC" : "DTMF TX");
}
}
else
{
sprintf(str, ">%s", g_dtmf_input_box);
}
str[16] = 0;
UI_PrintString(str, 2, 0, 0 + (vfo_num * 3), 8);
memset(str, 0, sizeof(str));
if (!g_dtmf_input_mode)
{
memset(contact, 0, sizeof(contact));
if (g_dtmf_call_state == DTMF_CALL_STATE_CALL_OUT)
{
const bool found = DTMF_FindContact(g_dtmf_string, contact);
contact[15] = 0;
sprintf(str, ">%s", found ? contact : g_dtmf_string);
}
else
if (g_dtmf_call_state == DTMF_CALL_STATE_RECEIVED || g_dtmf_call_state == DTMF_CALL_STATE_RECEIVED_STAY)
{
const bool found = DTMF_FindContact(g_dtmf_callee, contact);
contact[15] = 0;
sprintf(str, ">%s", found ? contact : g_dtmf_callee);
}
else
if (g_dtmf_is_tx)
{
sprintf(str, ">%s", g_dtmf_string);
}
}
str[16] = 0;
UI_PrintString(str, 2, 0, 2 + (vfo_num * 3), 8);
g_center_line = CENTER_LINE_IN_USE;
continue;
}
// highlight the selected/used VFO with a marker
if (single_vfo < 0)
{
if (vfo_num == main_vfo_num)
memcpy(p_line0 + 0, BITMAP_VFO_DEFAULT, sizeof(BITMAP_VFO_DEFAULT));
else
if (g_eeprom.config.setting.cross_vfo != CROSS_BAND_OFF || vfo_num == current_vfo_num)
memcpy(p_line0 + 0, BITMAP_VFO_NOT_DEFAULT, sizeof(BITMAP_VFO_NOT_DEFAULT));
}
}
else
if (single_vfo < 0)
{ // highlight the selected/used VFO with a marker
if (vfo_num == main_vfo_num)
memcpy(p_line0 + 0, BITMAP_VFO_DEFAULT, sizeof(BITMAP_VFO_DEFAULT));
else
if (g_eeprom.config.setting.cross_vfo != CROSS_BAND_OFF || vfo_num == current_vfo_num)
memcpy(p_line0 + 0, BITMAP_VFO_NOT_DEFAULT, sizeof(BITMAP_VFO_NOT_DEFAULT));
}
if (g_current_function == FUNCTION_TRANSMIT)
{ // transmitting
#ifdef ENABLE_ALARM
if (g_alarm_state == ALARM_STATE_ALARM)
mode = 1;
else
#endif
{
current_vfo_num = (g_eeprom.config.setting.cross_vfo == CROSS_BAND_OFF) ? g_rx_vfo_num : g_eeprom.config.setting.tx_vfo_num;
if (current_vfo_num == vfo_num)
{ // show the TX symbol
mode = 1;
#ifdef ENABLE_SMALL_BOLD
UI_PrintStringSmallBold("TX", 14, 0, line);
#else
UI_PrintStringSmall("TX", 14, 0, line);
#endif
}
}
}
else
{ // receiving .. show the RX symbol
mode = 2;
if ((g_current_function == FUNCTION_RECEIVE && g_squelch_open) && g_rx_vfo_num == vfo_num)
{
#ifdef ENABLE_SMALL_BOLD
UI_PrintStringSmallBold("RX", 14, 0, line);
#else
UI_PrintStringSmall("RX", 14, 0, line);
#endif
}
}
if (scrn_chan <= USER_CHANNEL_LAST)
{ // channel mode
const unsigned int x = 2;
const bool inputting = (g_input_box_index == 0 || g_eeprom.config.setting.tx_vfo_num != vfo_num) ? false : true;
if (!inputting)
NUMBER_ToDigits(scrn_chan + 1, str); // show the memory channel number
else
memcpy(str + 5, g_input_box, 3); // show the input text
UI_PrintStringSmall("M", x, 0, line + 1);
UI_Displaysmall_digits(3, str + 5, x + 7, line + 1, inputting);
}
else
if (IS_FREQ_CHANNEL(scrn_chan))
{ // frequency mode
// show the frequency band number
const unsigned int x = 2; // was 14
// sprintf(String, "FB%u", 1 + scrn_chan - FREQ_CHANNEL_FIRST);
sprintf(str, "VFO%u", 1 + scrn_chan - FREQ_CHANNEL_FIRST);
UI_PrintStringSmall(str, x, 0, line + 1);
}
#ifdef ENABLE_NOAA
else
{
if (g_input_box_index == 0 || g_eeprom.config.setting.tx_vfo_num != vfo_num)
{ // channel number
sprintf(str, "N%u", 1 + scrn_chan - NOAA_CHANNEL_FIRST);
}
else
{ // user entering channel number
sprintf(str, "N%u%u", '0' + g_input_box[0], '0' + g_input_box[1]);
}
UI_PrintStringSmall(str, 7, 0, line + 1);
}
#endif
// ************
state = g_vfo_state[vfo_num];
#ifdef ENABLE_ALARM
if (g_current_function == FUNCTION_TRANSMIT && g_alarm_state == ALARM_STATE_ALARM)
{
channel = (g_eeprom.config.setting.cross_vfo == CROSS_BAND_OFF) ? g_rx_vfo_num : g_eeprom.config.setting.tx_vfo_num;
if (channel == vfo_num)
state = VFO_STATE_ALARM;
}
#endif
if (state != VFO_STATE_NORMAL)
{
const char *state_list[] = {"", "BUSY", "BAT LOW", "TX DISABLE", "TIMEOUT", "ALARM", "VOLT HIGH"};
if (state < ARRAY_SIZE(state_list))
UI_PrintString(state_list[state], 31, 0, line, 8);
}
else
if (g_input_box_index > 0 && IS_FREQ_CHANNEL(scrn_chan) && g_eeprom.config.setting.tx_vfo_num == vfo_num)
{ // user is entering a frequency
// UI_DisplayFrequencyBig(g_input_box, 32, line, true, false, 6);
// UI_DisplayFrequencyBig(g_input_box, 32, line, true, false, 7);
UI_DisplayFrequency(g_input_box, 32, line, true, 8);
// g_center_line = CENTER_LINE_IN_USE;
}
else
{
const unsigned int x = 32;
uint32_t frequency = g_vfo_info[vfo_num].p_rx->frequency;
if (g_current_function == FUNCTION_TRANSMIT)
{ // transmitting
current_vfo_num = (g_eeprom.config.setting.cross_vfo == CROSS_BAND_OFF) ? g_rx_vfo_num : g_eeprom.config.setting.tx_vfo_num;
if (current_vfo_num == vfo_num)
frequency = g_vfo_info[vfo_num].p_tx->frequency;
}
if (scrn_chan <= USER_CHANNEL_LAST)
{ // a user channel
switch (g_eeprom.config.setting.channel_display_mode)
{
case MDF_FREQUENCY: // just channel frequency
#ifdef ENABLE_BIG_FREQ
big_freq(frequency, x, line);
#else
// show the frequency in the main font
sprintf(str, "%03u.%05u", frequency / 100000, frequency % 100000);
#ifdef ENABLE_TRIM_TRAILING_ZEROS
NUMBER_trim_trailing_zeros(str);
#endif
UI_PrintString(str, x, 0, line, 8);
#endif
break;
case MDF_CHANNEL: // just channel number
sprintf(str, "CH-%03u", scrn_chan + 1);
UI_PrintString(str, x, 0, line, 8);
break;
case MDF_NAME: // channel name
case MDF_NAME_FREQ: // channel name and frequency
SETTINGS_fetch_channel_name(str, scrn_chan);
if (str[0] == 0)
{ // no channel name, use channel number
// sprintf(str, "CH-%03u", 1 + scrn_chan);
sprintf(str, "CH-%u", 1 + scrn_chan);
}
if (g_eeprom.config.setting.channel_display_mode == MDF_NAME)
{ // just the name
UI_PrintString(str, x + 4, 0, line, 8);
}
else
{ // name & frequency
// name
#ifdef ENABLE_SMALL_BOLD
UI_PrintStringSmallBold(str, x + 4, 0, line + 0);
#else
UI_PrintStringSmall(str, x + 4, 0, line + 0);
#endif
// frequency
// sprintf(str, "%03u.%05u", frequency / 100000, frequency % 100000);
sprintf(str, "%u.%05u", frequency / 100000, frequency % 100000);
#ifdef ENABLE_TRIM_TRAILING_ZEROS
NUMBER_trim_trailing_zeros(str);
#endif
UI_PrintStringSmall(str, x + 4, 0, line + 1);
}
break;
}
}
else
// if (IS_FREQ_CHANNEL(scrn_chan))
{ // frequency mode
#ifdef ENABLE_BIG_FREQ
big_freq(frequency, x, line);
#else
#ifdef ENABLE_SHOW_FREQS_CHAN
const unsigned int chan = g_vfo_info[vfo_num].freq_in_channel;
#endif
// sprintf(str, "%03u.%05u", frequency / 100000, frequency % 100000);
sprintf(str, "%u.%05u", frequency / 100000, frequency % 100000);
#ifdef ENABLE_TRIM_TRAILING_ZEROS
NUMBER_trim_trailing_zeros(str);
#endif
#ifdef ENABLE_SHOW_FREQS_CHAN
//g_vfo_info[vfo_num].freq_in_channel = SETTINGS_find_channel(frequency);
if (chan <= USER_CHANNEL_LAST)
{ // the frequency has a channel - show the channel name below the frequency
// frequency
#ifdef ENABLE_SMALL_BOLD
UI_PrintStringSmallBold(str, x + 4, 0, line + 0);
#else
UI_PrintStringSmall(str, x + 4, 0, line + 0);
#endif
// channel name, if not then channel number
SETTINGS_fetch_channel_name(str, chan);
if (str[0] == 0)
// sprintf(str, "CH-%03u", 1 + chan);
sprintf(str, "CH-%u", 1 + chan);
UI_PrintStringSmall(str, x + 4, 0, line + 1);
}
else
#endif
{ // show the frequency in the main font
UI_PrintString(str, x, 0, line, 8);
}
#endif
}
// show channel symbols
if (scrn_chan <= USER_CHANNEL_LAST)
//if (IS_NOT_NOAA_CHANNEL(scrn_chan))
{ // it's a user channel or VFO
unsigned int x = LCD_WIDTH - 1 - sizeof(BITMAP_SCANLIST2) - sizeof(BITMAP_SCANLIST1);
if (g_vfo_info[vfo_num].channel_attributes.scanlist1)
memcpy(p_line0 + x, BITMAP_SCANLIST1, sizeof(BITMAP_SCANLIST1));
x += sizeof(BITMAP_SCANLIST1);
if (g_vfo_info[vfo_num].channel_attributes.scanlist2)
memcpy(p_line0 + x, BITMAP_SCANLIST2, sizeof(BITMAP_SCANLIST2));
//x += sizeof(BITMAP_SCANLIST2);
}
#ifdef ENABLE_BIG_FREQ
// no room for these symbols
#elif defined(ENABLE_SMALLEST_FONT)
{
unsigned int x = LCD_WIDTH + LCD_WIDTH - 1 - (smallest_char_spacing * 1) - (smallest_char_spacing * 4);
if (IS_FREQ_CHANNEL(scrn_chan))
{
//g_vfo_info[vfo_num].freq_in_channel = SETTINGS_find_channel(frequency);
if (g_vfo_info[vfo_num].freq_in_channel <= USER_CHANNEL_LAST)
{ // the channel number that contains this VFO frequency
sprintf(str, "%03u", 1 + g_vfo_info[vfo_num].freq_in_channel);
UI_PrintStringSmallest(str, x, (line + 0) * 8, false, true);
}
}
x += smallest_char_spacing * 4;
if (g_vfo_info[vfo_num].channel.compand)
UI_PrintStringSmallest("C", x, (line + 0) * 8, false, true);
//x += smallest_char_spacing * 1;
}
#else
{
#ifdef ENABLE_SHOW_FREQS_CHAN
strcpy(str, " ");
#ifdef ENABLE_SCAN_IGNORE_LIST
if (FI_freq_ignored(frequency) >= 0)
str[0] = 'I'; // frequency is in the ignore list
#endif
if (g_vfo_info[vfo_num].channel.compand)
str[1] = 'C'; // compander is enabled
UI_PrintStringSmall(str, LCD_WIDTH - (7 * 2), 0, line + 1);
#else
const bool is_freq_chan = IS_FREQ_CHANNEL(scrn_chan);
const uint8_t freq_in_channel = g_vfo_info[vfo_num].freq_in_channel;
// const uint8_t freq_in_channel = SETTINGS_find_channel(frequency); // was way to slow
strcpy(str, " ");
#ifdef ENABLE_SCAN_IGNORE_LIST
if (FI_freq_ignored(frequency) >= 0)
str[0] = 'I'; // frequency is in the ignore list
#endif
if (is_freq_chan && freq_in_channel <= USER_CHANNEL_LAST)
str[1] = 'F'; // this VFO frequency is also found in a channel
if (g_vfo_info[vfo_num].channel.compand)
str[2] = 'C'; // compander is enabled
UI_PrintStringSmall(str, LCD_WIDTH - (7 * 3), 0, line + 1);
#endif
}
#endif
}
// ************
{ // show the TX/RX level
uint8_t Level = 0;
if (mode == 1)
{ // TX power level
switch (g_rx_vfo->channel.tx_power)
{
case OUTPUT_POWER_LOW: Level = 2; break;
case OUTPUT_POWER_MID: Level = 4; break;
case OUTPUT_POWER_HIGH: Level = 6; break;
}
}
else
if (mode == 2)
{ // RX signal level
if (g_vfo_rssi_bar_level[vfo_num] > 0)
Level = g_vfo_rssi_bar_level[vfo_num];
}
draw_small_antenna_bars(p_line1 + LCD_WIDTH, Level);
}
// ************
str[0] = '\0';
if (g_vfo_info[vfo_num].channel.mod_mode != MOD_MODE_FM)
{ // show the modulation mode
const char *mode_list[] = {"FM", "AM", "SB", "??"};
const unsigned int mode = g_vfo_info[vfo_num].channel.mod_mode;
if (mode < ARRAY_SIZE(mode_list))
strcpy(str, mode_list[mode]);
}
else
{ // or show the CTCSS/DCS symbol (when in FM mode)
const freq_config_t *pConfig = (mode == 1) ? g_vfo_info[vfo_num].p_tx : g_vfo_info[vfo_num].p_rx;
const unsigned int code_type = pConfig->code_type;
const char *code_list[] = {"FM", "CTC", "DCS", "DCR"};
if (code_type < ARRAY_SIZE(code_list))
strcpy(str, code_list[code_type]);
}
UI_PrintStringSmall(str, 24, 0, line + 2);
#ifdef ENABLE_TX_WHEN_AM
if (state == VFO_STATE_NORMAL || state == VFO_STATE_ALARM)
#else
if ((state == VFO_STATE_NORMAL || state == VFO_STATE_ALARM) && g_vfo_info[vfo_num].channel.mod_mode == MOD_MODE_FM) // TX allowed only when FM
#endif
{
if (FREQUENCY_tx_freq_check(g_vfo_info[vfo_num].p_tx->frequency) == 0)
{
// show the TX power
const char pwr_list[] = "LMH";
const unsigned int i = g_vfo_info[vfo_num].channel.tx_power;
str[0] = (i < ARRAY_SIZE(pwr_list)) ? pwr_list[i] : '\0';
str[1] = '\0';
UI_PrintStringSmall(str, 46, 0, line + 2);
if (g_vfo_info[vfo_num].freq_config_rx.frequency != g_vfo_info[vfo_num].freq_config_tx.frequency)
{ // show the TX offset symbol
const char dir_list[] = "\0+-";
const unsigned int i = g_vfo_info[vfo_num].channel.tx_offset_dir;
str[0] = (i < sizeof(dir_list)) ? dir_list[i] : '?';
str[1] = '\0';
UI_PrintStringSmall(str, 54, 0, line + 2);
}
}
}
// show the TX/RX reverse symbol
if (g_vfo_info[vfo_num].channel.frequency_reverse)
UI_PrintStringSmall("R", 62, 0, line + 2);
// show the narrow band symbol
strcpy(str, " ");
if (g_vfo_info[vfo_num].channel.channel_bandwidth == BANDWIDTH_WIDE)
str[0] = 'W';
else
if (g_vfo_info[vfo_num].channel.channel_bandwidth == BANDWIDTH_NARROW)
str[0] = 'N';
UI_PrintStringSmall(str, 70, 0, line + 2);
// show the DTMF decoding symbol
#ifdef ENABLE_KILL_REVIVE
if (g_vfo_info[vfo_num].channel.dtmf_decoding_enable || g_eeprom.config.setting.radio_disabled)
UI_PrintStringSmall("DTMF", 78, 0, line + 2);
#else
if (g_vfo_info[vfo_num].channel.dtmf_decoding_enable)
UI_PrintStringSmall("DTMF", 78, 0, line + 2);
//UI_PrintStringSmallest("DTMF", 78, (line + 2) * 8, false, true);
#endif
// show the audio scramble symbol
if (g_vfo_info[vfo_num].channel.scrambler > 0 && g_eeprom.config.setting.enable_scrambler)
UI_PrintStringSmall("SCR", 106, 0, line + 2);
}
// *************************************************
if (g_center_line == CENTER_LINE_NONE &&
g_current_display_screen == DISPLAY_MAIN &&
g_dtmf_call_state == DTMF_CALL_STATE_NONE)
{ // we're free to use the middle line
// const bool rx = (g_current_function == FUNCTION_RECEIVE && g_squelch_open) ? true : false;
const bool rx = (g_current_function == FUNCTION_RECEIVE) ? true : false;
#ifdef ENABLE_TX_AUDIO_BAR
// show the TX audio level
if (UI_DisplayAudioBar(false))
{
g_center_line = CENTER_LINE_AUDIO_BAR;
}
else
#endif
#ifdef ENABLE_MDC1200
if (mdc1200_rx_ready_tick_500ms > 0)
{
g_center_line = CENTER_LINE_MDC1200;
#ifdef ENABLE_MDC1200_SHOW_OP_ARG
sprintf(str, "MDC1200 %02X %02X %04X", mdc1200_op, mdc1200_arg, mdc1200_unit_id);
#else
sprintf(str, "MDC1200 ID %04X", mdc1200_unit_id);
#endif
#ifdef ENABLE_SMALL_BOLD
UI_PrintStringSmallBold(str, 2, 0, 3);
#else
UI_PrintStringSmall(str, 2, 0, 3);
#endif
}
else
#endif
#if defined(ENABLE_AM_FIX) && defined(ENABLE_AM_FIX_SHOW_DATA)
// show the AM-FIX debug data
if (rx && g_vfo_info[g_rx_vfo_num].mod_mode != MOD_MODE_FM && g_eeprom.config.setting.am_fix)
{
g_center_line = CENTER_LINE_AM_FIX_DATA;
AM_fix_print_data(g_rx_vfo_num, str);
UI_PrintStringSmall(str, 2, 0, 3);
}
else
#endif
#ifdef ENABLE_RX_SIGNAL_BAR
// show the RX RSSI dBm, S-point and signal strength bar graph
if (rx && g_eeprom.config.setting.enable_rssi_bar)
{
const int rssi_level = (g_tx_vfo->channel_attributes.band < 3) ? g_current_rssi[g_rx_vfo_num] + rssi_offset_band_123 : g_current_rssi[g_rx_vfo_num] + rssi_offset_band_4567;
g_center_line = CENTER_LINE_RSSI;
UI_DisplayRSSIBar(rssi_level, g_current_glitch[g_rx_vfo_num], g_current_noise[g_rx_vfo_num], false);
}
else
#endif
if (rx || g_current_function == FUNCTION_FOREGROUND || g_current_function == FUNCTION_POWER_SAVE)
{
#if 1
if (g_eeprom.config.setting.dtmf_live_decoder && g_dtmf_rx_live[0] != 0)
{ // show live DTMF decode
const unsigned int len = strlen(g_dtmf_rx_live);
const unsigned int idx = (len > (17 - 5)) ? len - (17 - 5) : 0; // limit to last 'n' chars
if (g_current_display_screen != DISPLAY_MAIN || g_dtmf_call_state != DTMF_CALL_STATE_NONE)
return;
g_center_line = CENTER_LINE_DTMF_DEC;
strcpy(str, "DTMF ");
strcat(str, g_dtmf_rx_live + idx);
UI_PrintStringSmall(str, 2, 0, 3);
}
#else
if (g_eeprom.config.setting.dtmf_live_decoder && g_dtmf_rx_index > 0)
{ // show live DTMF decode
const unsigned int len = g_dtmf_rx_index;
const unsigned int idx = (len > (17 - 5)) ? len - (17 - 5) : 0; // limit to last 'n' chars
if (g_current_display_screen != DISPLAY_MAIN || g_dtmf_call_state != DTMF_CALL_STATE_NONE)
return;
g_center_line = CENTER_LINE_DTMF_DEC;
strcpy(str, "DTMF ");
strcat(str, g_dtmf_rx + idx);
UI_PrintStringSmall(str, 2, 0, 3);
}
#endif
#ifdef ENABLE_SHOW_CHARGE_LEVEL
else
if (g_charging_with_type_c)
{ // show the battery charge state
if (g_current_display_screen != DISPLAY_MAIN || g_dtmf_call_state != DTMF_CALL_STATE_NONE)
return;
g_center_line = CENTER_LINE_CHARGE_DATA;
sprintf(str, "Charge %u.%02uV %u%%",
g_battery_voltage_average / 100, g_battery_voltage_average % 100,
BATTERY_VoltsToPercent(g_battery_voltage_average));
UI_PrintStringSmall(str, 2, 0, 3);
}
#endif
}
}
#ifdef ENABLE_PANADAPTER
//if (single_vfo >= 0)
UI_DisplayMain_pan(false);
#endif
ST7565_BlitFullScreen();
}
// ***************************************************************************
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