mayhem-firmware/firmware/common/portapack_persistent_memory.cpp
Mark Thompson ba2407d691
Persistent audio mute support (#1161)
* Persistent speaker mute support #1100
* Moving persistent mute support from WM8731/AK4951 codec files to audio.cpp module for simplification
2023-06-17 23:15:21 +02:00

928 lines
26 KiB
C++

/*
* Copyright (C) 2015 Jared Boone, ShareBrained Technology, Inc.
* Copyright (C) 2016 Furrtek
*
* This file is part of PortaPack.
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation; either version 2, or (at your option)
* any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; see the file COPYING. If not, write to
* the Free Software Foundation, Inc., 51 Franklin Street,
* Boston, MA 02110-1301, USA.
*/
#include "portapack_persistent_memory.hpp"
#include "audio.hpp"
#include "portapack.hpp"
#include "hal.h"
#include "utility.hpp"
#include "memory_map.hpp"
#include "crc.hpp"
#include <algorithm>
#include <utility>
#include <string>
#include <fstream>
#include "file.hpp"
#include "irq_controls.hpp"
using namespace std;
namespace portapack {
namespace persistent_memory {
constexpr rf::Frequency target_frequency_reset_value{100000000};
using ppb_range_t = range_t<ppb_t>;
constexpr ppb_range_t ppb_range{-99000, 99000};
constexpr ppb_t ppb_reset_value{0};
using tone_mix_range_t = range_t<int32_t>;
constexpr tone_mix_range_t tone_mix_range{10, 99};
constexpr int32_t tone_mix_reset_value{20};
using afsk_freq_range_t = range_t<int32_t>;
constexpr afsk_freq_range_t afsk_freq_range{1, 4000};
constexpr int32_t afsk_mark_reset_value{1200};
constexpr int32_t afsk_space_reset_value{2200};
using modem_baudrate_range_t = range_t<int32_t>;
constexpr modem_baudrate_range_t modem_baudrate_range{50, 9600};
constexpr int32_t modem_baudrate_reset_value{1200};
/*using modem_bw_range_t = range_t<int32_t>;
constexpr modem_bw_range_t modem_bw_range { 1000, 50000 };
constexpr int32_t modem_bw_reset_value { 15000 };*/
using modem_repeat_range_t = range_t<int32_t>;
constexpr modem_repeat_range_t modem_repeat_range{1, 99};
constexpr int32_t modem_repeat_reset_value{5};
using clkout_freq_range_t = range_t<uint32_t>;
constexpr clkout_freq_range_t clkout_freq_range{10, 60000};
constexpr uint32_t clkout_freq_reset_value{10000};
enum data_structure_version_enum : uint32_t {
VERSION_CURRENT = 0x10000003,
};
static const uint32_t TOUCH_CALIBRATION_MAGIC = 0x074af82f;
struct ui_config_t {
private:
enum bits_t {
BacklightTimeoutLSB = 0,
BacklightTimeoutEnable = 3,
ClkoutFreqLSB = 4,
ShowGUIReturnIcon = 20,
LoadAppSettings = 21,
SaveAppSettings = 22,
ShowBiggerQRCode = 23,
DisableTouchscreen = 24,
HideClock = 25,
ClockWithDate = 26,
ClkOutEnabled = 27,
ConfigSpeakerHidden = 28,
StealthMode = 29,
ConfigLogin = 30,
ConfigSplash = 31,
};
enum bits_mask_t : uint32_t {
BacklightTimeoutMask = ((1 << 3) - 1) << bits_t::BacklightTimeoutLSB,
ClkoutFreqMask = ((1 << 16) - 1) << bits_t::ClkoutFreqLSB,
};
uint32_t values;
constexpr bool bit_read(const bits_t n) const {
return ((values >> n) & 1) != 0;
}
constexpr void bit_write(const bits_t n, const bool v) {
if (bit_read(n) != v) {
values ^= 1 << n;
}
}
public:
backlight_config_t config_backlight_timer() {
const auto timeout_enum = (backlight_timeout_t)((values & bits_mask_t::BacklightTimeoutMask) >> bits_t::BacklightTimeoutLSB);
const bool timeout_enabled = bit_read(bits_t::BacklightTimeoutEnable);
return backlight_config_t(timeout_enum, timeout_enabled);
}
void set_config_backlight_timer(const backlight_config_t& new_value) {
values = (values & ~bits_mask_t::BacklightTimeoutMask) | ((new_value.timeout_enum() << bits_t::BacklightTimeoutLSB) & bits_mask_t::BacklightTimeoutMask);
bit_write(bits_t::BacklightTimeoutEnable, new_value.timeout_enabled());
}
constexpr uint32_t clkout_freq() {
uint32_t freq = (values & bits_mask_t::ClkoutFreqMask) >> bits_t::ClkoutFreqLSB;
if (freq < clkout_freq_range.minimum || freq > clkout_freq_range.maximum) {
values = (values & ~bits_mask_t::ClkoutFreqMask) | (clkout_freq_reset_value << bits_t::ClkoutFreqLSB);
return clkout_freq_reset_value;
} else {
return freq;
}
}
constexpr void set_clkout_freq(uint32_t freq) {
values = (values & ~bits_mask_t::ClkoutFreqMask) | (clkout_freq_range.clip(freq) << bits_t::ClkoutFreqLSB);
}
// ui_config is an uint32_t var storing information bitwise
// bits 0-2 store the backlight timer
// bits 4-19 (16 bits) store the clkout frequency
// bits 21-31 store the different single bit configs depicted below
// bit 20 store the display state of the gui return icon, hidden (0) or shown (1)
constexpr bool show_gui_return_icon() const { // add return icon in touchscreen menue
return bit_read(bits_t::ShowGUIReturnIcon);
}
constexpr void set_gui_return_icon(bool v) {
bit_write(bits_t::ShowGUIReturnIcon, v);
}
constexpr bool load_app_settings() const { // load (last saved) app settings on startup of app
return bit_read(bits_t::LoadAppSettings);
}
constexpr void set_load_app_settings(bool v) {
bit_write(bits_t::LoadAppSettings, v);
}
constexpr bool save_app_settings() const { // save app settings when closing app
return bit_read(bits_t::SaveAppSettings);
}
constexpr void set_save_app_settings(bool v) {
bit_write(bits_t::SaveAppSettings, v);
}
constexpr bool show_bigger_qr_code() const { // show bigger QR code
return bit_read(bits_t::ShowBiggerQRCode);
}
constexpr void set_show_bigger_qr_code(bool v) {
bit_write(bits_t::ShowBiggerQRCode, v);
}
constexpr bool disable_touchscreen() const { // Option to disable touch screen
return bit_read(bits_t::DisableTouchscreen);
}
constexpr void set_disable_touchscreen(bool v) {
bit_write(bits_t::DisableTouchscreen, v);
}
constexpr bool hide_clock() const { // clock hidden from main menu
return bit_read(bits_t::HideClock);
}
constexpr void set_clock_hidden(bool v) {
bit_write(bits_t::HideClock, v);
}
constexpr bool clock_with_date() const { // show clock with date, if not hidden
return bit_read(bits_t::ClockWithDate);
}
constexpr void set_clock_with_date(bool v) {
bit_write(bits_t::ClockWithDate, v);
}
constexpr bool clkout_enabled() const {
return bit_read(bits_t::ClkOutEnabled);
}
constexpr void set_clkout_enabled(bool v) {
bit_write(bits_t::ClkOutEnabled, v);
}
constexpr bool stealth_mode() const {
return bit_read(bits_t::StealthMode);
}
constexpr void set_stealth_mode(bool v) {
bit_write(bits_t::StealthMode, v);
}
constexpr bool config_login() const {
return bit_read(bits_t::ConfigLogin);
}
constexpr void set_config_login(bool v) {
bit_write(bits_t::ConfigLogin, v);
}
constexpr bool config_splash() const {
return bit_read(bits_t::ConfigSplash);
}
constexpr void set_config_splash(bool v) {
bit_write(bits_t::ConfigSplash, v);
}
constexpr ui_config_t()
: values(
(1 << ConfigSplash) | (clkout_freq_reset_value << ClkoutFreqLSB) | (7 << BacklightTimeoutLSB)) {
}
};
struct misc_config_t {
private:
enum bits_t {
ConfigAudioMute = 0,
ConfigSpeakerDisable = 1,
};
// misc_config_t bits:
// ConfigAudioMute = set to mute all audio output (speakers & headphones)
// ConfigSpeakerDisable = set to disable only the speaker and leave headphones enabled (only supported on AK4951 codec)
uint32_t values;
constexpr bool bit_read(const bits_t n) const {
return ((values >> n) & 1) != 0;
}
constexpr void bit_write(const bits_t n, const bool v) {
if (bit_read(n) != v) {
values ^= 1 << n;
}
}
public:
constexpr bool config_audio_mute() const {
return bit_read(bits_t::ConfigAudioMute);
}
constexpr void set_config_audio_mute(bool v) {
bit_write(bits_t::ConfigAudioMute, v);
}
constexpr bool config_speaker_disable() const {
return bit_read(bits_t::ConfigSpeakerDisable);
}
constexpr void set_config_speaker_disable(bool v) {
bit_write(bits_t::ConfigSpeakerDisable, v);
}
constexpr misc_config_t()
: values(0) {
}
};
/* struct must pack the same way on M4 and M0 cores. */
struct data_t {
data_structure_version_enum structure_version;
int64_t target_frequency;
int32_t correction_ppb;
uint32_t touch_calibration_magic;
touch::Calibration touch_calibration;
// Modem
uint32_t modem_def_index;
serial_format_t serial_format;
int32_t modem_bw;
int32_t afsk_mark_freq;
int32_t afsk_space_freq;
int32_t modem_baudrate;
int32_t modem_repeat;
// Play dead unlock
uint32_t playdead_magic;
uint32_t playing_dead;
uint32_t playdead_sequence;
// UI
ui_config_t ui_config;
uint32_t pocsag_last_address;
uint32_t pocsag_ignore_address;
int32_t tone_mix;
// Hardware
uint32_t hardware_config;
// Recon App
uint64_t recon_config;
// converter: show or hide icon. Hiding cause auto disable to avoid mistakes
bool hide_converter;
// enable or disable converter
bool converter;
// set up converter (false) or down converter (true) converter
bool updown_converter;
// up/down converter offset
int64_t converter_frequency_offset;
// frequency correction
uint32_t frequency_rx_correction;
bool updown_frequency_rx_correction;
uint32_t frequency_tx_correction;
bool updown_frequency_tx_correction;
// Rotary encoder dial sensitivity (encoder.cpp/hpp)
uint8_t encoder_dial_sensitivity;
// Headphone volume in centibels.
int32_t headphone_volume_cb;
// Misc flags
misc_config_t misc_config;
constexpr data_t()
: structure_version(data_structure_version_enum::VERSION_CURRENT),
target_frequency(target_frequency_reset_value),
correction_ppb(ppb_reset_value),
touch_calibration_magic(TOUCH_CALIBRATION_MAGIC),
touch_calibration(touch::Calibration()),
modem_def_index(0), // TODO: Unused?
serial_format(),
modem_bw(15000), // TODO: Unused?
afsk_mark_freq(afsk_mark_reset_value),
afsk_space_freq(afsk_space_reset_value),
modem_baudrate(modem_baudrate_reset_value),
modem_repeat(modem_repeat_reset_value),
playdead_magic(), // TODO: Unused?
playing_dead(), // TODO: Unused?
playdead_sequence(), // TODO: Unused?
ui_config(),
pocsag_last_address(0), // TODO: A better default?
pocsag_ignore_address(0), // TODO: A better default?
tone_mix(tone_mix_reset_value),
hardware_config(0),
recon_config(0),
hide_converter(0),
converter(0),
updown_converter(0),
converter_frequency_offset(0),
frequency_rx_correction(0),
updown_frequency_rx_correction(0),
frequency_tx_correction(0),
updown_frequency_tx_correction(0),
encoder_dial_sensitivity(0),
headphone_volume_cb(-600),
misc_config() {
}
};
struct backup_ram_t {
private:
volatile uint32_t regfile[63];
volatile uint32_t check_value;
static void copy(const backup_ram_t& src, backup_ram_t& dst) {
for (size_t i = 0; i < 63; i++) {
dst.regfile[i] = src.regfile[i];
}
dst.check_value = src.check_value;
}
static void copy_from_data_t(const data_t& src, backup_ram_t& dst) {
const uint32_t* const src_words = (uint32_t*)&src;
const size_t word_count = (sizeof(data_t) + 3) / 4;
for (size_t i = 0; i < 63; i++) {
if (i < word_count) {
dst.regfile[i] = src_words[i];
} else {
dst.regfile[i] = 0;
}
}
}
uint32_t compute_check_value() {
CRC<32> crc{0x04c11db7, 0xffffffff, 0xffffffff};
for (size_t i = 0; i < 63; i++) {
const auto word = regfile[i];
crc.process_byte((word >> 0) & 0xff);
crc.process_byte((word >> 8) & 0xff);
crc.process_byte((word >> 16) & 0xff);
crc.process_byte((word >> 24) & 0xff);
}
return crc.checksum();
}
public:
/* default constructor */
backup_ram_t()
: check_value(0) {
const data_t defaults = data_t();
copy_from_data_t(defaults, *this);
}
/* copy-assignment operator */
backup_ram_t& operator=(const backup_ram_t& src) {
copy(src, *this);
return *this;
}
/* Calculate a check value from `this`, and check against
* the stored value.
*/
bool is_valid() {
return compute_check_value() == check_value;
}
/* Assuming `this` contains valid data, update the checksum
* and copy to the destination.
*/
void persist_to(backup_ram_t& dst) {
check_value = compute_check_value();
copy(*this, dst);
}
};
static_assert(sizeof(backup_ram_t) == memory::map::backup_ram.size());
static_assert(sizeof(data_t) <= sizeof(backup_ram_t) - sizeof(uint32_t));
static backup_ram_t* const backup_ram = reinterpret_cast<backup_ram_t*>(memory::map::backup_ram.base());
static backup_ram_t cached_backup_ram;
static data_t* data = reinterpret_cast<data_t*>(&cached_backup_ram);
namespace cache {
void defaults() {
cached_backup_ram = backup_ram_t();
*data = data_t(); // This is a workaround for apparently alignment issue
// that is causing backup_ram_t's block copy to be
// misaligned. This force sets values through the struct.
// defaults values for recon app
set_recon_autosave_freqs(false);
set_recon_autostart_recon(true);
set_recon_continuous(true);
set_recon_clear_output(false);
set_recon_load_freqs(true);
set_recon_load_ranges(true);
set_recon_update_ranges_when_recon(true);
set_recon_load_hamradios(true);
set_recon_match_mode(0);
}
void init() {
const auto switches_state = get_switches_state();
if (!(switches_state[(size_t)ui::KeyEvent::Left] && switches_state[(size_t)ui::KeyEvent::Right]) && backup_ram->is_valid()) {
// Copy valid persistent data into cache.
cached_backup_ram = *backup_ram;
// Check that structure data we copied into cache is the expected
// version. If not, initialize cache to defaults.
if (data->structure_version != data_structure_version_enum::VERSION_CURRENT) {
// TODO: Can provide version-to-version upgrade functions here,
// if we want to be fancy.
defaults();
}
} else {
// Copy defaults into cache.
defaults();
}
}
void persist() {
cached_backup_ram.persist_to(*backup_ram);
}
} /* namespace cache */
rf::Frequency target_frequency() {
rf::tuning_range.reset_if_outside(data->target_frequency, target_frequency_reset_value);
return data->target_frequency;
}
void set_target_frequency(const rf::Frequency new_value) {
data->target_frequency = rf::tuning_range.clip(new_value);
}
volume_t headphone_volume() {
auto volume = volume_t::centibel(data->headphone_volume_cb);
volume = audio::headphone::volume_range().limit(volume);
return volume;
}
void set_headphone_volume(volume_t new_value) {
new_value = audio::headphone::volume_range().limit(new_value);
data->headphone_volume_cb = new_value.centibel();
}
ppb_t correction_ppb() {
ppb_range.reset_if_outside(data->correction_ppb, ppb_reset_value);
return data->correction_ppb;
}
void set_correction_ppb(const ppb_t new_value) {
const auto clipped_value = ppb_range.clip(new_value);
data->correction_ppb = clipped_value;
portapack::clock_manager.set_reference_ppb(clipped_value);
}
void set_touch_calibration(const touch::Calibration& new_value) {
data->touch_calibration = new_value;
data->touch_calibration_magic = TOUCH_CALIBRATION_MAGIC;
}
const touch::Calibration& touch_calibration() {
if (data->touch_calibration_magic != TOUCH_CALIBRATION_MAGIC) {
set_touch_calibration(touch::Calibration());
}
return data->touch_calibration;
}
int32_t tone_mix() {
tone_mix_range.reset_if_outside(data->tone_mix, tone_mix_reset_value);
return data->tone_mix;
}
void set_tone_mix(const int32_t new_value) {
data->tone_mix = tone_mix_range.clip(new_value);
}
int32_t afsk_mark_freq() {
afsk_freq_range.reset_if_outside(data->afsk_mark_freq, afsk_mark_reset_value);
return data->afsk_mark_freq;
}
void set_afsk_mark(const int32_t new_value) {
data->afsk_mark_freq = afsk_freq_range.clip(new_value);
}
int32_t afsk_space_freq() {
afsk_freq_range.reset_if_outside(data->afsk_space_freq, afsk_space_reset_value);
return data->afsk_space_freq;
}
void set_afsk_space(const int32_t new_value) {
data->afsk_space_freq = afsk_freq_range.clip(new_value);
}
int32_t modem_baudrate() {
modem_baudrate_range.reset_if_outside(data->modem_baudrate, modem_baudrate_reset_value);
return data->modem_baudrate;
}
void set_modem_baudrate(const int32_t new_value) {
data->modem_baudrate = modem_baudrate_range.clip(new_value);
}
/*int32_t modem_bw() {
modem_bw_range.reset_if_outside(data->modem_bw, modem_bw_reset_value);
return data->modem_bw;
}
void set_modem_bw(const int32_t new_value) {
data->modem_bw = modem_bw_range.clip(new_value);
}*/
uint8_t modem_repeat() {
modem_repeat_range.reset_if_outside(data->modem_repeat, modem_repeat_reset_value);
return data->modem_repeat;
}
void set_modem_repeat(const uint32_t new_value) {
data->modem_repeat = modem_repeat_range.clip(new_value);
}
serial_format_t serial_format() {
return data->serial_format;
}
void set_serial_format(const serial_format_t new_value) {
data->serial_format = new_value;
}
bool show_gui_return_icon() { // add return icon in touchscreen menue
return data->ui_config.show_gui_return_icon();
}
bool load_app_settings() { // load (last saved) app settings on startup of app
return data->ui_config.load_app_settings();
}
bool save_app_settings() { // save app settings when closing app
return data->ui_config.save_app_settings();
}
bool show_bigger_qr_code() { // show bigger QR code
return data->ui_config.show_bigger_qr_code();
}
bool disable_touchscreen() { // Option to disable touch screen
return data->ui_config.disable_touchscreen();
}
bool hide_clock() { // clock hidden from main menu
return data->ui_config.hide_clock();
}
bool clock_with_date() { // show clock with date, if not hidden
return data->ui_config.clock_with_date();
}
bool clkout_enabled() {
return data->ui_config.clkout_enabled();
}
bool config_audio_mute() {
return data->misc_config.config_audio_mute();
}
bool config_speaker_disable() {
return data->misc_config.config_speaker_disable();
}
bool stealth_mode() {
return data->ui_config.stealth_mode();
}
bool config_login() {
return data->ui_config.config_login();
}
bool config_splash() {
return data->ui_config.config_splash();
}
uint8_t config_cpld() {
return data->hardware_config;
}
backlight_config_t config_backlight_timer() {
return data->ui_config.config_backlight_timer();
}
void set_gui_return_icon(bool v) {
data->ui_config.set_gui_return_icon(v);
}
void set_load_app_settings(bool v) {
data->ui_config.set_load_app_settings(v);
}
void set_save_app_settings(bool v) {
data->ui_config.set_save_app_settings(v);
}
void set_show_bigger_qr_code(bool v) {
data->ui_config.set_show_bigger_qr_code(v);
}
void set_disable_touchscreen(bool v) {
data->ui_config.set_disable_touchscreen(v);
}
void set_clock_hidden(bool v) {
data->ui_config.set_clock_hidden(v);
}
void set_clock_with_date(bool v) {
data->ui_config.set_clock_with_date(v);
}
void set_clkout_enabled(bool v) {
data->ui_config.set_clkout_enabled(v);
}
void set_config_audio_mute(bool v) {
data->misc_config.set_config_audio_mute(v);
}
void set_config_speaker_disable(bool v) {
data->misc_config.set_config_speaker_disable(v);
}
void set_stealth_mode(bool v) {
data->ui_config.set_stealth_mode(v);
}
void set_config_login(bool v) {
data->ui_config.set_config_login(v);
}
void set_config_splash(bool v) {
data->ui_config.set_config_splash(v);
}
void set_config_cpld(uint8_t i) {
data->hardware_config = i;
}
void set_config_backlight_timer(const backlight_config_t& new_value) {
data->ui_config.set_config_backlight_timer(new_value);
}
/*void set_config_textentry(uint8_t new_value) {
data->ui_config = (data->ui_config & ~0b100) | ((new_value & 1) << 2);
}
uint8_t ui_config_textentry() {
return ((data->ui_config >> 2) & 1);
}*/
/*void set_ui_config(const uint32_t new_value) {
data->ui_config = new_value;
}*/
uint32_t pocsag_last_address() {
return data->pocsag_last_address;
}
void set_pocsag_last_address(uint32_t address) {
data->pocsag_last_address = address;
}
uint32_t pocsag_ignore_address() {
return data->pocsag_ignore_address;
}
void set_pocsag_ignore_address(uint32_t address) {
data->pocsag_ignore_address = address;
}
uint32_t clkout_freq() {
return data->ui_config.clkout_freq();
}
void set_clkout_freq(uint32_t freq) {
data->ui_config.set_clkout_freq(freq);
}
bool recon_autosave_freqs() {
return (data->recon_config & 0x80000000UL) ? true : false;
}
bool recon_autostart_recon() {
return (data->recon_config & 0x40000000UL) ? true : false;
}
bool recon_continuous() {
return (data->recon_config & 0x20000000UL) ? true : false;
}
bool recon_clear_output() {
return (data->recon_config & 0x10000000UL) ? true : false;
}
bool recon_load_freqs() {
return (data->recon_config & 0x08000000UL) ? true : false;
}
bool recon_load_ranges() {
return (data->recon_config & 0x04000000UL) ? true : false;
}
bool recon_update_ranges_when_recon() {
return (data->recon_config & 0x02000000UL) ? true : false;
}
bool recon_load_hamradios() {
return (data->recon_config & 0x01000000UL) ? true : false;
}
bool recon_match_mode() {
return (data->recon_config & 0x00800000UL) ? true : false;
}
void set_recon_autosave_freqs(const bool v) {
data->recon_config = (data->recon_config & ~0x80000000UL) | (v << 31);
}
void set_recon_autostart_recon(const bool v) {
data->recon_config = (data->recon_config & ~0x40000000UL) | (v << 30);
}
void set_recon_continuous(const bool v) {
data->recon_config = (data->recon_config & ~0x20000000UL) | (v << 29);
}
void set_recon_clear_output(const bool v) {
data->recon_config = (data->recon_config & ~0x10000000UL) | (v << 28);
}
void set_recon_load_freqs(const bool v) {
data->recon_config = (data->recon_config & ~0x08000000UL) | (v << 27);
}
void set_recon_load_ranges(const bool v) {
data->recon_config = (data->recon_config & ~0x04000000UL) | (v << 26);
}
void set_recon_update_ranges_when_recon(const bool v) {
data->recon_config = (data->recon_config & ~0x02000000UL) | (v << 25);
}
void set_recon_load_hamradios(const bool v) {
data->recon_config = (data->recon_config & ~0x01000000UL) | (v << 24);
}
void set_recon_match_mode(const bool v) {
data->recon_config = (data->recon_config & ~0x00800000UL) | (v << 23);
}
bool config_hide_converter() {
return data->hide_converter;
}
bool config_converter() {
return data->converter;
}
bool config_updown_converter() {
return data->updown_converter;
}
int64_t config_converter_freq() {
return data->converter_frequency_offset;
}
void set_config_hide_converter(bool v) {
data->hide_converter = v;
if (v) {
data->converter = false;
}
}
void set_config_converter(bool v) {
data->converter = v;
}
void set_config_updown_converter(bool v) {
data->updown_converter = v;
}
void set_config_converter_freq(int64_t v) {
data->converter_frequency_offset = v;
}
// frequency correction settings
bool config_freq_tx_correction_updown() {
return data->updown_frequency_tx_correction;
}
void set_freq_tx_correction_updown(bool v) {
data->updown_frequency_tx_correction = v;
}
bool config_freq_rx_correction_updown() {
return data->updown_frequency_rx_correction;
}
void set_freq_rx_correction_updown(bool v) {
data->updown_frequency_rx_correction = v;
}
uint32_t config_freq_tx_correction() {
return data->frequency_tx_correction;
}
uint32_t config_freq_rx_correction() {
return data->frequency_rx_correction;
}
void set_config_freq_tx_correction(uint32_t v) {
data->frequency_tx_correction = v;
}
void set_config_freq_rx_correction(uint32_t v) {
data->frequency_rx_correction = v;
}
// rotary encoder dial settings
uint8_t config_encoder_dial_sensitivity() {
return data->encoder_dial_sensitivity;
}
void set_encoder_dial_sensitivity(uint8_t v) {
data->encoder_dial_sensitivity = v;
}
bool should_use_sdcard_for_pmem() {
return std::filesystem::file_exists(PMEM_FILEFLAG);
}
// sd persisting settings
int save_persistent_settings_to_file() {
std::string filename = PMEM_SETTING_FILE;
delete_file(filename);
File outfile;
auto result = outfile.create(filename);
if (result.is_valid()) {
return false;
}
outfile.write(reinterpret_cast<char*>(&cached_backup_ram), sizeof(backup_ram_t));
return true;
}
int load_persistent_settings_from_file() {
std::string filename = PMEM_SETTING_FILE;
File infile;
auto result = infile.open(filename);
if (!result.is_valid()) {
infile.read(reinterpret_cast<char*>(&cached_backup_ram), sizeof(backup_ram_t));
return true;
}
return false;
}
size_t data_size() {
return sizeof(data_t);
}
} /* namespace persistent_memory */
} /* namespace portapack */