bool dbg_hw_info_rtc(void)
{
lcd_setfont(FONT_SYSFIXED);
while(1)
{
int button = get_action(CONTEXT_STD, HZ / 10);
switch(button)
{
case ACTION_STD_NEXT:
case ACTION_STD_PREV:
case ACTION_STD_OK:
case ACTION_STD_MENU:
lcd_setfont(FONT_UI);
return true;
case ACTION_STD_CANCEL:
lcd_setfont(FONT_UI);
return false;
}
lcd_clear_display();
struct imx233_rtc_info_t info = imx233_rtc_get_info();
lcd_putsf(0, 0, "seconds: %lu", info.seconds);
for(int i = 0; i < 6; i++)
lcd_putsf(0, i + 1, "persistent%d: 0x%lx", i, info.persistent[i]);
lcd_update();
yield();
}
}
/**
* Write to EEPROM.
*
* @param byte
*/
void write_to_EEPROM (byte menu_num, byte submenu_num, byte var_in_eeprom) {
lcd_gotoxy(0, 0);
lcd_putsf("Write to EEPROM ");
lcd_putsf("... ");
switch (menu_num) {
case 1: // PID
switch (submenu_num) {
case 1: // Kp
Kp = var_in_eeprom;
break;
case 2: // Ki
Ki = var_in_eeprom;
break;
case 3: // Kd
Kd = var_in_eeprom;
break;
}
break;
case 2: // Speed
switch (submenu_num) {
case 1: // MAX
max_speed = var_in_eeprom;
break;
case 2: // MIN
min_speed = var_in_eeprom;
break;
}
break;
}
delay_ms(200);
}
bool lcd_debug_screen(void)
{
lcd_setfont(FONT_SYSFIXED);
while(1)
{
int button = get_action(CONTEXT_STD, HZ / 10);
switch(button)
{
case ACTION_STD_NEXT:
case ACTION_STD_PREV:
case ACTION_STD_OK:
case ACTION_STD_MENU:
lcd_setfont(FONT_UI);
return true;
case ACTION_STD_CANCEL:
lcd_setfont(FONT_UI);
return false;
}
lcd_clear_display();
lcd_putsf(0, 0, "has power: %d", lcd_has_power);
lcd_putsf(0, 1, "lcd kind: %d", lcd_kind);
lcd_update();
yield();
}
return true;
}
bool dbg_hw_info_adc(void)
{
lcd_setfont(FONT_SYSFIXED);
while(1)
{
int button = get_action(CONTEXT_STD, HZ / 25);
switch(button)
{
case ACTION_STD_NEXT:
case ACTION_STD_PREV:
case ACTION_STD_OK:
case ACTION_STD_MENU:
lcd_setfont(FONT_UI);
return true;
case ACTION_STD_CANCEL:
lcd_setfont(FONT_UI);
return false;
}
lcd_clear_display();
/* add battery readout in mV, this it is not the direct output of a channel */
lcd_putsf(0, 0, "Battery(mV) %d", _battery_voltage());
for(unsigned i = 0; i < NUM_ADC_CHANNELS; i++)
{
lcd_putsf(0, i + 1, "%s %d", imx233_adc_channel_name[i],
adc_read(i));
}
lcd_update();
yield();
}
}
bool dbg_hw_info(void)
{
unsigned manu, id; /* flash IDs */
int got_id; /* flag if we managed to get the flash IDs */
int oldmode; /* saved memory guard mode */
int line = 0;
oldmode = system_memory_guard(MEMGUARD_NONE); /* disable memory guard */
/* get flash ROM type */
got_id = dbg_flash_id(&manu, &id, 0x5555, 0x2AAA); /* try SST, Atmel, NexFlash */
if (!got_id)
got_id = dbg_flash_id(&manu, &id, 0x555, 0x2AA); /* try AMD, Macronix */
system_memory_guard(oldmode); /* re-enable memory guard */
lcd_setfont(FONT_SYSFIXED);
lcd_clear_display();
lcd_puts(0, line++, "[Hardware info]");
if (got_id)
lcd_putsf(0, line++, "Flash: M=%04x D=%04x", manu, id);
else
lcd_puts(0, line++, "Flash: M=???? D=????"); /* unknown, sorry */
#ifdef IAUDIO_X5
{
struct ds2411_id id;
lcd_puts(0, ++line, "Serial Number:");
got_id = ds2411_read_id(&id);
if (got_id == DS2411_OK)
{
lcd_putsf(0, ++line, " FC=%02x", (unsigned)id.family_code);
lcd_putsf(0, ++line, " ID=%02X %02X %02X %02X %02X %02X",
(unsigned)id.uid[0], (unsigned)id.uid[1], (unsigned)id.uid[2],
(unsigned)id.uid[3], (unsigned)id.uid[4], (unsigned)id.uid[5]);
lcd_putsf(0, ++line, " CRC=%02X", (unsigned)id.crc);
}
else
{
lcd_putsf(0, ++line, "READ ERR=%d", got_id);
}
}
#endif
lcd_update();
/* wait for exit */
while (button_get_w_tmo(HZ/10) != (DEBUG_CANCEL|BUTTON_REL));
lcd_setfont(FONT_UI);
return false;
}
bool dbg_hw_info_pinctrl(void)
{
lcd_setfont(FONT_SYSFIXED);
#ifdef IMX233_PINCTRL_DEBUG
unsigned top_user = 0;
#endif
while(1)
{
int button = get_action(CONTEXT_STD, HZ / 10);
switch(button)
{
case ACTION_STD_NEXT:
#ifdef IMX233_PINCTRL_DEBUG
top_user++;
break;
#endif
case ACTION_STD_PREV:
#ifdef IMX233_PINCTRL_DEBUG
if(top_user > 0)
top_user--;
break;
#endif
case ACTION_STD_OK:
case ACTION_STD_MENU:
lcd_setfont(FONT_UI);
return true;
case ACTION_STD_CANCEL:
lcd_setfont(FONT_UI);
return false;
}
lcd_clear_display();
for(int i = 0; i < 4; i++)
lcd_putsf(0, i, "DIN%d = 0x%08x", i, imx233_get_gpio_input_mask(i, 0xffffffff));
#ifdef IMX233_PINCTRL_DEBUG
unsigned cur_line = 6;
unsigned last_line = lcd_getheight() / font_get(lcd_getfont())->height;
unsigned cur_idx = 0;
for(int bank = 0; bank < 4; bank++)
for(int pin = 0; pin < 32; pin++)
{
const char *owner = imx233_pinctrl_get_pin_use(bank, pin);
if(owner == NULL)
continue;
if(cur_idx++ >= top_user && cur_line < last_line)
lcd_putsf(0, cur_line++, "B%dP%02d %s", bank, pin, owner);
}
if(cur_idx < top_user)
top_user = cur_idx - 1;
#endif
lcd_update();
yield();
}
}
bool dbg_hw_info_power(void)
{
lcd_setfont(FONT_SYSFIXED);
while(1)
{
int button = get_action(CONTEXT_STD, HZ / 10);
switch(button)
{
case ACTION_STD_NEXT:
case ACTION_STD_PREV:
case ACTION_STD_OK:
case ACTION_STD_MENU:
lcd_setfont(FONT_UI);
return true;
case ACTION_STD_CANCEL:
lcd_setfont(FONT_UI);
return false;
}
lcd_clear_display();
struct imx233_power_info_t info = imx233_power_get_info(POWER_INFO_ALL);
int line = 0;
unsigned trg, bo;
bool en;
int linreg;
char buf[16];
lcd_putsf(0, line++, "name value bo linreg");
#define DISP_REGULATOR(name) \
imx233_power_get_regulator(REGULATOR_##name, &trg, &bo); \
imx233_power_get_regulator_linreg(REGULATOR_##name, &en, &linreg); \
if(en) snprintf(buf, sizeof(buf), "%d", linreg); \
else snprintf(buf, sizeof(buf), " "); \
lcd_putsf(0, line++, "%6s %4d %4d %s", #name, trg, bo, buf); \
DISP_REGULATOR(VDDD);
DISP_REGULATOR(VDDA);
DISP_REGULATOR(VDDIO);
DISP_REGULATOR(VDDMEM);
lcd_putsf(0, line++, "DC-DC: pll: %d freq: %d", info.dcdc_sel_pllclk, info.dcdc_freqsel);
lcd_putsf(0, line++, "charge: %d mA stop: %d mA", info.charge_current, info.stop_current);
lcd_putsf(0, line++, "charging: %d bat_adj: %d", info.charging, info.batt_adj);
lcd_putsf(0, line++, "4.2: en: %d dcdc: %d", info._4p2_enable, info._4p2_dcdc);
lcd_putsf(0, line++, "4.2: cmptrip: %d dropout: %d", info._4p2_cmptrip, info._4p2_dropout);
lcd_putsf(0, line++, "5V: pwd_4.2_charge: %d", info._5v_pwd_charge_4p2);
lcd_putsf(0, line++, "5V: chargelim: %d mA", info._5v_charge_4p2_limit);
lcd_putsf(0, line++, "5V: dcdc: %d xfer: %d", info._5v_enable_dcdc, info._5v_dcdc_xfer);
lcd_putsf(0, line++, "5V: thr: %d mV use: %d cmps: %d", info._5v_vbusvalid_thr,
info._5v_vbusvalid_detect, info._5v_vbus_cmps);
lcd_update();
yield();
}
}
// TWI Slave transmission handler
// This handler is called for the first time when the
// transmission from the TWI slave to the master
// is about to begin, returning the number of bytes
// that need to be transmitted
// The second time the handler is called when the
// transmission has finished
// In this case it must return 0
unsigned char twi_tx_handler(bool tx_complete)
{
if (tx_complete==false)
{
// Transmission from slave to master is about to start
// Return the number of bytes to transmit
return sizeof(twi_tx_buffer);
}
// Transmission from slave to master has finished
// Place code here to eventually process data from
// the twi_rx_buffer, if it wasn't yet processed
// in the twi_rx_handler
if (received_ok)
{
for (j=0;j<32;j++)
{
sost[j] = twi_rx_buffer[j]; // действия при приеме
twi_tx_buffer[j] = esost[j];
// sost[j] = 0;
}
}
else
{
lcd_clear();
lcd_putsf(" ERR_receive ");
}
// No more bytes to send in this transaction
return 0;
}
void main(void)
{
unsigned char init_result[7],lcd_result[10];
double bss;
ADMUX=ADC_VREF_TYPE & 0xff;
ADCSRA=0x86; //initiate AD for 125kHz clock, 8 bit result and AREF pin as voltage reference.
lcd_init(16); //lcd connect to port D and 16 line mode.
while (1)
{
bss=read_adc(5);
bss=bss*(3.3/256);
lcd_clear();
lcd_gotoxy(0,0);
lcd_putsf("voltage is:");
ftoa(bss,2,init_result);
sprintf(lcd_result,"%4s volt.",init_result);
lcd_gotoxy(0,1);
lcd_puts(lcd_result);
delay_ms(350);
}
}
static void charging_display_info(bool animate)
{
int battv;
unsigned i, ypos;
static unsigned phase = 3;
char buf[32];
battv = battery_voltage();
lcd_putsf(4, 1, " %d.%02dV", battv / 1000, (battv % 1000) / 10);
memcpy(buf, logo_pattern, 32); /* copy logo patterns */
if (!animate) /* build the screen */
{
lcd_double_height(false);
lcd_puts(0, 0, "[Charging]");
for (i = 0; i < 4; i++)
lcd_putc(i, 1, logo_chars[i]);
}
else /* animate the logo */
{
for (i = 3; i < MIN(19, phase); i++)
{
if ((i - phase) % 5 == 0)
{ /* draw a "bubble" here */
ypos = (phase + i/5) % 9; /* "bounce" effect */
if (ypos > 4)
ypos = 8 - ypos;
buf[5 - ypos + 8 * (i/5)] |= 0x10u >> (i%5);
}
}
phase++;
}
bool dbg_hw_info_ocotp(void)
{
lcd_setfont(FONT_SYSFIXED);
unsigned top_user = 0;
while(1)
{
int button = get_action(CONTEXT_STD, HZ / 10);
switch(button)
{
case ACTION_STD_NEXT:
top_user++;
break;
case ACTION_STD_PREV:
if(top_user > 0)
top_user--;
break;
case ACTION_STD_OK:
case ACTION_STD_MENU:
lcd_setfont(FONT_UI);
return true;
case ACTION_STD_CANCEL:
lcd_setfont(FONT_UI);
return false;
}
lcd_clear_display();
unsigned cur_line = 0;
unsigned last_line = lcd_getheight() / font_get(lcd_getfont())->height;
unsigned i = 0;
for(i = 0; i < ARRAYLEN(dbg_ocotp); i++)
{
if(i >= top_user && cur_line < last_line)
{
lcd_putsf(0, cur_line, "%s", dbg_ocotp[i].name);
lcd_putsf(8, cur_line++, "%x", imx233_ocotp_read(dbg_ocotp[i].addr));
}
}
if(i < top_user)
top_user = i - 1;
lcd_update();
yield();
}
}
static void sig_handler(int sig, siginfo_t *siginfo, void *context)
{
/* safe guard variable - we call backtrace() only on first
* UIE call. This prevent endless loop if backtrace() touches
* memory regions which cause abort
*/
static bool triggered = false;
lcd_set_backdrop(NULL);
lcd_set_drawmode(DRMODE_SOLID);
lcd_set_foreground(LCD_BLACK);
lcd_set_background(LCD_WHITE);
unsigned line = 0;
lcd_setfont(FONT_SYSFIXED);
lcd_set_viewport(NULL);
lcd_clear_display();
/* get context info */
ucontext_t *uc = (ucontext_t *)context;
unsigned long pc = uc->uc_mcontext.pc;
unsigned long sp = uc->uc_mcontext.gregs[29];
lcd_putsf(0, line++, "%s at %08x", strsignal(sig), pc);
if(sig == SIGILL || sig == SIGFPE || sig == SIGSEGV || sig == SIGBUS || sig == SIGTRAP)
lcd_putsf(0, line++, "address 0x%08x", siginfo->si_addr);
if(!triggered)
{
triggered = true;
rb_backtrace(pc, sp, &line);
}
#ifdef ROCKBOX_HAS_LOGF
lcd_putsf(0, line++, "logf:");
logf_panic_dump(&line);
#endif
lcd_update();
system_exception_wait(); /* If this returns, try to reboot */
system_reboot();
while (1); /* halt */
}
static void init_tagcache(void)
{
bool clear = false;
#if CONFIG_CODEC == SWCODEC
long talked_tick = 0;
#endif
tagcache_init();
while (!tagcache_is_initialized())
{
int ret = tagcache_get_commit_step();
if (ret > 0)
{
#if CONFIG_CODEC == SWCODEC
/* hwcodec can't use voice here, as the database commit
* uses the audio buffer. */
if(global_settings.talk_menu
&& (talked_tick == 0
|| TIME_AFTER(current_tick, talked_tick+7*HZ)))
{
talked_tick = current_tick;
talk_id(LANG_TAGCACHE_INIT, false);
talk_number(ret, true);
talk_id(VOICE_OF, true);
talk_number(tagcache_get_max_commit_step(), true);
}
#endif
#ifdef HAVE_LCD_BITMAP
if (lang_is_rtl())
{
splashf(0, "[%d/%d] %s", ret, tagcache_get_max_commit_step(),
str(LANG_TAGCACHE_INIT));
}
else
{
splashf(0, "%s [%d/%d]", str(LANG_TAGCACHE_INIT), ret,
tagcache_get_max_commit_step());
}
#else
lcd_double_height(false);
lcd_putsf(0, 1, " DB [%d/%d]", ret,
tagcache_get_max_commit_step());
lcd_update();
#endif
clear = true;
}
sleep(HZ/4);
}
tagtree_init();
if (clear)
{
backlight_on();
show_logo();
}
}
void main(void)
{
int i=0;
char lcd_result[10];
unsigned char port_st[4]={0x0E,0x0D,0x0B,0x07};
// Port C initialization
// Func7=In Func6=In Func5=In Func4=In Func3=out Func2=Out Func1=Out Func0=Out
// State7=T State6=P State5=P State4=P State3=1 State2=1 State1=1 State0=1
PORTC=0x7F;
DDRC=0x0F; //pins(0,1,2) defined as output with 1 value and pins(3,4,5,6) defined in with pull up.
lcd_init(16); //initiate lcd.
lcd_clear();
lcd_gotoxy(0,0);
lcd_putsf("Press Any Key:");
while (1)
{
row=0;
column=0;
for(i=0;i<4;i++) //3 is column in 4*3 matrix key.(3 is less)
{
PORTC=((PORTC & 0xF0)| port_st[i]);
col_condition(i);
delay_ms(20);
}//end of for.
if(row!=0)
{
lcd_clear();
lcd_gotoxy(0,0);
lcd_putsf("Last COL & ROW:");
lcd_gotoxy(0,1);
sprintf(lcd_result,"%1d AND %1d",column,row);
lcd_puts(lcd_result);
delay_ms(50);
}
}//while(1)
}
bool dbg_hw_info_icoll(void)
{
lcd_setfont(FONT_SYSFIXED);
int first_irq = 0;
int dbg_irqs_count = sizeof(dbg_irqs) / sizeof(dbg_irqs[0]);
int line_count = lcd_getheight() / font_get(lcd_getfont())->height;
while(1)
{
int button = get_action(CONTEXT_STD, HZ / 10);
switch(button)
{
case ACTION_STD_NEXT:
first_irq++;
if(first_irq >= dbg_irqs_count)
first_irq = dbg_irqs_count - 1;
break;
case ACTION_STD_PREV:
first_irq--;
if(first_irq < 0)
first_irq = 0;
break;
case ACTION_STD_OK:
case ACTION_STD_MENU:
lcd_setfont(FONT_UI);
return true;
case ACTION_STD_CANCEL:
lcd_setfont(FONT_UI);
return false;
}
lcd_clear_display();
for(int i = first_irq, j = 0; i < dbg_irqs_count && j < line_count; i++, j++)
{
struct imx233_icoll_irq_info_t info = imx233_icoll_get_irq_info(dbg_irqs[i].src);
lcd_putsf(0, j, "%s", dbg_irqs[i].name);
if(info.enabled)
lcd_putsf(10, j, "%d", info.freq);
}
lcd_update();
yield();
}
}
void backtrace(int pcAddr, int spAddr, unsigned *line)
{
UnwResult r;
lcd_putsf(0, (*line)++, "pc:%08x sp:%08x", pcAddr, spAddr);
lcd_update();
r = UnwindStart(pcAddr, spAddr, &cliCallbacks, (void *)line);
lcd_puts(0, (*line)++, "bt end");
lcd_update();
}
bool dbg_hw_info(void)
{
int line = 0, i, button, oldline;
bool done=false;
lcd_setfont(FONT_SYSFIXED);
lcd_clear_display();
/* Put all the static text before the while loop */
lcd_puts(0, line++, "[Hardware info]");
line++;
oldline=line;
while(!done)
{
line = oldline;
button = button_get(false);
button &= ~BUTTON_REPEAT;
#ifdef BUTTON_SELECT
if (button == BUTTON_SELECT)
#else
if (button == BUTTON_STOP)
#endif
done=true;
lcd_putsf(0, line++, "current tick: %08lx Seconds running: %08ld",
current_tick, current_tick/HZ);
lcd_putsf(0, line++, "GPIOA: 0x%08lx GPIOB: 0x%08lx", GPIOA, GPIOB);
lcd_putsf(0, line++, "GPIOC: 0x%08lx GPIOD: 0x%08lx", GPIOC, GPIOD);
lcd_putsf(0, line++, "GPIOE: 0x%08lx", GPIOE);
for (i = 0; i<4; i++)
lcd_putsf(0, line++, "ADC%d: 0x%04x", i, adc_read(i));
lcd_update();
}
return false;
}
/***************************************************************************
*
* Function: CliReport
*
* Parameters: data - Pointer to data passed to UnwindStart()
* address - The return address of a stack frame.
*
* Returns: TRUE if unwinding should continue, otherwise FALSE to
* indicate that unwinding should stop.
*
* Description: This function is called from the unwinder each time a stack
* frame has been unwound. The LSB of address indicates if
* the processor is in ARM mode (LSB clear) or Thumb (LSB
* set).
*
***************************************************************************/
static Boolean CliReport(void *data, Int32 address)
{
/* CliStack *s = (CliStack *)data; */
unsigned *line = (unsigned *)data;
lcd_putsf(0, (*line)++, " %c: %08x",
(address & 0x1) ? 'T' : 'A',
address & (~0x1));
lcd_update();
return TRUE;
}
bool dbg_hw_info_powermgmt(void)
{
lcd_setfont(FONT_SYSFIXED);
while(1)
{
int button = get_action(CONTEXT_STD, HZ / 10);
switch(button)
{
case ACTION_STD_NEXT:
case ACTION_STD_PREV:
case ACTION_STD_OK:
case ACTION_STD_MENU:
lcd_setfont(FONT_UI);
return true;
case ACTION_STD_CANCEL:
lcd_setfont(FONT_UI);
return false;
}
lcd_clear_display();
struct imx233_powermgmt_info_t info = imx233_powermgmt_get_info();
lcd_putsf(0, 0, "state: %s",
info.state == CHARGE_STATE_DISABLED ? "disabled" :
info.state == CHARGE_STATE_ERROR ? "error" :
info.state == DISCHARGING ? "discharging" :
info.state == TRICKLE ? "trickle" :
info.state == TOPOFF ? "topoff" :
info.state == CHARGING ? "charging" : "<unknown>");
lcd_putsf(0, 1, "charging tmo: %d", info.charging_timeout);
lcd_putsf(0, 2, "topoff tmo: %d", info.topoff_timeout);
lcd_putsf(0, 3, "4p2ilimit tmo: %d", info.incr_4p2_ilimit_timeout);
lcd_update();
yield();
}
}
bool dbg_hw_info_dma(void)
{
lcd_setfont(FONT_SYSFIXED);
while(1)
{
int button = get_action(CONTEXT_STD, HZ / 25);
switch(button)
{
case ACTION_STD_NEXT:
case ACTION_STD_PREV:
case ACTION_STD_OK:
case ACTION_STD_MENU:
lcd_setfont(FONT_UI);
return true;
case ACTION_STD_CANCEL:
lcd_setfont(FONT_UI);
return false;
}
lcd_clear_display();
lcd_putsf(0, 0, "S C name bar apb ahb una");
for(unsigned i = 0; i < ARRAYLEN(dbg_channels); i++)
{
struct imx233_dma_info_t info = imx233_dma_get_info(dbg_channels[i].chan, DMA_INFO_ALL);
lcd_putsf(0, i + 1, "%c %c %4s %8x %3x %3x %3x",
info.gated ? 'g' : info.freezed ? 'f' : ' ',
!info.int_enabled ? '-' : info.int_error ? 'e' : info.int_cmdcomplt ? 'c' : ' ',
dbg_channels[i].name, info.bar, info.apb_bytes, info.ahb_bytes,
info.nr_unaligned);
}
lcd_update();
yield();
}
}
void logf_panic_dump(int *y)
{
int i;
/* nothing to print ? */
if(logfindex == 0 && !logfwrap)
{
lcd_puts(1, (*y)++, "no logf data");
lcd_update();
return;
}
lcd_puts(1, (*y)++, "start of logf data");
lcd_update();
i = logfindex - 2; /* The last actual characer (i.e. not '\0') */
while(i >= 0)
{
while(logfbuffer[i] != 0 && i>=0)
{
i--;
}
if(strlen( &logfbuffer[i + 1]) > 0)
{
lcd_puts(1, (*y)++, &logfbuffer[i + 1]);
lcd_update();
}
i--;
}
if(logfwrap)
{
i = MAX_LOGF_SIZE - 1;
while(i >= logfindex)
{
while(logfbuffer[i] != 0 && i >= logfindex)
{
i--;
}
if(strlen( &logfbuffer[i + 1]) > 0)
{
lcd_putsf(1, (*y)++, "%*s", (MAX_LOGF_SIZE-i) &logfbuffer[i + 1]);
lcd_update();
}
}
i--;
}
lcd_puts(1, (*y)++, "end of logf data");
lcd_update();
}
bool dbg_hw_info_dcp(void)
{
lcd_setfont(FONT_SYSFIXED);
while(1)
{
int button = get_action(CONTEXT_STD, HZ / 10);
switch(button)
{
case ACTION_STD_NEXT:
case ACTION_STD_PREV:
case ACTION_STD_OK:
case ACTION_STD_MENU:
lcd_setfont(FONT_UI);
return true;
case ACTION_STD_CANCEL:
lcd_setfont(FONT_UI);
return false;
}
lcd_clear_display();
struct imx233_dcp_info_t info = imx233_dcp_get_info(DCP_INFO_ALL);
lcd_putsf(0, 0, "crypto: %d csc: %d", info.has_crypto, info.has_csc);
lcd_putsf(0, 1, "keys: %d channels: %d", info.num_keys, info.num_channels);
lcd_putsf(0, 2, "ciphers: 0x%lx hash: 0x%lx", info.ciphers, info.hashs);
lcd_putsf(0, 3, "gather wr: %d otp rdy: %d ch0merged: %d",
info.gather_writes, info.otp_key_ready, info.ch0_merged);
lcd_putsf(0, 4, "ctx switching: %d caching: %d", info.context_switching,
info.context_caching);
lcd_putsf(0, 5, "ch irq ien en rdy pri sem cmdptr a");
int nr = HW_DCP_NUM_CHANNELS;
for(int i = 0; i < nr; i++)
{
lcd_putsf(0, 6 + i, "%d %d %d %d %d %d %d 0x%08lx %d",
i, info.channel[i].irq, info.channel[i].irq_en, info.channel[i].enable,
info.channel[i].ready, info.channel[i].high_priority,
info.channel[i].sema, info.channel[i].cmdptr, info.channel[i].acquired);
}
lcd_putsf(0, 6 + nr, "csc %d %d %d %d",
info.csc.irq, info.csc.irq_en, info.csc.enable, info.csc.priority);
lcd_update();
yield();
}
}
bool dbg_hw_info(void)
{
int line = 0, i, oldline;
lcd_setfont(FONT_SYSFIXED);
lcd_clear_display();
/* Put all the static text before the while loop */
lcd_puts(0, line++, "[Hardware info]");
line++;
oldline=line;
while (1)
{
line = oldline;
if (button_get_w_tmo(HZ/20) == (BUTTON_POWER|BUTTON_REL))
break;
lcd_putsf(0, line++, "current tick: %08lx Seconds running: %08ld",
current_tick, current_tick/HZ);
lcd_putsf(0, line++, "GPIOA: 0x%08lx GPIOB: 0x%08lx", GPIOA, GPIOB);
lcd_putsf(0, line++, "GPIOC: 0x%08lx GPIOD: 0x%08lx", GPIOC, GPIOD);
lcd_putsf(0, line++, "GPIOE: 0x%08lx", GPIOE);
for (i = 0; i<4; i++)
lcd_putsf(0, line++, "ADC%d: 0x%04x", i, adc_read(i));
lcd_putsf(0, line++, "STS: 0x%08lx SRC: 0x%08lx", STS, SRC);
lcd_update();
}
return false;
}
void button_debug_screen(void)
{
char product_id[RMI_PRODUCT_ID_LEN];
rmi_read(RMI_PRODUCT_ID, RMI_PRODUCT_ID_LEN, product_id);
int x_max = rmi_read_single(RMI_2D_SENSOR_XMAX_MSB(0)) << 8 | rmi_read_single(RMI_2D_SENSOR_XMAX_LSB(0));
int y_max = rmi_read_single(RMI_2D_SENSOR_YMAX_MSB(0)) << 8 | rmi_read_single(RMI_2D_SENSOR_YMAX_LSB(0));
int func_presence = rmi_read_single(RMI_FUNCTION_PRESENCE(RMI_2D_TOUCHPAD_FUNCTION));
int sensor_prop = rmi_read_single(RMI_2D_SENSOR_PROP2(0));
int sensor_resol = rmi_read_single(RMI_2D_SENSOR_RESOLUTION(0));
int min_dist = rmi_read_single(RMI_2D_MIN_DIST);
int gesture_settings = rmi_read_single(RMI_2D_GESTURE_SETTINGS);
union
{
unsigned char data;
signed char value;
}sensitivity;
rmi_read(RMI_2D_SENSITIVITY_ADJ, 1, &sensitivity.data);
/* Device to screen */
int zone_w = LCD_WIDTH;
int zone_h = (zone_w * y_max + x_max - 1) / x_max;
int zone_x = 0;
int zone_y = LCD_HEIGHT - zone_h;
#define DX2SX(x) (((x) * zone_w ) / x_max)
#define DY2SY(y) (zone_h - ((y) * zone_h ) / y_max)
struct viewport report_vp;
memset(&report_vp, 0, sizeof(report_vp));
report_vp.x = zone_x;
report_vp.y = zone_y;
report_vp.width = zone_w;
report_vp.height = zone_h;
struct viewport gesture_vp;
memset(&gesture_vp, 0, sizeof(gesture_vp));
gesture_vp.x = 0;
gesture_vp.y = zone_y - 80;
gesture_vp.width = LCD_WIDTH;
gesture_vp.height = 80;
while(1)
{
lcd_set_viewport(NULL);
lcd_clear_display();
int btns = button_read_device();
lcd_putsf(0, 0, "button bitmap: %x", btns);
lcd_putsf(0, 1, "RMI: id=%s p=%x s=%x", product_id, func_presence, sensor_prop);
lcd_putsf(0, 2, "xmax=%d ymax=%d res=%d", x_max, y_max, sensor_resol);
lcd_putsf(0, 3, "attn=%d ctl=%x int=%x",
imx233_get_gpio_input_mask(0, 0x08000000) ? 0 : 1,
rmi_read_single(RMI_DEVICE_CONTROL),
rmi_read_single(RMI_INTERRUPT_REQUEST));
lcd_putsf(0, 4, "sensi: %d min_dist: %d", (int)sensitivity.value, min_dist);
lcd_putsf(0, 5, "gesture: %x", gesture_settings);
union
{
unsigned char data[10];
struct
{
struct rmi_2d_absolute_data_t absolute;
struct rmi_2d_relative_data_t relative;
struct rmi_2d_gesture_data_t gesture;
}s;
}u;
int absolute_x = u.s.absolute.x_msb << 8 | u.s.absolute.x_lsb;
int absolute_y = u.s.absolute.y_msb << 8 | u.s.absolute.y_lsb;
int nr_fingers = u.s.absolute.misc & 7;
bool gesture = (u.s.absolute.misc & 8) == 8;
int palm_width = u.s.absolute.misc >> 4;
rmi_read(RMI_DATA_REGISTER(0), 10, u.data);
lcd_putsf(0, 6, "abs: %d %d %d", absolute_x, absolute_y, (int)u.s.absolute.z);
lcd_putsf(0, 7, "rel: %d %d", (int)u.s.relative.x, (int)u.s.relative.y);
lcd_putsf(0, 8, "gesture: %x %x", u.s.gesture.misc, u.s.gesture.flick);
lcd_putsf(0, 9, "misc: w=%d g=%d f=%d", palm_width, gesture, nr_fingers);
lcd_set_viewport(&report_vp);
lcd_set_drawinfo(DRMODE_SOLID, LCD_RGBPACK(0xff, 0, 0), LCD_BLACK);
lcd_drawrect(0, 0, zone_w, zone_h);
if(nr_fingers == 1)
{
lcd_set_drawinfo(DRMODE_SOLID, LCD_RGBPACK(0, 0, 0xff), LCD_BLACK);
lcd_drawline(DX2SX(absolute_x) - u.s.relative.x,
DY2SY(absolute_y) + u.s.relative.y,
DX2SX(absolute_x), DY2SY(absolute_y));
lcd_set_drawinfo(DRMODE_SOLID, LCD_RGBPACK(0, 0xff, 0), LCD_BLACK);
lcd_fillrect(DX2SX(absolute_x) - 1, DY2SY(absolute_y) - 1, 3, 3);
}
lcd_set_viewport(&gesture_vp);
lcd_set_drawinfo(DRMODE_SOLID, LCD_RGBPACK(0xff, 0xff, 0), LCD_BLACK);
if(u.s.gesture.misc & RMI_2D_GEST_MISC_CONFIRMED)
{
switch(u.s.gesture.misc & RMI_2D_GEST_MISC_TAP_CODE_BM)
{
case RMI_2D_GEST_MISC_NO_TAP: break;
case RMI_2D_GEST_MISC_SINGLE_TAP:
lcd_putsf(0, 0, "TAP!");
break;
case RMI_2D_GEST_MISC_DOUBLE_TAP:
lcd_putsf(0, 0, "DOUBLE TAP!");
break;
case RMI_2D_GEST_MISC_TAP_AND_HOLD:
lcd_putsf(0, 0, "TAP & HOLD!");
break;
default: break;
}
if(u.s.gesture.misc & RMI_2D_GEST_MISC_FLICK)
{
lcd_putsf(0, 1, "FLICK!");
int flick_x = u.s.gesture.flick & RMI_2D_GEST_FLICK_X_BM;
int flick_y = (u.s.gesture.flick & RMI_2D_GEST_FLICK_Y_BM) >> RMI_2D_GEST_FLICK_Y_BP;
#define SIGN4EXT(a) \
if(a & 8) a = -((a ^ 0xf) + 1);
SIGN4EXT(flick_x);
SIGN4EXT(flick_y);
int center_x = (LCD_WIDTH * 2) / 3;
int center_y = 40;
lcd_drawline(center_x, center_y, center_x + flick_x * 5, center_y - flick_y * 5);
}
}
lcd_update();
if(btns & BUTTON_POWER)
break;
if(btns & BUTTON_VOL_DOWN || btns & BUTTON_VOL_UP)
{
if(btns & BUTTON_VOL_UP)
sensitivity.value++;
if(btns & BUTTON_VOL_DOWN)
sensitivity.value--;
rmi_write(RMI_2D_SENSITIVITY_ADJ, 1, &sensitivity.data);
}
yield();
}
static void charging_display_info(bool animate)
{
unsigned char charging_logo[36];
const int pox_x = (LCD_WIDTH - sizeof(charging_logo)) / 2;
const int pox_y = 32;
static unsigned phase = 3;
unsigned i;
#ifdef NEED_ATA_POWER_BATT_MEASURE
if (ide_powered()) /* FM and V2 can only measure when ATA power is on */
#endif
{
int battv = battery_voltage();
lcd_putsf(0, 7, " Batt: %d.%02dV %d%% ", battv / 1000,
(battv % 1000) / 10, battery_level());
}
#ifdef ARCHOS_RECORDER
lcd_puts(0, 2, "Charge mode:");
const char *s;
if (charge_state == CHARGING)
s = str(LANG_BATTERY_CHARGE);
else if (charge_state == TOPOFF)
s = str(LANG_BATTERY_TOPOFF_CHARGE);
else if (charge_state == TRICKLE)
s = str(LANG_BATTERY_TRICKLE_CHARGE);
else
s = "not charging";
lcd_puts(0, 3, s);
if (!charger_enabled())
animate = false;
#endif /* ARCHOS_RECORDER */
/* middle part */
memset(charging_logo+3, 0x00, 32);
charging_logo[0] = 0x3C;
charging_logo[1] = 0x24;
charging_logo[2] = charging_logo[35] = 0xFF;
if (!animate)
{ /* draw the outline */
/* middle part */
lcd_mono_bitmap(charging_logo, pox_x, pox_y + 8,
sizeof(charging_logo), 8);
lcd_set_drawmode(DRMODE_FG);
/* upper line */
charging_logo[0] = charging_logo[1] = 0x00;
memset(charging_logo+2, 0x80, 34);
lcd_mono_bitmap(charging_logo, pox_x, pox_y, sizeof(charging_logo), 8);
/* lower line */
memset(charging_logo+2, 0x01, 34);
lcd_mono_bitmap(charging_logo, pox_x, pox_y + 16,
sizeof(charging_logo), 8);
lcd_set_drawmode(DRMODE_SOLID);
}
else
{ /* animate the middle part */
for (i = 3; i<MIN(sizeof(charging_logo)-1, phase); i++)
{
if ((i-phase) % 8 == 0)
{ /* draw a "bubble" here */
unsigned bitpos;
bitpos = (phase + i/8) % 15; /* "bounce" effect */
if (bitpos > 7)
bitpos = 14 - bitpos;
charging_logo[i] = BIT_N(bitpos);
}
}
lcd_mono_bitmap(charging_logo, pox_x, pox_y + 8,
sizeof(charging_logo), 8);
phase++;
}
lcd_update();
}
void main(void)
{
// Declare your local variables here
unsigned char n;
// Interrupt system initialization
// Optimize for speed
#pragma optsize-
// Make sure the interrupts are disabled
#asm("cli")
// Low level interrupt: Off
// Round-robin scheduling for low level interrupt: Off
// Medium level interrupt: Off
// High level interrupt: On
// The interrupt vectors will be placed at the start of the Application FLASH section
n=(PMIC.CTRL & (~(PMIC_RREN_bm | PMIC_IVSEL_bm | PMIC_HILVLEN_bm | PMIC_MEDLVLEN_bm | PMIC_LOLVLEN_bm))) |
PMIC_HILVLEN_bm;
CCP=CCP_IOREG_gc;
PMIC.CTRL=n;
// Set the default priority for round-robin scheduling
PMIC.INTPRI=0x00;
// Restore optimization for size if needed
#pragma optsize_default
// System clocks initialization
system_clocks_init();
// Ports initialization
ports_init();
// Virtual Ports initialization
vports_init();
// USARTE0 initialization
usarte0_init();
// USARTE1 initialization
usarte1_init();
// USARTF0 initialization
usartf0_init();
// Alphanumeric LCD initialization
// Connections specified in the
// Project|Configure|C Compiler|Libraries|Alphanumeric LCD menu:
// RS - PORTD Bit 0
// RD - PORTD Bit 1
// EN - PORTD Bit 2
// D4 - PORTD Bit 4
// D5 - PORTD Bit 5
// D6 - PORTD Bit 6
// D7 - PORTD Bit 7
// Characters/line: 16
lcd_init(16);
// Globally enable interrupts
#asm("sei")
a1=255;
PORTB.OUT = a1 ;
lcd_putsf("START");
delay_ms(2000);
lcd_clear();
printf("START\n");
PORTB.OUT = 0 ;
delay_ms(1000);
/*
PORTF.OUTCLR = 0b00010000;
PORTB.OUTCLR = 0b10000000;
delay_ms(100);
PORTF.OUTSET = 0b00010000;
PORTB.OUTSET = 0b10000000;
delay_ms(100);
PORTF.OUTCLR = 0b00010000;
PORTB.OUTCLR = 0b10000000;
delay_ms(500);
*/
PORTF.OUTSET = 0b00010000;
PORTB.OUTSET = 0b10000000;
delay_ms(1000);
PORTF.OUTCLR = 0b00010000;
PORTB.OUTCLR = 0b10000000;
delay_ms(1000);
putchar_usarte1('A');
putchar_usarte1('T');
//putchar_usarte1('I');
putchar_usarte1('\r');
//putchar_usartf0('A');
//putchar_usartf0('T');
//putchar_usartf0('I');
//putchar_usartf0('\r');
while (1)
{
// Place your code here
PORTB.OUTTGL = 1;
PORTB.OUTSET = (PORTF.IN & 0b00100000) << 1;
PORTB.OUTCLR =!(PORTF.IN & 0b00100000) << 1;
delay_ms(100);
}
}
bool dbg_hw_info(void)
{
#ifndef HAVE_LCD_BITMAP
int button;
int currval = 0;
#else
int bitmask = HW_MASK;
#endif
int rom_version = ROM_VERSION;
unsigned manu, id; /* flash IDs */
bool got_id; /* flag if we managed to get the flash IDs */
unsigned rom_crc = 0xffffffff; /* CRC32 of the boot ROM */
bool has_bootrom; /* flag for boot ROM present */
int oldmode; /* saved memory guard mode */
oldmode = system_memory_guard(MEMGUARD_NONE); /* disable memory guard */
/* get flash ROM type */
got_id = dbg_flash_id(&manu, &id, 0x5555, 0x2AAA); /* try SST, Atmel, NexFlash */
if (!got_id)
got_id = dbg_flash_id(&manu, &id, 0x555, 0x2AA); /* try AMD, Macronix */
/* check if the boot ROM area is a flash mirror */
has_bootrom = (memcmp((char*)0, (char*)0x02000000, 64*1024) != 0);
if (has_bootrom) /* if ROM and Flash different */
{
/* calculate CRC16 checksum of boot ROM */
rom_crc = crc_32((unsigned char*)0x0000, 64*1024, 0xffffffff);
}
system_memory_guard(oldmode); /* re-enable memory guard */
lcd_clear_display();
#ifdef HAVE_LCD_BITMAP
lcd_setfont(FONT_SYSFIXED);
lcd_puts(0, 0, "[Hardware info]");
lcd_putsf(0, 1, "ROM: %d.%02d", rom_version/100, rom_version%100);
lcd_putsf(0, 2, "Mask: 0x%04x", bitmask);
if (got_id)
lcd_putsf(0, 3, "Flash: M=%02x D=%02x", manu, id);
else
lcd_puts(0, 3, "Flash: M=?? D=??"); /* unknown, sorry */
if (has_bootrom)
{
if (rom_crc == 0x56DBA4EE) /* known Version 1 */
lcd_puts(0, 4, "Boot ROM: V1");
else
lcd_putsf(0, 4, "ROMcrc: 0x%08x", rom_crc);
}
else
{
lcd_puts(0, 4, "Boot ROM: none");
}
lcd_update();
/* wait for exit */
while (button_get_w_tmo(HZ/10) != (DEBUG_CANCEL|BUTTON_REL));
lcd_setfont(FONT_UI);
#else /* !HAVE_LCD_BITMAP */
lcd_puts(0, 0, "[HW Info]");
while(1)
{
switch(currval)
{
case 0:
lcd_putsf(0, 1, "ROM: %d.%02d",
rom_version/100, rom_version%100);
break;
case 1:
if (got_id)
lcd_putsf(0, 1, "Flash:%02x,%02x", manu, id);
else
lcd_puts(0, 1, "Flash:??,??"); /* unknown, sorry */
break;
case 2:
if (has_bootrom)
{
if (rom_crc == 0x56DBA4EE) /* known Version 1 */
lcd_puts(0, 1, "BootROM: V1");
else if (rom_crc == 0x358099E8)
lcd_puts(0, 1, "BootROM: V2");
/* alternative boot ROM found in one single player so far */
else
lcd_putsf(0, 1, "R: %08x", rom_crc);
}
else
lcd_puts(0, 1, "BootROM: no");
}
lcd_update();
button = button_get_w_tmo(HZ/10);
switch(button)
{
case BUTTON_STOP:
return false;
case BUTTON_LEFT:
currval--;
if(currval < 0)
currval = 2;
break;
case BUTTON_RIGHT:
currval++;
if(currval > 2)
currval = 0;
break;
}
}
#endif
return false;
}
bool dbg_ports(void)
{
int adc_battery_voltage;
#ifndef HAVE_LCD_BITMAP
int currval = 0;
int button;
#else
int adc_battery_level;
lcd_setfont(FONT_SYSFIXED);
#endif
lcd_clear_display();
while(1)
{
#ifdef HAVE_LCD_BITMAP
lcd_putsf(0, 0, "PADR: %04x", (unsigned short)PADR);
lcd_putsf(0, 1, "PBDR: %04x", (unsigned short)PBDR);
lcd_putsf(0, 2, "AN0: %03x AN4: %03x", adc_read(0), adc_read(4));
lcd_putsf(0, 3, "AN1: %03x AN5: %03x", adc_read(1), adc_read(5));
lcd_putsf(0, 4, "AN2: %03x AN6: %03x", adc_read(2), adc_read(6));
lcd_putsf(0, 5, "AN3: %03x AN7: %03x", adc_read(3), adc_read(7));
battery_read_info(&adc_battery_voltage, &adc_battery_level);
lcd_putsf(0, 6, "Batt: %d.%03dV %d%% ", adc_battery_voltage / 1000,
adc_battery_voltage % 1000, adc_battery_level);
lcd_update();
while (button_get_w_tmo(HZ/10) != (DEBUG_CANCEL|BUTTON_REL));
lcd_setfont(FONT_UI);
#else /* !HAVE_LCD_BITMAP */
if (currval == 0) {
lcd_putsf(0, 0, "PADR: %04x", (unsigned short)PADR);
} else if (currval == 1) {
lcd_putsf(0, 0, "PBDR: %04x", (unsigned short)PBDR);
} else {
int idx = currval - 2; /* idx < 7 */
lcd_putsf(0, 0, "AN%d: %03x", idx, adc_read(idx));
}
battery_read_info(&adc_battery_voltage, NULL);
lcd_putsf(0, 1, "Batt: %d.%03dV", adc_battery_voltage / 1000,
adc_battery_voltage % 1000);
lcd_update();
button = button_get_w_tmo(HZ/5);
switch(button)
{
case BUTTON_STOP:
return false;
case BUTTON_LEFT:
currval--;
if(currval < 0)
currval = 9;
break;
case BUTTON_RIGHT:
currval++;
if(currval > 9)
currval = 0;
break;
}
#endif
}
return false;
}
bool dbg_ports(void)
{
unsigned int gpio_out;
unsigned int gpio1_out;
unsigned int gpio_read;
unsigned int gpio1_read;
unsigned int gpio_function;
unsigned int gpio1_function;
unsigned int gpio_enable;
unsigned int gpio1_enable;
int adc_battery_voltage, adc_battery_level;
int adc_buttons, adc_remote;
int line;
lcd_clear_display();
lcd_setfont(FONT_SYSFIXED);
while(1)
{
line = 0;
gpio_read = GPIO_READ;
gpio1_read = GPIO1_READ;
gpio_out = GPIO_OUT;
gpio1_out = GPIO1_OUT;
gpio_function = GPIO_FUNCTION;
gpio1_function = GPIO1_FUNCTION;
gpio_enable = GPIO_ENABLE;
gpio1_enable = GPIO1_ENABLE;
lcd_putsf(0, line++, "GPIO_READ: %08x", gpio_read);
lcd_putsf(0, line++, "GPIO_OUT: %08x", gpio_out);
lcd_putsf(0, line++, "GPIO_FUNC: %08x", gpio_function);
lcd_putsf(0, line++, "GPIO_ENA: %08x", gpio_enable);
lcd_putsf(0, line++, "GPIO1_READ: %08x", gpio1_read);
lcd_putsf(0, line++, "GPIO1_OUT: %08x", gpio1_out);
lcd_putsf(0, line++, "GPIO1_FUNC: %08x", gpio1_function);
lcd_putsf(0, line++, "GPIO1_ENA: %08x", gpio1_enable);
adc_buttons = adc_read(ADC_BUTTONS);
adc_remote = adc_read(ADC_REMOTE);
battery_read_info(&adc_battery_voltage, &adc_battery_level);
#if defined(IAUDIO_X5) || defined(IAUDIO_M5) || defined(IRIVER_H300_SERIES)
lcd_putsf(0, line++, "ADC_BUTTONS (%c): %02x",
button_scan_enabled() ? '+' : '-', adc_buttons);
#else
lcd_putsf(0, line++, "ADC_BUTTONS: %02x", adc_buttons);
#endif
#if defined(IAUDIO_X5) || defined(IAUDIO_M5)
lcd_putsf(0, line++, "ADC_REMOTE (%c): %02x",
remote_detect() ? '+' : '-', adc_remote);
#else
lcd_putsf(0, line++, "ADC_REMOTE: %02x", adc_remote);
#endif
#if defined(IRIVER_H100_SERIES) || defined(IRIVER_H300_SERIES)
lcd_putsf(0, line++, "ADC_REMOTEDETECT: %02x",
adc_read(ADC_REMOTEDETECT));
#endif
battery_read_info(&adc_battery_voltage, &adc_battery_level);
lcd_putsf(0, line++, "Batt: %d.%03dV %d%% ", adc_battery_voltage / 1000,
adc_battery_voltage % 1000, adc_battery_level);
#if defined(IRIVER_H100_SERIES) || defined(IRIVER_H300_SERIES)
lcd_putsf(0, line++, "remotetype: %d", remote_type());
#endif
lcd_update();
if (button_get_w_tmo(HZ/10) == (DEBUG_CANCEL|BUTTON_REL))
{
lcd_setfont(FONT_UI);
return false;
}
}
return false;
}
bool dbg_hw_info_clkctrl(void)
{
lcd_setfont(FONT_SYSFIXED);
while(1)
{
int button = get_action(CONTEXT_STD, HZ / 10);
switch(button)
{
case ACTION_STD_NEXT:
case ACTION_STD_PREV:
case ACTION_STD_OK:
case ACTION_STD_MENU:
lcd_setfont(FONT_UI);
return true;
case ACTION_STD_CANCEL:
lcd_setfont(FONT_UI);
return false;
}
lcd_clear_display();
/* 012345678901234567890123456789 */
lcd_putsf(0, 0, "name en by idiv fdiv frequency");
for(unsigned i = 0; i < ARRAYLEN(dbg_clk); i++)
{
#define c dbg_clk[i]
lcd_putsf(0, i + 1, "%4s", c.name);
if(c.has_enable)
lcd_putsf(5, i + 1, "%2d", imx233_clkctrl_is_clock_enabled(c.clk));
if(c.has_bypass)
lcd_putsf(8, i + 1, "%2d", imx233_clkctrl_get_bypass_pll(c.clk));
if(c.has_idiv && imx233_clkctrl_get_clock_divisor(c.clk) != 0)
lcd_putsf(10, i + 1, "%4d", imx233_clkctrl_get_clock_divisor(c.clk));
if(c.has_fdiv && imx233_clkctrl_get_fractional_divisor(c.clk) != 0)
lcd_putsf(16, i + 1, "%4d", imx233_clkctrl_get_fractional_divisor(c.clk));
if(c.has_freq)
lcd_putsf(21, i + 1, "%9d", imx233_clkctrl_get_clock_freq(c.clk));
#undef c
}
int line = ARRAYLEN(dbg_clk) + 1;
lcd_putsf(0, line, "as: %d/%d emi sync: %d", imx233_clkctrl_is_auto_slow_enabled(),
1 << imx233_clkctrl_get_auto_slow_divisor(), imx233_clkctrl_is_emi_sync_enabled());
line++;
lcd_putsf(0, line, "as monitor: ");
int x_off = 12;
bool first = true;
unsigned line_w = lcd_getwidth() / font_get_width(font_get(lcd_getfont()), ' ');
for(unsigned i = 0; i < ARRAYLEN(dbg_as_monitor); i++)
{
if(!imx233_clkctrl_is_auto_slow_monitor_enabled(dbg_as_monitor[i].monitor))
continue;
if(!first)
{
lcd_putsf(x_off, line, ", ");
x_off += 2;
}
first = false;
if((x_off + strlen(dbg_as_monitor[i].name)) > line_w)
{
x_off = 1;
line++;
}
lcd_putsf(x_off, line, "%s", dbg_as_monitor[i].name);
x_off += strlen(dbg_as_monitor[i].name);
}
line++;
lcd_update();
yield();
}
}
