u16 testRES() {
u8 R1, R2;
u32 v0, v680, v470K, rt680, rt470K, rr;
R1 = tList[0][0];
R2 = tList[0][1];
R_0(R2, LOW);
R_680(R1, HIGH);
Delay_MS(10);
v0 = ReadADC(R2);
v680 = ReadADC(R1);
R_470K(R1, HIGH);
Delay_MS(10);
v470K = ReadADC(R1);
HiZ(R1);
HiZ(R2);
//When Rx > sqrt(680*470000) the rt470K is more accurate
//we calculate if this threshold has been passed below
if (v680 > 512) rt680 = v680 - 512;
else rt680 = 512 - v680;
if (v470K > 512) rt470K = v470K - 512;
else rt470K = 512 - v470K;
if (rt470K > rt680){
//We will use the value calculated with the 680R resistor
if(v680==v0){ //Shortcircuit?
rr = 1; //0 is considered error
}
else{
//Use the common formula for a voltage divisor with some correction
//The output is not 5V and 0V for HIGH and LOW, the difference increasses with
//lower resistor values, empirically V_low=x, V_high=Vcc-2.80*V_low
//R = 680*(v680-v0)/(1023-2.8v0-v680)
rr = (5*R680_IDEAL*(v680-v0)) / (5*1023 - 14*v0 - 5*v680);
}
}
else{
//We will use the value calculated with the 470K resistor
//Use the common formula for a voltage divisor
rr = (R470K_IDEAL*v470K) / (1023 - v470K);
}
pins[R1] = 'R';
pins[R2] = 'R';
part_unit = 'R';
if (rr > 0x03E7FC18) { //Values that overflow 16bits when divided by 1000
rr /= 1000000;
part_unit = 'M';
}
else if(rr > 0xFFFF){ //Values that overflow 16bits
rr /= 1000;
part_unit = 'K';
}
return (u16) rr;
}
void HD66773R_Driver::Set_Display_On( void )
{
Reg_Write(DISP_CTRL_REG, 0x0001);
Delay_MS (100); /* 3Frame */
Reg_Write(DISP_CTRL_REG, 0x0021);
Reg_Write(DISP_CTRL_REG, 0x0023);
Delay_MS (100); /* 3Frame */
Reg_Write(DISP_CTRL_REG, 0x0037); /***normaly white ***/
}
void lcd_init(void)
{
deg_Printf("lcd_init spi_ili8961 \n");
blcd_FrameEnd_Flag = 0;
blcd_writeback_Flag = 0;
PIN_CONF()
SPI_PIN_CONF()
//====open lcd ldo=====
REG32(SYS_CON) = 0x932B; //SPEC request value
REG32(LDO_ACON) |= 0x4; // 3.0v
REG32(LDO_ACON) |= (1<<3); //lcd ldo enable
deg_Printf("lcd ldo open \n");
Delay_MS(100);
//====end open lcd ldo=====
lcd_spirgb_timing_init(spi_ili8961);
lcd_spi_init(&table_init[0][0]);
#if (USER_CONFIG==CONFIG_AX3251_K6000)
reset_rgb_data_en(0xfe); // data 7bit en
#endif
deg_Printf("Reg1=%x,%x,%x,%x,%x\n",REG32(PF_DIR),REG32(PG_DIR),REG32(PMAP_CFG0),REG32(LCD_CFG),REG32(LCD_CFG_EMI));
spi_to_rgb();
//REG32(LCDCON0)|=BIT(8)|BIT(13);//XJC
SetIntSrc(LCD_INT);
REG32(LCDCON0) |= 1<<10;
}
static void sensorUnplug4( void )
{
#if ENABLE_UART_PRINTF
UARTprintf ( "Sensor 4 Unplug Task\n" );
#endif
// Wait a few milliseconds to debounce the port interrupt
Delay_MS( SENSOR_UNPLUG_DELAY );
// If the sensor has been re-connected, abort the unplug routine.
if( 1 == GPIO_Read( SensorPort4.int_port, SensorPort4.int_pin ) )
{
GPIO_EnableInterrupts( SensorPort4.int_port, SensorPort4.int_pin );
}
else
{
// Remove this sensor from the sensor task scheduler
ActiveSensor[3] = -1;
NumActiveSensors--;
SensorSampRate[3] = 0;
SampRateChanged = 1;
#if ENABLE_TRANSCEIVER
// Remove sensor id
Transceiver_UnregisterSensor ( SensorPort4.port_number );
#endif
// Change the interrupt to detect when a sensor is plugged into this port
GPIO_SetInterruptTask( SensorPort4.int_port, SensorPort4.int_pin, GPIO_RISING_EDGE,
2, sensorDetect4 );
}
// Kill this task
vTaskDelete( NULL );
}
u16 testPNP() {
u8 i, C[2], B[2], E[2];
u16 Vc[2], Vb[2];
u32 hFE[2];
B[0] = B[1] = tList[0][1];
C[0] = E[1] = tList[1][0];
C[1] = E[0] = tList[0][0];
R_470K(B[0], LOW);
for (i = 0; i < 2; i++) {
R_680(C[i], LOW);
R_0(E[i], HIGH);
Delay_MS(10);
Vc[i] = ReadADC(C[i]);
Vb[i] = ReadADC(B[i]);
hFE[i] = (u32) Vc[i]*691;
hFE[i] = hFE[i] / Vb[i];
}
HiZ3(B[0], C[0], E[0]);
if (hFE[0] > hFE[1])i = 0;
else i = 1;
pins[C[i]] = 'C';
pins[B[i]] = 'B';
pins[E[i]] = 'E';
return hFE[i];
}
void lcd_init(void)
{
deg_Printf("lcd_init mcu 9303 \n");
blcd_FrameEnd_Flag = 0;
blcd_writeback_Flag = 0;
PIN_CONF()
lcd_emi_timing_init(emi_9303);
//====open lcd ldo=====
REG32(SYS_CON) = 0x932B; //SPEC request value
REG32(LDO_ACON) |= 0x4; // 3.0v
REG32(LDO_ACON) |= (1<<3); //lcd ldo enable
deg_Printf("lcd ldo open \n");
Delay_MS(100);
//====end open lcd ldo=====
lcd_emi_init();
lcd_clean_screen();
// lcd_set_backlight(1);
// while(1);
LCD_WR_SET;
datactrl_mode_sel();
SetIntSrc(LCD_INT);
REG32(LCDCON0) |= 1<<10;
deg_Printf("pass emi lcd init \n");
}
/******** Debug_NetworkTransceiver_Lock ************************************
// PASS - test transceiver lock
// Input: none
// Output: none
// ------------------------------------------------------------------------*/
void Debug_NetworkTransceiver_Lock ( void )
{
TransceiverPacket pkt;
pkt.dataSize = 0;
Delay_MS ( 100 );
UARTprintf ( "LockerTest thread tries to send transceiver packet\n" );
Transceiver_SendMessage ( pkt );
UARTprintf ( "LockerTest PASSED IF packet is sent after locker thread release\n" );
UARTprintf ("-----------------------------------------\n");
switch ( testID )
{
case '0':
xTaskCreate( Debug_NetworkTransceiver_Positive, ( signed portCHAR * ) "Debug_NetworkTransceiver_Positive",
DEFAULT_STACK_SIZE, NULL, DEFAULT_PRIORITY, NULL );
break;
case '7':
break;
default:
xTaskCreate( Debug_NetworkTransceiver, ( signed portCHAR * ) "Debug_NetworkTransceiver",
DEFAULT_STACK_SIZE, NULL, DEFAULT_PRIORITY, NULL );
break;
}
vTaskDelete ( NULL );
}
/** Configures the board hardware and chip peripherals for the demo's functionality. */
void SetupHardware(void)
{
/* Disable watchdog if enabled by bootloader/fuses */
MCUSR &= ~(1 << WDRF);
wdt_disable();
/* Disable clock division */
clock_prescale_set(clock_div_1);
/* Hardware Initialization */
SoftUART_Init();
LEDs_Init();
USB_Init();
/* Disable JTAG debugging */
MCUCR |= (1 << JTD);
MCUCR |= (1 << JTD);
/* Enable pull-up on the JTAG TDI pin so we can use it to select the mode */
PORTF |= (1 << 7);
Delay_MS(10);
/* Select the firmware mode based on the JTD pin's value */
CurrentFirmwareMode = (PINF & (1 << 7)) ? MODE_USART_BRIDGE : MODE_PDI_PROGRAMMER;
/* Re-enable JTAG debugging */
MCUCR &= ~(1 << JTD);
MCUCR &= ~(1 << JTD);
}
u16 testNMOS() {
u32 rON;
u16 vG, vD;
u8 D, S, G;
if (tList[2][0] != tList[0][0]) {
D = tList[2][0];
S = tList[2][1];
} else {
S = tList[2][0];
D = tList[2][1];
}
G = 3 - (S + D);
R_680(D, HIGH);
R_0(S, LOW);
R_680(G, LOW);
Delay_MS(10);
vG = ReadADC(G);
if (vG > 10) {
HiZ3(S, D, G);
return 0; //if gate is lower the vdd it meas current is flowing into it which is not MOS
}
vD = ReadADC(D);
if (vD < 1000) {
HiZ3(S, D, G);
return 0; //if the VD is higher then 0 when off means its not PMOS
}
R_680(G, HIGH);
Delay_MS(10);
vG = ReadADC(G);
if (vG < 1000) {
HiZ3(S, D, G);
return 0; //if gate is higher then 0 it meas current is flowing into it which is not MOS
}
vD = ReadADC(D);
if (vD > 123) {
HiZ3(S, D, G);
return 0; //if the VD is lower then 0.9*Vdd when ON means its not PMOS
}
HiZ3(S, D, G);
pins[D] = 'D';
pins[S] = 'S';
pins[G] = 'G';
rON = vD * R680_IDEAL;
rON = rON / (1023 - vD);
return (u16) rON;
}
void HD66773R_Driver::Set_Display_Off (void)
{
Reg_Write(DISP_CTRL_REG, 0x0032); /* GON = 1, DTE = 1, D1-0 = 10 */
Delay_MS (100); /* 3Frame */
Reg_Write(DISP_CTRL_REG, 0x0022); /* GON = 1, DTE = 0, D1-0 = 10 */
Delay_MS (100); /* 3Frame */
Reg_Write(DISP_CTRL_REG, 0x0000); /* GON = 0, DTE = 0, D1-0 = 00 */
#if 0 // JJ: this was the original code, I added more code to follow the manual */
Reg_Write (PWR1_CTRL_REG, 0x0000);
#else
Reg_Write(PWR1_CTRL_REG, 0x0600); /* BT2-0 = 110 */
Delay_MS (100); /* wait 100ms */
Reg_Write(PWR4_CTRL_REG, 0x0000); /* PON = 0 */
Reg_Write(PWR5_CTRL_REG, 0x0000); /* VCOMG = 0 */
Reg_Write(PWR1_CTRL_REG, 0x0000); /* BT2-0 = 000, AP2-0 000 */
#endif
}
type getPartSS_CAP_RES() {
u8 i, j;
u16 vT1 = 0, vT2, k2;
for (i = 0; i < 2; i++)
for (j = i + 1; j < 3; j++) {
k2 = 400;
quickADCsetup(i);
R_0(j, LOW);
R_470K(i, HIGH);
while (k2--);
//Do the ADC acq just after the left over pin is HiZ
ADCON0 |= 0b10; //GO/!DONE=1
while (ADCON0 & 0b10);
vT1 = ADRES;
//Do the ADC acq after some time and see if the value changes
Delay_MS(10);
ADCON0 |= 0b10; //GO/!DONE=1
while (ADCON0 & 0b10);
vT2 = ADRES;
//Discharge?
R_680(i, LOW);
Delay_MS(10);
R_0(i, LOW);
HiZ(i);
HiZ(j);
if (vT1 > CP_HIGH) continue;
else {
tList[0][0] = i;
tList[0][1] = j;
tList[0][2] = 1023;
tList[1][0] = j;
tList[1][1] = i;
tList[1][2] = 1023;
nC = 2;
if (vT2 > (vT1 + CAP_DIFF)) return CAP;
else return RES;
}
}
return ERROR5;
}
/** Updates the device descriptors so that the correct compatibility mode is used
* when the \c RESET_TOGGLES_LIBUSB_COMPAT compile time option is enabled. This
* configures the programmer for either Jungo or libUSB driver compatibility. Each
* time the AVR is reset via pulling the reset line low the compatibility mode will
* be toggled. The current mode is stored in EEPROM and preserved through power
* cycles of the AVR.
*/
void UpdateCurrentCompatibilityMode(void)
{
/* Load the current IN endpoint address stored in EEPROM */
AVRISP_CurrDataINEndpointAddress = eeprom_read_byte(&AVRISP_CurrDataINEndpointAddress_EEPROM);
/* Check if we need to switch compatibility modes */
if (AVRISP_NeedCompatibilitySwitch)
{
/* Toggle between compatibility modes */
AVRISP_CurrDataINEndpointAddress = (AVRISP_CurrDataINEndpointAddress == AVRISP_DATA_IN_EPADDR_LIBUSB) ?
AVRISP_DATA_IN_EPADDR_JUNGO : AVRISP_DATA_IN_EPADDR_LIBUSB;
/* Save the new mode into EEPROM */
eeprom_update_byte(&AVRISP_CurrDataINEndpointAddress_EEPROM, AVRISP_CurrDataINEndpointAddress);
}
LEDs_SetAllLEDs(LEDS_NO_LEDS);
/* Validate IN endpoint address and indicate current mode via LED flashes */
switch (AVRISP_CurrDataINEndpointAddress)
{
default:
/* Default to Jungo compatibility mode if saved EEPROM is invalid */
AVRISP_CurrDataINEndpointAddress = AVRISP_DATA_IN_EPADDR_JUNGO;
case AVRISP_DATA_IN_EPADDR_JUNGO:
/* Two flashes for Jungo compatibility mode */
for (uint8_t i = 0; i < 4; i++)
{
LEDs_ToggleLEDs(LEDS_ALL_LEDS);
Delay_MS(100);
}
break;
case AVRISP_DATA_IN_EPADDR_LIBUSB:
/* Five flashes for libUSB compatibility mode */
for (uint8_t i = 0; i < 10; i++)
{
LEDs_ToggleLEDs(LEDS_ALL_LEDS);
Delay_MS(100);
}
break;
}
Delay_MS(500);
}
/** Special startup routine to check if the bootloader was started via a watchdog reset, and if the magic application
* start key has been loaded into \ref MagicBootKey. If the bootloader started via the watchdog and the key is valid,
* this will force the user application to start via a software jump.
*/
void Application_Jump_Check(void)
{
bool JumpToApplication = false;
#if (BOARD == BOARD_LEONARDO)
/* Enable pull-up on the IO13 pin so we can use it to select the mode */
PORTC |= (1 << 7);
Delay_MS(10);
/* If IO13 is not jumpered to ground, start the user application instead */
JumpToApplication |= ((PINC & (1 << 7)) != 0);
/* Disable pull-up after the check has completed */
PORTC &= ~(1 << 7);
#elif ((BOARD == BOARD_XPLAIN) || (BOARD == BOARD_XPLAIN_REV1))
/* Disable JTAG debugging */
JTAG_DISABLE();
/* Enable pull-up on the JTAG TCK pin so we can use it to select the mode */
PORTF |= (1 << 4);
Delay_MS(10);
/* If the TCK pin is not jumpered to ground, start the user application instead */
JumpToApplication |= ((PINF & (1 << 4)) != 0);
/* Re-enable JTAG debugging */
JTAG_ENABLE();
#endif
/* If the reset source was the bootloader and the key is correct, clear it and jump to the application */
if ((MCUSR & (1 << WDRF)) && (MagicBootKey == MAGIC_BOOT_KEY))
{
MagicBootKey = 0;
JumpToApplication = true;
}
if (JumpToApplication)
{
// cppcheck-suppress constStatement
((void (*)(void))0x0000)();
}
}
BOOL HD66773R_Driver::Uninitialize()
{
NATIVE_PROFILE_HAL_DRIVERS_DISPLAY();
Clear();
Set_Display_Off();
Delay_MS (1);
Reg_Write (OSCILLATION_REG, 0x0001);
Delay_MS (10);
Reg_Write (PWR1_CTRL_REG, 0x0000);
Reg_Write (PWR2_CTRL_REG, 0x0000);
Reg_Write (PWR3_CTRL_REG, 0x0000);
Reg_Write (PWR4_CTRL_REG, 0x0F00); /* Pon = 0 */
Reg_Write (PWR5_CTRL_REG, 0x0E0F); /* VCOMG=0 */
Reg_Write (PWR1_CTRL_REG, 0x0003); /* SLP="1",STB="1" */
return TRUE;
}
void ILI9328_Driver::Set_Display_On( void )
{
#if 0
Reg_Write(DISP_CTRL_REG, 0x0001);
Delay_MS (100); /* 3Frame */
Reg_Write(DISP_CTRL_REG, 0x0021);
Reg_Write(DISP_CTRL_REG, 0x0023);
Delay_MS (100); /* 3Frame */
Reg_Write(DISP_CTRL_REG, 0x0037); /***normaly white ***/
#endif
#if 0
Reg_Write(ILI9325_POW_CTRL_1, 0x0000); /* SAP, BT[3:0], AP, DSTB, SLP, STB */
Reg_Write(ILI9325_POW_CTRL_2, 0x0007); /* DC1[2:0], DC0[2:0], VC[2:0] */
Reg_Write(LI9325_POW_CTRL_3, 0x0000); /* VREG1OUT voltage */
Reg_Write(ILI9325_POW_CTRL_4, 0x0000); /* VDV[4:0] for VCOM amplitude */
Delay_MS(200); /* Dis-charge capacitor power voltage */
Reg_Write(ILI9325_POW_CTRL_1, 0x1690); /* SAP, BT[3:0], AP, DSTB, SLP, STB */
Reg_Write(ILI9325_POW_CTRL_2, 0x0227); /* R11h=0x0221 at VCI=3.3V, DC1[2:0], DC0[2:0], VC[2:0] */
Delay_MS(50);
Reg_Write(ILI9325_POW_CTRL_3, 0x001D); /* External reference voltage= Vci */
Delay_MS(50);
Reg_Write(ILI9325_POW_CTRL_4, 0x0800); /* R13=1D00 when R12=009D;VDV[4:0] for VCOM amplitude */
Reg_Write(ILI9325_POW_CTRL_7, 0x0012); /* R29=0013 when R12=009D;VCM[5:0] for VCOMH */
Reg_Write(ILI9325_FRM_RATE_COLOR, 0x000B); /* Frame Rate = 70Hz */
Delay_MS(50);
#endif
}
/*******************************************************************************
Function Name : main
Description :
*******************************************************************************/
void main(void){
u16 i, x, y;
u16 pict_y;
Display_Info("main", 0);
/*--------------initialize the hardware-----------*/
NVIC_SetVectorTable(NVIC_VectTab_FLASH, 0xC000);
NVIC_Configuration();
/*----------display APP version ----------*/
// (0,0) lower left
__Display_Str(0, 112, TXT_COLOR, BKGND_COLOR, msg_app_ver);
__Display_Str(0, 96, TXT_COLOR, BKGND_COLOR, msg_chans);
__Display_Str(0, 80, RED, BKGND_COLOR, msg_free);
__Display_Str(0, 64, RED, BKGND_COLOR, msg_warr);
/*--------initialization --------*/
Read_Config();
if(confp->initialized != INIT_FLAG){ // check for first time run
Reset_Config();
}
// initialize based on saved parameters
Set_Base(0); // fastest sample speed
Set_Range(confp->sig_range);
Set_Orientation(confp->orient);
Delay_MS(4000);
Clear_Screen( BKGND_COLOR );
confp->mode = confp->rtn_mode;
switch(confp->mode){
case PHA:
Init_Spectrum();
Display_Spectrum ();
break;
case RATE:
Init_Rate();
Display_Rate();
break;
case MENU:
Display_Menu(confp->menu_index);
break;
}
if (SD_Card_On() == 0){
if (FAT_Info()){
if (FAT_Info()){
__Display_Str(0, 0, RED, BKGND_COLOR, SD_Msgs[SDErr]);
}
}
}
Beep(BEEP_500Hz, 500);
/*--------application main loop --------*/
ctr_key = KEY_SAMPLE;
ctr_refresh = confp->refresh_time * 1000; // in mS
Scan_Samples(); // never returns from this call
}
/**********擦除扇形区*****************************/
void EEPROMSectorErase(UINT16 addr)
{
EEPROMEnable();
// EA =0;
ISP_CMD = 0x03;//触发命令，擦除扇区
ISP_ADDRH = (UINT8)( (addr + EEPROM_START_ADDRESS)>>8 );
ISP_ADDRL = (UINT8) addr;
EEPROMStart();
Delay_MS(10);//擦除等待时间，约10毫秒
Delay_US(900);//万一10毫秒延时等待不够，增加900微秒的延时等待时间，确保扇区擦除完成。
EEPROMDisable();
// EA = 1;
}
void jumpToBootloader(void)
{
// If USB is used, detach from the bus and reset it
USB_Disable();
// Disable all interrupts
cli();
// Wait two seconds for the USB detachment to register on the host
Delay_MS(2000);
// Set the bootloader key to the magic value and force a reset
Boot_Key = MAGIC_BOOT_KEY;
wdt_enable(WDTO_250MS);
for (;;);
}
static void sensorInit4( void )
{
unsigned short eeprom_addr = 0x1800;
unsigned short driver_size = 0x700;
unsigned char *node_addr = NULL;
#if ENABLE_UART_PRINTF
UARTprintf( "Sensor 4 Init\n" );
#endif
// Wait a few milliseconds to debounce the port interrupt
Delay_MS(SENSOR_INIT_DELAY);
// If a sensor is no longer plugged in, abort the initialization.
if( 0 == GPIO_Read( SensorPort4.int_port, SensorPort4.int_pin ) )
{
GPIO_EnableInterrupts( SensorPort4.int_port, SensorPort4.int_pin );
}
else
{
// Read in the sensor driver from this sensor's EEPROM
node_addr = (unsigned char *)SensorDriver4Ptr;
EEPROM_Open( SensorPort4.rom_cs_port, SensorPort4.rom_cs_pin );
EEPROM_ReadBurst( eeprom_addr, node_addr, driver_size );
EEPROM_Close( SensorPort4.rom_cs_port, SensorPort4.rom_cs_pin );
// Call the sensor_init routine
SensorInit4( (PORT_T *)&SensorPort4 );
// Call the sensor_config routine
SensorConfig4( (PORT_T *)&SensorPort4 );
#if ENABLE_TRANSCEIVER
// Send sensor id to transceiver
Transceiver_RegisterSensor ( SensorPort4.port_number, SensorPort4.sensor_id );
#endif
taskENTER_CRITICAL();
SensorSampRate[3] = 1;
SampRateChanged = 1;
ActiveSensor[3] = 1;
NumActiveSensors++;
taskEXIT_CRITICAL();
GPIO_SetInterruptTask( SensorPort4.int_port, SensorPort4.int_pin, GPIO_FALLING_EDGE,
2, sensorDetectUnplug4 );
}
// Kill this task
vTaskDelete( NULL );
}
u16 checkConduct(u8 A, u8 B, u8 state) {
u8 i = TEST_DELAY;
u8 C; //Calculate the leftover pin
u16 Value;
C = 3 - (A + B);
//charges the leftover pin to test State and waits for charge
R_680(C, state);
Delay_MS(10);
quickADCsetup(B); //sets up the ADC for a later reading
//conects the A pin to 5V throgh 680R 5V--[680]--[A]
//brings the leftover pin to HiZ
R_680(B, LOW);
R_0(A, HIGH);
HiZ(C);
while (i--);
//Do the ADC acq just after the left over pin is HiZ
ADCON0 |= 0b10; //GO/!DONE=1
while (ADCON0 & 0b10);
Value = 1023 - ADRES;
//Discharge?
R_0(A, LOW);
Delay_MS(10);
R_0(B, LOW);
Delay_MS(10);
HiZ(A);
HiZ(B);
//If the read value is less the 93% of VCC then it is a conductor
if (Value < CP_HIGH) return Value + 1;
return 0; //otherwise its not conducting
}
uint8_t Endpoint_Null_Stream(uint16_t Length,
uint16_t* const BytesProcessed)
{
uint32_t i;
while ( !Endpoint_IsINReady() ) /*-- Wait until ready --*/
{
Delay_MS(2);
}
for (i=0; i < Length; i++)
{
Endpoint_Write_8(0);
}
return ENDPOINT_RWSTREAM_NoError;
}
//Disable some component
void state_power_saving_init()
{
sensor_board_heater_on(false);
motor_set(0);
led_set(0,0,0);
//Disable TWI, SPI,Timer2 Timer1 ADC
PRR0=(1 <<PRTWI) | (1 << PRTIM2) | (1 << PRTIM0) | (1 << PRTIM1) | (1 << PRSPI) | (1 << PRADC) ;
//Disable Timer3, USART1
PRR1=(1 << PRTIM3) | (1 << PRUSART1);
//Disable Analog Comparator Disable
ACSR|= (1<<ACD);
//Enter in sleep mode
SMCR=(1 << SM1) | (1 << SE);
Delay_MS(200);
sleep();
}
void Application_Jump_Check(void)
{
bool JumpToApplication = false;
#if (BOARD == BOARD_LEONARDO)
/* Enable pull-up on the IO13 pin so we can use it to select the mode */
PORTC |= (1 << 7);
Delay_MS(10);
JumpToApplication |= ((PINC & (1 << 7)) != 0);
PORTC &= ~(1 << 7);
#endif
if (JumpToApplication)
{
// cppcheck-suppress constStatement
((void (*)(void))0x0000)();
}
}
u16 testDIODE() {
u8 A, C;
u32 v680_l, v680_h;
u32 vD;
A = tList[0][0];
C = tList[0][1];
R_680(C, LOW);
R_680(A, HIGH);
Delay_MS(10);
v680_l = ReadADC(C);
v680_h = ReadADC(A);
HiZ(A);
HiZ(C);
vD = ((v680_h-v680_l) * VCC) / 1023;
pins[A] = 'A';
pins[C] = 'C';
return vD;
}
u16 ReadADC(u8 Pin){
u16 i;
//setup ADC
ADCON2=0b10101110; //R justified result, 12TAD time 101, FOSC/64 110
//Analog inputs
//A0-2 are analog monitors
ADCON1=0b1000; //internal Vrefs, A0-6 analog
//set channel
ADCON0=0;
ADCON0|=((Pin+4)<<2);//enable the channel
ADCON0|=0b1;//ADON=1
//take reading
Delay_MS(1);
ADCON0|=0b10; //GO/!DONE=1
while(ADCON0&0b10);
//return reading
//i=ADRESH;
//i=i<<8;
//i|=ADRESL;
return ADRES;
}
void task_play_pause_control(void)
{
if(!task_ctl.on_playing)
{
deg_Printf("play...\n");
Delay_MS(500);
task_ctl.on_playing = 1;
t_play.pause_flag = 0;
timer_Timer2_Start();
audio_dac_init();
g_stcJpegInfo.iValidFrameCnt = g_stcJpegInfo.i30FrameCnt;
}
else
{
deg_Printf("pause\n");
t_play.pause_flag = 1;
task_ctl.on_playing=0;
audio_dac_Stop();
key_voice_init();
}
}
/** Special startup routine to check if the bootloader was started via a watchdog reset, and if the magic application
* start key has been loaded into \ref MagicBootKey. If the bootloader started via the watchdog and the key is valid,
* this will force the user application to start via a software jump.
*/
void Application_Jump_Check(void) // FIXME: update to the 2015 version where (maybe?) is more reliable the checks
{
bool JumpToApplication = false;
#if ((BOARD == BOARD_XPLAIN) || (BOARD == BOARD_XPLAIN_REV1))
/* Disable JTAG debugging */
JTAG_DISABLE();
/* Enable pull-up on the JTAG TCK pin so we can use it to select the mode */
PORTF |= (1 << 4);
Delay_MS(10);
/* If the TCK pin is not jumpered to ground, start the user application instead */
JumpToApplication |= ((PINF & (1 << 4)) != 0);
/* Re-enable JTAG debugging */
JTAG_ENABLE();
#endif
/* If the reset source was the bootloader and the key is correct, clear it and jump to the application */
if ((MCUSR & (1 << WDRF)) && (MagicBootKey == MAGIC_BOOT_KEY))
JumpToApplication |= true;
/* If a request has been made to jump to the user application, honor it */
if (JumpToApplication)
{
/* Turn off the watchdog */
MCUSR &= ~(1<<WDRF);
wdt_disable();
/* Clear the boot key and jump to the user application */
MagicBootKey = 0;
// cppcheck-suppress constStatement
((void (*)(void))0x0000)();
}
}
/** Configures the board hardware and chip peripherals for the demo's functionality. */
void SetupHardware(void)
{
#if (ARCH == ARCH_AVR8)
/* Disable watchdog if enabled by bootloader/fuses */
MCUSR &= ~(1 << WDRF);
wdt_disable();
/* Disable clock division */
clock_prescale_set(clock_div_1);
#endif
/* Disable JTAG debugging */
MCUCR |= (1 << JTD);
MCUCR |= (1 << JTD);
/* Enable pull-up on the JTAG TDI pin so we can use it to select the mode */
PORTF |= (1 << 7);
Delay_MS(10);
/* Select the firmware mode based on the JTD pin's value */
CurrentFirmwareMode = (PINF & (1 << 7)) ? MODE_USART_BRIDGE : MODE_PDI_PROGRAMMER;
/* Re-enable JTAG debugging */
MCUCR &= ~(1 << JTD);
MCUCR &= ~(1 << JTD);
/* Hardware Initialization */
SoftUART_Init();
LEDs_Init();
#if defined(RESET_TOGGLES_LIBUSB_COMPAT)
UpdateCurrentCompatibilityMode();
#endif
/* USB Stack Initialization */
USB_Init();
}
u16 testZENER() {
u8 A, C, t;
u32 v680_l, v680_h;
u32 vZ;
if (tList[0][2] > tList[1][2])t = 0;
else t = 1;
C = tList[t][0];
A = tList[t][1];
R_680(A, LOW);
R_680(C, HIGH);
Delay_MS(10);
v680_l = ReadADC(A);
v680_h = ReadADC(C);
HiZ(A);
HiZ(C);
vZ = ((v680_h-v680_l) * VCC) / 1023;
pins[A] = 'A';
pins[C] = 'C';
return vZ;
}
/** Special startup routine to check if the bootloader was started via a watchdog reset, and if the magic application
* start key has been loaded into \ref MagicBootKey. If the bootloader started via the watchdog and the key is valid,
* this will force the user application to start via a software jump.
*/
void Application_Jump_Check(void)
{
bool JumpToApplication = false;
#if (BOARD == BOARD_LEONARDO)
/* Enable pull-up on the IO13 pin so we can use it to select the mode */
PORTC |= (1 << 7);
Delay_MS(10);
/* If IO13 is not jumpered to ground, start the user application instead */
JumpToApplication = ((PINC & (1 << 7)) != 0);
/* Disable pull-up after the check has completed */
PORTC &= ~(1 << 7);
#elif ((BOARD == BOARD_XPLAIN) || (BOARD == BOARD_XPLAIN_REV1))
/* Disable JTAG debugging */
JTAG_DISABLE();
/* Enable pull-up on the JTAG TCK pin so we can use it to select the mode */
PORTF |= (1 << 4);
Delay_MS(10);
/* If the TCK pin is not jumpered to ground, start the user application instead */
JumpToApplication = ((PINF & (1 << 4)) != 0);
/* Re-enable JTAG debugging */
JTAG_ENABLE();
#else
/* Check if the device's BOOTRST fuse is set */
if (boot_lock_fuse_bits_get(GET_HIGH_FUSE_BITS) & FUSE_BOOTRST)
{
/* If the reset source was not an external reset or the key is correct, clear it and jump to the application */
if (!(MCUSR & (1 << EXTRF)) || (MagicBootKey == MAGIC_BOOT_KEY))
JumpToApplication = true;
/* Clear reset source */
MCUSR &= ~(1 << EXTRF);
}
else
{
/* If the reset source was the bootloader and the key is correct, clear it and jump to the application;
* this can happen in the HWBE fuse is set, and the HBE pin is low during the watchdog reset */
if ((MCUSR & (1 << WDRF)) && (MagicBootKey == MAGIC_BOOT_KEY))
JumpToApplication = true;
/* Clear reset source */
MCUSR &= ~(1 << WDRF);
}
#endif
/* Don't run the user application if the reset vector is blank (no app loaded) */
bool ApplicationValid = (pgm_read_word_near(0) != 0xFFFF);
/* If a request has been made to jump to the user application, honor it */
if (JumpToApplication && ApplicationValid)
{
/* Turn off the watchdog */
MCUSR &= ~(1 << WDRF);
wdt_disable();
/* Clear the boot key and jump to the user application */
MagicBootKey = 0;
// cppcheck-suppress constStatement
((void (*)(void))0x0000)();
}
}