/* This example turns all 4 leds on and then off */
int main(void) {
// Access 4 leds predefined as LED1, LED2, LED3, LED4
Pin_t leds[] = {
Pin_Init(LED1, 1, Output),
Pin_Init(LED2, 1, Output),
Pin_Init(LED3, 1, Output),
};
int nleds = 3;
Pin_t button = Pin_Init(SW1, 1, Output);
Pin_Input(button),
Pin_Mode(button, PullUp);
// Get the sensor enabler
Pin_t enabler = Pin_Init(LED_EN, 1, Output);
Pin_Output(enabler),
Pin_On(enabler);
// Get AnalogIns
uint32_t sensors[] = {
AnalogIn_Get(SENS0),
AnalogIn_Get(SENS1),
AnalogIn_Get(SENS2),
AnalogIn_Get(SENS3),
AnalogIn_Get(SENS4) };
int nsensors = 5;
while (1) {
if (Pin_Read(button) == SW_ON) {
Pin_Off(leds[2]);
} else {
Pin_On(leds[2]);
}
if (AnalogIn_Read(sensors[0]) > 0) {
Pin_Off(leds[1]);
} else {
Pin_On(leds[1]);
}
/* for (i = 0; i < nleds; i++) {
Pin_On(leds[i]);
Delay(0.2);
}
for (i = 0; i < nleds; i++) {
Pin_Off(leds[i]);
Delay(0.2);
}*/
}
}
int main(void)
{
// Clock (80MHz)
SysCtlClockSet(SYSCTL_SYSDIV_2_5 | SYSCTL_USE_PLL | SYSCTL_XTAL_16MHZ | SYSCTL_OSC_MAIN);
// Init peripherals
// Init Red LED Pin
Pin_Init(PF1);
Pin_Set(PF1, LOW);
// I2C0
I2C_Init(I2C0);
I2C_Enable(I2C0);
// Init Objects
PCA9557 pca9557 = PCA9557(I2C0);
pca9557.set(P2, LOW);
pca9557.set(P3, LOW);
while(1)
{
Pin_Toggle(PF1);
pca9557.toggle(P2);
delay(0.2);
}
}
/**
* Main entry point; start worker threads, setup signal handling, wait for threads to exit, exit
* @param argc - Num args
* @param argv - Args
* @returns 0 on success, error code on failure
* NOTE: NEVER USE exit(3)! Instead call Thread_QuitProgram
*/
int main(int argc, char ** argv)
{
// Open log before calling ParseArguments (since ParseArguments may call the Log functions)
openlog("mctxserv", LOG_PID | LOG_PERROR, LOG_USER);
ParseArguments(argc, argv); // Setup the g_options structure from program arguments
Log(LOGINFO, "Server started");
#ifdef REALTIME_VERSION
if (is_realtime())
{
Log(LOGDEBUG, "Running under realtime kernel");
}
else
{
Fatal("Not running under realtime kernel");
}
struct sched_param param;
param.sched_priority = 49;
if (sched_setscheduler(0, SCHED_FIFO, ¶m) < 0)
Fatal("sched_setscheduler failed - %s", strerror(errno));
if (mlockall(MCL_CURRENT | MCL_FUTURE) == -1)
Fatal("mlockall failed - %s", strerror(errno));
stack_prefault();
#endif //REALTIME_VERSION
Pin_Init();
// Try and start things
//const char *ret;
//if ((ret = Control_SetMode(CONTROL_START, "test")) != NULL)
// Fatal("Control_SetMode failed with '%s'", ret);
// run request thread in the main thread
FCGI_RequestLoop(NULL);
Control_SetMode(CONTROL_STOP, NULL);
//if ((ret = Control_SetMode(CONTROL_STOP, "test")) != NULL)
// Fatal("Control_SetMode failed with '%s'", ret);
//Sensor_StopAll();
//Actuator_StopAll();
Pin_Close();
Cleanup();
return 0;
}
void UART_Enable(tUART* uart)
{
// Enable Pin Port
Pin_Init(uart -> tx_pin);
Pin_Init(uart -> rx_pin);
// Set GPIO Pin Mux
GPIOPinTypeUART(pins[uart -> tx_pin].port.base, pins[uart -> tx_pin].offset);
GPIOPinTypeUART(pins[uart -> rx_pin].port.base, pins[uart -> rx_pin].offset);
GPIOPinConfigure(uart -> tx_pin_mux);
GPIOPinConfigure(uart -> rx_pin_mux);
// Enable UART
UARTEnable(uart -> base);
// Disable internal FIFOs
UARTFIFODisable(uart -> base);
}
/******************Ö÷³ÌÐò********************************/
void main(void)
{
Pin_Init();
T0_Init();
Uart1_Init();
Uart2_Init();
Uart1_AppInit();
Uart2_AppInit();
MdTcbInit1();
MdTcbInit2();
Global_EI();
while (1)
{
TimeDeal(&Ahu1);
MdPoll01();
MdPoll02();
if (Ahu1.Times.Solo._1msFlag)
{
UartTimeOut(&UartAppData1);
UartTimeOut(&UartAppData2);
KeyScanDeal(KeyGet());
KeyAllStateDeal(&Ahu1);
NumberDisplayScan(&Ahu1);
}
DisplayNumber(flag);
if (Ahu1.Times.Solo._5msFlag)
{
LedOutputScan(&Ahu1);
RhDisplayScan(&Ahu1);
TmepDisplayScan(&Ahu1);
}
if (Ahu1.Times.Solo._10msFlag)
{
}
if (Ahu1.Times.Solo._1000msFlag)
{
flag++;
}
// Ahu1.Humidity.Solo.SEG_B = 1;
// Ahu1.Temperature.Solo.SEG_C = 1;
Ahu1.Times.All[0] = 0;
}
}
int main(void)
{
// Clock (80MHz)
SysCtlClockSet(SYSCTL_SYSDIV_2_5 | SYSCTL_USE_PLL | SYSCTL_XTAL_16MHZ | SYSCTL_OSC_MAIN);
// Init LEDs
Pin_Init(rLED);
Pin_Set(rLED, LOW);
// Init UART0
UART_Init(UART0);
UART_Enable(UART0);
setbuf(stdout, NULL); // Disable printf internal buffer
// Init I2C0
I2C_Init(I2C0);
I2C_Enable(I2C0);
// Wait until user presses enter
UART_ReadChar(UART0);
// Scan for I2C addresses
for(i=0; i < (1 << 7); i++)
{
printf("x%02x:", i);
if (I2C_Write(I2C0, i, 0) == true)
printf("* ");
else
printf(" ");
Pin_Toggle(rLED);
if (i % 8 == 7)
printf("\r\n");
}
// Indicator LED off
Pin_Set(rLED, LOW);
while(1);
}
/**************************************************************************//**
*
* @brief Initialize board
*
*****************************************************************************/
void BoardInit(void)
{
GPIO_InitTypeDef GPIO_InitStructure;
USART_InitTypeDef USART_InitStructure;
Pin_Init();
LED_CLK();
BSP_LedSet(0);
GPIO_InitStructure.GPIO_Pin = LED_PIN;
GPIO_InitStructure.GPIO_Speed = GPIO_Speed_50MHz;
GPIO_InitStructure.GPIO_Mode = GPIO_Mode_Out_PP;
GPIO_Init(LED_PORT, &GPIO_InitStructure);
SystemCoreClockUpdate();
TimingInit();
PC_GPIO_CLK();
GPIO_InitStructure.GPIO_Pin = PC_PIN_RX;
GPIO_InitStructure.GPIO_Mode = GPIO_Mode_IPU;
GPIO_Init(PC_PIN_PORT, &GPIO_InitStructure);
GPIO_InitStructure.GPIO_Pin = PC_PIN_TX;
GPIO_InitStructure.GPIO_Speed = GPIO_Speed_50MHz;
GPIO_InitStructure.GPIO_Mode = GPIO_Mode_AF_PP;
GPIO_Init(PC_PIN_PORT, &GPIO_InitStructure);
PC_UART_CLK();
USART_InitStructure.USART_BaudRate = 115200;
USART_InitStructure.USART_WordLength = USART_WordLength_8b;
USART_InitStructure.USART_StopBits = USART_StopBits_1;
USART_InitStructure.USART_Parity = USART_Parity_No;
USART_InitStructure.USART_HardwareFlowControl = USART_HardwareFlowControl_None;
USART_InitStructure.USART_Mode = USART_Mode_Rx | USART_Mode_Tx;
USART_Init(PC_UART, &USART_InitStructure);
USART_Cmd(PC_UART, ENABLE);
}
//-----------------------------------------------------------------------------
// Command_Decode
//-----------------------------------------------------------------------------
//
// Return Value : Error code
// Parameters : Pointer to input string
//
// Parses the command string and calls the appropriate functions.
//
//-----------------------------------------------------------------------------
uint8_t CommandDecode(char * instr)
{
char * cp; // character pointer
const DEVICE_FAMILY *dfptr; // pointer to current device family
const DERIVATIVE_ENTRY *deptr; // pointer to current derivative
uint8_t command_number = 99; // number of command encoded in 'instr'
uint8_t result = INVALID_COMMAND;
printf("Command: %s\n", instr);
command_number = 0xFF;
if (instr[0] >= '0' && instr[0] <= '9')
{
// if first char is a digit, then interpret it as a command number
command_number = atoi (instr);
}
{
// interpret command as a string and find command number
// or find command by command_number
const COMMAND *ctptr = Commands;
while (ctptr->name != NULL)
{
if (command_number != 0xFF)
{
if (ctptr->number == command_number)
break;
}
else if (strncmp (instr, ctptr->name, ctptr->name_size) == 0)
{ // we've found the command, so record its number and exit
command_number = ctptr->number;
break;
}
ctptr++;
}
if (ctptr->name != NULL)
{
if (ctptr->need_discover && !FamilyFound)
{
result = DEVICE_UNDISCOVERED;
command_number = 0xFE; // Unknown command
}
}
else
command_number = 0xFF; // Unknown command
}
// Now we have a command number, so act on it.
switch (command_number)
{
case 0: // Device Autodetect
{
uint8_t deviceId = 0xFF; // initialize device and derivative
uint8_t revisionId = 0xFF;
uint8_t derivativeId = 0xFF; // id's to invalid selections
printf("Device Autodetect\n");
Start_Stopwatch();
if (NO_ERROR == (result = C2_Halt ())
&& NO_ERROR == (result = C2_Discover (&deviceId, &revisionId, &derivativeId))
)
{
CommandsList = KnownFamilies[FamilyNumber].InitStrings;
}
Stop_Stopwatch();
printf("Device ID : %02X\n", deviceId);
printf("Revision ID : %02X\n", revisionId);
printf("Derivative ID : %02X\n", derivativeId);
break;
}
case 1: // Print Menu
{
printf("? stub\n");
Start_Stopwatch();
Display_Menu();
Stop_Stopwatch();
result = NO_ERROR;
break;
}
case 2: // Wait ms
{
uint16_t wait_time;
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
wait_time = atoi (cp);
printf("Waiting %d ms\n", wait_time);
Start_Stopwatch();
Wait_ms (wait_time);
Stop_Stopwatch();
printf("Stopwatch_ms is %u\n", Stopwatch_ms);
result = NO_ERROR;
}
break;
}
case 3: // Wait us
{
uint16_t wait_time;
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
wait_time = atoi (cp);
printf("Waiting %d us\n", wait_time);
Start_Stopwatch();
Wait_us (wait_time);
Stop_Stopwatch();
printf("Stopwatch_us is %u\n", Stopwatch_us);
result = NO_ERROR;
}
break;
}
case 4: // Start Stopwatch
{
printf("Start Stopwatch\n");
result = Start_Stopwatch();
break;
}
case 5: // Stop Stopwatch
{
printf("Stop Stopwatch\n");
result = Stop_Stopwatch();
printf("Stopwatch_ms is %u\n", Stopwatch_ms);
printf("Stopwatch_us is %u\n", Stopwatch_us);
break;
}
case 6: // Set Timeout ms
{
uint16_t wait_time;
printf("Set Timeout ms:\n");
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
wait_time = atoi (cp);
printf("Timing out for %d ms\n", wait_time);
Start_Stopwatch();
SetTimeout_ms (wait_time);
SetTimeout_us (1);
while (!IsDoneTimeout_ms())
;
Stop_Stopwatch();
printf("Stopwatch_ms is %u\n", Stopwatch_ms);
result = NO_ERROR;
}
break;
}
case 7: // Set Timeout us
{
uint16_t wait_time;
printf("Set Timeout us\n");
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
wait_time = atoi(cp);
printf("Timing out for %d us\n", wait_time);
Start_Stopwatch();
SetTimeout_us(wait_time);
while (!IsDoneTimeout_us())
;
Stop_Stopwatch();
printf("Stopwatch_us is %u\n", Stopwatch_us);
result = NO_ERROR;
}
break;
}
case 8: // Pin init
{
printf("Pin Init\n");
result = Pin_Init();
break;
}
case 9: // C2 Reset
{
printf("C2 Reset\n");
result = C2_Reset();
break;
}
case 10: // C2 Write Address
{
uint16_t addr;
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
addr = atox (cp);
printf("C2 Write Address: %02X\n", addr);
Start_Stopwatch();
result = C2_WriteAR(addr);
Stop_Stopwatch();
}
break;
}
case 11: // C2 Read Address
{
Start_Stopwatch();
result = C2_ReadAR();
Stop_Stopwatch();
printf("C2 Read Address: %02X\n", (uint16_t) C2_AR);
break;
}
case 12: // C2 Write Data
{
uint8_t data;
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
data = atox (cp);
printf("C2 Write Data: %02X\n", (uint16_t) data);
Start_Stopwatch ();
result = C2_WriteDR (data, C2_WRITE_DR_TIMEOUT_US);
Stop_Stopwatch ();
}
break;
}
case 13: // C2 Read Data
{
Start_Stopwatch ();
result = C2_ReadDR (C2_READ_DR_TIMEOUT_US);
Stop_Stopwatch ();
printf("C2 Read Data: %02X\n", (uint16_t) C2_DR);
break;
}
case 14: // C2 Reset and Halt
{
printf("C2 Reset and Halt\n");
result = C2_Halt ();
break;
}
case 15: // C2 Get Device ID
{
uint8_t devId;
printf("C2 Get Device ID\n");
Start_Stopwatch ();
result = C2_GetDevID (&devId);
Stop_Stopwatch ();
printf("Device ID is %u, 0x%04X\n", devId, devId);
break;
}
case 16: // C2 Get Revision ID
{
uint8_t revid;
printf("C2 Get Revision ID\n");
Start_Stopwatch ();
result = C2_GetRevID (&revid);
Stop_Stopwatch ();
printf("Revision ID is %u, 0x%04X\n", revid, revid);
break;
}
case 17: // C2 Read SFR
{
uint8_t sfr_value, sfr_address;
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
sfr_address = atox (cp);
Start_Stopwatch ();
result = C2_ReadSFR (sfr_address, &sfr_value);
Stop_Stopwatch ();
printf("C2 Read SFR(%02X) %02X\n", (uint16_t) sfr_address, (uint16_t) sfr_value);
}
break;
}
case 18: // C2 Write SFR
{
uint8_t sfr_address, sfr_value;
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
sfr_address = atox (cp);
cp = GetNextWord(cp);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
sfr_value = atox (cp);
printf("C2 Write %02X to SFR(%02X)\n", (uint16_t) sfr_value, (uint16_t) sfr_address);
Start_Stopwatch ();
result = C2_WriteSFR (sfr_address, sfr_value);
Stop_Stopwatch ();
}
}
break;
}
case 19: // C2 Read Direct
{
uint8_t sfr_value, sfr_address;
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
sfr_address = atox (cp);
Start_Stopwatch ();
result = C2_ReadDirect (sfr_address, &sfr_value, C2_DIRECT);
Stop_Stopwatch ();
printf("C2 Read Direct(%02X) %02X\n", (uint16_t) sfr_address, (uint16_t) sfr_value);
}
break;
}
case 20: // C2 Write Direct <address> <value>
{
uint8_t sfr_address, sfr_value;
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
sfr_address = atox (cp);
cp = GetNextWord(cp);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
sfr_value = atox (cp);
printf("C2 Write %02x to Direct(%02X)\n", (uint16_t) sfr_value, (uint16_t) sfr_address);
Start_Stopwatch ();
result = C2_WriteDirect (sfr_address, sfr_value, C2_DIRECT);
Stop_Stopwatch ();
}
}
break;
}
case 21: // C2 Read Indirect
{
uint8_t sfr_value, sfr_address;
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
sfr_address = atox (cp);
Start_Stopwatch ();
result = C2_ReadDirect (sfr_address, &sfr_value, C2_INDIRECT);
Stop_Stopwatch ();
printf("C2 Read Indirect(%02X) %02X\n", (uint16_t) sfr_address, (uint16_t) sfr_value);
}
break;
}
case 22: // C2 Write Indirect
{
uint8_t sfr_address;
uint8_t sfr_value;
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
sfr_address = atox (cp);
cp = GetNextWord(cp);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
sfr_value = atox (cp);
printf("C2 Write %02x to Indirect(%02X)\n", (uint16_t) sfr_value, (uint16_t) sfr_address);
Start_Stopwatch ();
result = C2_WriteDirect (sfr_address, sfr_value, C2_INDIRECT);
Stop_Stopwatch ();
}
}
break;
}
case 23: // C2 Discover
{
uint8_t j, deviceId, revisionId, derivativeId;
printf("C2 Discover\n");
Start_Stopwatch ();
result = C2_Discover (&deviceId, &revisionId, &derivativeId);
Stop_Stopwatch ();
if (result != NO_ERROR)
break;
dfptr = &(KnownFamilies[FamilyNumber]);
deptr = &(KnownFamilies[FamilyNumber].DerivativeList[DerivativeNumber]);
printf("Family Information:\n");
printf("Device ID: 0x%04X\n", dfptr->DEVICE_ID);
printf("Family string: %s\n", dfptr->FAMILY_STRING);
printf("Mem Type: %u\n", (uint16_t) dfptr->MEM_TYPE);
printf("Page Size: %u\n", dfptr->PAGE_SIZE);
printf("Has SFLE: %u\n", (uint16_t) dfptr->HAS_SFLE);
printf("Security Type: %u\n", (uint16_t) dfptr->SECURITY_TYPE);
printf("FPDAT address: 0x%02X\n", (uint16_t) dfptr->FPDAT);
printf("Device ID: 0x%04X\n", dfptr->DEVICE_ID);
printf("Init strings:\n");
for (j = 0; ; j++)
{
if (dfptr->InitStrings[j] == NULL)
break;
printf("%s\n", dfptr->InitStrings[j]);
}
printf("\n");
printf("Derivative Information\n");
printf("----------------------\n");
printf("Derivative ID : %02X\n", deptr->DERIVATIVE_ID);
printf("Derivative String : %s\n", deptr->DERIVATIVE_STRING);
printf("Features String : %s\n", deptr->FEATURES_STRING);
printf("Package String : %s \n", deptr->PACKAGE_STRING);
printf("Code Start Address : %05X\n", deptr->CODE_START);
printf("Code Size : %05X\n", deptr->CODE_SIZE);
printf("Write Lock Byte Addr : %05X\n", deptr->WRITELOCKBYTEADDR);
printf("Read Lock Byte Addr : %05X\n", deptr->READLOCKBYTEADDR);
printf("Code 2 Start Address : %05X\n", deptr->CODE2_START);
printf("Code 2 Size : %05X\n", deptr->CODE2_SIZE);
printf("\n");
break;
}
case 24: // Run Init String
{
result = NO_ERROR;
printf("Execute Device Init String:\n");
if (FamilyFound == true)
CommandsList = KnownFamilies[FamilyNumber].InitStrings;
else
printf("Device not connected.\n");
break;
}
case 25: // C2 Flash Read <start addr> <length>
{
uint32_t addr;
uint16_t length;
printf("C2 Flash Read\n");
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
addr = atolx (cp);
cp = GetNextWord(cp);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
length = atoi (cp);
if (length > sizeof (BinDest))
length = sizeof (BinDest);
printf(
"Reading %u bytes starting at address 0x%05lX\n",
length,
(unsigned long)addr
);
Start_Stopwatch ();
result = C2_FLASH_Read (BinDest, addr, length);
Stop_Stopwatch ();
BIN2HEXSTR (HexDest, BinDest, length);
printf("Memory contents are %s\n", HexDest);
}
}
break;
}
case 26: // C2 OTP Read <start addr> <length>
{
uint32_t addr;
uint16_t length;
printf("C2 OTP Read\n");
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
addr = atolx (cp);
cp = GetNextWord(cp);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
length = atoi (cp);
if (length > sizeof (BinDest))
length = sizeof (BinDest);
printf("Reading %u bytes starting at address 0x%05lX\n",
length,
(unsigned long)addr
);
Start_Stopwatch ();
result = C2_OTP_Read (BinDest, addr, length);
Stop_Stopwatch ();
BIN2HEXSTR (HexDest, BinDest, length);
printf("Memory contents are %s\n", HexDest);
}
}
break;
}
case 27: // C2 Flash Write <start addr> <hex string>
{
uint32_t addr;
uint8_t length;
printf("C2 Flash Write\n");
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
addr = atolx (cp);
cp = GetNextWord(cp);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
// warning! 'dest' could be overtaken by a long string
if (NO_ERROR == (result = HEXSTR2BIN (BinDest, cp, &length, sizeof(BinDest))))
{
printf("Writing %u bytes starting at address 0x%05X\n", length, addr);
// printf("Writing the following string: %s\n", cp);
Start_Stopwatch ();
result = C2_FLASH_Write (addr, BinDest, length);
Stop_Stopwatch ();
}
}
}
break;
}
case 28: // C2 OTP Write <start addr> <hex string>
{
uint32_t addr;
uint8_t length;
printf("C2 OTP Write\n");
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
addr = atolx (cp);
cp = GetNextWord(cp);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
if (NO_ERROR != (result = HEXSTR2BIN (BinDest, cp, &length, sizeof(BinDest))))
{
printf("Hex string too long");
break;
}
printf(
"Writing %u bytes starting at address 0x%05lX\n",
(uint16_t) length,
(unsigned long)addr
);
printf("Writing the following string: %s\n", cp);
Start_Stopwatch ();
result = C2_OTP_Write (addr, BinDest, length);
Stop_Stopwatch ();
}
}
break;
}
case 29: // C2 Page Erase <address in page to erase>
{
uint32_t addr;
printf("C2 Flash Page Erase\n");
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
addr = atolx (cp);
printf("Erasing page containing address 0x%05X\n", addr);
Start_Stopwatch ();
result = C2_FLASH_PageErase (addr);
Stop_Stopwatch ();
}
break;
}
case 30: // C2 Device Erase
{
printf("C2 Flash Device Erase\n");
printf("Erasing device...\n");
Start_Stopwatch ();
result = C2_FLASH_DeviceErase ();
Stop_Stopwatch ();
break;
}
case 31: // C2 Flash Blank Check
{
uint32_t addr;
uint32_t length;
printf("C2 Flash Blank Check\n");
addr = KnownFamilies[FamilyNumber].DerivativeList[DerivativeNumber].CODE_START;
length = KnownFamilies[FamilyNumber].DerivativeList[DerivativeNumber].CODE_SIZE;
printf("Checking starting at address 0x%05X for 0x%05X bytes: ", addr, length);
Start_Stopwatch ();
result = C2_FLASH_BlankCheck (addr, length);
Stop_Stopwatch ();
printf((result == DEVICE_IS_BLANK) ? "OK\n" : "Fail\n");
break;
}
case 32: // C2 OTP Blank Check
{
uint32_t addr;
uint32_t length;
printf("C2 OTP Blank Check\n");
addr = KnownFamilies[FamilyNumber].DerivativeList[DerivativeNumber].CODE_START;
length = KnownFamilies[FamilyNumber].DerivativeList[DerivativeNumber].CODE_SIZE;
printf("Checking starting at address 0x%05X for 0x%05X bytes: ", addr, length);
Start_Stopwatch ();
result = C2_OTP_BlankCheck (addr, length);
Stop_Stopwatch ();
printf((result == NO_ERROR) ? "OK\n" : "Fail\n");
break;
}
case 33: // C2 Get Lock Byte value
{
printf("C2 Get Lock Byte\n");
break;
}
case 34: // Write Target to HEX
{
printf("Write Target to HEX:\n");
Start_Stopwatch ();
result = OP_Write_TARGET2HEX();
Stop_Stopwatch ();
break;
}
case 36: // Write HEX to Target
{
HEX_RECORD hex;
printf("Write HEX to Target:\n");
cp = GetNextWord(instr);
if (NO_ERROR == (result = CheckEmpty(cp)))
{
hex.Buf = BinDest;
result = HEX_Decode(&hex, cp, sizeof(BinDest));
if (result == NO_ERROR && hex.RECLEN != 0)
{
printf("Writing %u bytes starting at address 0x%05X\n", hex.RECLEN, hex.OFFSET.U16);
Start_Stopwatch ();
result = C2_FLASH_Write (hex.OFFSET.U16, hex.Buf, hex.RECLEN);
Stop_Stopwatch ();
}
else if (result == EOF_HEX_RECORD)
result = NO_ERROR;
}
break;
}
case 35: // Read SFRs and directs
{
uint8_t row;
uint8_t col;
uint8_t value;
Start_Stopwatch ();
for (row = 0xF8; row != 0x00; row = row - 8)
{
for (col = 0; col != 0x08; col++)
{
if (NO_ERROR != (result = C2_ReadDirect ((row+col), &value, C2_DIRECT)))
break;
if (col == 0)
printf("\n0X%02X: %02X", (uint16_t) (row), (uint16_t) value);
else
printf(" %02X", (uint16_t) value);
}
}
printf("\n\n");
Stop_Stopwatch ();
break;
}
case 0xFE:
break;
default:
{
result = INVALID_COMMAND;
}
}
printf("Result: %02X %s\n", result, GetErrorName(result));
return result;
}
/******************主程序********************************/
void main(void)
{
Pin_Init();
T0_Init();
Uart_Init();
Uart2_Init();
Uart_AppInit();
Uart2_AppInit();
MdTcbInit();
MdTcbInit2();
AdcInit();
PWMInit();
FCInitOne();
while (1)
{
TimeDeal(&FC1);
MdPoll();
MdMasterPoll();
FCKeyScan(&FC1);
ResetDeal(&FC1);
FCURun(&FC1);
FCRelayOutput(&FC1);
if (FC1.Buff.Flag.solo._2msFlag)
{
// FC2IOScan(&FC1);
swih ^= 1;
PORTB_PORTB4 = swih;
TestSpeed();
UartTimeOut(&UartAppData1);
UartTimeOut(&UartAppData2);
}
if (FC1.Buff.Flag.solo._4msFlag)
{
InputDeal();
}
if (FC1.Buff.Flag.solo._10msFlag)
{
FCWorkTime(&FC1);
}
if (FC1.Buff.Flag.solo._20msFlag)
{
AdcGetAll(&FC1);
FCAnalogOutSet(&FC1);
EePromDeal(&FC1.Run, sizeof(FC_RUNING_Def) - CRC_LEN, &EeSave1);
}
if (FC1.Buff.Flag.solo._10000msFlag)
{
uint16 tmpCrc = FC1.Run.RunCrc;
uint16 tmpCrcNew = GetCRC16((uint08 *)&FC1.Run, sizeof(FC_RUNING_Def) - CRC_LEN);
if (tmpCrc != tmpCrcNew)
{
EeWriteTrg(&EeSave1);
}
}
if (FC1.Buff.Flag.solo._nmsFlag)
{
speedPerMin = speedCnt * 60 / 4 / (nTimeSpeed / 100);
speedCnt = 0;
}
FC1.Buff.Flag.All = 0;
}
}
