signed char fReadByteLoop(void)
{
bTargetAddress = 0;
bTargetDataPtr = 0;
while (bTargetDataPtr < TARGET_DATABUFF_LEN) {
//Send Read Byte vector and then get a byte from Target
SendVector(read_byte_v, 4);
// Set the drive here because SendByte() does not
SetSDATAStrong();
SendByte(bTargetAddress, 7);
RunClock(2); // Run two SCLK cycles between writing and reading
SetSDATAHiZ(); // Set to HiZ so Target can drive SDATA
bTargetDataIN = bReceiveByte();
RunClock(1);
SendVector(read_byte_v + 1, 1); // Send the ReadByte Vector End
// Test the Byte that was read from the Target against the original
// value (already in the 128-Byte array "abTargetDataOUT[]"). If it
// matches, then bump the address & pointer,loop-back and continue.
// If it does NOT match abort the loop and return and error.
if (bTargetDataIN != abTargetDataOUT[bTargetDataPtr]) {
#ifdef TX_ON
UART_PutCRLF();
UART_CPutString("bTargetDataIN : ");
UART_PutHexByte(bTargetDataIN);
UART_CPutString(" abTargetDataOUT : ");
UART_PutHexByte(abTargetDataOUT[bTargetDataPtr]);
#endif
return (BLOCK_ERROR);
}
bTargetDataPtr++;
// Increment the address by 2 to accomodate 7-Bit addressing
// (puts the 7-bit address into MSBit locations for "SendByte()").
bTargetAddress += 2;
}
return (PASS);
}
// This function gets a line of text. It writes data into buffer with a maximum size of bufferLen. The function returns number of bytes written
// when enter is pressed
void GetLine(char *buffer, char bufferLen)
{
char c;
char strPos = 0; // Current position in the string
UART_PutChar('>'); // Print line pointer
while (1)
{
c = UART_cReadChar(); // Use UART module to read the character user enters
if (c == 0x08 || c == 0x7F) // Delete or backspace pressed
{
if (strPos > 0) // Only delete if there are characters to delete
{
strPos--; // Set the position back one
UART_PutString(rubout); // Sends the rubout sequence to the serial.
}
}
else if (c == 0x0D) // Newline enter is pressed
{
buffer[strPos] = 0x00; // put the null character at the current strPos
UART_PutCRLF(); // Go to another line
break;
}
else if (c >= 0x20 && c < 0x7F) // only valid characters to the string. These are any alphabet, numeric, or symbols
{
if (strPos < bufferLen) // If there is space in the buffer
{
buffer[strPos++] = c; // Set the current character in buffer to c and then increment strPos
UART_PutChar(c); // Send the character to the computer
}
else
UART_PutChar(0x07); // Send BEL key because there is no more space left to add to the string
}
}
return;
}
void main(void)
{
M8C_EnableGInt ; // Uncomment this line to enable Global Interrupts
// Start the UART(with no parity), and Counter16
UART_Start(UART_PARITY_NONE);
// clock for moving serial
Counter16_Start();
// Start I2CHW
I2CHW_Start();
I2CHW_EnableMstr();
I2CHW_EnableInt();
// This is the command usage string
UART_CPutString("########################## I2C External SRAM ########################\r\n\
# W # XX T [Data]\r\n\
# W - Write command\r\n\
# # - Group Address (0 - 7)\r\n\
# XX - Memory Location in hex (00 - FF)\r\n\
# T - Data Type, either A for ASCII or H for Hexadecimal\r\n\
# Data - Either ASCII string or Hexadecimal separates by spaces\r\n\
#\t\t\tA - Mary had a little lamb\r\n\
#\t\t\tH - 01 FF A0 0F D8 C3\r\n\
#\r\n\
# R # XX T NN\r\n\
# R - Read command\r\n\
# # - Group Address (0 - 7)\r\n\
# XX - Memory Location in hex (00 - FF)\r\n\
# T - Data Type, either A for ASCII or H for Hexadecimal\r\n\
# NN - Number of bytes to read in hexadecimal\r\n\
#####################################################################\r\n");
while (1)
{
char *cmd;
char *params;
char slaveAddress = 0x50; // 010100000 R/W shifted to front
GetLine(buf, 79); // Retrieves a line with a maximum length of 70 characters and put it in buf.
memset(data, 0x00, 256); // Initialize all the set {data} to NULL bytes
cmd = Lowercase(cstrtok(buf, " ")); // Get the first word from the entered string and lowercase it.
if (strlen(cmd) == 1 && cmd[0] == 'w') // If the command is one letter and it is w, then write command
{
int groupAddress; // only 1 and 2 actually go to SRAM
int memLoc;
char dataType;
int len;
params = cstrtok(0x00, " "); // 0x00 indicates it will continue from last cstrtok command and get next word. This gets the next parameter
// csscanf if used to parse the string into values such as hexadecimal or integers
// It returns the number of parameters it parsed which should be one
// If the length of the params is not right or it does not parse the right amount, it returns an error
// %d gets an integer, this is the groupAddress
if (strlen(params) != 1 || csscanf(params, "%d", &groupAddress) != 1) goto error;
// %x gets a hexadecimal value, this can read capital or lowercase letters, this is the memory location
params = cstrtok(0x00, " ");
if (strlen(params) != 2 || csscanf(params, "%x", &memLoc) != 1) goto error;
// %c gets a character, the data type character
params = cstrtok(0x00, " ");
if (strlen(params) != 1 || csscanf(params, "%c", &dataType) != 1) goto error;
// This reads the rest of the string and stores it in params.
// If the length is zero or if cstrtok returns 0, this means that there was no valid string/hex entered
params = cstrtok(0x00, "\0");
if (strlen(params) == 0 || params == 0x00) goto error; // They did all the params but didn't write anything
dataType = tolower(dataType); // Lowercase the data type
if (groupAddress < 0 || groupAddress > 7)
goto error; // groupAddress was not in range
data[0] = memLoc; // First byte needs to be the memory location according to PCF8570 datasheet
slaveAddress |= groupAddress; // ORs the group 2 address to the group 1 address to get slaveAddress
if (dataType == 'a') // If the data type is ASCII
{
strcpy((data + 1), params); // Copy the string from params and put it right after the data[0] byte
len = strlen((data + 1)) + 1; // len is the number of bytes to write, it is the length of the string and then +1 because of the memLoc byte
// Cant just do strlen(data) because data[0] could be 0x00 and it would return 0 as the string length
}
else if (dataType == 'h') // If the data type is hex
{
// Take ASCII encoded hex data params and put it after data[0], returns number of bytes converted
if ((len = HexConversion(params, (data + 1))) == -1)
goto error;
len++; // Add one to the length because of the memLoc byte at data[0]
}
else
goto error;
I2CHW_bWriteBytes(slaveAddress, data, len, I2CHW_CompleteXfer); // Write len bytes from data
while (!(I2CHW_bReadI2CStatus() & I2CHW_WR_COMPLETE)); // Wait while it is writing
I2CHW_ClrWrStatus(); // Clear the write bit
csprintf(data, "%x bytes were written", len); // csprintf takes the string and substitutes %x for len, puts into data str
UART_PutString(data); // Print the string to UART
UART_PutCRLF();
}
else if (strlen(cmd) == 1 && cmd[0] == 'r') // If the command is one letter and it is r, then read command
{
int groupAddress;
int memLoc;
char dataType;
int numBytes;
char hexStr[4];
int i;
// csscanf if used to parse the string into values such as hexadecimal or integers
// It returns the number of parameters it parsed which should be one
// If the length of the params is not right or it does not parse the right amount, it returns an error
// %d gets an integer, this is the groupAddress
params = cstrtok(0x00, " ");
if (strlen(params) != 1 || csscanf(params, "%d", &groupAddress) != 1) goto error;
// %x gets a hexadecimal value, this can read capital or lowercase letters, this is the memory location
params = cstrtok(0x00, " ");
if (strlen(params) != 2 || csscanf(params, "%x", &memLoc) != 1) goto error;
// %c gets a character, the data type character
params = cstrtok(0x00, " ");
if (strlen(params) != 1 || csscanf(params, "%c", &dataType) != 1) goto error;
// %x gets a hexadecimal value, number of bytes to read
params = cstrtok(0x00, " ");
if (strlen(params) != 2 || csscanf(params, "%x", &numBytes) != 1) goto error;
// If there is any data after the number of bytes, then the format is invalid and it should return an error
if (cstrtok(0x00, " ") != 0x00) goto error;
dataType = tolower(dataType); // Lowercase the data type
if (groupAddress < 0 || groupAddress > 7)
goto error; // groupAddress was not in range
data[0] = memLoc; // First byte needs to be the memory location according to PCF8570 datasheet
slaveAddress |= groupAddress; // ORs the group 2 address to the group 1 address to get slaveAddress
I2CHW_bWriteBytes(slaveAddress, data, 1, I2CHW_NoStop); // Write one byte to the RAM, the slaveAddress so it knows who were talking to
while (!(I2CHW_bReadI2CStatus() & I2CHW_WR_COMPLETE)); // Wait while it is writing
I2CHW_ClrWrStatus(); // Clear the write bit
I2CHW_fReadBytes(slaveAddress, data, numBytes, I2CHW_CompleteXfer); // Read numBytes from the RAM, put it in data
while(!(I2CHW_bReadI2CStatus() & I2CHW_RD_COMPLETE)); // Wait while it is reading
I2CHW_ClrRdStatus(); // Clear the read bit
if (dataType == 'a') // If the data type is ASCII
{
for (i = 0; i < numBytes; ++i) // Loop through each byte
UART_PutChar(data[i]); // Put the character in PuTTy
UART_PutCRLF();
}
else if (dataType == 'h') // If the data type is Hex
{
for (i = 0; i < numBytes; ++i) // Loop through each byte
{
csprintf(hexStr, "%X ", data[i]); // csprintf prints into hexStr a hexadecimal with a space
UART_PutString(hexStr); // Print hexStr
}
UART_PutCRLF();
}
else
goto error;
}
else
goto error;
continue; // This is so that the error is skipped when everything goes right
error: // This outputs an invalid format message and continues on to read another line
UART_CPutString("Invalid format entered. Valid formats are:\r\n\tW [GroupAddress] [MemoryLocation] [h|a] Hex/ASCII\r\n\tR [GroupAddress] [MemoryLocation] [h|a] [NumBytes]\r\n");
}
}
int cypress_update( int HW_ver )
{
// -- This example section of commands show the high-level calls to -------
// -- perform Target Initialization, SilcionID Test, Bulk-Erase, Target ---
// -- RAM Load, FLASH-Block Program, and Target Checksum Verification. ----
unsigned char fIsError = 0;
// unsigned char bTry=0;
// >>>> ISSP Programming Starts Here <<<<
// ioctl(touch_fd, DEV_CTRL_TOUCH_INT_DISABLE,NULL);
// ioctl(touch_fd, DEV_CTRL_TOUCH_SET_FLAG,NULL);
printk(KERN_INFO "[TSP] %s, %d, HW ver=%d\n", __func__, __LINE__,HW_ver);
#if defined(CONFIG_MACH_GIO)
if( HW_ver == 1)
pSocData = Firmware_Data_HW1;
else if ( HW_ver == 2 )
pSocData = Firmware_Data_HW2;
else if ( HW_ver == 3 || HW_ver == 0 )
pSocData = Firmware_Data_HW3;
else if ( HW_ver == 17 )
pSocData = Firmware_Data_HW11;
else if ( HW_ver == 33 )
pSocData = Firmware_Data_HW21;
else if ( HW_ver == 34)
pSocData = Firmware_Data_HW22;
else if ( HW_ver == 35)
pSocData = Firmware_Data_HW23;
#elif defined(CONFIG_MACH_COOPER)
if( HW_ver == 4 || HW_ver == 3 || HW_ver == 0 )
pSocData = Firmware_Data_HW3;
#else
if( HW_ver == 1 )
pSocData = Firmware_Data_HW1;
else if( HW_ver == 2 )
pSocData = Firmware_Data_HW2;
else if( HW_ver == 3 )
pSocData = Firmware_Data_HW3;
else if( HW_ver == 4 )
pSocData = Firmware_Data_HW4;
#endif
else
{
printk(KERN_INFO "[TSP] %s, %d, HW ver is wrong!!\n", __func__, __LINE__);
goto update_err;
}
#ifdef TX_ON
UART_Start();
UART_CPutString("Start HSSP - Ovation");
UART_PutCRLF();
#endif
// >>>> ISSP Programming Starts Here <<<<
// Acquire the device through reset or power cycle
#ifdef RESET_MODE
UART_CPutString("Reset Mode activated");
#else
// UART_CPutString("Power Cycle Mode activated");
// Initialize the Host & Target for ISSP operations
fIsError = fPowerCycleInitializeTargetForISSP();
if (fIsError )
{
printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
ErrorTrap(fIsError);
goto update_err;
}
#endif
// printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
#ifdef TX_ON
UART_PutCRLF();
UART_CPutString("Verify SiliconID");
#endif
// printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
// Run the SiliconID Verification, and proceed according to result.
#if !defined(CONFIG_MACH_TASS) && !defined(CONFIG_MACH_TASSDT) && !defined(CONFIG_MACH_GIO)
fIsError = fVerifySiliconID();
#endif
if (fIsError )
{
printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
ErrorTrap(fIsError);
goto update_err;
}
#ifdef TX_ON
UART_PutCRLF();
UART_CPutString("End VerifySiliconID");
#endif
// printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
#if 1
// Bulk-Erase the Device.
fIsError = fEraseTarget();
if (fIsError )
{
printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
ErrorTrap(fIsError);
goto update_err;
}
// printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
#ifdef TX_ON
UART_PutCRLF();
UART_CPutString("End EraseTarget");
UART_PutCRLF();
UART_CPutString("Program Flash Blocks Start");
UART_PutCRLF();
#endif
#endif
// printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
#if 1 // program flash block
//LCD_Char_Position(1, 0);
//LCD_Char_PrintString("Program Flash Blocks Start");
//==============================================================//
// Program Flash blocks with predetermined data. In the final application
// this data should come from the HEX output of PSoC Designer.
iChecksumData = 0; // Calculte the device checksum as you go
for (iBlockCounter=0; iBlockCounter<BLOCKS_PER_BANK; iBlockCounter++)
{
fIsError = fReadWriteSetup();
if (fIsError )
{
printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
ErrorTrap(fIsError);
goto update_err;
}
//LoadProgramData(bBankCounter, (unsigned char)iBlockCounter);
iChecksumData += iLoadTarget(iBlockCounter);
fIsError = fProgramTargetBlock(bBankCounter,(unsigned char)iBlockCounter);
if (fIsError )
{
printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
ErrorTrap(fIsError);
goto update_err;
}
fIsError = fReadStatus();
if (fIsError)
{
printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
ErrorTrap(fIsError);
goto update_err;
}
#ifdef TX_ON
UART_PutChar('#');
#endif
}
#ifdef TX_ON
UART_PutCRLF();
UART_CPutString("Program Flash Blocks End");
#endif
#endif
#if 1 // verify
#ifdef TX_ON
UART_PutCRLF();
UART_CPutString("Verify Start");
UART_PutCRLF();
#endif
//=======================================================//
//PTJ: Doing Verify
//PTJ: this code isnt needed in the program flow because we use PROGRAM-AND-VERIFY (ProgramAndVerify SROM Func)
//PTJ: which has Verify built into it.
// Verify included for completeness in case host desires to do a stand-alone verify at a later date.
for (iBlockCounter=0; iBlockCounter<BLOCKS_PER_BANK; iBlockCounter++)
{
//LoadProgramData(bBankCounter, (unsigned char) iBlockCounter);
fIsError = fReadWriteSetup();
if (fIsError )
{
printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
ErrorTrap(fIsError);
goto update_err;
}
fIsError = fVerifySetup(bBankCounter,(unsigned char)iBlockCounter);
if (fIsError)
{
printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
ErrorTrap(fIsError);
goto update_err;
}
fIsError = fReadStatus();
if (fIsError ) {
printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
ErrorTrap(fIsError);
goto update_err;
}
fIsError = fReadWriteSetup();
if (fIsError) {
printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
ErrorTrap(fIsError);
goto update_err;
}
fIsError = fReadByteLoop(iBlockCounter);
if (fIsError ) {
printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
ErrorTrap(fIsError);
goto update_err;
}
#ifdef TX_ON
UART_PutChar('.');
#endif
}
#ifdef TX_ON
UART_PutCRLF();
UART_CPutString("Verify End");
#endif
#endif // end verify
#if 1
#ifdef TX_ON
UART_PutCRLF();
UART_CPutString("Security Start");
#endif
//=======================================================//
// Program security data into target PSoC. In the final application this
// data should come from the HEX output of PSoC Designer.
for (bBankCounter=0; (bBankCounter<NUM_BANKS) ; bBankCounter++)
{
//PTJ: READ-WRITE-SETUP used here to select SRAM Bank 1
fIsError = fReadWriteSetup();
if (fIsError )
{
printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
ErrorTrap(fIsError);
goto update_err;
}
// Load one bank of security data from hex file into buffer
fIsError = fLoadSecurityData(bBankCounter);
if (fIsError )
{
printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
ErrorTrap(fIsError);
goto update_err;
}
// Secure one bank of the target flash
fIsError = fSecureTargetFlash();
if (fIsError )
{
printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
ErrorTrap(fIsError);
goto update_err;
}
}
#ifdef TX_ON
UART_PutCRLF();
UART_CPutString("End Security data");
#endif
#endif
#if 1 // checksum
#ifdef TX_ON
UART_PutCRLF();
UART_CPutString("CheckSum Start");
#endif
// printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
//PTJ: Doing Checksum
iChecksumTarget = 0;
fIsError = fAccTargetBankChecksum(&iChecksumTarget);
if (fIsError )
{
printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
ErrorTrap(fIsError);
goto update_err;
}
// printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
#ifdef TX_ON
UART_PutCRLF();
UART_CPutString("Checksum : iChecksumTarget (0x");
UART_PutHexWord(iChecksumTarget);
UART_CPutString("), iChecksumData (0x");
UART_PutHexWord(iChecksumData);
UART_CPutString(")");
#endif
iChecksumTarget = iChecksumTarget & 0xFFFF;
iChecksumData = iChecksumData & 0xFFFF;
if (iChecksumTarget != iChecksumData)
{
printk(KERN_INFO "[TSP] %s, %d, iChecksumTarget=%d, iChecksumData=%d\n", __func__, __LINE__,iChecksumTarget, iChecksumData );
ErrorTrap(CHECKSUM_ERROR);
goto update_err;
}
#ifdef TX_ON
UART_PutCRLF();
UART_CPutString("End Checksum");
#endif
#endif
// *** SUCCESS ***
// At this point, the Target has been successfully Initialize, ID-Checked,
// Bulk-Erased, Block-Loaded, Block-Programmed, Block-Verified, and Device-
// Checksum Verified.
// You may want to restart Your Target PSoC Here.
ReStartTarget();
// printk(KERN_INFO "[TSP] %s, %d\n", __func__, __LINE__);
return 1;
update_err:
return 0;
}
/*******************************************************************************
* Function Name: main
********************************************************************************
*
* Summary:
* This is the main entry point for this application. This function initializes all the
* components used in the project. It computes the frequency whenever a capture event is
*
* Parameters:
* None
*
* Return:
* None
*
*******************************************************************************/
int main()
{
#if(UART_DEBUG_ENABLE)
/* Variable to store the loop number */
uint8 loopNo = 0;
#endif
/* Enable global interrupt mask */
CyGlobalIntEnable;
/* Disable ILO as it is not used */
CySysClkIloStop();
/* Initialize components related to BLE communication */
InitializeBLESystem();
/* Initialize components related to frequency counting */
Initialize_Freq_Meas_System();
/* Start UART component if UART debug is enabled */
#if(UART_DEBUG_ENABLE)
/* Start UART component and send welcome string to hyper terminal on PC */
UART_Start();
UART_UartPutString("Welcome to Frequency Measurement Using PSoC 4 BLE\n");
UART_PutCRLF();
#endif
while(1)
{
/* Compute frequency once in every PWM interval(2s) */
if(Calculate_Frequency == TRUE)
{
/* Check if valid capture event is detected */
if((Input_Sig_Ctr_Capture == 1) && (Ref_Clk_Ctr_Capture == 1))
{
/* Compute frequency using the latched count value, computed frequency
will be stored in ASCII format in a global array */
Compute_Frequency();
#if(UART_DEBUG_ENABLE)
/* Print input signal counter value in hexadecimal */
UART_UartPutString("Input Signal Counter Value: ");
UART_SendDebugData(Input_Signal_Count);
UART_UartPutString(" ");
/* Print input signal counter value in ASCII format */
/* Reset the array before storing the ASCII character */
Reset_Array(InputCounter_ASCII, DATA_END);
Convert_HextoDec(Input_Signal_Count, InputCounter_ASCII);
for(loopNo = 0; loopNo < DATA_END; loopNo++)
{
UART_UartPutChar(InputCounter_ASCII[DATA_END - loopNo -1]);
}
UART_PutCRLF();
/* Print reference clock counter value */
UART_UartPutString("Reference Clock Counter Value: ");
UART_SendDebugData(Ref_Clock_Count);
UART_UartPutString(" ");
/* Print input signal counter value in ASCII format */
/* Reset the array before storing the ASCII character */
Reset_Array(RefCounter_ASCII, DATA_END);
Convert_HextoDec(Ref_Clock_Count, RefCounter_ASCII);
for(loopNo = 0; loopNo < DATA_END; loopNo++)
{
UART_UartPutChar(RefCounter_ASCII[DATA_END - loopNo -1]);
}
UART_PutCRLF();
/* Print Input Signal Frequency in decimal format */
UART_UartPutString("Input Frequency: ");
for(loopNo = 0; loopNo < DATA_END; loopNo++)
{
UART_UartPutChar(Input_Frequency[DATA_END - loopNo -1]);
}
UART_PutCRLF();
#endif
/* Reset the capture flag after computing the frequency */
Input_Sig_Ctr_Capture = 0;
Ref_Clk_Ctr_Capture = 0;
}
/* If valid capture event is not registered, set the value of frequency to
zero */
else
{
/* Reset the input_frequency array before storing the frequency value */
Reset_Array(Input_Frequency, DATA_END);
/* If no capture event is detected in the 1s interval, set the frequency to zero */
FormatFrequencyData(ZERO_HZ);
#if(UART_DEBUG_ENABLE)
/* Print Input Signal Frequency in decimal format */
UART_UartPutString("Input Frequency: ");
for(loopNo = 0; loopNo < DATA_END; loopNo++)
{
UART_UartPutChar(Input_Frequency[DATA_END - loopNo -1]);
}
UART_PutCRLF();
#endif
}
/* Reset the 2s interval flag for computing the frequency in the next interval */
Calculate_Frequency = 0;
/* Send frequency value only if BLE device is connected */
if(TRUE == deviceConnected)
{
/* Send frequency value when notifications are enabled */
if((startNotification & CCCD_NTF_BIT_MASK))
{
/* Send the frequency value to BLE central device by notifications */
SendDataOverFreqCounterNotification(Input_Frequency);
}
}
}
/* Function to handle LED status depending on BLE state */
HandleStatusLED();
/* Handle CCCD value update only if BLE device is connected */
if(TRUE == deviceConnected)
{
/* When the Client Characteristic Configuration descriptor (CCCD) is written
* by Central device for enabling/disabling notifications, then the same
* descriptor value has to be explicitly updated in application so that
* it reflects the correct value when the descriptor is read */
UpdateNotificationCCCD();
}
if(restartAdvertisement)
{
/* Reset 'restartAdvertisement' flag*/
restartAdvertisement = FALSE;
/* Start Advertisement and enter Discoverable mode*/
CyBle_GappStartAdvertisement(CYBLE_ADVERTISING_FAST);
}
/*Process Event callback to handle BLE events. The events generated and
* used for this application are inside the 'CustomEventHandler' routine*/
CyBle_ProcessEvents();
/* Put CPU to sleep */
CySysPmSleep();
}
}
// ============================================================================
// fVerifySiliconID()
// Returns:
// 0 if successful
// Si_ID_ERROR if timed out on handshake to the device.
// ============================================================================
signed char fVerifySiliconID(void)
{
SendVector(id_setup_2, num_bits_id_setup_2);
fIsError = fDetectHiLoTransition();
if (fIsError)
{
#ifdef TX_ON
UART_PutCRLF();
UART_CPutString("fDetectHiLoTransition Error");
#endif
return(SiID_ERROR);
}
SendVector(wait_and_poll_end, num_bits_wait_and_poll_end);
SendVector(tsync_enable, num_bits_tsync_enable);
//Send Read ID vector and get Target ID
SendVector(read_id_v, 11); // Read-MSB Vector is the first 11-Bits
RunClock(2); // Two SCLK cycles between write & read
bTargetID[0] = bReceiveByte();
RunClock(1);
SendVector(read_id_v+2, 12); // 1+11 bits starting from the 3rd byte
RunClock(2); // Read-LSB Command
bTargetID[1] = bReceiveByte();
RunClock(1);
SendVector(read_id_v+4, 1); // 1 bit starting from the 5th byte
//read Revision ID from Accumulator A and Accumulator X
//SendVector(read_id_v+5, 11); //11 bits starting from the 6th byte
//RunClock(2);
//bTargetID[2] = bReceiveByte(); //Read from Acc.X
//RunClock(1);
//SendVector(read_id_v+7, 12); //1+11 bits starting from the 8th byte
//
//RunClock(2);
//bTargetID[3] = bReceiveByte(); //Read from Acc.A
//
//RunClock(1);
//SendVector(read_id_v+4, 1); //1 bit starting from the 5th byte,
SendVector(tsync_disable, num_bits_tsync_disable);
#ifdef TX_ON
// Print READ-ID
UART_PutCRLF();
UART_CPutString("Silicon-ID : ");
UART_PutChar(' ');
UART_PutHexByte(bTargetID[0]);
UART_PutChar(' ');
UART_PutHexByte(bTargetID[1]);
UART_PutChar(' ');
#endif
#ifdef LCD_ON
LCD_Char_Position(1, 0);
LCD_Char_PrintString("ID : ");
LCD_Char_PrintInt8(bTargetID[0]);
LCD_Char_PutChar(' ');
LCD_Char_PrintInt8(bTargetID[1]);
LCD_Char_PutChar(' ');
#endif
if (bTargetID[0] == target_id_v[0] && bTargetID[1] == target_id_v[1])
{
return(PASS);
}
else if (bTargetID[0] == target_id_v2[0] && bTargetID[1] == target_id_v2[1])
{
return(PASS);
}
else
{
printk("%x %x \n", bTargetID[0], bTargetID[1]);
return(SiID_ERROR);
}
}
/*******************************************************************************
* Function Name: main
********************************************************************************
*
* Summary:
*
* Parameters:
* None.
*
* Return:
* None.
*
*******************************************************************************/
int main()
{
int16 res = 0;
int32 temperature;
char uartLine[250];
int16 ADCCountsCorrected;
/* Initialize the UART */
UART_Start();
UART_PutCRLF();
UART_PutCRLF();
UART_PutString("Starting temperature measurement...");
UART_PutCRLF();
PWM_Start();
PWM_TriggerCommand(PWM_MASK, PWM_CMD_START);
/* Init and start sequencing SAR ADC */
ADC_SAR_SEQ_Start();
ADC_SAR_SEQ_StartConvert();
/* Enable interrupt and set interrupt handler to local routine */
ADC_SAR_SEQ_IRQ_StartEx(ADC_SAR_SEQ_ISR_LOC);
/* Init interrupt from timer to measure the temperature rarely */
ISR_TIMER_StartEx(ISR_TIMER_LOC);
CyGlobalIntEnable;
for(;;)
{
/* When conversion of sequencing channels has completed */
if((dataReady & ADC_SAR_SEQ_EOS_MASK) != 0u)
{
/* Get voltage, measured by ADC */
dataReady &= ~ADC_SAR_SEQ_EOS_MASK;
res = ADC_SAR_SEQ_CountsTo_mVolts(CH0_N, result[CH0_N]);
}
/* When conversion of the injection channel has completed */
if((dataReady & ADC_SAR_SEQ_INJ_EOC_MASK) != 0u)
{
dataReady &= ~ADC_SAR_SEQ_INJ_EOC_MASK;
/******************************************************************************
* Adjust data from ADC with respect to Vref value.
* This adjustment is to be done if Vref is set to any other than
* internal 1.024V.
* For more detailed description see Functional Description section
* of DieTemp P4 datasheet.
*******************************************************************************/
ADCCountsCorrected = result[TEMP_CH]*((int16)((float)ADC_VREF_VALUE_V/1.024));
temperature = DieTemp_CountsTo_Celsius(ADCCountsCorrected);
/* Print temperature value to UART */
sprintf(
uartLine, "Temperature value: %dC",
(int16) temperature
);
UART_PutString(uartLine);
UART_PutCRLF();
/* Print voltage value to UART */
sprintf(
uartLine, "ADC measured voltage: %dmV",
(uint16) res
);
UART_PutString(uartLine);
UART_PutCRLF();
}
}
}
int main(){
CyGlobalIntEnable;
SPI_Start();
UART_Start();
isrIRQ_Start();
isrBTN_Start();
ADC_Start();
CyDelay(100);
UART_PutString("Test TX and Rx Payload\r\n");
NRF_INIT_t tx;
tx.channel = CHANNEL;
tx.isTX = true;
tx.RF_SETUP_DR = NRF_RF_SETUP_RF_DR_1000;
tx.RF_SETUP_PWR = 0;
tx.SETUP_RETR_ARC = NRF_SETUP_RETR_ARC_15;
tx.SETUP_RETR_ARD = NRF_SETUP_RETR_ARD_1500;
// Test Rx Payload
NRF_WriteSingleRegister(NRF_DYNPD, 0x01u);
NRF_WriteSingleRegister(NRF_FEATURE, 0x06u);
NRF_SetRxPayloadSize(NRF_RX_PW_P0, PAYLOAD_SIZE);
//
NRF_SetRxAddress(ADDR, sizeof(ADDR));
NRF_SetTxAddress(ADDR, sizeof(ADDR));
NRF_Init(&tx);
NRF_TxTransmit(data, sizeof(data));
CyDelay(4000);
NRF_GetRetransmissionsCount(&test);
UART_PutHexByte(test);
UART_PutCRLF();
for(;;){
/*
if(pressCount){
if(3 == pressCount) pressCount = 0;
ADCoutput = ADC_Read32();
data[1] = (ADCoutput & 0xFF00) >> 8;
data[2] = ADCoutput & 0xFF;
data[6] = pressCount;
NRF_TxTransmit(data, sizeof(data));
}
*/
count++;
if(12 == count){
if(250 == pressCount){
pressCount = 0;
}
if(250 == test){
test = 0;
}
count = 0;
test++;
data[9] = test;
data[0] = pressCount;
ADCoutput = ADC_Read32();
data[1] = (ADCoutput & 0xFF00) >> 8;
data[2] = ADCoutput & 0xFF;
NRF_TxTransmit(data, sizeof(data));
}
CyDelay(20);
NRF_GetLostPackets(&test);
if(0x0F == test){
NRF_ResetStatusIRQ(NRF_STATUS_MAX_RT);
}
UART_PutHexByte(test);
UART_PutCRLF();
if(isrFlag){
isrFlag = false;
if(NRF_GetStatus() & 0x40u){ /* RX_DR: Data Received */
do{
NRF_RxPayload(RXdata, sizeof(RXdata));
NRF_ResetStatusIRQ(NRF_STATUS_RX_DR);
NRF_ReadSingleRegister(NRF_FIFO_STATUS, &status);
}while(!(status & 0x01));
printFlag = true;
}else if(NRF_GetStatus() & 0x60u){ /* TX_DS: Data Sent */
LED_Write(~LED_Read());
NRF_ResetStatusIRQ(NRF_STATUS_TX_DS);
}else if(NRF_GetStatus() & 0x10u){ /* MAX_RT: Retry Timeout */
MAX_Write(~MAX_Read());
NRF_ResetStatusIRQ(NRF_STATUS_MAX_RT);
}
}
if(printFlag){
UART_PutHexByte(RXdata[0]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[1]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[2]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[3]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[4]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[5]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[6]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[7]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[8]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[9]);
UART_PutString("\r\n");
printFlag = false;
}
}
}
int main(){
CyGlobalIntEnable;
isrSW_Start();
isr_Timer_Start();
UART_Start();
ADC_Start();
ADC_StartConvert();
CyDelay(50);
UART_PutString("nRF Tx\r\n");
NRF_INIT_t tx;
tx.channel = NRF_CHANNEL;
tx.isTX = true;
tx.RF_SETUP_DR = NRF_RF_SETUP_RF_DR_1000;
tx.RF_SETUP_PWR = NRF_RF_SETUP_RF_PWR_18;
tx.SETUP_RETR_ARC = NRF_SETUP_RETR_ARC_15;
tx.SETUP_RETR_ARD = NRF_SETUP_RETR_ARD_1500;
/* Start the component before anything else */
nRF_Tx_Start(&tx);
/* Test Dynamic Payload */
nRF_Tx_EnableDynamicPayload(NRF_DYNPD_DPL_P0);
nRF_Tx_SetRxPayloadSize(NRF_RX_PW_P0, PAYLOAD_SIZE);
nRF_Tx_SetRxAddress(ADDR, sizeof(ADDR));
nRF_Tx_SetTxAddress(ADDR, sizeof(ADDR));
Timer_Start();
for(;;){
if(true == isrTimerFlag){
// Stop the Timer just for fun
Timer_Stop();
test++;
data[0] = pressCount;
data[9] = test;
ADCoutput = ADC_Read32();
UART_PutString("Resultado de la conversion del ADC: ");
UART_PutHexInt((uint16_t)ADCoutput);
UART_PutCRLF();
data[1] = (ADCoutput & 0xFF00) >> 8;
data[2] = ADCoutput & 0xFF;
nRF_Tx_TxTransmit(data, sizeof(data));
isrTimerFlag = false;
// Start the Timer again
Timer_Start();
}
if(isrFlag){
if(nRF_Tx_GetStatus() & NRF_STATUS_RX_DR_MASK){
UART_PutString("Status: ");
UART_PutHexByte(nRF_Tx_GetStatus());
UART_PutCRLF();
UART_PutString("RX\r\n");
do{
nRF_Tx_RxPayload(RXdata, sizeof(RXdata));
nRF_Tx_ResetStatusIRQ(NRF_STATUS_RX_DR);
nRF_Tx_ReadSingleRegister(NRF_FIFO_STATUS, &status);
}while(!(status & NRF_STATUS_TX_FIFO_FULL));
printFlag = true;
}else if(nRF_Tx_GetStatus() & NRF_STATUS_TX_DS_MASK){
UART_PutString("Status: ");
UART_PutHexByte(nRF_Tx_GetStatus());
UART_PutCRLF();
UART_PutString("TX\r\n");
LED_Write(~LED_Read());
nRF_Tx_ResetStatusIRQ(NRF_STATUS_TX_DS);
}else if(nRF_Tx_GetStatus() & NRF_STATUS_MAX_RT_MASK){
UART_PutString("Status: ");
UART_PutHexByte(nRF_Tx_GetStatus());
UART_PutCRLF();
UART_PutString("Max RT\r\n");
MAX_Write(~MAX_Read());
nRF_Tx_ResetStatusIRQ(NRF_STATUS_MAX_RT);
}
isrFlag = false;
}
if(printFlag){
UART_PutHexByte(RXdata[0]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[1]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[2]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[3]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[4]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[5]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[6]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[7]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[8]);
UART_PutString("\r\n");
UART_PutHexByte(RXdata[9]);
UART_PutString("\r\n");
printFlag = false;
}
}
