int main() {
log_init();
// If bootloader mode not requested, go immediately to app.
if (!ShouldEnterBootloader()) {
OscCalibrateCached();
log_printf("Running app...");
__asm__("goto __APP_RESET");
}
// We need to enter bootloader mode, wait for the boot pin to be released.
while (!led_read());
// Now we can start!
led_init();
#ifdef SIGNAL_AFTER_BAD_RESET
if (RCON & 0b1100001001000000) {
SignalRcon();
}
#endif
log_printf("Hello from Bootloader!!!");
if (IsPin1Grounded()) {
log_printf("Erasing config.");
EraseConfig();
}
OscCalibrateCached();
Blink(5);
USBInitialize();
while (1) {
// Wait for connection
while (!(USBGetDeviceState() == CONFIGURED_STATE
&& CDCIsDtePresent())) USBTasks();
log_printf("Connected!");
BootProtocolInit();
while (USBGetDeviceState() == CONFIGURED_STATE && CDCIsDtePresent()) {
static char in_buf[64];
USBTasks();
BYTE size = getsUSBUSART(in_buf, sizeof(in_buf));
if (!BootProtocolProcess(in_buf, size)) {
log_printf("Protocol error. Will detach / re-attach.");
USBSoftDetach();
__delay_ms(2000);
USBDeviceAttach();
break;
}
BootProtocolTasks();
}
log_printf("Disconnected!");
}
return 0;
}
// *--------------------------------------------------------------------------------*
int main(){
UINT16 Count=0;
mJTAGPortEnable(0); // JTAG des-habilitado
SYSTEMConfigPerformance(GetSystemClock()); // Activa pre-cache.-
LED1_OUTPUT();
LED2_OUTPUT();
INTEnableSystemMultiVectoredInt();
deviceAttached = FALSE;
//Initialize the stack
USBInitialize(0);
while(1){
//USB stack process function
USBTasks();
if(++Count==0){
LED1_TOGGLE();
}
//if thumbdrive is plugged in
if(USBHostMSDSCSIMediaDetect()){
deviceAttached = TRUE;
LED1_OFF();
//now a device is attached
//See if the device is attached and in the right format
if(FSInit()){
//Opening a file in mode "w" will create the file if it doesn't
// exist. If the file does exist it will delete the old file
// and create a new one that is blank.
myFile = FSfopen("test.txt","w");
//Write some data to the new file.
FSfwrite("This is a test.",1,15,myFile);
//Always make sure to close the file so that the data gets
// written to the drive.
FSfclose(myFile);
//Just sit here until the device is removed.
while(deviceAttached == TRUE){
USBTasks();
if(++Count==0){
LED2_TOGGLE();
}
}
LED2_OFF();
}
}
}
}
void ConnectionTasks() {
int i;
USBTasks();
for (i = 0; i < CHANNEL_TYPE_MAX; ++i) {
factories[i]->tasks();
}
}
BOOL BootloaderConnTasks() {
int role = USBTasks();
ConnADBTasks();
return !role // device mode
|| USBHostAndroidIsInterfaceAttached(ANDROID_INTERFACE_ADB)
|| unknown_device_attached;
}
/******************************************************************************
* Function: void main(void)
*
* PreCondition: None
*
* Input: None
*
* Output: None
*
* Side Effects: None
*
* Overview: Main program entry point.
*
* Note: None
*****************************************************************************/
void main(void)
{
InitializeSystem();
while(1)
{
USBTasks(); // USB Tasks
ProcessIO(); // See user\user.c & .h
}//end while
}//end main
void bootloader(void)
{
FSFILE* file;
USBInitialize(0);
if (!FSInit())
{
// File system failed - pretty much DISKmount didn't work
AT45D_FormatFS();
if (!FSInit())
{
error(ERR_FS_INIT);
}
}
while (1)
{
USBTasks();
BlinkBlueLED();
// User Application USB tasks
if ((USBDeviceState < CONFIGURED_STATE) || (USBSuspendControl == 1))
{
// do nothing
}
else
{
BlinkGreenLED();
MSDTasks();
}
if (_T1IF)
{
_T1IF = 0;
// check for MSD activity...
if (MDD_AT45D_Write_Activity)
{
MDD_AT45D_Write_Activity = 0;
}
else
{
file = FSfopen("image.hex", "r");
if (file != NULL)
{
file_flash(file);
FSfclose(file);
FSremove("image.hex");
//AT45D_FormatFS();
return;
}
}
}
}
}
/**
* Main function
* Main program entry point.
*
*/
void main(void)
{
InitializeSystem();
tickInit();
while(1)
{
USBTasks();
BlinkUSBStatus();
if (!((usb_device_state < CONFIGURED_STATE)||(UCONbits.SUSPND==1)))
ProcessIO(); // See user\user.c & .h
}
}
// Calibrate the oscillar according to the SOF clock coming from a USB host.
// This function will first block until a USB connection has been established.
// Then it will wait for 32 SOF's for the tuning process (will hang if they do
// not arrive!). Then, if will disconnect from the USB bus and wait 2 seconds.
// Upon exit, the _TUN register will hold the correct value.
static void OscCalibrate() {
int i;
led_init();
USBInitialize();
// Start timer2/3 as 32-bit, system clock (16MHz).
T2CON = 0x0008;
PR2 = PR3 = 0xFFFF;
T2CON = 0x8008;
// Wait for a USB connection. Blink meanwhile.
int led_counter = 0;
while (USBGetDeviceState() != POWERED_STATE) {
USBTasks();
if ((led_counter++ & 0x3FFF) == 0) led_toggle();
}
led_off();
log_printf("Connected to host. Starting calibration.");
// Start from 0 (redundant, but better be explicit).
_TUN = 0;
for (i = 0; i < 32; ++i) {
uint32_t duration;
// Repeat for sanity: if for some reason the SOF is too long or too short,
// ignore it.
do {
duration = MeasureSOF();
} while (duration < 15000 || duration > 17000);
if (duration < 16000 && _TUN != 31) {
// We're running too slow.
_TUN++;
} else if (duration > 16000 && _TUN != 32) {
// We're running too fast.
_TUN--;
}
}
log_printf("Duration: %lu, TUN=%d", MeasureSOF(), _TUN);
// Undo side-effects.
T2CON = 0x0000;
// Detach, wait.
USBShutdown();
__delay_ms(2000);
}
/******************************************************************************
* Function: void Main(void)
*
* PreCondition: None
*
* Input: None
*
* Output: None
*
* Side Effects: None
*
* Overview: Main program entry point.
*
* Note: None
*****************************************************************************/
void Main(void)
{
//NOTE: The c018.o file is not included in the linker script for this project.
//The C initialization code in the c018.c (comes with C18 compiler in the src directory)
//file is instead modified and included here manually. This is done so as to provide
//a more convenient entry method into the bootloader firmware. Ordinarily the _entry_scn
//program code section starts at 0x00 and is created by the code of c018.o. However,
//the linker will not work if there is more than one section of code trying to occupy 0x00.
//Therefore, must not use the c018.o code, must instead manually include the useful code
//here instead.
// Initialize the C stack pointer, and other compiler managed items as normally done in the c018.c file.
_asm
lfsr 1, _stack
lfsr 2, _stack
clrf TBLPTRU, 0
_endasm
// End of the important parts of the C initializer. This bootloader firmware does not use
// any C initialized user variables (idata memory sections). Therefore, the above is all
// the initialization that is required.
InitializeSystem(); //Some USB, I/O pins, and other initialization
while(1)
{
ClrWdt();
USBTasks(); // Need to call USBTasks() periodically
// it handles SETUP packets needed for enumeration
BlinkUSBStatus(); //Blink the LEDs based on current USB state
if((usb_device_state == CONFIGURED_STATE) && (UCONbits.SUSPND != 1))
{
ProcessIO(); // This is where all the actual bootloader related data transfer/self programming takes place
} // see ProcessIO() function in the Boot87J50Family.c file.
}//end while
}//end main
int main (void)
{
#if defined (__C30__) || defined __XC16__
#if defined( __PIC24FJ256GB110__ ) || defined(__PIC24FJ256GB210__)
// Configure U2RX - put on pin 49 (RP10)
RPINR19bits.U2RXR = 10;
// Configure U2TX - put on pin 50 (RP17)
RPOR8bits.RP17R = 5;
// Configure SPI2 Data In - put on pin 11 (RP26)
RPINR22bits.SDI2R = 26;
// Configure SPI2 Clock Out - put on pin 10 (RP21)
RPOR10bits.RP21R = 11;
// Configure SPI2 Data Out - put on pin 12 (RP19)
RPOR9bits.RP19R = 10;
OSCCON = 0x3302; // Enable secondary oscillator
CLKDIV = 0x0000; // Set PLL prescaler (1:1)
#elif defined(__PIC24FJ64GB004__)
//On the PIC24FJ64GB004 Family of USB microcontrollers, the PLL will not power up and be enabled
//by default, even if a PLL enabled oscillator configuration is selected (such as HS+PLL).
//This allows the device to power up at a lower initial operating frequency, which can be
//advantageous when powered from a source which is not gauranteed to be adequate for 32MHz
//operation. On these devices, user firmware needs to manually set the CLKDIV<PLLEN> bit to
//power up the PLL.
{
unsigned int pll_startup_counter = 600;
CLKDIVbits.PLLEN = 1;
while(pll_startup_counter--);
}
//Device switches over automatically to PLL output after PLL is locked and ready.
#elif defined(__PIC24FJ256DA210__)
//TX RF3 RP16
//RX RD0 RP11
// Configure U2RX - put on RP11
RPINR19bits.U2RXR = 11;
// Configure U2TX - put on RP16
RPOR8bits.RP16R = 5;
#endif
#elif defined(__PIC32MX__)
{
int value;
value = SYSTEMConfigWaitStatesAndPB( GetSystemClock() );
// Enable the cache for the best performance
CheKseg0CacheOn();
INTEnableSystemMultiVectoredInt();
value = OSCCON;
while (!(value & 0x00000020))
{
value = OSCCON; // Wait for PLL lock to stabilize
}
}
AD1PCFG = 0xFFFF; // Set analog pins to digital.
TRISF = 0x00;
#else
#error Cannot initialize.
#endif
UART2Init();
UART2PrintString( "\r\n\r\nUSB Embedded Host Simple Full Sheet Printer Demo\r\n" );
// Initialize USB Embedded Host
USBInitialize(0);
// Turn on the A/D converter to monitor Vbus.
InitializeVbusMonitor();
while(1)
{
MonitorVBUS();
USBTasks();
if (status.printerAttached)
{
if(status.printerStatusDone == 0)
{
if(status.printerStatusSent == 0)
{
if(USBHostPrinterGetStatus( printerInfo.deviceAddress, &status.printer ) == USB_SUCCESS)
{
status.printerStatusSent = 1;
}
}
}
else
{
if(status.printer != 0x18)
{
//if there was an error in the printer status then setup to
// check the status again
status.printerStatusSent = 0;
status.printerStatusDone = 0;
}
else
{
if (!status.pagePrinted)
{
status.pagePrinted = 1;
UART2PrintString( "Printing to full sheet printer...\r\n" );
// Initialize
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_JOB_START, USB_NULL, 0, 0 );
if (!printerInfo.support.supportFlags.supportsVectorGraphics)
{
// In the demo's initial configuration, this section executes for the HP Deskjet 460.
UART2PrintString( "Vector graphics are not supported.\r\n" );
imageInfo.resolution = 75;
imageInfo.scale = 1.0;
imageInfo.positionX = (PRINTER_PAGE_PORTRAIT_WIDTH - 0x120)/2;
imageInfo.positionY = 100;
#if defined( __C30__ ) || defined __XC16__
PrintImageFullSheet( (BYTE __prog__ *)(logoMCHP.address), &imageInfo );
#elif defined( __PIC32MX__ )
PrintImageFullSheet( (const BYTE *)(logoMCHP.address), &imageInfo );
#endif
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_NAME, USB_NULL, USB_PRINTER_FONT_COURIER, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_SIZE, USB_NULL, (DWORD)24, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_BOLD, USB_NULL, 0, 0 );
WriteLine( 200, 325, &(businessCard[0][0]) );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_MEDIUM, USB_NULL, 0, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_SIZE, USB_NULL, (DWORD)20, 0 );
WriteLine( 200, 350, &(businessCard[1][0]) );
WriteLine( 200, 375, &(businessCard[2][0]) );
WriteLine( 200, 400, &(businessCard[3][0]) );
WriteLine( 200, 425, &(businessCard[4][0]) );
WriteLine( 200, 450, &(businessCard[5][0]) );
WriteLine( 200, 475, &(businessCard[6][0]) );
WriteLine( 200, 500, &(businessCard[7][0]) );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_NAME, USB_NULL, USB_PRINTER_FONT_TIMES_NEW_ROMAN, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_SIZE, USB_NULL, (DWORD)18, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_BOLD, USB_NULL, 0, 0 );
WriteLine( 50, PRINTER_PAGE_PORTRAIT_HEIGHT - 145, &(adddressMicrochip[0][0]) );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_MEDIUM, USB_NULL, 0, 0 );
WriteLine( 50, PRINTER_PAGE_PORTRAIT_HEIGHT - 120, &(adddressMicrochip[1][0]) );
WriteLine( 50, PRINTER_PAGE_PORTRAIT_HEIGHT - 95, &(adddressMicrochip[2][0]) );
WriteLine( 50, PRINTER_PAGE_PORTRAIT_HEIGHT - 70, &(adddressMicrochip[3][0]) );
}
else
{
// In the demo's initial configuration, this section executes for the Lexmark E250dn.
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_ORIENTATION_LANDSCAPE, USB_NULL, 0, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_LINE_WIDTH, USB_NULL, PRINTER_LINE_WIDTH_THICK, 0 );
params.sBevel.xL = 50; // X-axis position of the left side of the bevel.
params.sBevel.yT = 50; // Y-axis position of the top of the bevel.
params.sBevel.xR = PRINTER_PAGE_LANDSCAPE_WIDTH - 50; // X-axis position of the right side of the bevel.
params.sBevel.yB = PRINTER_PAGE_LANDSCAPE_HEIGHT - 50; // Y-axis position of the bottom of the bevel.
params.sBevel.r = 20; // The radius of the cicle that defines the rounded corner
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_BEVEL, USB_DATA_POINTER_RAM(¶ms), sizeof(params.sBevel), 0 );
imageInfo.resolution = 75;
imageInfo.scale = 1.0;
imageInfo.positionX = 100;
imageInfo.positionY = 100;
#if defined( __C30__ ) || defined __XC16__
PrintImageFullSheet( (BYTE __prog__ *)(logoMCHP.address), &imageInfo );
#elif defined( __PIC32MX__ )
PrintImageFullSheet( (const BYTE *)(logoMCHP.address), &imageInfo );
#endif
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_NAME, USB_NULL, USB_PRINTER_FONT_HELVETICA, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_SIZE, USB_NULL, (DWORD)18, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_BOLD, USB_NULL, 0, 0 );
WriteLine( 100, PRINTER_PAGE_LANDSCAPE_HEIGHT - 145, &(adddressMicrochip[0][0]) );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_MEDIUM, USB_NULL, 0, 0 );
WriteLine( 100, PRINTER_PAGE_LANDSCAPE_HEIGHT - 120, &(adddressMicrochip[1][0]) );
WriteLine( 100, PRINTER_PAGE_LANDSCAPE_HEIGHT - 95, &(adddressMicrochip[2][0]) );
WriteLine( 100, PRINTER_PAGE_LANDSCAPE_HEIGHT - 70, &(adddressMicrochip[3][0]) );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_NAME, USB_NULL, USB_PRINTER_FONT_AVANT_GARDE, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_SIZE, USB_NULL, (DWORD)24, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_BOLD, USB_NULL, 0, 0 );
WriteLine( 450, 125, &(businessCard[0][0]) );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_MEDIUM, USB_NULL, 0, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_SIZE, USB_NULL, (DWORD)20, 0 );
WriteLine( 450, 150, &(businessCard[1][0]) );
WriteLine( 450, 175, &(businessCard[2][0]) );
WriteLine( 450, 200, &(businessCard[3][0]) );
WriteLine( 450, 225, &(businessCard[4][0]) );
WriteLine( 450, 250, &(businessCard[5][0]) );
WriteLine( 450, 275, &(businessCard[6][0]) );
WriteLine( 450, 300, &(businessCard[7][0]) );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_NAME, USB_NULL, USB_PRINTER_FONT_PALATINO, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_SIZE, USB_NULL, (DWORD)16, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_FONT_ITALIC, USB_NULL, 0, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_LINE_WIDTH, USB_NULL, PRINTER_LINE_WIDTH_NORMAL, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_LINE_TYPE, USB_NULL, PRINTER_LINE_TYPE_DASHED, 0 );
WriteLine( 120, 310, &(notes[0][0]) );
params.sLine.x1 = 170;
params.sLine.y1 = 290;
params.sLine.x2 = 220;
params.sLine.y2 = 260;
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_LINE, USB_DATA_POINTER_RAM(¶ms), sizeof(params.sLine), 0 );
WriteLine( 216, 396, &(notes[1][0]) );
params.sLine.x1 = 266;
params.sLine.y1 = 400;
params.sLine.x2 = 216;
params.sLine.y2 = 445;
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_LINE, USB_DATA_POINTER_RAM(¶ms), sizeof(params.sLine), 0 );
WriteLine( 440, 330, &(notes[2][0]) );
params.sLine.x1 = 490;
params.sLine.y1 = 310;
params.sLine.x2 = 515;
params.sLine.y2 = 280;
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_LINE, USB_DATA_POINTER_RAM(¶ms), sizeof(params.sLine), 0 );
WriteLine( 450, 410, &(notes[3][0]) );
params.sLine.x1 = 550;
params.sLine.y1 = 415;
params.sLine.x2 = 590;
params.sLine.y2 = 430;
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_LINE, USB_DATA_POINTER_RAM(¶ms), sizeof(params.sLine), 0 );
params.sLine.x1 = 500;
params.sLine.y1 = 415;
params.sLine.x2 = 500;
params.sLine.y2 = 540;
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_LINE, USB_DATA_POINTER_RAM(¶ms), sizeof(params.sLine), 0 );
#define TAO_UNIT 4
#define TAO_XL (PRINTER_PAGE_LANDSCAPE_WIDTH - 200)
#define TAO_YT (PRINTER_PAGE_LANDSCAPE_HEIGHT - 200)
#define TAO_XC (TAO_XL + TAU_UNIT * 12)
#define TAO_YC (TAO_YL + TAU_UNIT * 12)
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_LINE_WIDTH, USB_NULL, PRINTER_LINE_WIDTH_NORMAL, 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_LINE_TYPE, USB_NULL, PRINTER_LINE_TYPE_SOLID, 0 );
params.sArc.xL = TAO_XL;
params.sArc.yT = TAO_YT;
params.sArc.xR = TAO_XL + TAO_UNIT * 24;
params.sArc.yB = TAO_YT + TAO_UNIT * 24;
params.sArc.r1 = 0;
params.sArc.r2 = TAO_UNIT * 12;
params.sArc.octant = 0xF0;
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_ARC, USB_DATA_POINTER_RAM(¶ms), sizeof(params.sArc), 0 );
params.sCircle.x = TAO_XL + TAO_UNIT * 12;
params.sCircle.y = TAO_YT + TAO_UNIT * 18;
params.sCircle.r = TAO_UNIT * 6;
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_CIRCLE_FILLED, USB_DATA_POINTER_RAM(¶ms), sizeof(params.sCircle), 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_COLOR, USB_NULL, PRINTER_COLOR_WHITE, 0 );
params.sCircle.x = TAO_XL + TAO_UNIT * 12;
params.sCircle.y = TAO_YT + TAO_UNIT * 6;
params.sCircle.r = TAO_UNIT * 6;
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_CIRCLE_FILLED, USB_DATA_POINTER_RAM(¶ms), sizeof(params.sCircle), 0 );
params.sCircle.x = TAO_XL + TAO_UNIT * 12;
params.sCircle.y = TAO_YT + TAO_UNIT * 18;
params.sCircle.r = TAO_UNIT;
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_CIRCLE_FILLED, USB_DATA_POINTER_RAM(¶ms), sizeof(params.sCircle), 0 );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_COLOR, USB_NULL, PRINTER_COLOR_BLACK, 0 );
params.sCircle.x = TAO_XL + TAO_UNIT * 12;
params.sCircle.y = TAO_YT + TAO_UNIT * 6;
params.sCircle.r = TAO_UNIT;
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_CIRCLE_FILLED, USB_DATA_POINTER_RAM(¶ms), sizeof(params.sCircle), 0 );
params.sCircle.x = TAO_XL + TAO_UNIT * 12;
params.sCircle.y = TAO_YT + TAO_UNIT * 12;
params.sCircle.r = TAO_UNIT * 12;
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_GRAPHICS_CIRCLE, USB_DATA_POINTER_RAM(¶ms), sizeof(params.sCircle), 0 );
}
// Terminate
UART2PrintString( "Demo complete.\r\n" );
USBHostPrinterCommandWithReadyWait( &returnCode, printerInfo.deviceAddress, USB_PRINTER_JOB_STOP, USB_NULL, 0, 0 );
}
}
}
}
}
}
static BOOL hid_device_read(BYTE deviceAddress, void *data)
{
// call usb host layer
USBTasks();
// Was device detached?
// Or, was report descriptor parsed with error.?
if(!USBHostHIDDeviceDetect(deviceAddress)){
App_State[deviceAddress] = DEVICE_NOT_CONNECTED;
}
switch(App_State[deviceAddress]){
case DEVICE_NOT_CONNECTED:
USBTasks();
/* True if report descriptor is parsed with no error */
if(USBHostHIDDeviceDetect(deviceAddress)){
App_State[deviceAddress] = DEVICE_CONNECTED;
}
break;
case DEVICE_CONNECTED:
App_State[deviceAddress] = READY_TO_TX_RX_REPORT;
break;
case READY_TO_TX_RX_REPORT:
if(USBHostHIDDeviceDetect(deviceAddress)){
App_State[deviceAddress] = GET_INPUT_REPORT;
}else{
App_State[deviceAddress] = DEVICE_NOT_CONNECTED;
}
break;
case GET_INPUT_REPORT:
if(!USBHostHIDRead(deviceAddress, Appl_raw_report_buffer[deviceAddress].Report_ID,0,
Appl_raw_report_buffer[deviceAddress].ReportSize, Appl_raw_report_buffer[deviceAddress].ReportData)){
App_State[deviceAddress] = INPUT_REPORT_PENDING;
}
break;
case INPUT_REPORT_PENDING:
if(USBHostHIDTransferIsComplete(deviceAddress, &ErrorDriver[deviceAddress],&NumOfBytesRcvd[deviceAddress])){
if(ErrorDriver[deviceAddress] ||(NumOfBytesRcvd[deviceAddress] != Appl_raw_report_buffer[deviceAddress].ReportSize )){
ErrorCounter[deviceAddress]++ ;
if(MAX_ERROR_COUNTER <= ErrorDriver[deviceAddress]){
App_State[deviceAddress] = ERROR_REPORTED;
}else{
App_State[deviceAddress] = READY_TO_TX_RX_REPORT;
}
}else{
ErrorCounter[deviceAddress] = 0;
ReportBufferUpdated[deviceAddress] = TRUE;
App_State[deviceAddress] = READY_TO_TX_RX_REPORT;
App_ProcessInputReport(deviceAddress, data);
App_PrepareOutputReport(deviceAddress);
return TRUE;
}
}
break;
case SEND_OUTPUT_REPORT: /* Will be done while implementing Keyboard */
if(!USBHostHIDWrite(deviceAddress, Appl_LED_Indicator[deviceAddress].reportID, Appl_LED_Indicator[deviceAddress].interfaceNum, Appl_LED_Indicator[deviceAddress].reportLength,
(BYTE*)&Appl_led_report_buffer[deviceAddress])){
App_State[deviceAddress] = OUTPUT_REPORT_PENDING;
}
break;
case OUTPUT_REPORT_PENDING:
if(USBHostHIDTransferIsComplete(deviceAddress, &ErrorDriver[deviceAddress],&NumOfBytesRcvd[deviceAddress])){
if(ErrorDriver[deviceAddress]){
ErrorCounter[deviceAddress]++ ;
if(MAX_ERROR_COUNTER <= ErrorDriver[deviceAddress]){
App_State[deviceAddress] = ERROR_REPORTED;
}
}else{
ErrorCounter[deviceAddress] = 0;
App_State[deviceAddress] = READY_TO_TX_RX_REPORT;
}
}
break;
case ERROR_REPORTED: // forever error loop
break;
default:
break;
}
// ReportData isn't ready!
return FALSE;
}
void hidTask (void)
{
BYTE i;
int deviceValue = 0;
USBTasks();
App_Detect_Device();
switch (App_State_Mouse_Keyboard) {
case DEVICE_NOT_CONNECTED:
connectedDevice = DEVICE_NOT_CONNECTED_OR_NOT_SUPPORTED;
USBTasks();
if (DisplayDeatachOnce == FALSE) {
DisplayDeatachOnce = TRUE;
}
if (USBHostHID_ApiDeviceDetect()) {
DisplayConnectOnce = FALSE;
deviceValue = USBHID_ReportDecriptor_Difference();
if (deviceValue == USB_HID_MOUSE) {
App_State_Mouse_Keyboard = MOUSE_DEVICE_CONNECTED;
} else if (deviceValue == USB_HID_KEYBOARD) {
App_State_Mouse_Keyboard = KEYBOARD_DEVICE_CONNECTED;
}
}
break;
case MOUSE_DEVICE_CONNECTED:
UART2PrintString("\r\n");
UART2PrintString(UHP_MOUSE_CONNECTED);
UART2PrintString("\r\n");
connectedDevice = DEVICE_MOUSE;
App_State_Mouse_Keyboard = MOUSE_READY_TO_TX_RX_REPORT;
if (DisplayConnectOnce == FALSE) {
DisplayConnectOnce = TRUE;
DisplayDeatachOnce = FALSE;
}
break;
case KEYBOARD_DEVICE_CONNECTED:
UART2PrintString("\r\n");
UART2PrintString(UHP_KEYBOARD_CONNECTED);
UART2PrintString("\r\n");
connectedDevice = DEVICE_KEYBOARD;
App_State_Mouse_Keyboard = KEYBOARD_READY_TO_TX_RX_REPORT;
if (DisplayConnectOnce == FALSE) {
DisplayConnectOnce = TRUE;
DisplayDeatachOnce = FALSE;
}
InitializeTimer();
break;
case MOUSE_READY_TO_TX_RX_REPORT:
if (!USBHostHID_ApiDeviceDetect()) {
App_State_Mouse_Keyboard = DEVICE_NOT_CONNECTED;
} else {
App_State_Mouse_Keyboard = MOUSE_GET_INPUT_REPORT;
}
break;
case KEYBOARD_READY_TO_TX_RX_REPORT:
if (!USBHostHID_ApiDeviceDetect()) {
App_State_Mouse_Keyboard = DEVICE_NOT_CONNECTED;
}
break;
case MOUSE_GET_INPUT_REPORT:
if (USBHostHID_ApiGetReport(Appl_raw_report_buffer.Report_ID, 0,
Appl_raw_report_buffer.ReportSize, Appl_raw_report_buffer.ReportData)) {
// Host may be busy/error -- keep trying
} else {
App_State_Mouse_Keyboard = MOUSE_INPUT_REPORT_PENDING;
}
USBTasks();
break;
case KEYBOARD_GET_INPUT_REPORT:
if (USBHostHID_ApiGetReport(Appl_raw_report_buffer.Report_ID, Appl_ModifierKeysDetails.interfaceNum,
Appl_raw_report_buffer.ReportSize, Appl_raw_report_buffer.ReportData)) {
/* Host may be busy/error -- keep trying */
} else {
App_State_Mouse_Keyboard = KEYBOARD_INPUT_REPORT_PENDING;
}
USBTasks();
break;
case MOUSE_INPUT_REPORT_PENDING:
if (USBHostHID_ApiTransferIsComplete(&ErrorDriver, &NumOfBytesRcvd)) {
if (ErrorDriver || (NumOfBytesRcvd != Appl_raw_report_buffer.ReportSize)) {
ErrorCounter++;
if (MAX_ERROR_COUNTER <= ErrorDriver)
App_State_Mouse_Keyboard = ERROR_REPORTED;
else
App_State_Mouse_Keyboard = MOUSE_READY_TO_TX_RX_REPORT;
} else {
ErrorCounter = 0;
ReportBufferUpdated = TRUE;
App_State_Mouse_Keyboard = MOUSE_READY_TO_TX_RX_REPORT;
if (DisplayConnectOnce == TRUE) {
for (i = 0; i < Appl_raw_report_buffer.ReportSize; i++) {
if (Appl_raw_report_buffer.ReportData[i] != 0) {
DisplayConnectOnce = FALSE;
}
}
}
App_ProcessInputReport_Mouse();
}
}
break;
case KEYBOARD_INPUT_REPORT_PENDING:
if (USBHostHID_ApiTransferIsComplete(&ErrorDriver, &NumOfBytesRcvd)) {
if (ErrorDriver || (NumOfBytesRcvd != Appl_raw_report_buffer.ReportSize)) {
ErrorCounter++;
if (MAX_ERROR_COUNTER <= ErrorDriver) {
App_State_Mouse_Keyboard = ERROR_REPORTED;
} else {
App_State_Mouse_Keyboard = KEYBOARD_READY_TO_TX_RX_REPORT;
}
} else {
ErrorCounter = 0;
ReportBufferUpdated = TRUE;
App_State_Mouse_Keyboard = KEYBOARD_READY_TO_TX_RX_REPORT;
if (DisplayConnectOnce == TRUE) {
for (i = 0; i < Appl_raw_report_buffer.ReportSize; i++) {
if (Appl_raw_report_buffer.ReportData[i] != 0) {
DisplayConnectOnce = FALSE;
}
}
}
App_ProcessInputReport_Keyboard();
App_PrepareOutputReport();
}
}
break;
case SEND_OUTPUT_REPORT: /* Will be done while implementing Keyboard */
if (USBHostHID_ApiSendReport(Appl_LED_Indicator.reportID, Appl_LED_Indicator.interfaceNum, Appl_LED_Indicator.reportLength,
(BYTE*) & Appl_led_report_buffer)) {
/* Host may be busy/error -- keep trying */
} else {
App_State_Mouse_Keyboard = OUTPUT_REPORT_PENDING;
}
USBTasks();
break;
case OUTPUT_REPORT_PENDING:
if (USBHostHID_ApiTransferIsComplete(&ErrorDriver, &NumOfBytesRcvd)) {
if (ErrorDriver) {
ErrorCounter++;
if (MAX_ERROR_COUNTER <= ErrorDriver)
App_State_Mouse_Keyboard = ERROR_REPORTED;
} else {
ErrorCounter = 0;
App_State_Mouse_Keyboard = KEYBOARD_READY_TO_TX_RX_REPORT;
}
}
break;
case ERROR_REPORTED:
break;
default:
break;
}
}
/******************************************************************************
* Function: void main(void)
*
* PreCondition: None
*
* Input: None
*
* Output: None
*
* Side Effects: None
*
* Overview: Main program entry point.
*
* Note: None
*****************************************************************************/
void main(void)
{
//do some startup tasks...
InitializeSystem();
//small delay for things to cook up
for (b=0;b<1026;b++)
{
Delay1KTCYx(1);
}
//start I2C system at 100 Khz speed
initi2c();
//board default configuration registers are changed here
//make changed to loafconfigfriendly for a more friendly version
loadconfig();
//
//setup your IO configuration
//
// NOTE: you should change this 1st before anything else
// this allows you to change ports to input, output, or analog
// this function is in user.c
//
loadconfigfriendly();
for (c=0;c<10;c++)
{
//small delay for things to cook up
for (b=0;b<1036;b++)
{
Delay1KTCYx(10);
}
}
//start the USART module at 57600 buad rate
startUsart(200000);
//small delay for things to cook up
for (b=0;b<1026;b++)
{
Delay1KTCYx(10);
}
//test xbee module at given baudrate of 57600
if (testxbee())
{
//57600 baud failed so lets test to see if its a new module
//start the USART module at 9600 buad rate
startUsart(9600);
//small delay for things to cook up
for (b=0;b<1060;b++)
{
Delay1KTCYx(1);
}
//testing xbee at 9600 baudrate
if (testxbee())
{
//LOOP FOR NO XBEE MODULE FOUND (FAILED AT BOTH BAUDRATES)
//xbee module failed at 9600 baud so no module present at either baudrate
//new modules come with a 9600 baud rate by default.
//
//this is the no module operating code in here, put what you want when no module present
//can use as a regular controller or PLC.
//
// NO XBEE MODULE FOUND MAIN LOOP STARTS HERE
//
mInitializeUSBDriver();
for(c=0;c<60;c++)
{
for (b=0;b<1060;b++)
{
Delay1KTCYx(1);
USBTasks();
ProcessIO();
}
}
while(1)
{
//small delay so dont roast the USB system too much
Delay1KTCYx(10);
//USB polling tasks optional
for (b=0;b<1060;b++)
{
Delay1KTCYx(1);
USBTasks();
ProcessIO();
}
//
// NO XBEE MODULE FOUND MAIN LOOP ENDS HERE
//
} //end no xbee found main loop
//END LOOP
}
//found module at 9600 baud rate
//
//now we will change the baud rate to 57600 in the module to speed things up
else
{
//small delay for things to cook up
for (b=0;b<1060;b++)
{
Delay1KTCYx(20);
}
//change xbee module to 57600 baud rate
changebaudrate();
//start the USART module at 57600 buad rate
startUsart(200000);
for (c=0;c<30;c++)
{
//small delay for things to cook up
for (b=0;b<3000;b++)
{
Delay1KTCYx(1);
}
}
//initialize xbee module to the paramters specified in the following function
//
// NOTE: you need to edit this function to tailor this node's network parameters and such
// this function is found in user.c
//
initxbee();
}
}
//found xbee module at 57600 baud rate
else
{
//initialize xbee module to the paramters specified in the following function
//
// NOTE: you need to edit this function to tailor this node's network parameters and such
// this function is found in user.c
//
//small delay for things to cook up
for (b=0;b<1026;b++)
{
Delay1KTCYx(10);
}
initxbee();
}
//configure xbee sleep mode here but it is not written to non volatile memory
//since may have problems re-entering command mode later on!!
//sleep_config_xbee();
//put xbee to not pin sleep
xbee_sleep=0; //put module to not sleep!! (edge triggeered wakeup)
//shutoff USB module to save 8 mA current
//...uncomment to turn module off
// UCONbits.USBEN=0;
// UCONbits.SUSPND=1;
//uncomment to turn USB on
mInitializeUSBDriver();
//end usb turn on
for(c=0;c<40;c++)
{
for (b=0;b<1060;b++)
{
Delay1KTCYx(1);
USBTasks();
ProcessIO();
}
}
// set processor primary idle mode (not sleep!!)
// OSCCONbits.IDLEN=1;
//start timer 1 to time periodic functions
starttimer();
//start USART receive interrupt
PIE1bits.RCIE=1;
//MAIN LOOP FOR XBEE MODULE NORMAL
//
// START MAIN LOOP FOR XBEE MODULE FOUND AT 200 K BAUD AND INTIALIZED TO YOUR PARAMETERS
//
while(1)
{
//loop to service USB requests (polling)
for (b=0;b<1060;b++)
{
Delay1KTCYx(1);
//service USB tasks
USBTasks();
ProcessIO();
}
}//end while
//
// END MAIN LOOP FOR XBEE MODULE FOUND AT 57600 BAUD AND INITIALIZED TO YOUR PARAMETERS
//
//END LOOP
}//end main
static void file_flash(FSFILE* file)
{
UINT readBytes;
UINT i;
// Erase Flash (Block Erase the program Flash)
if (NVMemBlockErase() != 0)
{
error(ERR_NV_ERASE);
}
record.status = REC_NOT_FOUND; // Initialize the state-machine to read the records.
while (1)
{
USBTasks();
BlinkBlueLED();
BlinkOrangeLED();
// For a faster read, fetch 512 bytes at a time and buffer it.
readBytes = FSfread((void*)&asciiBuffer[pointer], 1, 512, file);
if (readBytes == 0)
{
// Nothing to read. Come out of this loop
// break;
// Jump to start of application
// Disable all enabled interrupts (only USB)
// before jumping to the application code.
IEC5bits.USB1IE = 0;
// JumpToApp();
return;
}
for (i = 0; i < (readBytes + pointer); i ++)
{
// This state machine seperates-out the valid hex records from the read 512 bytes.
switch (record.status)
{
case REC_FLASHED:
case REC_NOT_FOUND:
if (asciiBuffer[i] == ':')
{
// We have a record found in the 512 bytes of data in the buffer.
record.start = &asciiBuffer[i];
record.len = 0;
record.status = REC_FOUND_BUT_NOT_FLASHED;
}
break;
case REC_FOUND_BUT_NOT_FLASHED:
if ((asciiBuffer[i] == 0x0A) || (asciiBuffer[i] == 0xFF))
{
// We have got a complete record. (0x0A is new line feed and 0xFF is End of file)
// Start the hex conversion from element
// 1. This will discard the ':' which is
// the start of the hex record.
ConvertAsciiToHex(&record.start[1], hexRec);
WriteHexRecord2Flash(hexRec);
record.status = REC_FLASHED;
}
break;
}
record.len ++; // Move to next byte in the buffer.
}
if (record.status == REC_FOUND_BUT_NOT_FLASHED)
{
// We still have a half read record in the buffer. The next half part of the record is read
// when we read 512 bytes of data from the next file read.
memcpy(asciiBuffer, record.start, record.len);
pointer = record.len;
record.status = REC_NOT_FOUND;
}
else
{
pointer = 0;
}
}
}
/****************************************************************************
Function:
BOOT_LOADER_RETURN_CODES EnterBootLoaderMode(void* handle)
Description:
This routine is the main state machine for the bootloader.
Precondition:
The device is attached and has been detected.
Parameters:
void* handle - A generic pointer to the attached device
Returns:
BOOT_SUCCESS - Device has been successfully Booted
(may still have a validation error, though)
BOOT_DEVICE_DETACHED - Device has been detached before Bootloading finished
BOOT_UNKNOWN_ERROR - An unknown error occurred with USB transfers
***************************************************************************/
BOOT_LOADER_RETURN_CODES EnterBootLoaderMode(void* handle)
{
BYTE errorCode;
DWORD size;
DWORD_VAL status;
BOOT_LOADER_STATE state = BOOT_START;
// Device was attached when this function was called
device_attached = TRUE;
// Run loop
while(1)
{
//Keep the USB stack running
USBTasks();
// Return, if the device has been detached
if(device_attached == FALSE)
{
return BOOT_DEVICE_DETACHED;
}
// Bootloader state machine
switch(state)
{
case BOOT_START:
// Try to read from the attached Android device
if(AndroidAppRead(handle, data, sizeof(data)) != USB_SUCCESS)
{
state = BOOT_ERROR; // update state to error, if unsuccessful
}
else
{
state = BOOT_ENTER_WAIT; // Otherwise, wait until read is complete
}
break;
case BOOT_ENTER_WAIT:
// If read from Android device is complete
if(AndroidAppIsReadComplete(handle, &errorCode, &size) == TRUE)
{
// Then check to see if there was an error
if(errorCode != USB_SUCCESS)
{
state = BOOT_ERROR; // Update state to error if there was an error
}
else
{
// Otherwise check the first byte in the packet to see if it was START_BOOT_REQ
if(data[0] != START_BOOT_REQ)
{
state = BOOT_ERROR; // If not, then an error occurred
}
else
{
state = READ_FILE_REQ_SEND; // If so, then update state to send READ_FILE_REQ
}
}
}
break;
case READ_FILE_REQ_SEND:
// Set the first byte of the packet to READ_FILE_REQ
data[0] = READ_FILE_REQ;
// And send packet to the Android device
if(AndroidAppWrite(handle, data, 1) != USB_SUCCESS)
{
state = BOOT_ERROR; // If unsuccessful, then update state to error
}
else
{
state = READ_FILE_REQ_WAIT; // Otherwise wait until write is complete
}
break;
case READ_FILE_REQ_WAIT:
// If the write is complete
if(AndroidAppIsWriteComplete(handle, &errorCode, &size) == TRUE)
{
// Then check for errors
if(errorCode != USB_SUCCESS)
{
state = BOOT_ERROR; // If there was an error, update state to error
}
else
{
state = READING_DATA; // Otherwise start reading data that contains flash update
}
}
break;
case READING_DATA:
// Try to read enough to fill the buffer
if(AndroidAppRead(handle, data, sizeof(data)) != USB_SUCCESS)
{
state = BOOT_ERROR; // Update state to error if unsuccessful
}
else
{
state = READING_DATA_WAIT; // Otherwise wait until the read is successful
}
break;
case READING_DATA_WAIT:
// If the read was successful
if(AndroidAppIsReadComplete(handle, &errorCode, &size) == TRUE)
{
// Then check to see if there were any errors
if(errorCode != USB_SUCCESS)
{
state = BOOT_ERROR; // If so, then update state to error
}
else
{
state = FLASHING_DATA; // Otherwise start re-flashing the new data into program memory
}
}
break;
case FLASHING_DATA:
// Write the data from the buffer to program memory
status.Val = CustomBinWrite(data,size);
// If there is more to read from the Android device
if(status.Val == DONE_WRITING_BUFFER)
{
state = READING_DATA; // Then update state to reading data
}
else
{
state = LOAD_COMPLETE_RSP_SEND; // Otherwise update state to send load complete response
}
break;
case LOAD_COMPLETE_RSP_SEND:
// Write LOAD_COMPLETE_RSP command to first byte, and status of the write to the rest of the packet
data[0] = LOAD_COMPLETE_RSP;
data[1] = status.byte.MB;
data[2] = status.byte.UB;
data[3] = status.byte.HB;
data[4] = status.byte.LB;
// Send to Android device
if(AndroidAppWrite(handle, data, 5) != USB_SUCCESS)
{
state = BOOT_ERROR; // If there are any errors, update state to error
}
else
{
state = LOAD_COMPLETE_RSP_WAIT; // Otherwise, wait until write is complete
}
break;
case LOAD_COMPLETE_RSP_WAIT:
// If the write is finished
if(AndroidAppIsWriteComplete(handle, &errorCode, &size) == TRUE)
{
// Then check for errors
if(errorCode != USB_SUCCESS)
{
state = BOOT_ERROR; // If there was an error, update state to error
}
else
{
return BOOT_SUCCESS; // Otherwise return with BOOT_SUCCESS
}
}
break;
case BOOT_ERROR:
// If there was an error, then return BOOT_UNKNOWN_ERROR
return BOOT_UNKNOWN_ERROR;
break;
} //switch
} //while(1)
return BOOT_UNKNOWN_ERROR;
}
/****************************************************************************
Function:
int main(void)
Summary:
main function
Description:
main function
Precondition:
None
Parameters:
None
Return Values:
int - exit code for main function
Remarks:
None
***************************************************************************/
int main(void)
{
DWORD size = 0;
BOOL responseNeeded;
BYTE mode = 0;
BYTE wasMode = 0;
BYTE pushButtonValues = 0xFF;
BYTE potPercentage = 0xFF;
BOOL buttonsNeedUpdate = FALSE;
BOOL potNeedsUpdate = FALSE;
BOOL motorON = FALSE;
BOOL readyToRead = TRUE;
BOOL writeInProgress = FALSE;
BYTE tempValue = 0xFF;
BYTE errorCode;
ACCESSORY_APP_PACKET* command_packet = NULL;
CLKDIV = 0; /* set for default clock operations Fcyc = 4MHz */
AD1PCFGL = 0xffff;
AD1PCFGH = 0x0003;
BOOL connected_to_app = FALSE;
BOOL need_to_disconnect_from_app = FALSE;
#if defined(__PIC32MX__)
InitPIC32();
#endif
#if defined(__dsPIC33EP512MU810__) || defined (__PIC24EP512GU810__)
// Configure the device PLL to obtain 60 MIPS operation. The crystal
// frequency is 8MHz. Divide 8MHz by 2, multiply by 60 and divide by
// 2. This results in Fosc of 120MHz. The CPU clock frequency is
// Fcy = Fosc/2 = 60MHz. Wait for the Primary PLL to lock and then
// configure the auxilliary PLL to provide 48MHz needed for USB
// Operation.
PLLFBD = 38; /* M = 60 */
CLKDIVbits.PLLPOST = 0; /* N1 = 2 */
CLKDIVbits.PLLPRE = 0; /* N2 = 2 */
OSCTUN = 0;
/* Initiate Clock Switch to Primary
* Oscillator with PLL (NOSC= 0x3)*/
__builtin_write_OSCCONH(0x03);
__builtin_write_OSCCONL(0x01);
while (OSCCONbits.COSC != 0x3);
// Configuring the auxiliary PLL, since the primary
// oscillator provides the source clock to the auxiliary
// PLL, the auxiliary oscillator is disabled. Note that
// the AUX PLL is enabled. The input 8MHz clock is divided
// by 2, multiplied by 24 and then divided by 2. Wait till
// the AUX PLL locks.
ACLKCON3 = 0x24C1;
ACLKDIV3 = 0x7;
ACLKCON3bits.ENAPLL = 1;
while(ACLKCON3bits.APLLCK != 1);
TRISBbits.TRISB5 = 0;
LATBbits.LATB5 = 1;
#endif
USBInitialize(0);
AndroidAppStart(&myDeviceInfo);
responseNeeded = FALSE;
mInitPOT();
InitializeTimer2For_PWM();
PwmInit();
//InitMOTOR();
DEBUG_Init(0);
InitAllLEDs();
while(1)
{
//Keep the USB stack running
USBTasks();
//If the device isn't attached yet,
if(device_attached == FALSE || mode == 1)
{
buttonsNeedUpdate = TRUE;
potNeedsUpdate = TRUE;
need_to_disconnect_from_app = FALSE;
connected_to_app = FALSE;
size = 0;
/**/
BYTE curPush = GetPushbuttons();
if ((curPush == 0x8) || (mode == 1)) {
LED0_On();
mode = 1;
if (wasMode == 0) {
pot2LEDs();
PwmInit();
}
tempValue = ReadPOT();
wasMode = 1;
//If it is different than the last time we read the pot, then we need
// to send it to the Android device
if(tempValue != potPercentage) {
potNeedsUpdate = TRUE;
//setRPM(tempValue);
setPWM();
}
}
if ((curPush == 0x4) || (mode == 0)) {
mode = 0;
//LED0_Off();
if (wasMode == 1) {
SetLEDs(0b00000000);
wasMode = 0;
setRPM(0);
}
//Reset the accessory state variables
InitAllLEDs();
//Continue to the top of the while loop to start the check over again.
continue;
}
/* //Reset the accessory state variables
InitAllLEDs();
//Continue to the top of the while loop to start the check over again.
continue;
}*/
//}
}
//If the accessory is ready, then this is where we run all of the demo code
if(readyToRead == TRUE && mode == 0)
{
errorCode = AndroidAppRead(device_handle, (BYTE*)&read_buffer, (DWORD)sizeof(read_buffer));
//If the device is attached, then lets wait for a command from the application
if( errorCode != USB_SUCCESS)
{
//Error
DEBUG_PrintString("Error trying to start read");
}
else
{
readyToRead = FALSE;
}
}
size = 0;
if(AndroidAppIsReadComplete(device_handle, &errorCode, &size) == TRUE)
{
//We've received a command over the USB from the Android device.
if(errorCode == USB_SUCCESS)
{
//Maybe process the data here. Maybe process it somewhere else.
command_packet = (ACCESSORY_APP_PACKET*)&read_buffer[0];
}
else
{
//Error
DEBUG_PrintString("Error trying to complete read request");
}
}
while(size > 0)
{
if(connected_to_app == FALSE)
{
if(command_packet->command == COMMAND_APP_CONNECT)
{
connected_to_app = TRUE;
need_to_disconnect_from_app = FALSE;
}
}
else
{
switch(command_packet->command)
{
case COMMAND_SET_LEDS:
SetLEDs(command_packet->data);
break;
case COMMAND_APP_DISCONNECT:
need_to_disconnect_from_app = TRUE;
break;
case COMMAND_SET_PWM:
setRPM(command_packet->data);
break;
default:
//Error, unknown command
DEBUG_PrintString("Error: unknown command received");
break;
}
}
//All commands in this example are two bytes, so remove that from the queue
size -= 2;
//And move the pointer to the next packet (this works because
// all command packets are 2 bytes. If variable packet size
// then need to handle moving the pointer by the size of the
// command type that arrived.
command_packet++;
if(need_to_disconnect_from_app == TRUE)
{
break;
}
}
if(size == 0)
{
readyToRead = TRUE;
}
//Get the current pushbutton settings
tempValue = GetPushbuttons();
//If the current button settings are different than the last time
// we read the button values, then we need to send an update to the
// attached Android device
if(tempValue != pushButtonValues)
{
buttonsNeedUpdate = TRUE;
pushButtonValues = tempValue;
}
//Get the current potentiometer setting
tempValue = ReadPOT();
//If it is different than the last time we read the pot, then we need
// to send it to the Android device
if(tempValue != potPercentage)
{
potNeedsUpdate = TRUE;
potPercentage = tempValue;
}
//If there is a write already in progress, we need to check its status
if( writeInProgress == TRUE )
{
if(AndroidAppIsWriteComplete(device_handle, &errorCode, &size) == TRUE)
{
writeInProgress = FALSE;
if(need_to_disconnect_from_app == TRUE)
{
connected_to_app = FALSE;
need_to_disconnect_from_app = FALSE;
}
if(errorCode != USB_SUCCESS)
{
//Error
DEBUG_PrintString("Error trying to complete write");
}
}
}
if((need_to_disconnect_from_app == TRUE) && (writeInProgress == FALSE))
{
outgoing_packet.command = COMMAND_APP_DISCONNECT;
outgoing_packet.data = 0;
writeInProgress = TRUE;
errorCode = AndroidAppWrite(device_handle,(BYTE*)&outgoing_packet, 2);
if( errorCode != USB_SUCCESS )
{
DEBUG_PrintString("Error trying to send button update");
}
}
if(connected_to_app == FALSE)
{
//If the app hasn't told us to start sending data, let's not do anything else.
continue;
}
//If we need up update the button status on the Android device and we aren't
// already busy in a write, then we can send the new button data.
if((buttonsNeedUpdate == TRUE) && (writeInProgress == FALSE))
{
outgoing_packet.command = COMMAND_UPDATE_PUSHBUTTONS;
outgoing_packet.data = pushButtonValues;
errorCode = AndroidAppWrite(device_handle,(BYTE*)&outgoing_packet, 2);
if( errorCode != USB_SUCCESS )
{
DEBUG_PrintString("Error trying to send button update");
}
buttonsNeedUpdate = FALSE;
writeInProgress = TRUE;
}
//If we need up update the pot status on the Android device and we aren't
// already busy in a write, then we can send the new pot data.
if((potNeedsUpdate == TRUE) && (writeInProgress == FALSE))
{
outgoing_packet.command = COMMAND_UPDATE_POT;
outgoing_packet.data = potPercentage;
errorCode = AndroidAppWrite(device_handle,(BYTE*)&outgoing_packet, 2);
if( errorCode != USB_SUCCESS )
{
DEBUG_PrintString("Error trying to send pot update");
}
potNeedsUpdate = FALSE;
writeInProgress = TRUE;
}
} //while(1) main loop
}
/******************************************************************************
* Function: void UninitializedMain(void)
*
* PreCondition: None
*
* Input: None
*
* Output: None
*
* Side Effects: None
*
* Overview: This is the main function for this bootloader mode firmware.
* if execution gets to this function, it is assumed that we
* want to stay in bootloader mode for now.
*
* Note: If adding code to this function, make sure to add it only
* after the C initializer like code at the top of this function.
*****************************************************************************/
void BootMain(void)
{
//NOTE: The c018.o file is not included in the linker script for this project.
//The C initialization code in the c018.c (comes with C18 compiler in the src directory)
//file is instead modified and included here manually. This is done so as to provide
//a more convenient entry method into the bootloader firmware. Ordinarily the _entry_scn
//program code section starts at 0x00 and is created by the code of c018.o. However,
//the linker will not work if there is more than one section of code trying to occupy 0x00.
//Therefore, must not use the c018.o code, must instead manually include the useful code
//here instead.
//Make sure interrupts are disabled for this code (could still be on,
//if the application firmware jumped into the bootloader via software methods)
INTCON = 0x00;
// Initialize the C stack pointer, and other compiler managed items as normally done in the c018.c file.
_asm
lfsr 1, _stack
lfsr 2, _stack
clrf TBLPTRU, 0
_endasm
//Clear the stack pointer, in case the user application jumped into
//bootloader mode with excessive junk on the call stack
STKPTR = 0x00;
// End of the important parts of the C initializer. This bootloader firmware does not use
// any C initialized user variables (idata memory sections). Therefore, the above is all
// the initialization that is required.
//Check if the USB module is already enabled. If so, disable it and wait
//~100ms+ (>1 second recommended if CDC application firmware on XP), to
//ensure that the host has a chance to see and process the USB device detach
//event.
if(UCONbits.USBEN == 1)
{
//USB module was already on. This is likely because the user applicaiton
//firmware jumped into this bootloader firmware using the absolute
//software entry method, without first turning off the USB module
DisableUSBandExecuteLongDelay();
}
//Call other initialization code and (re)enable the USB module
InitializeSystem(); //Some USB, I/O pins, and other initialization
//Execute main loop
while(1)
{
ClrWdt();
//Need to call USBTasks() periodically. This function takes care of
//processing non-USB application related USB packets (ex: "Chapter 9"
//packets associated with USB enumeration)
USBTasks();
BlinkUSBStatus(); //When enabled, blinks LEDs on the board, based on USB bus state
LowVoltageCheck(); //Regularly monitor voltage to make sure it is sufficient
//for safe operation at full frequency and for erase/write
//operations.
//Checks for and processes application related USB packets (assuming the
//USB bus is in the CONFIGURED_STATE, which is the only state where
//the host is allowed to send application related USB packets to the device.
if((usb_device_state == CONFIGURED_STATE) && (UCONbits.SUSPND != 1))
{
ProcessIO(); // This is where all the actual bootloader related data transfer/self programming takes place
} // see ProcessIO() function in the BootPIC[xxxx].c file.
}//end while
}
int main(void)
{
int value;
int junk;
millisec = 0;
value = SYSTEMConfigWaitStatesAndPB( GetSystemClock() );
// Enable the cache for the best performance
CheKseg0CacheOn();
//Setupt input for inteface button JF8 (RA01) (0x02)
TRISASET = 0x02;
//RED LED - JF9 (RA04) (0x10)
TRISACLR = 0x10;
ODCACLR = 0x10;
LATASET = 0x10;
//Green LED -JF7 (RE9) (0x200)
TRISECLR = 0x200;
ODCECLR = 0x200;
LATESET = 0x200;
//Setupt Input for DataFlag Button - JF10 - RA5 0x20
TRISASET = 0x20;
//Setup Output for Clutch Hold (Launch) JE1 RD14 0x4000
//This function is active low, driving the FET on the PDU
TRISDCLR = 0x4000;
ODCDCLR = 0x4000;
LATDSET = 0x4000; //Default state is high (off)
CAN1Init();//CAN1 ACCL 500kbs
CAN2Init();//Motec 1mbs
DelayInit();
initUART2(); // GPS UART
prevButton1 = 0;
prevButton2 = 0;
millisec = 0;
// Configure Timer 2 to request a real-time interrupt once per millisecond.
// The period of Timer 2 is (16 * 5000)/(80 MHz) = 1 ms.
OpenTimer2(T2_ON | T2_IDLE_CON | T2_SOURCE_INT | T2_PS_1_16 | T2_GATE_OFF, 5000);
// Configure the CPU to respond to Timer 2's interrupt requests.
INTEnableSystemMultiVectoredInt();
INTSetVectorPriority(INT_TIMER_2_VECTOR, INT_PRIORITY_LEVEL_2);
INTClearFlag(INT_T2);
INTEnable(INT_T2, INT_ENABLED);
//UART GPS Interrupts
INTSetVectorPriority(INT_UART_2_VECTOR ,INT_PRIORITY_LEVEL_1); //Make sure UART interrupt is top priority
INTClearFlag(INT_U2RX);
INTEnable(INT_U2RX, INT_ENABLED);
value = OSCCON;
while (!(value & 0x00000020))
{
value = OSCCON; // Wait for PLL lock to stabilize
}
deviceAttached = FALSE;
//Initialize the stack
USBInitialize(0);
shouldLog = FALSE;
shouldStop = FALSE;
//count = 0;
angularRateInfoRec = FALSE;
accelerationSensorRec = FALSE;
HRaccelerationSensorRec = FALSE;
//init tim er 3 to convert adc at 100hz
OpenTimer3(T3_ON|T3_PS_1_256|T3_SOURCE_INT, 1562);
//initialize i2c for the psoc
initI2CPSoC();
state = wait;
logNum = 0;
initI2CEEPROM();
short addy = 0x0000;
BYTE num = 0x00;
logNum = readEEPROM(addy);
if(logNum >= 0xEF) //Address stored in EEPROM if greater than 0xEF reset to zero, limited to a single byte with current code configuration
{
writeEEPROM(addy, 0x00);
}
char GroupString[550];//Group Names (Line1)
char UnitString[550];//Units (line2)
char ParamString[650];//Paramater Names (line3)
sprintf(GroupString,"Time,Accelerometer,Accelerometer,Accelerometer,Accelerometer,Accelerometer,Accelerometer,Accelerometer,Accelerometer,Accelerometer,Engine,Engine,Engine,Engine,Engine,Engine,Engine,Engine,Engine,Engine,Drivetrain,Drivetrain,Electrical,Drivetrain,Drivetrain,Drivetrain,Drivetrain,Engine,Engine,Engine,Engine,Electrical,Electrical,Electrical,Electrical,Electrical,Electrical,Suspension,Suspension,Suspension,Suspension,Suspension,Drivetrain,Driver\n");
sprintf(UnitString,"ms,deg/s,deg/s,deg/s,m/s^2,m/s^2,m/s^2,m/s^2,m/s^2,m/s^2,rpm,%,kpa,degF,degF,lambda,psi,degF,na,na,psi,psi,V,mph,mph,mph,mph,s,gal,degF,degBTDC,mV,mV,mV,mV,mV,mV,mV,mV,mV,mV,mV,mV,\n");
sprintf(ParamString, "Millisec,pitch(deg/sec),roll(deg/sec),yaw(deg/sec),lat(m/s^2),long(m/s^2),vert(m/s^2),latHR(m/s^2),longHR(m/s^2),vertHR(m/s^2),rpm,tps(percent),MAP(kpa),AT(degF),ect(degF),lambda,fuel pres,egt(degF),launch,neutral,brake pres,brake pres filtered,BattVolt(V),ld speed(mph), lg speed(mph),rd speed(mph),rg speed(mph),run time(s),fuel used,Oil Temp (deg F), Ignition Adv (degBTDC),Overall Consumption(mV),Overall Production(mV),Fuel Pump(mV),Fuel Injector(mV),Ignition(mV),Vref(mV),Back Left(mV),Back Right(mV),Front Left(mV),Front Right(mV),Steering Angle(mV),Brake Temp(mV),Data Flag,GPRMC,Time,Valid,Lat,N/S,Long,E/W,Speed,Course,Date,Variation,E/W\n");
LATACLR = 0x10; //Turn on Red LED
// LATECLR = 0x200;
UARTSendString(UART2,PMTK_HOT_RESTART);
int i = 0;
while(!UARTTransmissionHasCompleted(UART2)){
i++;
}
while(1)
{
GPSDataRead();
GPSSentenceParse();
ClutchHold(); //This function handles the venting direction of the clutch actuator
DataFlagFunc(); //This function handles the updates of the data flag variable
//USB stack process function
USBTasks();
switch(state){
case wait:
USBTasks();
millisec = 0;
if(CheckLogStateChange() == 1){ //start the transition from wait to log
state = startLog;
}
break;
case startLog:
//if thumbdrive is plugged in
if(USBHostMSDSCSIMediaDetect())
{
deviceAttached = TRUE;
//now a device is attached
//See if the device is attached and in the right format
if(FSInit())
{
//Opening a file in mode "w" will create the file if it doesn't
// exist. If the file does exist it will delete the old file
// and create a new one that is blank.
logNum = readEEPROM(addy);
sprintf(nameString, "test%d.csv", logNum);
myFile = FSfopen(nameString,"w");
FSfwrite(GroupString,1,strlen(GroupString),myFile);
FSfwrite(UnitString,1,strlen(UnitString),myFile);
FSfwrite(ParamString,1, strlen(ParamString),myFile);
millisec = 0;
//LATDSET = 0x4000; //Send sync pulse (aeroprobe)
// while(millisec < 1000){} //Wait 1s then move to log, the aeroprobe ADC waits 1s.
state = log;
LATECLR = 0x200; //Turn on Green
LATASET = 0x10; //Turn off Red
}
}
break;
case log:
//This uses MOTEC as the master timer. Data is only written to the USB after all the motec Data is received
if(motec0Read && motec1Read && motec2Read && motec3Read && motec4Read && motec5Read){
WriteToUSB();
}
else{}//Wait for motec data to write the next row
if(CheckLogStateChange() == 2){ //Start the transition from log to wait
state = stopLog;
}
if(millisec > 2000){
LATDCLR = 0x4000; //After 2 seconds pass no need to keep output high
}
//Add a function to check for a flag button and set a variable
break;
case stopLog:
//Always make sure to close the file so that the data gets written to the drive.
FSfwrite("endFile", 1, 7, myFile);
FSfclose(myFile);
state = wait;
logNum++;
writeEEPROM(addy, logNum);
LATACLR = 0x10; //Turn on Red
LATESET = 0x200; //Turn off Green
break;
default:
state = wait;
break;
}
//CAN Handlers
CANRxMessageBuffer* CAN1RxMessage = CAN1RxMsgProcess();
if(CAN1RxMessage){
WriteAccelData(CAN1RxMessage); //Accel is on CAN 1
}
CANRxMessageBuffer* CAN2RxMessage = CAN2RxMsgProcess();
if(CAN2RxMessage){
writeCan2Msg(CAN2RxMessage); //Motec is on CAN 2
}
}
return 0;
}
//******************************************************************************
//******************************************************************************
// Main
//******************************************************************************
//******************************************************************************
int main (void)
{
BYTE i;
DWORD temp;
int value;
value = SYSTEMConfigWaitStatesAndPB( GetSystemClock() );
mJTAGPortEnable(DEBUG_JTAGPORT_OFF);
// Enable the cache for the best performance
CheKseg0CacheOn();
value = OSCCON;
while (!(value & 0x00000020))
{
value = OSCCON; // Wait for PLL lock to stabilize
}
InitKeyboardDriver();
INTEnableSystemMultiVectoredInt();
// Init status LED
mPORTCSetBits(BIT_0);
mPORTCSetPinsDigitalOut(BIT_0);
//DBINIT();
// Initialize USB layers
USBInitialize(0);
while (1)
{
USBTasks();
App_Detect_Device();
switch (App_State_Keyboard)
{
case DEVICE_NOT_CONNECTED:
mPORTCSetBits(BIT_0);
USBTasks();
if (DisplayDeatachOnce == FALSE)
{
DBPRINTF("Device Detached\n");
DisplayDeatachOnce = TRUE;
}
if (USBHostHID_ApiDeviceDetect()) /* True if report descriptor is parsed with no error */
{
DBPRINTF("Device Attached\n");
App_State_Keyboard = DEVICE_CONNECTED;
DisplayConnectOnce = FALSE;
}
break;
case DEVICE_CONNECTED:
mPORTCClearBits(BIT_0);
App_State_Keyboard = READY_TO_TX_RX_REPORT;
if (DisplayConnectOnce == FALSE)
{
DisplayConnectOnce = TRUE;
DisplayDeatachOnce = FALSE;
}
InitializeTimer(); // start 10ms timer to schedule input reports
break;
case READY_TO_TX_RX_REPORT:
if (!USBHostHID_ApiDeviceDetect())
{
App_State_Keyboard = DEVICE_NOT_CONNECTED;
// DisplayOnce = FALSE;
}
break;
case GET_INPUT_REPORT:
if (USBHostHID_ApiGetReport(Appl_raw_report_buffer.Report_ID, Appl_ModifierKeysDetails.interfaceNum,
Appl_raw_report_buffer.ReportSize, Appl_raw_report_buffer.ReportData))
{
/* Host may be busy/error -- keep trying */
}
else
{
App_State_Keyboard = INPUT_REPORT_PENDING;
}
USBTasks();
break;
case INPUT_REPORT_PENDING:
if (USBHostHID_ApiTransferIsComplete(&ErrorDriver, &NumOfBytesRcvd))
{
if (ErrorDriver || (NumOfBytesRcvd != Appl_raw_report_buffer.ReportSize ))
{
ErrorCounter++ ;
if (MAX_ERROR_COUNTER <= ErrorDriver)
App_State_Keyboard = ERROR_REPORTED;
else
App_State_Keyboard = READY_TO_TX_RX_REPORT;
}
else
{
ErrorCounter = 0;
ReportBufferUpdated = TRUE;
App_State_Keyboard = READY_TO_TX_RX_REPORT;
if (DisplayConnectOnce == TRUE)
{
for (i = 0; i < Appl_raw_report_buffer.ReportSize; i++)
{
if (Appl_raw_report_buffer.ReportData[i] != 0)
{
//LCDClear();
//LCDL1Home();
DisplayConnectOnce = FALSE;
}
}
}
App_ProcessInputReport();
App_PrepareOutputReport();
}
}
break;
case SEND_OUTPUT_REPORT: /* Will be done while implementing Keyboard */
if (USBHostHID_ApiSendReport(Appl_LED_Indicator.reportID, Appl_LED_Indicator.interfaceNum, Appl_LED_Indicator.reportLength,
(BYTE*) & Appl_led_report_buffer))
{
/* Host may be busy/error -- keep trying */
}
else
{
App_State_Keyboard = OUTPUT_REPORT_PENDING;
}
USBTasks();
break;
case OUTPUT_REPORT_PENDING:
if (USBHostHID_ApiTransferIsComplete(&ErrorDriver, &NumOfBytesRcvd))
{
if (ErrorDriver)
{
ErrorCounter++ ;
if (MAX_ERROR_COUNTER <= ErrorDriver)
App_State_Keyboard = ERROR_REPORTED;
// App_State_Keyboard = READY_TO_TX_RX_REPORT;
}
else
{
ErrorCounter = 0;
App_State_Keyboard = READY_TO_TX_RX_REPORT;
}
}
break;
case ERROR_REPORTED:
break;
default:
break;
}
}
}