int main(void)
{
// Input and output variables
uint8_t In = 0;
uint8_t Out = 0;
// Initialize PLL to 80MHz
Init_PLL(4);
// GPIO Initialization
SYSCTL_RCGCGPIO_R |= 0x00000020; // Activate clock for Port F
__asm("nop; nop; nop;"); // Three clock cycle delay for clock to start
GPIO_PORTF_LOCK_R = GPIO_LOCK_KEY; // Unlock GPIO Port F
GPIO_PORTF_CR_R = 0x01; // Allow changes to PF0
GPIO_PORTF_DIR_R = 0x0E; // PF4,0 in | PF3-1 out
GPIO_PORTF_PUR_R = 0x11; // Enable pull-up on switches
GPIO_PORTF_DEN_R = 0x1F; // Enable digital IO on PF4-0
// Main While Loop
while(1)
{
In = GPIO_PORTF_DATA_R & 0x10; // Read Sw1
In >>= 2;
Out = GPIO_PORTF_DATA_R;
Out = Out & 0xFB;
GPIO_PORTF_DATA_R = Out | In;
}
}
void bsp_start( void )
{
/* BSP Hardware Initialization*/
Init_RTC(); /* Blackfin Real Time Clock initialization */
Init_PLL(); /* PLL initialization */
Init_EBIU(); /* EBIU initialization */
Init_Flags(); /* GPIO initialization */
int i=0;
for (i=5;i<16;i++) {
set_vector((rtems_isr_entry)null_isr, i, 1);
}
}
void bsp_start( void )
{
/* BSP Hardware Initialization*/
Init_RTC(); /* Blackfin Real Time Clock initialization */
Init_PLL(); /* PLL initialization */
Init_EBIU(); /* EBIU initialization */
Init_Flags(); /* GPIO initialization */
/*
* Allocate the memory for the RTEMS Work Space. This can come from
* a variety of places: hard coded address, malloc'ed from outside
* RTEMS world (e.g. simulator or primitive memory manager), or (as
* typically done by stock BSPs) by subtracting the required amount
* of work space from the last physical address on the CPU board.
*/
int i=0;
for (i=5;i<16;i++) {
set_vector((rtems_isr_entry)null_isr, i, 1);
}
}
int main(void)
{
SECTORLOCATION *pSectorInfo;
ERROR_CODE Result; // result
Init_PLL();
// setup the device so the DSP can access it
if (SetupForFlash() != NO_ERR)
return FALSE;
/* open flash driver */
AFP_Error = m29w320_Open();
// get flash manufacturer & device codes, title & desc
if( AFP_Error == NO_ERR )
{
AFP_Error = GetFlashInfo();
}
// get the number of sectors for this device
if( AFP_Error == NO_ERR )
{
AFP_Error = GetNumSectors();
}
if( AFP_Error == NO_ERR )
{
// malloc enough space to hold our start and end offsets
pSectorInfo = (SECTORLOCATION *)malloc(AFP_NumSectors * sizeof(SECTORLOCATION));
}
// allocate AFP_Buffer
if( AFP_Error == NO_ERR )
{
AFP_Error = AllocateAFPBuffer();
}
// get sector map
if( AFP_Error == NO_ERR )
{
AFP_Error = GetSectorMap(pSectorInfo);
}
// point AFP_SectorInfo to our sector info structure
if( AFP_Error == NO_ERR )
{
AFP_SectorInfo = (int*)pSectorInfo;
}
// command processing loop
while ( !bExit )
{
// the plug-in will set a breakpoint at "AFP_BreakReady" so it knows
// when we are ready for a new command because the DSP will halt
//
// the jump is used so that the label will be part of the debug
// information in the driver image otherwise it may be left out
// since the label is not referenced anywhere
asm("AFP_BreakReady:");
asm("nop;");
if ( FALSE )
asm("jump AFP_BreakReady;");
// Make a call to the ProcessCommand
AFP_Error = ProcessCommand();
}
// Clear the AFP_Buffer
FreeAFPBuffer();
if( pSectorInfo )
{
free(pSectorInfo);
pSectorInfo = NULL;
}
// Close the Device
AFP_Error = m29w320_Close();
if (AFP_Error != NO_ERR)
return FALSE;
return TRUE;
}
