/**
* @b Description
* @n
* Utility function which converts a local address to global.
*
* @param[in] addr
* Local address to be converted
*
* @retval
* Global Address
*/
UInt32 l2_global_address (Uint32 addr)
{
UInt32 corenum;
/* Get the core number. */
corenum = CSL_chipReadReg(CSL_CHIP_DNUM);
/* Compute the global address. */
return (addr + (0x10000000 + (corenum*0x1000000)));
}
/**
* @b Description
* @n
* Utility function which converts a local address to global.
*
* @param[in] addr
* Local address to be converted
*
* @retval
* Global Address
*/
static UInt32 Osal_local2Global (UInt32 addr)
{
UInt32 corenum;
/* Get the core number. */
corenum = CSL_chipReadReg(CSL_CHIP_DNUM);
/* Compute the global address. */
return (addr + (0x10000000 + (corenum*0x1000000)));
}
uint32_t convert_CoreLocal2GlobalAddr (uint32_t addr) {
uint32_t coreNum;
/* Get the core number. */
coreNum = CSL_chipReadReg(CSL_CHIP_DNUM);
/* Compute the global address. */
return ((1 << 28) | (coreNum << 24) | (addr & 0x00ffffff));
}
void main(void)
{
/* Get the core number. */
coreNum = CSL_chipReadReg (CSL_CHIP_DNUM);
KeyStone_main_PLL_init (10, 1);
if(coreNum == 0)
EDMAInit();
IntcInit();
deblurring_WIT_process();
while(1);
}
/*
* ======== taskMstr ========
* Calls different taskts depending on which core we are working
*/
Void taskMstr(UArg a0, UArg a1){
Uint32 coreNum;
coreNum = CSL_chipReadReg(CSL_CHIP_DNUM);
Task_Params tskpr;
Task_Params_init(&tskpr);
/*
* no need to add semaphores to remove concurrency possibility
*/
if(coreNum == 0){
Task_create(task0, NULL, NULL);
}else if(coreNum == 1){
Task_create(task1, NULL, NULL);
}else if(coreNum == 2){
Task_create(task2, NULL, NULL);
}else{
Task_create(task3, NULL, NULL);
}
}
/******************************************************************************
* MAIN FUNCTION
*****************************************************************************/
Int main(Int argc, Char* argv[]){
srand(time(NULL));
selfId = CSL_chipReadReg(CSL_CHIP_DNUM);
if (numCores == 0){
numCores = MultiProc_getNumProcessors();
}
/* Attach All Cores */
attachAll(numCores);
/* Create a MessageQ */
System_sprintf(localQueueName, "%s", MultiProc_getName(MultiProc_self()));
messageQ = MessageQ_create(localQueueName, NULL);
if (messageQ == NULL){
System_abort("MessageQ_create failed\n");
}
BIOS_start();
return (0);
}
/**
* @b Description
* @n
* Utility function that is required by the IPC module to set the proc Id.
* The proc Id is set via this function instead of hard coding it in the .cfg file
*
* @retval
* Not Applicable.
*/
Void myStartupFxn (Void)
{
MultiProc_setLocalId (CSL_chipReadReg (CSL_CHIP_DNUM));
}
VOID Ipc_Init(Ipc *pThis)
{
pThis->nCoreNum = CSL_chipReadReg(CSL_CHIP_DNUM);
pThis->pIpcRegs = pIntGenRegs1;
}
int hpdspuaStart (void) {
uint32_t coreId;
QMSS_CFG_T qmss_cfg;
CPPI_CFG_T cppi_cfg;
/* determine the core number. */
coreId = CSL_chipReadReg (CSL_CHIP_DNUM);
led_no=coreId;
platform_write("num of cores %d starts twinkling its LED\n", number_of_cores);
platform_write("core = %d starts twinkling its LED\n", coreId);
//platform_uart_init();
//platform_uart_set_baudrate(115200);
// write_uart("AAAAAAAA");
gpioInit();
gpioSetDirection(GPIO_10 ,GPIO_IN); //DOUTA pin
gpioSetDirection(GPIO_3 ,GPIO_OUT); //CNVST pin
gpioSetDirection(GPIO_13 ,GPIO_OUT); //CS pin
gpioSetDirection(GPIO_7 ,GPIO_OUT); //SCLK
//ADDR = 0, VA1 and VB1 are sampled; ADDR =1, VA2 and VB2 are sampled
//Right now VA1 and VB1 are being sampled
gpioSetOutput(GPIO_7); //By default clock high
gpioSetOutput(GPIO_3); // by default conversion pin high
gpioSetOutput(GPIO_13); // BY Default CS pin high
gpioSetFallingEdgeInterrupt(GPIO_10);
gpioSetRisingEdgeInterrupt(GPIO_10);
gpioEnableGlobalInterrupt();
//Wait for 100us before starting first conversion
platform_delay(100);
int rc=0;
while(1) {
if(coreId==0)
{
if (platform_get_coreid() == 0)
{
qmss_cfg.master_core = 1;
}
else
{
qmss_cfg.master_core = 0;
}
qmss_cfg.max_num_desc = MAX_NUM_DESC;
qmss_cfg.desc_size = MAX_DESC_SIZE;
qmss_cfg.mem_region = Qmss_MemRegion_MEMORY_REGION0;
if (res_mgr_init_qmss (&qmss_cfg) != 0)
{
platform_write ("Failed to initialize the QMSS subsystem \n");
goto main_exit;
}
else
{
platform_write ("QMSS successfully initialized \n");
}
if (platform_get_coreid() == 0)
{
cppi_cfg.master_core = 1;
}
else
{
cppi_cfg.master_core = 0;
}
cppi_cfg.dma_num = Cppi_CpDma_PASS_CPDMA;
cppi_cfg.num_tx_queues = NUM_PA_TX_QUEUES;
cppi_cfg.num_rx_channels = NUM_PA_RX_CHANNELS;
if (res_mgr_init_cppi (&cppi_cfg) != 0)
{
platform_write ("Failed to initialize CPPI subsystem \n");
goto main_exit;
}
else
{
platform_write ("CPPI successfully initialized \n");
}
if (res_mgr_init_pass()!= 0) {
platform_write ("Failed to initialize the Packet Accelerator \n");
goto main_exit;
}
else
{
platform_write ("PA successfully initialized \n");
}
rc = NC_SystemOpen( NC_PRIORITY_HIGH, NC_OPMODE_INTERRUPT );
if( rc ) {
platform_write("NC_SystemOpen Failed (%d). Will die in an infinite loop so you need to reset...\n",rc);
for(;;);
}
platform_write("HUA version %s\n", BLM_VERSION);
hCfg = CfgNew();
if( !hCfg )
{
platform_write("Unable to create a configuration for the IP stack.\n");
goto main_exit;
}
strcpy (HostName, "tidemo-");
i = strlen(HostName);
j = strlen(gPlatformInfo.serial_nbr);
if (j > 0) {
if (j > 6) {
memcpy (&HostName[i], &gPlatformInfo.serial_nbr[j-6], 6);
HostName[i+7] = '\0';
}
else {
memcpy (&HostName[i], gPlatformInfo.serial_nbr, j);
HostName[i+j+1] = '\0';
}
}
if( strlen( DomainName ) >= CFG_DOMAIN_MAX ||
strlen( HostName ) >= CFG_HOSTNAME_MAX )
{
platform_write("Domain or Host Name too long\n");
goto main_exit;
}
platform_write("Setting hostname to %s \n", HostName);
platform_write("MAC Address: %02X-%02X-%02X-%02X-%02X-%02X \n",
gPlatformInfo.emac.efuse_mac_address[0], gPlatformInfo.emac.efuse_mac_address[1],
gPlatformInfo.emac.efuse_mac_address[2], gPlatformInfo.emac.efuse_mac_address[3],
gPlatformInfo.emac.efuse_mac_address[4], gPlatformInfo.emac.efuse_mac_address[5]);
CfgAddEntry( hCfg, CFGTAG_SYSINFO, CFGITEM_DHCP_HOSTNAME, 0,
strlen(HostName), (uint8_t *)HostName, 0 );
if (!platform_get_switch_state(1)) {
CI_IPNET NA;
CI_ROUTE RT;
IPN IPTmp;
bzero( &NA, sizeof(NA) );
NA.IPAddr = inet_addr(EVMStaticIP);
NA.IPMask = inet_addr(LocalIPMask);
strcpy( NA.Domain, DomainName );
CfgAddEntry( hCfg, CFGTAG_IPNET, 1, 1, sizeof(CI_IPNET), (uint8_t *)&NA, 0 );
bzero( &RT, sizeof(RT) );
RT.IPDestAddr = inet_addr(PCStaticIP);
RT.IPDestMask = inet_addr(LocalIPMask);
RT.IPGateAddr = inet_addr(GatewayIP);
CfgAddEntry( hCfg, CFGTAG_ROUTE, 0, 1, sizeof(CI_ROUTE), (uint8_t *)&RT, 0 );
platform_write("EVM in StaticIP mode at %s\n",EVMStaticIP);
platform_write("Set IP address of PC to %s\n", PCStaticIP);
}
rc = DBG_WARN;
CfgAddEntry( hCfg, CFGTAG_OS, CFGITEM_OS_DBGPRINTLEVEL,
CFG_ADDMODE_UNIQUE, sizeof(uint), (uint8_t *)&rc, 0 );
rc = 64000;
CfgAddEntry( hCfg, CFGTAG_IP, CFGITEM_IP_SOCKTCPTXBUF,
CFG_ADDMODE_UNIQUE, sizeof(uint), (uint8_t *)&rc, 0 );
rc = 64000;
CfgAddEntry( hCfg, CFGTAG_IP, CFGITEM_IP_SOCKTCPRXBUF,
CFG_ADDMODE_UNIQUE, sizeof(uint), (uint8_t *)&rc, 0 );
rc = 64000;
CfgAddEntry( hCfg, CFGTAG_IP, CFGITEM_IP_SOCKTCPRXLIMIT,
CFG_ADDMODE_UNIQUE, sizeof(uint), (uint8_t *)&rc, 0 );
rc = 8192;
CfgAddEntry( hCfg, CFGTAG_IP, CFGITEM_IP_SOCKUDPRXLIMIT,
CFG_ADDMODE_UNIQUE, sizeof(uint), (uint8_t *)&rc, 0 );
do
{
rc = NC_NetStart( hCfg, NetworkOpen, NetworkClose, NetworkIPAddr );
} while( rc > 0 );
platform_write("Done with this utility. Shutting things down\n");
CfgFree( hCfg );
main_exit:
platform_write("Exiting the system\n");
//NC_SystemClose();
TaskExit();
return(0);
}
else
{
while(1)
{
platform_write("done processing .exiting core %d \n", coreId);
platform_delay(300000);
break;
}
platform_delay(300000);
break;
}
}
platform_write("done processing .exiting core %d", coreId);
platform_delay(3000000);
return 0;
}
