void clearMMCCard()
{
if (initMMC() == MMC_SUCCESS) // card found
{
//card_state |= 1;
memset(&mmc_buffer,0,512);
mmcReadRegister (10, 16);
mmc_buffer[7]=0;
/*Clear first 1000 blocks*/
int blockClearCnt;
for (blockClearCnt = 0; blockClearCnt < 2048; blockClearCnt++)
{
memset(&mmc_buffer,'0',512);
mmcWriteBlock(512 * blockClearCnt);
}
/*
// Fill first Block (0) with 'A'
memset(&mmc_buffer,'0',512); //set breakpoint and trace mmc_buffer contents
mmcWriteBlock(0);
// Fill second Block (1)-AbsAddr 512 with 'B'
memset(&mmc_buffer,'1',512);
mmcWriteBlock(512);
// Read first Block back to buffer
memset(&mmc_buffer,0x00,512);
mmcReadBlock(0,512);
// Read first Block back to buffer
memset(&mmc_buffer,0x00,512);
mmcReadBlock(512,512);
*/
}
}
//--------------- set blocklength 2^n ------------------------------------------------------
char mmcSetBlockLength (const unsigned long blocklength)
{
// char rValue = MMC_TIMEOUT_ERROR;
// char i = 0;
// SS = LOW (on)
CS_LOW ();
// Set the block length to read
//MMC_SET_BLOCKLEN =CMD16
mmcSendCmd(MMC_SET_BLOCKLEN, blocklength, 0xFF);
// get response from MMC - make sure that its 0x00 (R1 ok response format)
if(mmcGetResponse()!=0x00)
{ initMMC();
mmcSendCmd(MMC_SET_BLOCKLEN, blocklength, 0xFF);
mmcGetResponse();
}
CS_HIGH ();
// Send 8 Clock pulses of delay.
spiSendByte(0xff);
return MMC_SUCCESS;
} // Set block_length
main(){
int events=10; // number of events to generate
int n, i;
char *options[]={
"-seed=1 -user -sdec -raw -rw=0",
"-seed=1 -user -Emu=1.e7 -Enm=1.e6 -Ene=1.e6 -sdec -raw",
"-seed=1 -user -sdec -raw -prop"
};
double r, z1=0, z2=0, h1=0, h2=0, nx=0, ny=0, nz=0, e1=0, e2=0, ec=0;
initJre();
// setStderr("mmc.log");
printf("\nRunning %s\n", "tfa/Amanda (1)");
initMMC(options[0], 1);
for(n=0; n<events; n++){
printf("Event %i\n", n);
setStart(1);
name="mu-";
x=1; // [m]
y=2; // [m]
z=1000; // [m]
theta=0;
phi=0;
e=2000; // [GeV]
t=0; // [s]
propagate(name, x*1.e2, y*1.e2, z*1.e2, 180-theta, phi<180?phi+180:phi-180, e*1.e3, t);
resultsOut();
r=getDouble("r", 1);
e=getDouble("e", 1);
z1=getDouble("z1", 2);
z2=getDouble("z2", 2);
h1=getDouble("h1", 2);
h2=getDouble("h2", 2);
nx=getDouble("nx", 2);
ny=getDouble("ny", 2);
nz=getDouble("nz", 2);
e1=getDouble("e1", 2);
e2=getDouble("e2", 2);
ec=getDouble("ec", 2);
r*=1.e-2; e*=1.e-3;
printf("%g %g %g %g %g %g %g %g %g %g %g %g\n", r, e, z1, z2, h1, h2, nx, ny, nz, e1, e2, ec);
setStart(0);
printf("EVENT WEIGHT = %g at %g\n", getDouble("fw", 2), getDouble("hw", 2));
endProp();
}
deleteMMC();
printf("\nRunning %s\n", "gen/AtmFlux (2)");
initMMC(options[1], 2);
for(n=0; n<events; n++){
createNext();
resultsOut();
endProp();
}
deleteMMC();
printf("\nRunning %s\n", "gen/AtmFlux (3)");
initMMC(options[2], 3);
for(n=0; n<events; n++){
printf("Event %i\n", n);
name="nu_tau";
x=1; // [m]
y=2; // [m]
z=-5e6; // [m]
theta=180;
phi=0;
e=1.e8; // [GeV]
t=0; // [s]
propagate(name, x*1.e2, y*1.e2, z*1.e2, 180-theta, phi<180?phi+180:phi-180, e*1.e3, t);
resultsOut();
endProp();
}
deleteMMC();
stopJre();
}
//*--------------------------------------------------------------------------------------
//* Function Name : Main
//* Object : Software entry point
//* Input Parameters : none.
//* Output Parameters : none.
//*--------------------------------------------------------------------------------------
int main(void)
{
char data[MSG_SIZE];
unsigned int length;
int stepCnt = 0;
unsigned char str[10];
/**** System init ****/
//InitFrec();
Init_CP_WP();
//chek for CP and WP
//CP - card present
while(((AT91C_BASE_PIOA->PIO_PDSR) & BIT15)) { /*put your card present event here*/ }
//WP - write protect
//while(((AT91C_BASE_PIOA->PIO_PDSR) & BIT16)) { /*put your write protect event here*/ }
if (initMMC() == MMC_SUCCESS)
{
//card_state |= 1;
memset(&mmc_buffer,0,512);
mmcReadRegister (10, 16);
mmc_buffer[7]=0;
}
flashInit();
Init_PWM();
// Enable User Reset and set its minimal assertion to 960 us
AT91C_BASE_RSTC->RSTC_RMR = AT91C_RSTC_URSTEN | (0x4<<8) | (unsigned int)(0xA5<<24);
// Led init
// First, enable the clock of the PIOB
AT91F_PMC_EnablePeriphClock ( AT91C_BASE_PMC, 1 << AT91C_ID_PIOA ) ;
//* to be outputs. No need to set these pins to be driven by the PIO because it is GPIO pins only.
AT91F_PIO_CfgOutput( AT91C_BASE_PIOA, OUTPUT_MASK );
//* Clear the LED's.
/*
AT91F_PIO_SetOutput( AT91C_BASE_PIOA, OUTPUT_MASK );
AT91F_PIO_ClearOutput( AT91C_BASE_PIOA, OUTPUT_MASK );
*/
// Init USB device
AT91F_USB_Open();
AT91F_PIO_ClearOutput( AT91C_BASE_PIOA, OUTPUT_MASK );
// Init USB device
// Wait for the end of enumeration
setForce(40000);
int pCDCEnablingCounter = 0;
while (!pCDC.IsConfigured(&pCDC) && pCDCEnablingCounter < 2500000){ pCDCEnablingCounter++; };
if (pCDCEnablingCounter < 2500000)
{
CDC = 1;
}
setForce(0);
// Set Usart in interrupt
//Usart_init();
//Read and set settings
memcpy(settings, OUR_FLASH_ADDR, 128);
int i;memset(&mmc_buffer, 0x00, 512);
int j;
char *settingsBlocks[50];
char settingsDelim[] = "~";
char *settingsParts = strtok( settings, settingsDelim );
i = 0;
while( settingsParts != NULL )
{
settingsBlocks[i++] = settingsParts;
settingsParts = strtok( NULL, settingsDelim );
}
for (j = 0; j < i; j++)
{
parseSettings(settingsBlocks[j]);
}
InitADC();
Init_PWM();
AT91F_PIO_CfgInput(AT91C_BASE_PIOA, SW1_MASK);
AT91F_PIO_CfgInput(AT91C_BASE_PIOA, SW2_MASK);
AT91F_PIO_SetOutput( AT91C_BASE_PIOA, LED_GREEN);
AT91F_PIO_SetOutput( AT91C_BASE_PIOA, LED_YELLOW);
setForce(0);
//startBlinking(250000);
/**** MMC CARD ****/
init_extint();
while (1)
{
cnt++;
if (cnt > 50000)
{
cnt = 0;
printTrace("COUNTER RESET\n");
}
}
}
void event_handler( event_type_t event_type, unidata_t unidata )
{
char str[32];
unsigned char ch;
static int err;
switch(event_type)
{
case KBRD_EVT:
// ltoa((int32_t)unidata, str, 10);
// OLED_puts(0, 41, 0xff, font6x9, str);
if(kbrd_pressed)
{
kbrd_pressed = 0;
//display_node(kbrd_getch());
ch = kbrd_getch();
/*
itoa((int16_t)ch, str, 16);
OLED_clr(0, 41, 3 * 6, 9);
OLED_puts(0, 41, 0xff, font6x9, str);
*/
if(!(ch & 0x80))
{
ch = active.menu->action(ch);
active.menu->display(ch);
update_statusbar();
}
/*
switch((ch = kbrd_getch()))
{
case 1:
case 129:
display(0, 0);
break;
case 16:
case 144:
display(1, 0);
break;
case 14:
if((scroll_pos < (MSG_TABLE_SIZE - MSG_VIEW_SIZE)) && (scroll_pos < msg_count - 1))
{
scroll_pos ++;
event_emit(LOW_PRIORITY, DISPLAY_EVT, 2);
}
case 142:
break;
case 13:
if(scroll_pos)
{
scroll_pos--;
event_emit(LOW_PRIORITY, DISPLAY_EVT, 2);
}
case 141:
break;
case 11:
OLED_cls();
err = initConfig();
//sprintf(str, "initConfig res: %d", err);
//OLED_puts(0, 0, 0xff, font6x9, str);
OLED_puts(0, 0, 0xff, font6x9, (err ? "initConfig failed" : "initConfig success"));
break;
case 134:
{
struct LogEntry entry;
err = STRG_SUCCESS;
entry.timestamp = 0;
err += logAddEntry(&entry, "Msg 0");
entry.timestamp = 1000;
err += logAddEntry(&entry, "Msg 1");
entry.timestamp = 2000;
err += logAddEntry(&entry, "Msg 2");
sprintf(str, "Error code: %d", err);
OLED_puts(0, 2*9, 0xff, font6x9, str);
}
break;
default:
display(2, ch);
break; // display(0, 0);
}
*/
/*
OLED_puts(64 + 12, 41, 0xff, font6x9, "Key pressed ");
itoa(kbrd_getch(), str, 10);
OLED_puts(64 + 12 + sizeof("Key pressed ") * 6, 41, 0xff, font6x9, str);
OLED_puts(64 + 12 + sizeof("Key pressed ") * 6 + strlen(str) * 6, 41, 0xff, font6x9, " ");
*/
}
/*
else
OLED_puts(0, 41, 0xff, font6x9, "Key not pressed");
*/
break;
case INIT_EVT:
//OLED_init();
//init_kbrd();
SPI_init();
event_emit(LOW_PRIORITY, INIT_MMC_EVT, 0);
break;
case INIT_MMC_EVT:
initMMC();
err = initStorage();
event_emit(LOW_PRIORITY, INIT_OLED_EVT, 0);
break;
case INIT_OLED_EVT:
OLED_init();
OLED_puts(0, 0 , 0xff, font6x9, "System initialization...");
OLED_puts(0, 1 * 9 , 0xff, font6x9, "SPI init'ed.");
OLED_puts(0, 2 * 9 , 0xff, font6x9, "MMC init'ed.");
OLED_puts(0, 3 * 9 , 0xff, font6x9, "OLED init'ed.");
event_emit(LOW_PRIORITY, INIT_STORAGE_EVT, 0);
break;
case INIT_STORAGE_EVT:
//err = initStorage();
//OLED_puts(0, 4 * 9 , 0xff, font6x9, err ? "Storage init failed!" : "Storage init'ed.");
format_str(str, 32, "Storage err: %d", err);
OLED_puts(0, 4 * 9 , 0xff, font6x9, err ? str : "Storage init'ed.");
/*
format_str(str, 32, "ZoneCfg pos: %u", syscfg.zone_cfg_addr);
OLED_puts(0, 5 * 9 , 0xff, font6x9, str);
err = 1;
*/
event_emit(LOW_PRIORITY, INIT_USER_IO_EVT, 0);
break;
case INIT_USER_IO_EVT:
init_kbrd();
menu_init(err ? MNU_INIT | MNU_DO_NOT_SHOW : MNU_INIT);
//set_sys_time((uint64_t)20000);
stimer_set(1, 1000);
break;
}
/*
else if(event_type == INIT_SEND_MSGS_EVT)
{
msg_t msg;
struct msginfo minfo;
uint16_t addr_attr = 0x0000;
uint8_t port_attr = PORT;
//attr_write(0x02, &addr_attr);
//attr_write(0x07, &port_attr);
// This must be the code for us to say ZigZag (Node Dispatcher)
// that we are interested in listening for messages and events
msg = msg_new(0x00, 0x00, 0x01, 3, MFLAG_DEFAULT);
if(msg < 0)
OLED_puts(0, 0, 0xff, font6x9, "Error: msg_new");
if(msg_info(msg, &minfo) != ENOERR)
OLED_puts(0, 9, 0xff, font6x9, "Error: msg_info");
((unsigned char *)minfo.body_ptr)[0] = 0x02;
((unsigned char *)minfo.body_ptr)[1] = 0x00;
((unsigned char *)minfo.body_ptr)[2] = 0x00;
if(msg_send(msg) != ENOERR)
OLED_puts(0, 18, 0xff, font6x9, "Error: msg_send (1)");
msg = msg_new(0x00, 0x00, 0x01, 2, MFLAG_DEFAULT);
if(msg < 0)
OLED_puts(0, 0, 0xff, font6x9, "Error: msg_new");
if(msg_info(msg, &minfo) != ENOERR)
OLED_puts(0, 9, 0xff, font6x9, "Error: msg_info");
((unsigned char *)minfo.body_ptr)[0] = 0x07;
((unsigned char *)minfo.body_ptr)[1] = (uint8_t)PORT;
// ((unsigned char *)minfo.body_ptr)[2] = (uint8_t)(PORT >> 8);
if(msg_send(msg) != ENOERR)
OLED_puts(0, 18, 0xff, font6x9, "Error: msg_send (2)");
}
*/
/*
else
{
//sprintf(str, "Evt: %u", (uint16_t)event_type);
//OLED_puts(0, 0, 0xff, font6x9, str);
}
*/
}
