u08 ve_read_write (char cmd, u08 display)
{
int d;
EIndex = EE_VAREDITOR; // starting address
if(cmd=='W') { // Write to EEPROM
// write marker first so that erased EEPROM can be detected
// this will make an assumption that EE_VAREDITOR has not been changed as would
// be possible if flashing new program code, but leaving EERPOM untouched
// checksum might be nicer here, but this is simple
d = 0xFACE;
while(!eeprom_is_ready());
eeprom_write_block(&d,(void *) EIndex,2); // write marker
EIndex += 2;
}
// if Reading, look for marker
if (cmd=='R') {
while (!eeprom_is_ready());
eeprom_read_block(&d,(void*) EIndex,2);
if (d != 0xFACE) return (0); // EEPROM does not contain saved var editor data
EIndex+=2;
}
if(vePort==-1) {
if(display) {
lcd_clear();
if (cmd=='R') lcd_textPS(0,0,"Reading EEPROM");
else lcd_textPS(0,0,"Writing EEPROM");
}
}
else
{ if (cmd=='R') printf(PS("\nReading EEPROM..."));
else printf(PS("\nWriting EEPROM..."));
}
if (cmd=='R') veFlags = _BV(veREAD);
else veFlags = _BV(veWRITE);
ve_process(); // iterate through all vars
veFlags = 0;
if (vePort==-1)
{ if(display) delay_ms(1000); }
else
printf (PS("Finished\n\n"));
return (1); // success
}
long ve_bit1(char *s, long v, u08 BitNum, u08 OnOffLabel)
{
if(ve_flag(veREAD)) { // Reading From EEPROM
if(ve_flag(veEEPROM_NO_RW)) return(v); // this var is disabled from EEPROM RW
while (!eeprom_is_ready());
if(eeprom_read_byte((void*) EIndex++)) v |= (1<<BitNum);
}
else if(ve_flag(veWRITE)) { // Writing To EEPROM
if(ve_flag(veEEPROM_NO_RW)) return(v); // this var is disabled from EEPROM RW
while (!eeprom_is_ready());
if(bit_is_set(v,BitNum)) eeprom_write_byte((void*) EIndex++,1);
else eeprom_write_byte((void*) EIndex++,0);
}
else if((veGroupI == veCurGroup) && (++veVarI == veCurVar)) { // if current variable
if(ve_flag(veCOUNT_VARS)) return(v); // iterating just to get counts
veCurVal = MAXLONG; // flag to not draw slider
if(veDelta < 0) v &= ~_BV(BitNum); // - turn off
if(veDelta > 0) v |= _BV(BitNum); // + turn on
veDelta = 0;
#ifdef RES_128x64
lcd_setxy(0,CHAR_HEIGHT*3);
printf("%s ", s);
#else
lcd_setxy(0,CHAR_HEIGHT*4);
printf("%s ", s);
#endif
if(bit_is_set(v,BitNum)) {
if(OnOffLabel) printf("ON");
else printf("1");
}
else {
if(OnOffLabel) printf("OFF");
else printf("0");
}
if (vePort != -1) printf (PS("\n"));
}
return(v);
// options for load/save
}
/*
* int ifs_init(void): Initialize IFS files
*/
int ifs_init(void)
{
uint8_t *src, *dest;
#if FLASHEND >0xffff
uint32_t flash_src;
#define flash_read_byte(addr) pgm_read_byte_far(addr)
#else
uint16_t flash_src;
#define flash_read_byte(addr) pgm_read_byte_near(addr)
#endif /* FLASHEND */
// initialize .ifs_int_0
for(dest = __ifs_int_0_start; dest < __ifs_int_0_end; dest++) {
*dest = 0x00;
}
// poll until eeprom is ready
while(!eeprom_is_ready()) ;
src =__ifs_int_eep_loadstart;
for(dest = __ifs_int_eep_start; dest < __ifs_int_eep_end; dest++) {
*dest = eeprom_read_byte(src++);
}
#if FLASHEND >0xffff
flash_src = ptr_to_ui32(__ifs_int_flash_loadstart);
#else
flash_src = __ifs_int_flash_loadstart;
#endif /* FLASHEND */
for(dest = __ifs_int_flash_start; dest < __ifs_int_flash_end; dest++) {
*dest = flash_read_byte(flash_src++);
}
#if defined (USE_EXT_RAM)
// initialize .ifs_ext_0
for(dest = __ifs_ext_0_start; dest < __ifs_ext_0_end; dest++) {
*dest = 0x00;
}
// poll until eeprom is ready
while(!eeprom_is_ready()) ;
src =__ifs_ext_eep_loadstart;
for(dest = __ifs_ext_eep_start; dest < __ifs_ext_eep_end; dest++) {
*dest = eeprom_read_byte(src++);
}
#if FLASHEND >0xffff
flash_src = ptr_to_ui32(__ifs_ext_flash_loadstart);
#else
flash_src = __ifs_ext_flash_loadstart;
#endif /* FLASHEND */
for(dest = __ifs_ext_flash_start; dest < __ifs_ext_flash_end; dest++) {
*dest = flash_read_byte(flash_src++);
}
#endif /* USE_EXT_RAM */
return 0;
}
void MyEeprom::write_ulong(uint32_t l, uint16_t relative_address) {
cli();
while (!eeprom_is_ready());
uint16_t pCurrentOffset = currentOffset;
if (firstAddress + (currentOffset + 2) * (dataLength + servisInfo) > maxAddress) {
currentOffset = 0;
} else { currentOffset++; }
uint8_t tb = 0;
int32_t currentNAddress = firstAddress + currentOffset * (dataLength + servisInfo) + servisInfo;
int32_t currentOAddress = firstAddress + pCurrentOffset * (dataLength + servisInfo) + servisInfo;
for (uint16_t i = 0; i < dataLength; i++) {
if (i == relative_address) {
eeprom_write_byte((uint8_t*)(currentNAddress + i + 0), *((uint8_t*)&l + 0));
eeprom_write_byte((uint8_t*)(currentNAddress + i + 1), *((uint8_t*)&l + 1));
eeprom_write_byte((uint8_t*)(currentNAddress + i + 2), *((uint8_t*)&l + 2));
eeprom_write_byte((uint8_t*)(currentNAddress + i + 3), *((uint8_t*)&l + 3));
i+=3;
} else {
tb = eeprom_read_byte((uint8_t*)(currentOAddress + i));
eeprom_write_byte((uint8_t*)(currentNAddress + i), tb);
}
}
eeprom_write_byte((uint8_t*)(firstAddress + currentOffset * (dataLength + servisInfo)), P_VALID);
eeprom_write_byte((uint8_t*)(firstAddress + pCurrentOffset * (dataLength + servisInfo)), P_INVALID);
sei();
}
uint8_t MyEeprom::readByte(uint16_t relative_address) {
while (!eeprom_is_ready());
if (rotateEeprom == true) {
return(eeprom_read_byte((uint8_t*)(firstAddress + currentOffset * (dataLength + servisInfo) + servisInfo + relative_address)));
} else {
return(eeprom_read_byte((uint8_t*)(firstAddress + servisInfo + relative_address)));
}
}
/**
@brief Replace HTML's variables to system configuration value
*/
static uint16_t replace_sys_env_value(
uint8_t* base, /**< pointer to html buffer */
uint16_t len
)
{
uint8_t sys_string[16]; // if there are more characters to substituted in response file, then make this bigger
uint8_t *tptr, *ptr;
time_t time_stamp;
tm local_time;
tptr = ptr = base;
while((ptr = (uint8_t*)strchr((char*)tptr, '$')))
{
if((tptr = (uint8_t*)strstr((char*)ptr, EVB_PAGES_SERVED)))
{
memset(tptr,0x20,14); // erase system variable trigger string
if( eeprom_is_ready() )
sprintf_P((char *)sys_string, PSTR("%08u"), eeprom_read_dword(&pagesServed) ); // number of pages served by the http server.
memcpy(tptr,sys_string,8); // copy the characters, but don't copy the /0
tptr+=8;
}
#if defined (portRTC_DEFINED)
else if((tptr = (uint8_t*)strstr((char*)ptr, EVB_RTC)))
{
memset(tptr,0x20,11); // erase system variable trigger string
if ( getDateTimeDS1307( (tm*)&local_time ) == pdTRUE)
sprintf_P((char *)sys_string, PSTR("%02u:%02u:%02u"), local_time.tm_hour, local_time.tm_min, local_time.tm_sec);
memcpy(tptr,sys_string,8); // copy the characters, but don't copy the /0
tptr+=8;
}
#else
else if((tptr = (uint8_t*)strstr((char*)ptr, EVB_RTC)))
{
memset(tptr,0x20,11); // erase system variable trigger string
time(&time_stamp);
localtime_r( &time_stamp, &local_time);
sprintf_P((char *)sys_string, PSTR("%02d:%02d:%02d"), local_time.tm_hour, local_time.tm_min, local_time.tm_sec);
memcpy(tptr,sys_string,8); // copy the characters, but don't copy the /0
tptr+=8;
}
#endif
else // tptr == 0 && ptr!=0;
{
if(ptr==base)
{
// xSerialPrint_P(PSTR("$ Character"));
return len;
}
// xSerialPrint_P(PSTR("REPLACE CONTINUE"));
tptr = ptr;
break;
}
}
if(!ptr) return len;
return (uint16_t)(tptr-base);
}
void MyEeprom::simple_write_byte(uint8_t b, uint16_t relative_address) {
cli();
while (!eeprom_is_ready());
if (eeprom_read_byte((uint8_t*)firstAddress) == P_INVALID) {
eeprom_write_byte((uint8_t*)firstAddress, P_VALID);
}
eeprom_write_byte((uint8_t*)firstAddress + servisInfo + relative_address, b);
sei();
}
extern void read_signals(void) {
uchar_t buffer[20];
uchar_t size, pos = 0, pos1;
uchar_t signal_type;
uchar_t controller_size;
uchar_t i;
// mark unused configurations
for ( i=0; i<8; i++ )
configuration[0][i].si = 0;
while ( !eeprom_is_ready() );
eeprom_read_block(buffer, conf_buffer, 20);
// is eeprom flashed?
if ( buffer[pos++] != EEPROM_MAGIC )
return;
size = buffer[pos ++];
while ( pos < size ) {
current_controller = buffer[pos++];
controller_size = buffer[pos++];
pos1 = pos+controller_size;
while ( pos < pos1 ) {
current_signal = buffer[pos++];
signal_type = buffer[pos++];
CONF.si = signal_type;
switch ( signal_type ) {
case 1: // ST_CONTROL_DIGITAL
case 2: // ST_CONTROL_ANALOG
pos = configure_as_control(buffer, pos, signal_type);
break;
case 3: // ST_STATUS
pos = configure_as_status(buffer, pos);
break;
default:
// panic!!!
break;
}
}
}
}
void MyEeprom::simple_write_ulong(uint32_t l, uint16_t relative_address) {
cli();
while (!eeprom_is_ready());
if (eeprom_read_byte((uint8_t*)firstAddress) == P_INVALID) {
eeprom_write_byte((uint8_t*)firstAddress, P_VALID);
}
eeprom_write_byte((uint8_t*)firstAddress + servisInfo + relative_address + 0, *((uint8_t*)&l + 0));
eeprom_write_byte((uint8_t*)firstAddress + servisInfo + relative_address + 1, *((uint8_t*)&l + 1));
eeprom_write_byte((uint8_t*)firstAddress + servisInfo + relative_address + 2, *((uint8_t*)&l + 2));
eeprom_write_byte((uint8_t*)firstAddress + servisInfo + relative_address + 3, *((uint8_t*)&l + 3));
sei();
}
bool EasyVRBridge::checkEEPROM()
{
uint8_t b0 = eeprom_read_byte(BRIDGE_ID0);
uint8_t b1 = eeprom_read_byte(BRIDGE_ID1);
if (b0 != 'B')
{
while (!eeprom_is_ready());
eeprom_write_byte(BRIDGE_ID0, 'B');
}
else if (b1 == 'b')
{
while (!eeprom_is_ready());
eeprom_write_byte(BRIDGE_ID1, 'B');
return true;
}
if (b1 != 'B')
{
while (!eeprom_is_ready());
eeprom_write_byte(BRIDGE_ID1, 'B');
}
return false;
}
uint32_t MyEeprom::readULong (uint16_t relative_address) {
uint32_t l = 0;
uint32_t cAddress = 0;
if (rotateEeprom == true) {
cAddress = firstAddress + currentOffset * (dataLength + servisInfo) + servisInfo + relative_address;
} else {
cAddress = firstAddress + servisInfo + relative_address;
}
while (!eeprom_is_ready());
*((uint8_t*)&l + 0) = eeprom_read_byte((uint8_t*)(cAddress + 0));
*((uint8_t*)&l + 1) = eeprom_read_byte((uint8_t*)(cAddress + 1));
*((uint8_t*)&l + 2) = eeprom_read_byte((uint8_t*)(cAddress + 2));
*((uint8_t*)&l + 3) = eeprom_read_byte((uint8_t*)(cAddress + 3));
return l;
}
void MyEeprom::write_byte(uint8_t b, uint16_t relative_address) {
cli();
while (!eeprom_is_ready());
uint16_t pCurrentOffset = currentOffset;
if (firstAddress + (currentOffset + 1) * (dataLength + servisInfo) > maxAddress) {
currentOffset = 0;
} else { currentOffset++; }
uint8_t tb = 0;
for (uint16_t i = 0; i < dataLength; i++) {
if (i == relative_address) {
eeprom_write_byte((uint8_t*)(firstAddress + currentOffset * (dataLength + servisInfo) + servisInfo + i), b);
} else {
tb = eeprom_read_byte((uint8_t*)(firstAddress + pCurrentOffset * (dataLength + servisInfo) + servisInfo + i));
eeprom_write_byte((uint8_t*)(firstAddress + currentOffset * (dataLength + servisInfo) + servisInfo + i), tb);
}
}
eeprom_write_byte((uint8_t*)(firstAddress + currentOffset * (dataLength + servisInfo)), P_VALID);
eeprom_write_byte((uint8_t*)(firstAddress + pCurrentOffset * (dataLength + servisInfo)), P_INVALID);
sei();
}
uint8_t EepromReadConfig(void * baseadr, void * buf, uint8_t len)
{
struct netCheckSum_t checksum;
// wait for eeprom
while (eeprom_is_ready() == 0);
// read config and checksum
eeprom_read_block(buf,baseadr,len);
eeprom_read_block(&checksum,baseadr+len,sizeof(checksum));
// before calculating the checksum, we check if they are interlocked
if (checksum.positive != ~checksum.negative)
return 0; // read config failed (bad checksum)
// as they are interlocked, it's time to proove the checksum
if (calculateCheckSum(buf,len) != checksum.positive)
return 0; // read config failed (bad checksum)
return 1; // data is valid
}
void initUSB()
{
uint8_t uCalVal;
do {} while (!eeprom_is_ready());
uCalVal = eeprom_read_byte(OSCCAL_EEPROM_ADDR); // calibration value from last time
/* Check that returned calibration value is valid before setting OSCCAL. */
if (uCalVal != 0xff) OSCCAL = uCalVal;
/* Note about eeprom_read: As these functions modify IO registers, they are
* known to be non-reentrant. If any of these functions are used from both,
* standard and interrupt context, the applications must ensure proper
* protection (e.g. by disabling interrupts before accessing them).
* Note: It's unclear whether hadUsbReset is in an interrupt context. */
// read module type from last time
uint8_t stored_module_type = eeprom_read_byte(MODULE_TYPE_EEPROM_ADDR);
/* Check that returned calibration value is valid before setting module_type. */
if (stored_module_type != 0xff && stored_module_type != 0) {
module_type = stored_module_type;
}
/* Enable watchdog timer */
wdt_enable(WDTO_2S);
usbInit();
usbDeviceDisconnect(); // enforce re-enumeration, do this while interrupts are disabled!
// fake USB disconnect for > 250 ms
// If delay is longer than watchdog timeout, split this into smaller delays
// with wdt_reset called in between.
wdt_reset();
_delay_ms(USB_DISCONNECT_DELAY_MS);
wdt_reset();
usbDeviceConnect();
}
MyEeprom::MyEeprom (uint32_t first_address, uint32_t max_address, uint16_t data_length, bool reload_pages) {
/*if (first_address + data_length + 1 > max_address) {
return null;
}*/
firstAddress = first_address;
maxAddress = max_address;
dataLength = data_length;
rotateEeprom = true;
if (reload_pages == false) { currentOffset = 0; }
else {
bool found = false;
currentOffset = 0;
while (!eeprom_is_ready());
while ((first_address + currentOffset * (data_length + servisInfo) < max_address) && (!found)) {
if (eeprom_read_byte((uint8_t*)(first_address + currentOffset * (data_length + servisInfo))) == P_VALID) {
found = true;
} else {
currentOffset++;
}
}
if (!found) { currentOffset = 0; }
}
}
int16_t cmd_decode (uint8_t *buffer_ptr)
{
uint8_t cmd_no =0;
uint8_t *cmd_argument;
uint8_t i,j ;
// Should repeat until end of buffer
// Loop until end of text
cmd_argument = buffer_ptr;
while ( cmd_no != CMD_LINE_END) // Until end of line which mean g_motor will change
{
cmd_no = text_decode (buffer_ptr,cmd_argument);
#ifdef DEBUG
uart_puts("Command :");
uart_putc(0x30+cmd_no);
uart_putc('*');
uart_puts(cmd_argument);
#endif
switch (cmd_no)
{
case MOTOR_CMD:
g_motor = (uint8_t)atoi(cmd_argument);
if (g_motor > 0)
g_motor--; // > 0 Start from 0 need -1
else
g_motor = 0;
break;
case SPEED_CMD:
i = (uint8_t)atoi(cmd_argument);
if ( i >= MOTOR_MAX_SPEED)
i = MOTOR_MAX_SPEED; // Start from 0
if (i) // i > 0;
i--; //Start from 0;
g_speed[g_motor] = g_speed_table[i];
if (g_speed[g_motor] == 0)
g_mode[g_motor] = MOTOR_STOP;
break;
case ANGLE_CMD: // Can be -
g_angle[g_motor] = atoi(cmd_argument);
if (g_angle[g_motor] < 0)
{
g_mode[g_motor] = MOTOR_BACKWARD;
// Set g_angle to positive value by invert all bit and +1
g_angle[g_motor] = (~(g_angle[g_motor])+1);
if (g_angle[g_motor] > 1)
{
g_angle[g_motor] *= MOTOR_ANGLE_COEF;
g_status[g_motor] = 1;
g_speed[g_motor] = g_speed_table[MOTOR_ANGLE_SPEED] ;
}
}
else if (g_angle[g_motor] == 0)
{
g_mode[g_motor] = MOTOR_STOP;
}
else
{
if ((g_angle[g_motor] > 0)) // +
{
g_mode[g_motor] = MOTOR_FORWARD;
}
if (g_angle[g_motor] > 1)
{
g_angle[g_motor] *= MOTOR_ANGLE_COEF;
g_status[g_motor] = 1;
g_speed[g_motor] = g_speed_table[MOTOR_ANGLE_SPEED] ;
}
}
g_pos[g_motor] = 0;
break;
case PROGRAM_CMD:
g_program_flag = (uint8_t)atoi(cmd_argument);
if (g_program_flag) // Start program save in buffer
{
uart_puts ("Program Start to save : ");
g_program_index = 0;
}
else
{
uart_puts ("Program End : ");
}
break;
case SAVE_CMD:
j = (uint8_t)atoi(cmd_argument);
if ( j > 0) // Save commmand to eeprom
{
g_program_buff[g_program_index] = 0x00 ; // Put null at the end
g_program_index++;
for ( i =0; i < g_program_index; i++)
{
while (!eeprom_is_ready());
eeprom_write_byte(&g_program_eeprom[i],g_program_buff[i]);
}
debug_value( g_program_index,10);
uart_puts ("Save complete ");
g_program_index = 0;
}
break;
case RUN_CMD:
program_run();
break;
default:
uart_putc(0x0D);
uart_putc(0x0A);
break;
}
}
return 0;
}
bool EEPROMClassEx::isReady() {
return eeprom_is_ready();
}
void StorageManager::writeByte(uint8_t * address, uint8_t data)
{
while ( !eeprom_is_ready() ) {}
eeprom_write_byte(address, data);
}
uint8_t StorageManager::readByte(uint8_t * address)
{
while ( !eeprom_is_ready() ) {}
return eeprom_read_byte(address);
}
bool
EEPROM::Device::is_ready()
{
return (eeprom_is_ready());
}
/**********************************************************
* UserService
*
* Arguments:
* Returns:
*
*
**********************************************************/
void UserService(uint8_t user_button)
{
/****Static Variables****/
static uint8_t top_state = BLANK;
static uint8_t previous_user_button;
static uint16_t temp_address;
static uint8_t blink_temp;
/****Variables****/
uint16_t scratch_address;
if (!user_button)
{
//countdown to blank
}
if (previous_user_button == user_button)
{
previous_user_button = user_button;
user_button = 0;
}
else
{
previous_user_button = user_button;
}
switch (top_state)
{
case BLANK: //LCD is OFF
digit1 = LCD_BLANK;
digit2 = LCD_BLANK;
digit3 = LCD_BLANK;
digit4 = LCD_BLANK;
if (user_button)
{
top_state = ADDRESS;
}
break;
case ADDRESS: //Fixture DMX Address
digit1 = LCD_A;
digit2 = LCD_d;
digit3 = LCD_d;
digit4 = LCD_r;
switch (user_button)
{
case MENU:
top_state = BLANK;
break;
case ENTER:
temp_address = triphase_address;
top_state = ADDRESS_EDIT;
break;
case UP:
top_state = FIRMWARE;
break;
case DOWN:
top_state = MOTOR;
break;
default:
break;
}
break;
case ADDRESS_EDIT:
digit4 = AddressDigitLookup(temp_address % 10);
scratch_address = temp_address / 10;
digit3 = AddressDigitLookup(scratch_address % 10);
scratch_address = scratch_address / 10;
digit2 = AddressDigitLookup(scratch_address % 10);
digit1 = LCD_BLANK;
switch (user_button)
{
case MENU:
top_state = ADDRESS;
break;
case ENTER:
triphase_address = temp_address;
if (eeprom_is_ready())
{
eeprom_write_word(EEPROM_DMX_ADDRESS, triphase_address);
}
top_state = BLANK_ADDRESS;
break;
case UP:
if (MAX_ADDRESS > temp_address)
{
temp_address++;
}
else
{
temp_address = MIN_ADDRESS;
}
break;
case DOWN:
if (MIN_ADDRESS < temp_address)
{
temp_address--;
}
else
{
temp_address = MAX_ADDRESS;
}
break;
default:
break;
}
break;
case BLANK_ADDRESS:
blink_temp++;
if (blink_temp == 5)
{
blink_temp = 0;
top_state = ADDRESS_EDIT;
}
break;
//case BLINK:
//break;
case MOTOR:
digit1 = LCD_M;
digit2 = LCD_P;
digit3 = LCD_BLANK;
digit4 = LCD_BLANK;
switch (user_button)
{
case MENU:
top_state = BLANK;
break;
case ENTER:
//top_state = MOTOR_EDIT;
break;
case UP:
top_state = ADDRESS;
break;
case DOWN:
top_state = AUTO;
break;
default:
break;
}
break;
case AUTO:
digit1 = LCD_P;
digit2 = LCD_E;
digit3 = LCD_r;
digit4 = LCD_F;
switch (user_button)
{
case MENU:
top_state = BLANK;
break;
case ENTER:
//top_state = AUTO_EDIT;
break;
case UP:
top_state = MOTOR;
break;
case DOWN:
top_state = BLIND;
break;
default:
break;
}
break;
case BLIND:
digit1 = LCD_6;
digit2 = LCD_L;
digit3 = LCD_n;
digit4 = LCD_d;
switch (user_button)
{
case MENU:
top_state = BLANK;
break;
case ENTER:
//top_state = BLIND_EDIT;
break;
case UP:
top_state = AUTO;
break;
case DOWN:
top_state = DISPLAY;
break;
default:
break;
}
break;
case DISPLAY:
digit1 = LCD_d;
digit2 = LCD_1;
digit3 = LCD_5;
digit4 = LCD_P;
switch (user_button)
{
case MENU:
top_state = BLANK;
break;
case ENTER:
//top_state = DISPLAY_EDIT;
break;
case UP:
top_state = BLIND;
break;
case DOWN:
top_state = HOURS;
break;
default:
break;
}
break;
case HOURS:
digit1 = LCD_F;
digit2 = LCD_H;
digit3 = LCD_r;
digit4 = LCD_5;
switch (user_button)
{
case MENU:
top_state = BLANK;
break;
case ENTER:
//top_state = HOURS_SHOW;
break;
case UP:
top_state = DISPLAY;
break;
case DOWN:
top_state = FIRMWARE;
break;
default:
break;
}
break;
case FIRMWARE:
digit1 = LCD_U;
digit2 = LCD_E;
digit3 = LCD_r;
digit4 = LCD_BLANK;
switch (user_button)
{
case MENU:
top_state = BLANK;
break;
case ENTER:
//top_state = FIRMWARE_SHOW;
break;
case UP:
top_state = HOURS;
break;
case DOWN:
top_state = ADDRESS;
break;
default:
break;
}
break;
default:
top_state = BLANK;
break;
}
}
/**
* Check if EEPROM memory is ready to be accessed
*/
bool Eeprom::isReady()
{
return eeprom_is_ready();
}
/*---------------------------------------------------------------------------*/
void
eeprom_read(eeprom_addr_t addr, unsigned char *buf, int size)
{
while(!eeprom_is_ready());
eeprom_read_block(buf, (unsigned short *)addr, size);
}
int main ()
{
void *p;
/* Fill all EEPROM. */
for (p = 0; p <= (void *)E2END; p++)
eeprom_write_byte (p, (int)(p + 1));
/* Update a byte. */
{
unsigned char *p = (unsigned char *)1;
eeprom_update_byte (p, 2); /* the same value */
if (!eeprom_is_ready ()) exit (__LINE__);
if (eeprom_read_byte (p) != 2) exit (__LINE__);
eeprom_update_byte (p, 0x12); /* different value */
if (eeprom_is_ready ()) exit (__LINE__);
if (eeprom_read_byte (p) != 0x12) exit (__LINE__);
}
/* Update a word. */
{
unsigned int *p = (unsigned int *)2;
eeprom_update_word (p, 0x0403); /* the same value */
if (!eeprom_is_ready ()) exit (__LINE__);
if (eeprom_read_word (p) != 0x0403) exit (__LINE__);
eeprom_update_word (p, 0x0413);
if (eeprom_is_ready ()) exit (__LINE__);
if (eeprom_read_word (p) != 0x0413) exit (__LINE__);
eeprom_update_word (p, 0x1413);
if (!eeprom_is_ready ()) exit (__LINE__);
if (eeprom_read_word (p) != 0x1413) exit (__LINE__);
}
/* Update a double word. */
{
unsigned long *p = (unsigned long *)4;
eeprom_update_dword (p, 0x08070605); /* the same value */
if (!eeprom_is_ready ()) exit (__LINE__);
if (eeprom_read_dword (p) != 0x08070605) exit (__LINE__);
eeprom_update_dword (p, 0x08070615);
if (eeprom_is_ready ()) exit (__LINE__);
if (eeprom_read_dword (p) != 0x08070615) exit (__LINE__);
eeprom_update_dword (p, 0x08071615);
if (!eeprom_is_ready ()) exit (__LINE__);
if (eeprom_read_dword (p) != 0x08071615) exit (__LINE__);
eeprom_update_dword (p, 0x08171615);
if (!eeprom_is_ready ()) exit (__LINE__);
if (eeprom_read_dword (p) != 0x08171615) exit (__LINE__);
eeprom_update_dword (p, 0x18171615);
if (!eeprom_is_ready ()) exit (__LINE__);
if (eeprom_read_dword (p) != 0x18171615) exit (__LINE__);
}
/* Update a block. */
{
unsigned char *p = (unsigned char *)8;
unsigned char s[5];
memcpy_P (s, PSTR ("\x09\x0A\x0B\x0C\x0D"), 5);
eeprom_update_block (s, p, 5);
if (!eeprom_is_ready ()) exit (__LINE__);
memset (s, 0, sizeof (s));
eeprom_read_block (s, p, 5);
if (memcmp_P (s, PSTR ("\x09\x0A\x0B\x0C\x0D"), 5)) exit (__LINE__);
memcpy_P (s, PSTR ("\x19\x0A\x0B\x0C\x0D"), 5);
eeprom_update_block (s, p, 5);
if (eeprom_is_ready ()) exit (__LINE__);
memset (s, 0, sizeof (s));
eeprom_read_block (s, p, 5);
if (memcmp_P (s, PSTR ("\x19\x0A\x0B\x0C\x0D"), 5)) exit (__LINE__);
memcpy_P (s, PSTR ("\x19\x0A\x0B\x0C\x1D"), 5);
eeprom_update_block (s, p, 5);
if (!eeprom_is_ready ()) exit (__LINE__);
memset (s, 0, sizeof (s));
eeprom_read_block (s, p, 5);
if (memcmp_P (s, PSTR ("\x19\x0A\x0B\x0C\x1D"), 5)) exit (__LINE__);
memcpy_P (s, PSTR ("\x1A\x1B\x1C"), 3);
eeprom_update_block (s, p + 1, 1);
eeprom_update_block (s + 1, p + 2, 2);
}
/* Check all EEPROM. */
for (p = 0; p <= (void *)E2END; p++) {
unsigned char c;
c = (int)p + ((p && (p < (void *)13)) ? 0x11 : 1);
if (eeprom_read_byte (p) != c)
exit (__LINE__);
}
return 0;
}
void chb_eeprom_read(U16 addr, U8 *buf, U16 size)
{
while(!eeprom_is_ready());
eeprom_read_block(buf, (U16 *)addr, size);
}
long ve_int1(char *s, long v, u08 vsize, long min, long max)
{
char ns[COLS/CHAR_WIDTH+1];
long p;
p = 0;
if(ve_flag(veREAD)) { // Read From EEPROM
if(ve_flag(veEEPROM_NO_RW)) return(v); // this var is disabled from EEPROM RW
while (!eeprom_is_ready());
eeprom_read_block(&p,(void*) EIndex,vsize);
EIndex += vsize;
// veVarCount++;
// sign extension issues??
// maybe code datatype in list
// 8 16 32 signed unsigned
switch(vsize) {
case 1: v = (u08) p; break;
case 2: v = (int) p; break;
case 4: v = (long) p; break;
}
return(v);
}
if(ve_flag(veWRITE)) { // Write to EEPROM
if(ve_flag(veEEPROM_NO_RW)) return(v); // this var is disabled from EEPROM RW
while(!eeprom_is_ready());
eeprom_write_block(&v,(void *) EIndex, vsize); // a
EIndex += vsize;
// veVarCount++;
return (v);
}
if((veGroupI == veCurGroup) && (++veVarI == veCurVar)) { // if current variable
if(ve_flag(veCOUNT_VARS)) return(v);
if (veStoreSerialBuffer)
{
veStoreSerialBuffer = 0;
// 0x could do hex scan ?
veBuf[veBufIndex] = 0; // add null terminator
sscanf(veBuf, "%ld", &v);
}
if(ve_flag(veUPDATE_FROM_SLIDER)) {
v = veCurVal;
ve_clrflag(veUPDATE_FROM_SLIDER);
}
if (vePort == -1) {
if(ve_flag(veCALL_INPUT_DIALOG)) {
#ifdef RES_128x64
sprintf(ns, "%-13s", s);
v = menu_calc(ns, NO_MATH|FIX_MODE|NO_DP_CHANGE) / calc_scale; // invoke calculator for number input/edit with no math
#else
sprintf(ns, "%-16s", s);
v = menu_calc(ns, NO_MATH|FIX_MODE|NO_DP_CHANGE) / calc_scale; // invoke calculator for number input/edit with no math
#endif
// sprintf(ns, "%ld", v);
// v = menu_calc(ns, EVAL_TITLE|FIX_MODE|NO_DP_CHANGE) / calc_scale; // invoke calculator for number input/edit with no math
ve_clrflag(veCALL_INPUT_DIALOG);
veDelta = 0;
}
}
v += veDelta; // add delta to variable
veDelta = 0; // reset delta
if(v < min) v = min;
if(v > max) v = max;
if (vePort == -1) {
// Note: on printf statements below -- do not use PS on format strings
// to save RAM. Buffer allocated by PS macro is being used by parameter s
// s will be overwritten and you will see the format string appear in output
#ifdef RES_128x64
lcd_setxy(0,CHAR_HEIGHT*3);
printf("%s %ld", s, v); // show var label and value
#else
lcd_setxy(0,CHAR_HEIGHT*4);
printf("%s %ld", s, v); // show var label and value
#endif
}
veCurMin = min;
veCurMax = max;
veCurVal = v;
//if (vePort != -1) printf ("%s : %s %ld \n",veCurGroupStr,s,v);
if (vePort != -1) printf ("%s %ld \n",s,v);
}
if(v < min) v = min; // clip to min max range regardless of match
if(v > max) v = max; // this applied to every var needed ???
return(v);
// options for load/save
}