//--------------------------------------------------------------------
void
ccreg(char *in)
{
uint8_t hb, out;
if(fromhex(in+1, &hb, 1)) {
if(hb == 0x99) {
for(uint8_t i = 0; i < 0x30; i++) {
DH2(cc1100_readReg(i));
if((i&7) == 7)
DNL();
}
} else {
out = cc1100_readReg(hb);
DC('C'); // prefix
DH2(hb); // register number
DS_P( PSTR(" = ") );
DH2(out); // result, hex
DS_P( PSTR(" / ") );
DU(out,2); // result, decimal
DNL();
}
}
}
void
fht_display_buf(uint8_t ptr[])
{
#ifdef FHTDEBUG
#warning FHT USB DEBUGGING IS ACTIVE
uint8_t odc = display_channel;
display_channel = DISPLAY_USB;
uint16_t *p = (uint16_t *)&ticks;
DU(*p, 5);
DC(' ');
DH2(fht80b_state);
DC(' ');
#else
if(!(tx_report & REP_FHTPROTO))
return;
#endif
DC('T');
for(uint8_t i = 0; i < 5; i++)
DH2(ptr[i]);
if(tx_report & REP_RSSI)
DH2(250);
DNL();
#ifdef FHTDEBUG
display_channel = odc;
#endif
}
void
moritz_sendAck(uint8_t* enc)
{
uint8_t ackPacket[12];
ackPacket[0] = 11; /* len*/
ackPacket[1] = enc[1]; /* msgcnt */
ackPacket[2] = 0; /* flag */
ackPacket[3] = 2; /* type = Ack */
for(int i=0;i<3;++i) /* src = enc_dst*/
ackPacket[4+i] = enc[7+i];
for(int i=0;i<3;++i) /* dst = enc_src */
ackPacket[7+i] = enc[4+i];
ackPacket[10] = 0; /* groupid */
ackPacket[11] = 0; /* payload */
my_delay_ms(20); /* by experiments */
moritz_sendraw(ackPacket, 0);
//Inform FHEM that we send an autoack
DC('Z');
for (uint8_t i=0; i < ackPacket[0]+1; i++)
DH2( ackPacket[i] );
if (tx_report & REP_RSSI)
DH2( 0 ); //fake some rssi
DNL();
}
//--------------------------------------------------------------------
void
ccreg(char *in)
{
uint8_t hb, out, addr;
if(in[1] == 'w' && fromhex(in+2, &addr, 1) && fromhex(in+4, &hb, 1)) {
cc1100_writeReg(addr, hb);
ccStrobe( CC1100_SCAL );
ccRX();
DH2(addr); DH2(hb); DNL();
} else if(fromhex(in+1, &hb, 1)) {
if(hb == 0x99) {
for(uint8_t i = 0; i < 0x30; i++) {
DH2(cc1100_readReg(i));
if((i&7) == 7)
DNL();
}
} else {
out = cc1100_readReg(hb);
DC('C'); // prefix
DH2(hb); // register number
DS_P( PSTR(" = ") );
DH2(out); // result, hex
DS_P( PSTR(" / ") );
DU(out,2); // result, decimal
DNL();
}
}
}
void dmx_func(char *in) {
uint8_t hb[4], d = 0;
if(in[1] == 'r') { // print latest record
memset( hb, 0, sizeof(hb) );
d = fromhex(in+2, hb, 1);
if(d) {
DH2( dmx_get_level( hb[0] ));
DNL();
}
} else if(in[1] == 'w') {
memset( hb, 0, sizeof(hb) );
d = fromhex(in+2, hb, 2);
if(d == 2) {
dmx_set_level( hb[0], hb[1] );
}
if(d > 0) {
DH2( dmx_get_level( hb[0] ));
DNL();
}
} else if(in[1] == 'c') {
DU( channel_count, 3 );
DNL();
}
}
void
rf_moritz_task(void)
{
uint8_t enc[MAX_MORITZ_MSG];
uint8_t rssi;
if(!moritz_on)
return;
// see if a CRC OK pkt has been arrived
if(bit_is_set( CC1100_IN_PORT, CC1100_IN_PIN )) {
//errata #1 does not affect us, because we wait until packet is completely received
enc[0] = CC1100_READREG( CC1100_RXFIFO ) & 0x7f; // read len
if (enc[0]>=MAX_MORITZ_MSG)
enc[0] = MAX_MORITZ_MSG-1;
CC1100_ASSERT;
cc1100_sendbyte( CC1100_READ_BURST | CC1100_RXFIFO );
for (uint8_t i=0; i<enc[0]; i++) {
enc[i+1] = cc1100_sendbyte( 0 );
}
// RSSI is appended to RXFIFO
rssi = cc1100_sendbyte( 0 );
// And Link quality indicator, too
/* LQI = */ cc1100_sendbyte( 0 );
CC1100_DEASSERT;
moritz_handleAutoAck(enc);
if (tx_report & REP_BINTIME) {
DC('z');
for (uint8_t i=0; i<=enc[0]; i++)
DC( enc[i] );
} else {
DC('Z');
for (uint8_t i=0; i<=enc[0]; i++)
DH2( enc[i] );
if (tx_report & REP_RSSI)
DH2(rssi);
DNL();
}
return;
}
if(CC1100_READREG( CC1100_MARCSTATE ) == 17) {
CCSTROBE( CC1100_SFRX );
CCSTROBE( CC1100_SIDLE );
CCSTROBE( CC1100_SRX );
}
}
void
gettime(char *unused)
{
uint32_t actticks;
get_timestamp(&actticks);
uint8_t *p = (uint8_t *)&actticks;
DH2(p[3]);
DH2(p[2]);
DH2(p[1]);
DH2(p[0]);
DNL();
}
void native_func(char *in) {
uint8_t mode = 0;
if(in[1] == 'r') { // Reception on
// "Er<x>" - where <x> is mode
if (in[2])
fromdec(in+2, &mode);
if (!mode || mode>MAX_MODES) {
DS_P(PSTR("specify valid mode number\r\n"));
return;
}
native_init(mode);
} else if(in[1] == 'x') { // Reception off
if (native_on)
ccStrobe( CC1100_SIDLE );
native_on = 0;
}
DH2(native_on);
DNL();
}
void
dumpmem(uint8_t *addr, uint16_t len)
{
for(uint16_t i = 0; i < len; i += 16) {
uint8_t l = len;
if(l > 16)
l = 16;
DH(i,4);
DC(':'); DC(' ');
for(uint8_t j = 0; j < l; j++) {
DH2(addr[j]);
if(j&1)
DC(' ');
}
DC(' ');
for(uint8_t j = 0; j < l; j++) {
if(addr[j] >= ' ' && addr[j] <= '~')
DC(addr[j]);
else
DC('.');
}
addr += 16;
DNL();
}
DNL();
}
static void
display_mac(uint8_t *a)
{
uint8_t cnt = 6;
while(cnt--) {
DH2(*a++);
if(cnt)
DC(':');
}
}
static void
display_ee_bytes(uint8_t *a, uint8_t cnt)
{
while(cnt--) {
DH2(erb(a++));
if(cnt)
DC(':');
}
}
void
dumppkt(void)
{
uint8_t *a = uip_buf;
DC('e');DC(' ');
DU(uip_len,5);
display_channel &= ~DISPLAY_TCP;
uint8_t ole = log_enabled;
log_enabled = 0;
DC(' '); DC('d'); DC(' '); display_mac(a); a+= sizeof(struct uip_eth_addr);
DC(' '); DC('s'); DC(' '); display_mac(a); a+= sizeof(struct uip_eth_addr);
DC(' '); DC('t'); DH2(*a++); DH2(*a++);
DNL();
if(eth_debug > 2)
dumpmem(a, uip_len - sizeof(struct uip_eth_hdr));
display_channel |= DISPLAY_TCP;
log_enabled = ole;
}
void
read_eeprom(char *in)
{
uint8_t hb[2], d;
uint16_t addr;
#ifdef HAS_ETHERNET
if(in[1] == 'i') {
if(in[2] == 'm') { display_ee_mac(EE_MAC_ADDR);
} else if(in[2] == 'd') { DH2(erb(EE_USE_DHCP));
} else if(in[2] == 'a') { display_ee_ip4(EE_IP4_ADDR);
} else if(in[2] == 'n') { display_ee_ip4(EE_IP4_NETMASK);
} else if(in[2] == 'g') { display_ee_ip4(EE_IP4_GATEWAY);
} else if(in[2] == 'N') { display_ee_ip4(EE_IP4_NTPSERVER);
} else if(in[2] == 'o') { DH2(erb(EE_IP4_NTPOFFSET));
} else if(in[2] == 'p') {
DU(eeprom_read_word((uint16_t *)EE_IP4_TCPLINK_PORT), 0);
}
} else
#endif
if(in[1] == 'M') { display_ee_mac(EE_DUDETTE_MAC); }
else if(in[1] == 'P') { display_ee_bytes(EE_DUDETTE_PUBL, 16); }
else {
hb[0] = hb[1] = 0;
d = fromhex(in+1, hb, 2);
if(d == 2)
addr = (hb[0] << 8) | hb[1];
else
addr = hb[0];
d = erb((uint8_t *)addr);
DC('R'); // prefix
DH(addr,4); // register number
DS_P( PSTR(" = ") );
DH2(d); // result, hex
DS_P( PSTR(" / ") );
DU(d,2); // result, decimal
}
DNL();
}
void helios_task(void) {
if (helios_next>ticks)
return;
DC( 'F' );
DS_P(PSTR(HELIOS_EMU_HC));
DH2( 0 );
switch (helios_power) {
case 0x1:
DH2( 0x1 );
break;
case 0x3:
DH2( 0x3 );
break;
case 0x7:
DH2( 0x5 );
break;
case 0xf:
DH2( 0x7 );
break;
case 0x1f:
DH2( 0x9 );
break;
case 0x3f:
DH2( 0xb );
break;
case 0x7f:
DH2( 0xd );
break;
case 0xff:
DH2( 0xf );
break;
}
DH2( 0xff ); // RSSI
DNL();
helios_next = ticks + 41000; // roughly 5 min
}
void
set_txreport(char *in)
{
if(in[1] == 0) { // Report Value
DH2(tx_report);
DU(credit_10ms, 5);
DNL();
return;
}
fromhex(in+1, &tx_report, 1);
set_txrestore();
}
void
rf_router_func(char *in)
{
if(in[1] == 0) { // u: display id and router
DH2(rf_router_myid);
DH2(rf_router_target);
DNL();
#ifdef RFR_DEBUG
} else if(in[1] == 'd') { // ud: Debug
DH((uint16_t)ticks, 4); DC('.');
DH2(rf_router_sendtime);
DNL();
} else if(in[1] == 's') { // us: Statistics
DH(nr_t,1); DC('.');
DH(nr_f,1); DC('.');
DH(nr_e,1); DC('.');
DH(nr_k,1); DC('.');
DH(nr_h,1); DC('.');
DH(nr_r,1); DC('.');
DH(nr_plus,1);
DNL();
#endif
} else if(in[1] == 'i') { // uiXXYY: set own id to XX and router id to YY
fromhex(in+2, &rf_router_myid, 1);
ewb(EE_RF_ROUTER_ID, rf_router_myid);
fromhex(in+4, &rf_router_target, 1);
ewb(EE_RF_ROUTER_ROUTER, rf_router_target);
} else { // uYYDATA: send data to node with id YY
rb_reset(&RFR_Buffer);
while(*++in)
rb_put(&RFR_Buffer, *in);
rf_router_send(0);
}
}
static void
fht80b_print(uint8_t full)
{
uint8_t *p = fht80b_buf;
if(!p[0])
DS_P( PSTR("N/A") );
while(p[0] && (p < (fht80b_buf+FHTBUF_SIZE))) {
if(p != fht80b_buf)
DC(' ');
uint8_t i = 1;
DH2(p[i++]);
DH2(p[i++]);
if(full) {
DC(':');
while(i < p[0]) {
if(i > 3 && (i&1))
DC(',');
DH2(p[i++]);
}
}
p += p[0];
}
}
void
eth_func(char *in)
{
if(in[1] == 'i') {
ethernet_init();
} else if(in[1] == 'c') {
display_ip4((uint8_t *)uip_hostaddr); DC(' ');
display_mac((uint8_t *)uip_ethaddr.addr);
DNL();
} else if(in[1] == 'd') {
eth_debug = (eth_debug+1) & 0x3;
DH2(eth_debug);
DNL();
} else if(in[1] == 'n') {
ntp_sendpacket();
}
}
void
ntp_func(char *in)
{
uint8_t hb[6], t;
if(in == 0 || in[1] == 0) {
t = 1, hb[0] = 7;
} else {
t = fromhex(in+1, hb, 6);
}
if(t == 1) {
t = hb[0];
ntp_get(hb);
if(t&1) {
DH2(hb[0]); DC('-');
DH2(hb[1]); DC('-');
DH2(hb[2]);
}
if((t&3) == 3)
DC(' ');
if(t&2) {
DH2(hb[3]); DC(':');
DH2(hb[4]); DC(':');
DH2(hb[5]);
}
if(t&4) {
DC('.'); display_udec((uint16_t)(ntp_hsec*100)/125, 2, '0');
}
DNL();
} else if(t == 6) {
tm_t t;
t.tm_year = bcd2dec(hb[0]);
t.tm_mon = bcd2dec(hb[1]);
t.tm_mday = bcd2dec(hb[2]);
t.tm_hour = bcd2dec(hb[3]);
t.tm_min = bcd2dec(hb[4]);
t.tm_sec = bcd2dec(hb[5]);
ntp_sec = ntp_tm2sec(&t);
}
}
void helios_task(void) {
char sign = 0;
int temp = 0;
double tempf = 0.0;
if (helios_next>ticks)
return;
DC( 'F' );
DS_P(PSTR(HELIOS_EMU_HC));
DH2( 0 );
switch (helios_power) {
case 0x1:
DH2( 0x1 );
break;
case 0x3:
DH2( 0x3 );
break;
case 0x7:
DH2( 0x5 );
break;
case 0xf:
DH2( 0x7 );
break;
case 0x1f:
DH2( 0x9 );
break;
case 0x3f:
DH2( 0xb );
break;
case 0x7f:
DH2( 0xd );
break;
case 0xff:
DH2( 0xf );
break;
}
DH2( 0xff ); // RSSI
DNL();
for (uint8_t i=0;i<4;i++) {
if (helios_temp[i]) {
tempf = (helios_temp[i]-100)/0.3;
temp = (int) tempf;
sign = (temp<0) ? '8' : '0';
DC('H');
DH2(0x33); //this needs to be coded more flexable
DH2(0x10+i);
DC(sign); //Sign-Bit (needs to be 8 for negative
DC('1'); //HMS Type (only Temp)
//Temp under 10 degs
sign = (char) ( ( (uint8_t) ((temp / 10 ) % 10) )&0x0F ) + '0';
DC(sign);
//Degrees below 1
sign = (char) ( ( (uint8_t) (temp % 10 ) )&0x0F ) + '0';
DC(sign);
DC('0');
//Temp over 9 degs
sign = (char) ( ( (uint8_t) ((temp / 100) % 10) )&0x0F ) + '0';
DC(sign);
DC('0');DC('0');DC('F');DC('F'); //Humidity & RSSI
DNL();
}
}
helios_next = ticks + 41000; // roughly 5 min
}
// Transmitt data block for Kopp Free Control
// ------------------------------------------------------------------------------------------------------------------------------------------
void TransmittKoppBlk(uint8_t sendmsg01[15], uint8_t blkTXcode_i)
{
// Read Blockcounter from Config File Datei (RAMDISK)
// --------------------------------------------------
uint8_t blkcks = 0x0;
int count = 0;
int count2 = 1;
//count2 = 1; // each block / telegram will be written n times (n = 13 see below)
sendmsg01[3] = blkctr; // Write BlockCounter (was incremented) and Transmitt Code (=Transmitter Key) to Array
sendmsg01[4] = blkTXcode_i; // -----------------------------------------------------------------------------------
// Send Block via Transmitter Fifo
// --------------------------------
do {
ccTX(); // initialize CC110x TX Mode?
if(cc1100_readReg( CC1100_MARCSTATE ) != MARCSTATE_TX) // If Statemachine not MARCSTATE_TX -> error
{
DS_P(PSTR("TX_INIT_ERR_"));
DH2(cc1100_readReg( CC1100_MARCSTATE ));
DNL();
kopp_fc_init();
return;
}
BlockStartTime = ticks; // remember Start Time (1 tick=8msec, s.o.)
blkcks=0xaa; // Checksumme initialisieren
count=0; //
CC1100_ASSERT; // Chip Select Activ
cc1100_sendbyte(CC1100_WRITE_BURST | CC1100_TXFIFO); // Burst Mode via Fifo
// Now send !
do { // ===========
cc1100_sendbyte(sendmsg01[count]); // write date to fifo (fifo is big enough)
if (count <= 8) //
{
blkcks=blkcks^sendmsg01[count]; //
if (count==7) sendmsg01[8]=blkcks; // write ckecksum to Buffer as soon as calculated
} //
//
count++; //
} while(count < MAX_kopp_fc_MSG); // Transmitt Byte 0 - AmountofBytes
CC1100_DEASSERT; // Chip Select InActiv
//Wait for sending to finish (CC1101 will go to RX state automatically
uint8_t i;
for(i=0; i< 200;++i)
{
// if( cc1100_readReg( CC1100_MARCSTATE ) == MARCSTATE_RX) // Claus: After transmission we force idle, always, so RX will not happen
// break; //now in RX, good
if( cc1100_readReg( CC1100_MARCSTATE ) != MARCSTATE_TX)
break; //neither in RX nor TX, probably some error
my_delay_ms(1);
}
// Claus: Test shows i is ~ 0x36, but why so fast??, transmission should need about 25msec (15Bytes*8Bits*4800Bit/sec)
// may be reading status via SPI is also also slow?
// DS_P(PSTR("variable i: ")); // For test only
// DH((uint16_t) (i),4); // For test only
// DS_P(PSTR("\r\n")); // For test only
count2++;
} while(count2 <= 13); // send same message 13x
blkctr++; // increase Blockcounter
}
/* longPreamble is necessary for unsolicited messages to wakeup the receiver */
void
moritz_sendraw(uint8_t *dec, int longPreamble)
{
uint8_t hblen = dec[0]+1;
//1kb/s = 1 bit/ms. we send 1 sec preamble + hblen*8 bits
uint32_t sum = (longPreamble ? 100 : 0) + (hblen*8)/10;
if (credit_10ms < sum) {
DS_P(PSTR("LOVF\r\n"));
return;
}
credit_10ms -= sum;
// in Moritz mode already?
if(!moritz_on) {
rf_moritz_init();
}
if(CC1100_READREG( CC1100_MARCSTATE ) != MARCSTATE_RX) { //error
DC('Z');
DC('E');
DC('R');
DC('R');
DC('1');
DH2(CC1100_READREG( CC1100_MARCSTATE ));
DNL();
rf_moritz_init();
return;
}
/* We have to keep at least 20 ms of silence between two sends
* (found out by trial and error). ticks runs at 125 Hz (8 ms per tick),
* so we wait for 3 ticks.
* This looks a bit cumbersome but handles overflows of ticks gracefully.
*/
if(lastSendingTicks)
while(ticks == lastSendingTicks || ticks == lastSendingTicks+1)
my_delay_ms(1);
/* Enable TX. Perform calibration first if MCSM0.FS_AUTOCAL=1 (this is the case) (takes 809μs)
* start sending - CC1101 will send preamble continuously until TXFIFO is filled.
* The preamble will wake up devices. See http://e2e.ti.com/support/low_power_rf/f/156/t/142864.aspx
* It will not go into TX mode instantly if channel is not clear (see CCA_MODE), thus ccTX tries multiple times */
#ifdef CC_ID
do {
CCSTROBE(CC1100_STX);
} while (CC1100_READREG(CC1100_MARCSTATE) != MARCSTATE_TX);
#else
ccTX();
#endif
if(CC1100_READREG( CC1100_MARCSTATE ) != MARCSTATE_TX) { //error
DC('Z');
DC('E');
DC('R');
DC('R');
DC('2');
DH2(CC1100_READREG( CC1100_MARCSTATE ));
DNL();
rf_moritz_init();
return;
}
if(longPreamble) {
/* Send preamble for 1 sec. Keep in mind that waiting for too long may trigger the watchdog (2 seconds on CUL) */
for(int i=0;i<10;++i)
my_delay_ms(100); //arg is uint_8, so loop
}
// send
CC1100_ASSERT;
cc1100_sendbyte(CC1100_WRITE_BURST | CC1100_TXFIFO);
for(uint8_t i = 0; i < hblen; i++) {
cc1100_sendbyte(dec[i]);
}
CC1100_DEASSERT;
//Wait for sending to finish (CC1101 will go to RX state automatically
//after sending
uint8_t i;
for(i=0; i< 200;++i) {
if( CC1100_READREG( CC1100_MARCSTATE ) == MARCSTATE_RX)
break; //now in RX, good
if( CC1100_READREG( CC1100_MARCSTATE ) != MARCSTATE_TX)
break; //neither in RX nor TX, probably some error
my_delay_ms(1);
}
if(CC1100_READREG( CC1100_MARCSTATE ) != MARCSTATE_RX) { //error
DC('Z');
DC('E');
DC('R');
DC('R');
DC('3');
DH2(CC1100_READREG( CC1100_MARCSTATE ));
DNL();
rf_moritz_init();
}
if(!moritz_on) {
set_txrestore();
}
lastSendingTicks = ticks;
}
void native_task(void) {
uint8_t len, byte, i;
if(!native_on)
return;
// wait for CC1100_FIFOTHR given bytes to arrive in FIFO:
if (bit_is_set( CC1100_IN_PORT, CC1100_IN_PIN )) {
// start over syncing
ccStrobe( CC1100_SIDLE );
len = cc1100_readReg( CC1100_RXBYTES ) & 0x7f; // read len, transfer RX fifo
if (len) {
CC1100_ASSERT;
cc1100_sendbyte( CC1100_READ_BURST | CC1100_RXFIFO );
DC( 'N' );
DH2(native_on);
for (i=0; i<len; i++) {
byte = cc1100_sendbyte( 0 );
#if defined(LACROSSE_HMS_EMU)
if (i<sizeof(payload))
payload[i] = byte;
#endif
DH2( byte );
}
CC1100_DEASSERT;
DNL();
#ifdef LACROSSE_HMS_EMU
if (len>=5)
dec2hms_lacrosse(payload);
#endif
}
return;
}
switch (cc1100_readReg( CC1100_MARCSTATE )) {
// RX_OVERFLOW
case 17:
// IDLE
case 1:
ccStrobe( CC1100_SFRX );
ccStrobe( CC1100_SIDLE );
ccStrobe( CC1100_SNOP );
ccStrobe( CC1100_SRX );
break;
}
}
void
it_func(char *in)
{
if (in[1] == 't') {
fromdec (in+2, (uint8_t *)&it_interval);
DU(it_interval,0); DNL();
} else if (in[1] == 's') {
if (in[2] == 'r') { // Modify Repetition-counter
fromdec (in+3, (uint8_t *)&it_repetition);
DU(it_repetition,0); DNL();
#ifdef HAS_HOMEEASY
} else if (in[2] == 'h') { // HomeEasy
it_send (in, DATATYPE_HE);
} else if (in[2] == 'e') { // HomeEasy EU
it_send (in, DATATYPE_HEEU);
#endif
} else {
it_send (in, DATATYPE_IT); // Sending real data
} //sending real data
} else if (in[1] == 'r') { // Start of "Set Frequency" (f)
#ifdef HAS_ASKSIN
if (asksin_on) {
restore_asksin = 1;
asksin_on = 0;
}
#endif
#ifdef HAS_MORITZ
if (moritz_on) {
restore_moritz = 1;
moritz_on = 0;
}
#endif
it_tunein ();
intertechno_on = 1;
} else if (in[1] == 'f') { // Set Frequency
if (in[2] == '0' ) {
it_frequency[0] = 0x10;
it_frequency[1] = 0xb0;
it_frequency[2] = 0x71;
} else {
fromhex (in+2, it_frequency, 3);
}
DC('i');DC('f');DC(':');
DH2(it_frequency[0]);
DH2(it_frequency[1]);
DH2(it_frequency[2]);
DNL();
} else if (in[1] == 'x') { // Reset Frequency back to Eeprom value
if(0) { ;
#ifdef HAS_ASKSIN
} else if (restore_asksin) {
restore_asksin = 0;
rf_asksin_init();
asksin_on = 1;
ccRX();
#endif
#ifdef HAS_MORITZ
} else if (restore_moritz) {
restore_moritz = 0;
rf_moritz_init();
#endif
} else {
ccInitChip(EE_CC1100_CFG); // Set back to Eeprom Values
if(tx_report) { // Enable RX
ccRX();
} else {
ccStrobe(CC1100_SIDLE);
}
}
intertechno_on = 0;
}
}
int
main(void)
{
led_init();
#ifdef LED_RGB
led_off(LED_CHANNEL_GREEN);
led_off(LED_CHANNEL_RED);
led_off(LED_CHANNEL_BLUE);
#else
LED_ON();
#endif
spi_init();
OCR0A = 249; // Timer0: 0.008s = 8MHz/256/250 == 125Hz
TCCR0B = _BV(CS02);
TCCR0A = _BV(WGM01);
TIMSK0 = _BV(OCIE0A);
TCCR1A = 0;
TCCR1B = _BV(CS11) | _BV(WGM12); // Timer1: 1us = 8MHz/8
clock_prescale_set(clock_div_1);
MCUSR &= ~(1 << WDRF); // Enable the watchdog
uart_init( UART_BAUD_SELECT_DOUBLE_SPEED(UART_BAUD_RATE,F_CPU) );
input_handle_func = analyze_ttydata;
display_channel = DISPLAY_USB;
#ifdef LED_RGB
my_delay_ms(200);
led_on(LED_CHANNEL_RED);
my_delay_ms(200);
led_off(LED_CHANNEL_RED);
led_on(LED_CHANNEL_GREEN);
my_delay_ms(200);
led_off(LED_CHANNEL_GREEN);
led_on(LED_CHANNEL_BLUE);
my_delay_ms(200);
led_off(LED_CHANNEL_BLUE);
#else
LED_OFF();
#endif
sei();
/* start moritz function */
moritz_func("Zr\n");
for(;;) {
led_process(ticks);
uart_task();
Minute_Task();
rf_asksin_task();
rf_moritz_task();
if (rf_moritz_data_available()) {
DC('Z');
uint8_t *rf_data = (uint8_t*) &max_data;
for (uint8_t i=0; i<=*rf_data; i++) {
DH2( *rf_data++ );
}
DNL();
DS("length: ");
DU(max_data.length, 2);
DNL();
DS("msg count: ");
DU(max_data.message_count, 2);
DNL();
DS("msg type: ");
DU(max_data.message_type, 2);
DNL();
}
}
}
void
rf_asksin_task(void)
{
uint8_t msg[MAX_ASKSIN_MSG];
uint8_t this_enc, last_enc;
uint8_t rssi;
uint8_t l;
if(!asksin_on)
return;
// see if a CRC OK pkt has been arrived
if (bit_is_set( CC1100_IN_PORT, CC1100_IN_PIN )) {
msg[0] = CC1100_READREG( CC1100_RXFIFO ) & 0x7f; // read len
if (msg[0] >= MAX_ASKSIN_MSG) {
// Something went horribly wrong, out of sync?
rf_asksin_reset_rx();
return;
}
CC1100_ASSERT;
cc1100_sendbyte( CC1100_READ_BURST | CC1100_RXFIFO );
for (uint8_t i=0; i<msg[0]; i++) {
msg[i+1] = cc1100_sendbyte( 0 );
}
rssi = cc1100_sendbyte( 0 );
/* LQI = */ cc1100_sendbyte( 0 );
CC1100_DEASSERT;
do {
CCSTROBE(CC1100_SRX);
} while (CC1100_READREG(CC1100_MARCSTATE) != MARCSTATE_RX);
last_enc = msg[1];
msg[1] = (~msg[1]) ^ 0x89;
for (l = 2; l < msg[0]; l++) {
this_enc = msg[l];
msg[l] = (last_enc + 0xdc) ^ msg[l];
last_enc = this_enc;
}
msg[l] = msg[l] ^ msg[2];
if (tx_report & REP_BINTIME) {
DC('a');
for (uint8_t i=0; i<=msg[0]; i++)
DC( msg[i] );
} else {
DC('A');
for (uint8_t i=0; i<=msg[0]; i++)
DH2( msg[i] );
if (tx_report & REP_RSSI)
DH2(rssi);
DNL();
}
}
switch(CC1100_READREG( CC1100_MARCSTATE )) {
case MARCSTATE_RXFIFO_OVERFLOW:
CCSTROBE( CC1100_SFRX );
case MARCSTATE_IDLE:
CCSTROBE( CC1100_SIDLE );
CCSTROBE( CC1100_SNOP );
CCSTROBE( CC1100_SRX );
break;
}
#ifdef HAS_CC1101_RX_PLL_LOCK_CHECK_TASK_WAIT
CC1101_RX_CHECK_PLL_WAIT_TASK();
#endif
}
void
fhtsend(char *in)
{
uint8_t hb[6], l; // Last byte needed for 8v checksum
l = fromhex(in+1, hb, 5);
if(l < 4) {
if(hb[0] == 1) { // Set housecode, clear buffers
if(l == 3) {
ewb(EE_FHTID , hb[1]); // 1.st byte: 80b relevant
ewb(EE_FHTID+1, hb[2]); // 1.st+2.nd byte: 8v relevant
fht_init();
return;
} else {
DH2(fht_hc0);
DH2(fht_hc1);
}
#ifdef HAS_FHT_80b
} else if(hb[0] == 2) { // Return the 80b buffer
fht80b_print(l==1 || hb[1]==1);
} else if(hb[0] == 3) { // Return the remaining fht buffer
#if FHTBUF_SIZE > 255
DH(fht_bufspace(),4);
#else
DH2(fht_bufspace());
#endif
#endif
#ifdef HAS_FHT_8v
} else if(hb[0] == 0x10) { // Return the 8v buffer
uint8_t na=0;
for(int i = 0; i < FHT_8V_NUM; i++) {
if(fht8v_buf[2*i] == FHT_8V_DISABLED)
continue;
if(na)
DC(' ');
DH2(i);
DC(':');
DH2(fht8v_buf[2*i]);
DH2(fht8v_buf[2*i+1]);
na++;
}
if(na==0)
DS_P( PSTR("N/A") );
} else if(hb[0] == 0x11) { // Return the next 8v timeout
DH2(fht8v_timeout/125);
#endif
}
DNL();
} else {
#ifdef HAS_FHT_8v
if(hb[0]>=fht_hc0 &&
hb[0]< fht_hc0+FHT_8V_NUM &&
hb[1]==fht_hc1) { // FHT8v mode commands
if(hb[3] == FHT8V_CMD_PAIR) {
addParityAndSend(in, FHT_CSUM_START, 2);
} else if(hb[3] == FHT8V_CMD_SYNC){// start syncprocess for _all_ 8v's
fht8v_ctsync = hb[4]; // use it to shorten the sync-time
fht8v_timeout=1;
// Cheating on the 1%
uint8_t cnt = 0;
for(uint8_t i = 0 ; i < FHT_8V_NUM; i++ )
if(fht8v_buf[2*i] != FHT_8V_DISABLED )
cnt++;
credit_10ms += (4*fht8v_ctsync); // should be 3.75 = 75ms / 2 / 10
} else { // Valve position
uint8_t idx = (hb[0]-fht_hc0)*2;
fht8v_buf[idx ] = hb[3]; // Command or 0xff for disable this
fht8v_buf[idx+1] = hb[4]; // slot (valve)
}
return;
}
#endif
#ifdef HAS_FHT_80b
if(!fht_addbuf(in)) // FHT80b mode: Queue everything
DS_P( PSTR("EOB\r\n") );
#endif
}
}
