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rflink_old/Plugins/Plugin_011.c

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//#######################################################################################################
//## This Plugin is only for use with the RFLink software package ##
//## Plugin-11 Home Confort Smart Home - TEL-010 ##
//#######################################################################################################
/*********************************************************************************************\
* Decodes signals from a Home Confort Smart Home - TEL-010
* http://idk.home-confort.net/divers/t%C3%A9l%C3%A9commande-rf-pour-produits-smart-home
*
* Author : StuntTeam, François Pasteau
* Support : http://sourceforge.net/projects/rflink/
* License : This code is free for use in any open source project when this header is included.
* Usage of any parts of this code in a commercial application is prohibited!
*********************************************************************************************
* Changelog: v1.0 initial release
*********************************************************************************************
* Technical information:
* Decodes signals from Home Confort Smart Home - TEL-010 devices
* --------------------------------------------------------------------------------------------
* _Byte 0_ _Byte 1_ _Byte 2_ _Byte 3_ _Byte 4_ _Byte 5_ _Bits_
* AAAAAAAA BBBBBBBB CCCDDDDD EEEEEEEE FFFFFFFF GGHHHHHH II
* 11111111 11111111 11100010 00000000 00000000 10000001 00 Type 1 (no address, using A1-D4)
* 00110110 10100100 01111010 00000000 00000000 10000001 00 Type 2 (using 19 bit? address and button number 1-?
*
* A = Address? (19 bits?)
* B = Address? (19 bits?)
* C = Address? (19 bits?)
* D = Command bits (see below)
* E = verification bytes?, Always 0x00? => possibly reserved for future use or other device types
* F = verification bytes?, Always 0x00? => possibly reserved for future use or other device types
* G = Command bits (see below)
* H = always '000001' ?
* I = Stop bits?, Always '00'
*
* D & G explanation:
* DDDDD GG
* 11233 45
* 00000 00
11010 10 D3
* 1=switch setting 00=A 10=B 01=C 11=D
* 2=group indicator 1=group command
* 3=button number 00=1 01=2 10=3 11=4
* 4=command 0=off, 1=on
* 5=group indicator 1=group command
* ------------
* 101010101010101010101010101010101010100101011001010101010101010101010101010101011001010101010110 00
* 111111111111111111100010000000000000000010000001 00 A3 on
* 20;17;DEBUG;Pulses=100;Pulses(uSec)=
* 2675,200,600,200,600,700,100,700,100,200,600,700,100,700,100,200,600,700,100,225,600,725,75,225,600,225,575,725,75,225,
* 575,225,575,225,575,725,75,725,75,725,75,725,75,225,575,725,75,225,575,225,575,225,575,225,575,225,575,250,575,250,
* 575,250,575,250,575,250,550,250,550,250,550,250,550,250,550,250,550,250,550,250,575,725,75,250,550,250,550,250,550,250,
* 550,250,550,250,550,750,50,250,50; =99
*
* 2675,200,600,200,600,700,100,700,100,200,600,700,100,700,100,200,600,700,100,225,600,725,75,225,600,225,575,725,75,225,575,225,575,225,575,725,75,725,75,725,75,725,75,225,575,725,75,225,575,225,575,225,575,225,575,225,575,250,575,250,575,250,575,250,575,250,550,250,550,250,550,250,550,250,550,250,550,250,550,250,575,725,75,250,550,250,550,250,550,250,550,250,550,250,550,750,50,250,50
\*********************************************************************************************/
#define HC_PULSECOUNT 100
#ifdef PLUGIN_011
boolean Plugin_011(byte function, char *string) {
if (RawSignal.Number != HC_PULSECOUNT ) return false;
if (RawSignal.Pulses[1]*RawSignal.Multiply < 2000) return false; // First (start) pulse needs to be long
unsigned long bitstream1=0; // holds first 24 bits
unsigned long bitstream2=0; // holds last 26 bits
byte bitcounter=0; // counts number of received bits (converted from pulses)
byte command=0;
byte channel=0;
byte subchan=0;
byte group=0;
//==================================================================================
for(int x=2;x < HC_PULSECOUNT-2;x+=2) { // get bytes
if (RawSignal.Pulses[x]*RawSignal.Multiply > 500) { // long pulse
if (RawSignal.Pulses[x]*RawSignal.Multiply > 800) return false; // Pulse range check
if (RawSignal.Pulses[x+1]*RawSignal.Multiply > 400) return false; // Manchester check
if (bitcounter < 24) {
bitstream1 = (bitstream1 << 1) | 0x1;
} else {
bitstream2 = (bitstream2 << 1) | 0x1;
}
bitcounter++; // only need to count the first 10 bits
} else { // short pulse
if (RawSignal.Pulses[x]*RawSignal.Multiply > 300) return false; // pulse range check
if (RawSignal.Pulses[x+1]*RawSignal.Multiply < 400) return false; // Manchester check
if (bitcounter < 24) {
bitstream1 = (bitstream1 << 1);
} else {
bitstream2 = (bitstream2 << 1);
}
bitcounter++; // only need to count the first 10 bits
}
if (bitcounter > 50) break;
}
if (RawSignal.Pulses[98]*RawSignal.Multiply > 300) return false; // pulse range check, last two pulses should be short
if (RawSignal.Pulses[99]*RawSignal.Multiply > 300) return false; // pulse range check
//==================================================================================
// first perform a check to make sure the packet is valid
byte tempbyte=(bitstream2 >>8) & 0xff;
if (tempbyte != 0x0) return false; // always 0x00?
tempbyte=(bitstream2 >>16) & 0xff;
if (tempbyte != 0x0) return false; // always 0x00?
tempbyte=(bitstream2) & 0x3f;
if (tempbyte != 0x01) return false; // low 6 bits are always '000001'?
//==================================================================================
// Prevent repeating signals from showing up
//==================================================================================
if(SignalHash!=SignalHashPrevious || ((RepeatingTimer+1500)<millis()) || SignalCRC != bitstream2 ) {
// not seen the RF packet recently
SignalCRC=bitstream2;
} else {
// already seen the RF packet recently
return true;
}
//==================================================================================
// now process the command / switch settings
//==================================================================================
tempbyte=(bitstream1 >> 3) & 0x03; // determine switch setting (a/b/c/d)
channel=0x41;
if (tempbyte==2) channel=0x42;
if (tempbyte==1) channel=0x43;
if (tempbyte==3) channel=0x44;
subchan=((bitstream1)&0x03)+1; // determine button number
command=(bitstream2 >> 7) & 0x01; // on/off command
group=(bitstream2 >> 6) & 0x01; // group setting
bitstream1=bitstream1 >> 5;
//==================================================================================
// Output
// ----------------------------------
sprintf(pbuffer, "20;%02X;", PKSequenceNumber++); // Node and packet number
Serial.print( pbuffer );
Serial.print(F("HomeConfort;")); // Label
sprintf(pbuffer, "ID=%06lx;",((bitstream1) &0xffffff) ); // ID
Serial.print( pbuffer );
sprintf(pbuffer, "SWITCH=%c%d;", channel,subchan);
Serial.print( pbuffer );
Serial.print(F("CMD="));
if (group==1) Serial.print(F("ALL"));
if (command==0) Serial.print(F("OFF;"));
if (command==1) Serial.print(F("ON;"));
Serial.println();
//==================================================================================
RawSignal.Repeats=true; // suppress repeats of the same RF packet
RawSignal.Number=0;
return true;
}
#endif // PLUGIN_011
#ifdef PLUGIN_TX_011
void HomeConfort_Send(unsigned long bitstream1, unsigned long bitstream2);
boolean PluginTX_011(byte function, char *string) {
boolean success=false;
//10;HomeConfort;01b523;D3;ON;
//0123456789012345678901234567
if (strncasecmp(InputBuffer_Serial+3,"HomeConfort;",12) == 0) { // KAKU Command eg.
if (InputBuffer_Serial[21] != ';') return success;
InputBuffer_Serial[13]=0x30;
InputBuffer_Serial[14]=0x78; // Get address from hexadecimal value
InputBuffer_Serial[21]=0x00; // Get address from hexadecimal value
unsigned long bitstream1=0L; // First Main placeholder
unsigned long bitstream2=0L; // Second Main placeholder
byte Home=0; // channel A..D
byte Address=0; // subchannel 1..5
byte c;
byte x=22; // pointer
// -------------------------------
bitstream1=str2int(InputBuffer_Serial+13); // Address (first 19 bits)
// -------------------------------
while((c=tolower(InputBuffer_Serial[x++]))!=';') {
if(c>='0' && c<='9'){Address=Address+c-'0';} // Home 0..9
if(c>='a' && c<='d'){Home=c-'a';} // Address a..d
}
// -------------------------------
// prepare bitstream1
// -------------------------------
bitstream1 = bitstream1 << 5; // make space for first 5 command bits
Address--; // 1..4 to 0..3
Address=Address & 0x03; // only accept 2 bits for the button number part
bitstream1=bitstream1+Address;
if (Home == 0) c=0; // A
if (Home == 1) c=2; // B
if (Home == 2) c=1; // C
if (Home == 3) c=3; // D
Home=c << 3; // shift left for the right position
bitstream1=bitstream1+Home;
// -------------------------------
// prepare bitsrteam2
c=0;
c = str2cmd(InputBuffer_Serial+x); // ON/OFF command
bitstream2=1; // value off
if (c == VALUE_ON) {
bitstream2=0x81; // value on
} else {
if (c == VALUE_ALLOFF) {
bitstream2=0x41;
bitstream1=bitstream1+4; // set group
} else
if (c == VALUE_ALLON) {
bitstream2=0xc1;
bitstream1=bitstream1+4; // set group
}
}
// -------------------------------
HomeConfort_Send(bitstream1,bitstream2); // bitstream to send
success=true;
}
return success;
}
/*
void HomeConfort_Send(unsigned long data1, unsigned long data2) {
int fpulse = 270; // Pulse width in microseconds
int fpulse2 = 710; // Pulse width in microseconds
int fretrans = 10; // Number of code retransmissions
unsigned long bitstream1 = 0L;
unsigned long bitstream2 = 0L;
// prepare data to send
for (unsigned short i=0; i<24; i++) { // reverse data bits
bitstream1<<=1;
bitstream1|=(data1 & B1);
data1>>=1;
}
for (unsigned short i=0; i<24; i++) { // reverse data bits
bitstream2<<=1;
bitstream2|=(data2 & B1);
data2>>=1;
}
// -------------------------------
// bitstream1 holds first 24 bits of the RF data, bitstream2 holds last 24 bits of the RF data
// -------------------------------
// Prepare transmit
digitalWrite(PIN_RF_RX_VCC,LOW); // Turn off power to the RF receiver
digitalWrite(PIN_RF_TX_VCC,HIGH); // Enable the 433Mhz transmitter
delayMicroseconds(TRANSMITTER_STABLE_DELAY); // short delay to let the transmitter become stable (Note: Aurel RTX MID needs 500µS/0,5ms)
// send bits
for (int nRepeat = 0; nRepeat <= fretrans; nRepeat++) {
data1=bitstream1;
data2=bitstream2;
digitalWrite(PIN_RF_TX_DATA, HIGH);
delayMicroseconds(fpulse*10 + (fpulse >> 1)); //335*9=3015 //270*10=2700
for (unsigned short i=0; i<24; i++) {
switch (data1 & B1) {
case 0:
digitalWrite(PIN_RF_TX_DATA, LOW);
delayMicroseconds(fpulse * 1);
digitalWrite(PIN_RF_TX_DATA, HIGH);
delayMicroseconds(fpulse2 * 1);
break;
case 1:
digitalWrite(PIN_RF_TX_DATA, LOW);
delayMicroseconds(fpulse2 * 1);
digitalWrite(PIN_RF_TX_DATA, HIGH);
delayMicroseconds(fpulse * 1);
break;
}
//Next bit
data1>>=1;
}
for (unsigned short i=0; i<24; i++) {
switch (data2 & B1) {
case 0:
digitalWrite(PIN_RF_TX_DATA, LOW);
delayMicroseconds(fpulse * 1);
digitalWrite(PIN_RF_TX_DATA, HIGH);
delayMicroseconds(fpulse2 * 1); // 335*3=1005 260*5=1300 260*4=1040
break;
case 1:
digitalWrite(PIN_RF_TX_DATA, LOW);
delayMicroseconds(fpulse2 * 1);
digitalWrite(PIN_RF_TX_DATA, HIGH);
delayMicroseconds(fpulse * 1);
break;
}
//Next bit
data2>>=1;
}
//Send termination/synchronisation-signal.
//digitalWrite(PIN_RF_TX_DATA, HIGH);
//delayMicroseconds(fpulse);
digitalWrite(PIN_RF_TX_DATA, LOW);
delayMicroseconds(fpulse * 27);
//RawSignal.Pulses[98]=300/RawSignal.Multiply;
//RawSignal.Pulses[99]=175/RawSignal.Multiply;
//RawSignal.Delay=125; // Delay between RF packets
}
// End transmit
delayMicroseconds(TRANSMITTER_STABLE_DELAY); // short delay to let the transmitter become stable (Note: Aurel RTX MID needs 500µS/0,5ms)
digitalWrite(PIN_RF_TX_VCC,LOW); // Turn thew 433Mhz transmitter off
digitalWrite(PIN_RF_RX_VCC,HIGH); // Turn the 433Mhz receiver on
RFLinkHW();
}
void HomeConfort_Send(unsigned long data1, unsigned long data2) {
int fpulse = 270; // Pulse width in microseconds
int fpulse2 = 710; // Pulse width in microseconds
int fretrans = 10; // Number of code retransmissions
unsigned long bitstream1 = 0L;
unsigned long bitstream2 = 0L;
// prepare data to send
for (unsigned short i=0; i<24; i++) { // reverse data bits
bitstream1<<=1;
bitstream1|=(data1 & B1);
data1>>=1;
}
for (unsigned short i=0; i<24; i++) { // reverse data bits
bitstream2<<=1;
bitstream2|=(data2 & B1);
data2>>=1;
}
// -------------------------------
// bitstream1 holds first 24 bits of the RF data, bitstream2 holds last 24 bits of the RF data
// -------------------------------
// Prepare transmit
digitalWrite(PIN_RF_RX_VCC,LOW); // Turn off power to the RF receiver
digitalWrite(PIN_RF_TX_VCC,HIGH); // Enable the 433Mhz transmitter
delayMicroseconds(TRANSMITTER_STABLE_DELAY); // short delay to let the transmitter become stable (Note: Aurel RTX MID needs 500µS/0,5ms)
// send bits
for (int nRepeat = 0; nRepeat <= fretrans; nRepeat++) {
data1=bitstream1;
data2=bitstream2;
digitalWrite(PIN_RF_TX_DATA, HIGH);
//delayMicroseconds(fpulse); //335
delayMicroseconds(335);
digitalWrite(PIN_RF_TX_DATA, LOW);
delayMicroseconds(fpulse*10 + (fpulse >> 1)); //335*9=3015 //270*10=2700
for (unsigned short i=0; i<24; i++) {
switch (data1 & B1) {
case 0:
digitalWrite(PIN_RF_TX_DATA, HIGH);
delayMicroseconds(fpulse * 1);
digitalWrite(PIN_RF_TX_DATA, LOW);
delayMicroseconds(fpulse2 * 1);
break;
case 1:
digitalWrite(PIN_RF_TX_DATA, HIGH);
delayMicroseconds(fpulse2 * 1);
digitalWrite(PIN_RF_TX_DATA, LOW);
delayMicroseconds(fpulse * 1);
break;
}
//Next bit
data1>>=1;
}
for (unsigned short i=0; i<24; i++) {
switch (data2 & B1) {
case 0:
digitalWrite(PIN_RF_TX_DATA, HIGH);
delayMicroseconds(fpulse * 1);
digitalWrite(PIN_RF_TX_DATA, LOW);
delayMicroseconds(fpulse2 * 1); // 335*3=1005 260*5=1300 260*4=1040
break;
case 1:
digitalWrite(PIN_RF_TX_DATA, HIGH);
delayMicroseconds(fpulse2 * 1);
digitalWrite(PIN_RF_TX_DATA, LOW);
delayMicroseconds(fpulse * 1);
break;
}
//Next bit
data2>>=1;
}
//Send termination/synchronisation-signal.
digitalWrite(PIN_RF_TX_DATA, HIGH);
delayMicroseconds(fpulse);
digitalWrite(PIN_RF_TX_DATA, LOW);
delayMicroseconds(fpulse * 27);
//RawSignal.Pulses[98]=300/RawSignal.Multiply;
//RawSignal.Pulses[99]=175/RawSignal.Multiply;
//RawSignal.Delay=125; // Delay between RF packets
}
// End transmit
delayMicroseconds(TRANSMITTER_STABLE_DELAY); // short delay to let the transmitter become stable (Note: Aurel RTX MID needs 500µS/0,5ms)
digitalWrite(PIN_RF_TX_VCC,LOW); // Turn thew 433Mhz transmitter off
digitalWrite(PIN_RF_RX_VCC,HIGH); // Turn the 433Mhz receiver on
RFLinkHW();
}
*/
/*
20;E4;DEBUG;Pulses=511;Pulses(uSec)=
330,2760,180,600,180,600,630,180,630,180,180,600,630,180,630,150,210,600,630,150,210,600,630,180,180,600,180,600,630,180,180,600,180,600,180,600,630,180,630,180,630,180,630,180,180,600,630,180,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,630,180,180,600,180,600,180,600,180,600,210,600,210,600,630,150,210,180,
270,2760,180,600,180,600,630,180,630,180,180,600,630,180,630,180,180,600,630,180,180,600,630,180,180,600,180,600,630,180,180,600,180,600,180,600,630,180,630,180,630,180,630,180,180,600,630,150,210,600,210,600,210,600,210,600,180,600,180,600,180,600,180,600,180,600,180,600,180,630,180,630,180,630,180,630,180,630,180,600,180,600,630,180,180,600,180,600,180,600,180,600,180,600,180,600,630,180,180,150,
270,2760,210,600,210,600,630,150,630,150,210,600,630,180,630,180,180,600,630,180,180,600,630,180,180,630,180,630,630,180,180,630,180,630,180,630,630,180,630,180,630,180,630,180,180,600,630,180,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,210,600,630,150,210,600,210,600,210,600,210,600,180,600,180,600,630,180,180,180,270,2760,180,600,180,600,630,180,630,180,180,600,630,180,630,180,180,600,630,180,180,600,630,180,180,600,180,600,630,180,180,600,180,600,210,600,630,150,630,150,630,150,630,150,210,600,630,180,180,600,180,600,180,600,180,600,180,630,180,630,180,630,180,630,180,630,180,630,180,630,180,600,180,600,180,600,180,600,180,600,180,600,630,180,180,600,180,600,180,600,180,600,180,600,180,600,630,180,180,180,270,2760,210,600,180,600,630,180,630,180,180,630,630,180,630,180,180,630,630,180,180,630,630,180,180,630,180,600,630,180,180,600,180,600,180,600,630,180,630,180,630,180,630,180,180,600,630,180,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,180,600,210,600,210,600,210,600,210,600,210,600,210,600,210,600,210,600,630,180,180,600,180,630,180,630,180,630,180,630,180,630,630,180,180,180,270,2760,180,600,180,600,630,180,630,180,180;
20;CA;DEBUG;Pulses=100;Pulses(uSec)=
2490,180,630,150,630,600,180,600,180,150,630,600,180,600,180,150,630,630,180,150,630,630,180,150,630,150,630,630,180,150,630,150,630,150,630,630,180,600,180,600,180,600,180,150,630,600,180,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,150,630,630,180,180,60,6990;
*/
#define PLUGIN_011_RFLOW 270 // 300
#define PLUGIN_011_RFHIGH 720 // 800
void HomeConfort_Send(unsigned long bitstream1, unsigned long bitstream2) {
RawSignal.Repeats=8; // Number of RF packet retransmits
RawSignal.Delay=125; // Delay between RF packets
RawSignal.Number=100; // Length
uint32_t fdatabit;
uint32_t fdatamask = 0x800000;
// -------------------------------
// bitstream1 holds first 24 bits of the RF data, bitstream2 holds last 24 bits of the RF data
// -------------------------------
RawSignal.Pulses[1]=2600/RawSignal.Multiply;
for (byte i=2; i<103; i=i+2) {
if (i<50) { // first 24 bits
fdatabit = bitstream1 & fdatamask; // Get most left bit
bitstream1 = (bitstream1 << 1); // Shift left
if (fdatabit != fdatamask) { // Write 0
RawSignal.Pulses[i] = PLUGIN_011_RFLOW/RawSignal.Multiply;
RawSignal.Pulses[i+1]= PLUGIN_011_RFHIGH/RawSignal.Multiply;
} else { // Write 1
RawSignal.Pulses[i] = PLUGIN_011_RFHIGH/RawSignal.Multiply;
RawSignal.Pulses[i+1]= PLUGIN_011_RFLOW/RawSignal.Multiply;
}
} else {
fdatabit = bitstream2 & fdatamask; // Get most left bit
bitstream2 = (bitstream2 << 1); // Shift left
if (fdatabit != fdatamask) { // Write 0
RawSignal.Pulses[i] = PLUGIN_011_RFLOW/RawSignal.Multiply;
RawSignal.Pulses[i+1]= PLUGIN_011_RFHIGH/RawSignal.Multiply;
} else { // Write 1
RawSignal.Pulses[i] = PLUGIN_011_RFHIGH/RawSignal.Multiply;
RawSignal.Pulses[i+1]= PLUGIN_011_RFLOW/RawSignal.Multiply;
}
}
}
RawSignal.Pulses[98]=300/RawSignal.Multiply;
RawSignal.Pulses[99]=175/RawSignal.Multiply;
RawSendRF();
}
#endif // PLUGIN_TX_011
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