- code copied from Teensyduino - restructured into src/ and include/ dirs

4 年之前 · 043e0bd066
--- a/LICENSE.txt
+++ b/LICENSE.txt
@@ -0,0 +1,458 @@

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--- a/changelog.md
+++ b/changelog.md
@@ -0,0 +1,78 @@
 ## 2.3.3 - 2017/03/31
 - Added ESP32 IR receive support [PR #427](https://github.com/z3t0/Arduino-IRremote/pull/425)

 ## 2.2.3 - 2017/03/27
 - Fix calculation of pause length in LEGO PF protocol [PR #427](https://github.com/z3t0/Arduino-IRremote/pull/427)

 ## 2.2.2 - 2017/01/20
 - Fixed naming bug [PR #398](https://github.com/z3t0/Arduino-IRremote/pull/398)

 ## 2.2.1 - 2016/07/27
 - Added tests for Lego Power Functions Protocol [PR #336](https://github.com/z3t0/Arduino-IRremote/pull/336)

 ## 2.2.0 - 2016/06/28
 - Added support for ATmega8535
 - Added support for ATmega16
 - Added support for ATmega32
 - Added support for ATmega164
 - Added support for ATmega324
 - Added support for ATmega644
 - Added support for ATmega1284
 - Added support for ATmega64
 - Added support for ATmega128

 [PR](https://github.com/z3t0/Arduino-IRremote/pull/324)

 ## 2.1.1 - 2016/05/04
 - Added Lego Power Functions Protocol [PR #309](https://github.com/z3t0/Arduino-IRremote/pull/309)

 ## 2.1.0 - 2016/02/20
 - Improved Debugging [PR #258](https://github.com/z3t0/Arduino-IRremote/pull/258)
 - Display TIME instead of TICKS [PR #258](https://github.com/z3t0/Arduino-IRremote/pull/258)

 ## 2.0.4 - 2016/02/20
 - Add Panasonic and JVC to IRrecord example [PR](https://github.com/z3t0/Arduino-IRremote/pull/54)

 ## 2.0.3 - 2016/02/20
 - Change IRSend Raw parameter to const [PR](https://github.com/z3t0/Arduino-IRremote/pull/227)

 ## 2.0.2 - 2015/12/02
 - Added IRremoteInfo Sketch - [PR](https://github.com/z3t0/Arduino-IRremote/pull/241)
 - Enforcing changelog.md

 ## 2.0.1 - 2015/07/26 - [Release](https://github.com/shirriff/Arduino-IRremote/releases/tag/BETA)
 ### Changes
 - Updated README
 - Updated Contributors
 - Fixed #110 Mess
 - Created Gitter Room
 - Added Gitter Badge
 - Standardised Code Base
 - Clean Debug Output
 - Optimized Send Loops
 - Modularized Design
 - Optimized and Updated Examples
 - Improved Documentation
 - Fixed and Improved many coding errors
 - Fixed Aiwa RC-T501 Decoding
 - Fixed Interrupt on ATmega8
 - Switched to Stable Release of @PlatformIO

 ### Additions
 - Added Aiwa RC-T501 Protocol
 - Added Denon Protocol
 - Added Pronto Support
 - Added Library Properties
 - Added Template For New Protocols
 - Added this changelog
 - Added Teensy LC Support
 - Added ATtiny84 Support
 - Added ATtiny85 Support
 - Added isIdle method

 ### Deletions
 - Removed (Fixed) #110
 - Broke Teensy 3 / 3.1 Support

 ### Not Working
 - Teensy 3 / 3.1 Support is in Development
--- a/contributors.md
+++ b/contributors.md
@@ -0,0 +1,22 @@
 ## Contributors
 These are the active contributors of this project that you may contact if there is anything you need help with or if you have suggestions.

 - [z3t0](https://github.com/z3t0) : Active Contributor and currently also the main contributor.
  * Email: zetoslab@gmail.com
 - [shirriff](https://github.com/shirriff) : An amazing person who worked to create this awesome library and provide unending support
 - [AnalysIR](https:/github.com/AnalysIR): Active contributor and is amazing with providing support!
 - [Informatic](https://github.com/Informatic) : Active contributor
 - [fmeschia](https://github.com/fmeschia) : Active contributor
 - [PaulStoffregen](https://github.com/paulstroffregen) : Active contributor
 - [crash7](https://github.com/crash7) : Active contributor
 - [Neco777](https://github.com/neco777) : Active contributor
 - [Lauszus](https://github.com/lauszus) : Active contributor
 - [csBlueChip](https://github.com/csbluechip) : Active contributor, who contributed major and vital changes to the code base.
 - [Sebazzz](https://github.com/sebazz): Contributor
 - [lumbric](https://github.com/lumbric): Contributor
 - [ElectricRCAircraftGuy](https://github.com/electricrcaircraftguy): Active Contributor
 - [philipphenkel](https://github.com/philipphenkel): Active Contributor
 - [MCUdude](https://github.com/MCUdude): Contributor
 - [marcmerlin](https://github.com/marcmerlin): Contributor (ESP32 port)

 Note: This list is being updated constantly so please let [z3t0](https://github.com/z3t0) know if you have been missed.
--- a/examples/AiwaRCT501SendDemo/AiwaRCT501SendDemo.ino
+++ b/examples/AiwaRCT501SendDemo/AiwaRCT501SendDemo.ino
@@ -0,0 +1,26 @@
 /*
 * IRremote: IRsendDemo - demonstrates sending IR codes with IRsend
 * An IR LED must be connected to Arduino PWM pin 3.
 * Version 0.1 July, 2009
 * Copyright 2009 Ken Shirriff
 * http://arcfn.com
 */

 #include "IRremote.h"

 #define POWER 0x7F80
 #define AIWA_RC_T501

 IRsend irsend;

 void setup() {
  Serial.begin(9600);
  Serial.println("Arduino Ready");
 }

 void loop() {
  if (Serial.read() != -1) {
    irsend.sendAiwaRCT501(POWER);
    delay(60); // Optional
  }
 }
--- a/examples/IRrecord/IRrecord.ino
+++ b/examples/IRrecord/IRrecord.ino
@@ -0,0 +1,183 @@
 /*
 * IRrecord: record and play back IR signals as a minimal 
 * An IR detector/demodulator must be connected to the input RECV_PIN.
 * An IR LED must be connected to the output PWM pin 3.
 * A button must be connected to the input BUTTON_PIN; this is the
 * send button.
 * A visible LED can be connected to STATUS_PIN to provide status.
 *
 * The logic is:
 * If the button is pressed, send the IR code.
 * If an IR code is received, record it.
 *
 * Version 0.11 September, 2009
 * Copyright 2009 Ken Shirriff
 * http://arcfn.com
 */

 #include <IRremote.h>

 int RECV_PIN = 11;
 int BUTTON_PIN = 12;
 int STATUS_PIN = 13;

 IRrecv irrecv(RECV_PIN);
 IRsend irsend;

 decode_results results;

 void setup()
 {
  Serial.begin(9600);
  irrecv.enableIRIn(); // Start the receiver
  pinMode(BUTTON_PIN, INPUT);
  pinMode(STATUS_PIN, OUTPUT);
 }

 // Storage for the recorded code
 int codeType = -1; // The type of code
 unsigned long codeValue; // The code value if not raw
 unsigned int rawCodes[RAWBUF]; // The durations if raw
 int codeLen; // The length of the code
 int toggle = 0; // The RC5/6 toggle state

 // Stores the code for later playback
 // Most of this code is just logging
 void storeCode(decode_results *results) {
  codeType = results->decode_type;
  //int count = results->rawlen;
  if (codeType == UNKNOWN) {
    Serial.println("Received unknown code, saving as raw");
    codeLen = results->rawlen - 1;
    // To store raw codes:
    // Drop first value (gap)
    // Convert from ticks to microseconds
    // Tweak marks shorter, and spaces longer to cancel out IR receiver distortion
    for (int i = 1; i <= codeLen; i++) {
      if (i % 2) {
        // Mark
        rawCodes[i - 1] = results->rawbuf[i]*USECPERTICK - MARK_EXCESS;
        Serial.print(" m");
      } 
      else {
        // Space
        rawCodes[i - 1] = results->rawbuf[i]*USECPERTICK + MARK_EXCESS;
        Serial.print(" s");
      }
      Serial.print(rawCodes[i - 1], DEC);
    }
    Serial.println("");
  }
  else {
    if (codeType == NEC) {
      Serial.print("Received NEC: ");
      if (results->value == REPEAT) {
        // Don't record a NEC repeat value as that's useless.
        Serial.println("repeat; ignoring.");
        return;
      }
    } 
    else if (codeType == SONY) {
      Serial.print("Received SONY: ");
    } 
    else if (codeType == PANASONIC) {
      Serial.print("Received PANASONIC: ");
    }
    else if (codeType == JVC) {
      Serial.print("Received JVC: ");
    }
    else if (codeType == RC5) {
      Serial.print("Received RC5: ");
    } 
    else if (codeType == RC6) {
      Serial.print("Received RC6: ");
    } 
    else {
      Serial.print("Unexpected codeType ");
      Serial.print(codeType, DEC);
      Serial.println("");
    }
    Serial.println(results->value, HEX);
    codeValue = results->value;
    codeLen = results->bits;
  }
 }

 void sendCode(int repeat) {
  if (codeType == NEC) {
    if (repeat) {
      irsend.sendNEC(REPEAT, codeLen);
      Serial.println("Sent NEC repeat");
    } 
    else {
      irsend.sendNEC(codeValue, codeLen);
      Serial.print("Sent NEC ");
      Serial.println(codeValue, HEX);
    }
  } 
  else if (codeType == SONY) {
    irsend.sendSony(codeValue, codeLen);
    Serial.print("Sent Sony ");
    Serial.println(codeValue, HEX);
  } 
  else if (codeType == PANASONIC) {
    irsend.sendPanasonic(codeValue, codeLen);
    Serial.print("Sent Panasonic");
    Serial.println(codeValue, HEX);
  }
  else if (codeType == JVC) {
    irsend.sendJVC(codeValue, codeLen, false);
    Serial.print("Sent JVC");
    Serial.println(codeValue, HEX);
  }
  else if (codeType == RC5 || codeType == RC6) {
    if (!repeat) {
      // Flip the toggle bit for a new button press
      toggle = 1 - toggle;
    }
    // Put the toggle bit into the code to send
    codeValue = codeValue & ~(1 << (codeLen - 1));
    codeValue = codeValue | (toggle << (codeLen - 1));
    if (codeType == RC5) {
      Serial.print("Sent RC5 ");
      Serial.println(codeValue, HEX);
      irsend.sendRC5(codeValue, codeLen);
    } 
    else {
      irsend.sendRC6(codeValue, codeLen);
      Serial.print("Sent RC6 ");
      Serial.println(codeValue, HEX);
    }
  } 
  else if (codeType == UNKNOWN /* i.e. raw */) {
    // Assume 38 KHz
    irsend.sendRaw(rawCodes, codeLen, 38);
    Serial.println("Sent raw");
  }
 }

 int lastButtonState;

 void loop() {
  // If button pressed, send the code.
  int buttonState = digitalRead(BUTTON_PIN);
  if (lastButtonState == HIGH && buttonState == LOW) {
    Serial.println("Released");
    irrecv.enableIRIn(); // Re-enable receiver
  }

  if (buttonState) {
    Serial.println("Pressed, sending");
    digitalWrite(STATUS_PIN, HIGH);
    sendCode(lastButtonState == buttonState);
    digitalWrite(STATUS_PIN, LOW);
    delay(50); // Wait a bit between retransmissions
  } 
  else if (irrecv.decode(&results)) {
    digitalWrite(STATUS_PIN, HIGH);
    storeCode(&results);
    irrecv.resume(); // resume receiver
    digitalWrite(STATUS_PIN, LOW);
  }
  lastButtonState = buttonState;
 }
--- a/examples/IRrecvDemo/IRrecvDemo.ino
+++ b/examples/IRrecvDemo/IRrecvDemo.ino
@@ -0,0 +1,33 @@
 /*
 * IRremote: IRrecvDemo - demonstrates receiving IR codes with IRrecv
 * An IR detector/demodulator must be connected to the input RECV_PIN.
 * Version 0.1 July, 2009
 * Copyright 2009 Ken Shirriff
 * http://arcfn.com
 */

 #include <IRremote.h>

 int RECV_PIN = 11;

 IRrecv irrecv(RECV_PIN);

 decode_results results;

 void setup()
 {
  Serial.begin(9600);
  // In case the interrupt driver crashes on setup, give a clue
  // to the user what's going on.
  Serial.println("Enabling IRin");
  irrecv.enableIRIn(); // Start the receiver
  Serial.println("Enabled IRin");
 }

 void loop() {
  if (irrecv.decode(&results)) {
    Serial.println(results.value, HEX);
    irrecv.resume(); // Receive the next value
  }
  delay(100);
 }
--- a/examples/IRrecvDump/IRrecvDump.ino
+++ b/examples/IRrecvDump/IRrecvDump.ino
@@ -0,0 +1,95 @@
 /*
 * IRremote: IRrecvDump - dump details of IR codes with IRrecv
 * An IR detector/demodulator must be connected to the input RECV_PIN.
 * Version 0.1 July, 2009
 * Copyright 2009 Ken Shirriff
 * http://arcfn.com
 * JVC and Panasonic protocol added by Kristian Lauszus (Thanks to zenwheel and other people at the original blog post)
 * LG added by Darryl Smith (based on the JVC protocol)
 */

 #include <IRremote.h>

 /* 
 *  Default is Arduino pin D11. 
 *  You can change this to another available Arduino Pin.
 *  Your IR receiver should be connected to the pin defined here
 */
 int RECV_PIN = 11;

 IRrecv irrecv(RECV_PIN);

 decode_results results;

 void setup()
 {
  Serial.begin(9600);
  irrecv.enableIRIn(); // Start the receiver
 }


 void dump(decode_results *results) {
  // Dumps out the decode_results structure.
  // Call this after IRrecv::decode()
  int count = results->rawlen;
  if (results->decode_type == UNKNOWN) {
    Serial.print("Unknown encoding: ");
  }
  else if (results->decode_type == NEC) {
    Serial.print("Decoded NEC: ");

  }
  else if (results->decode_type == SONY) {
    Serial.print("Decoded SONY: ");
  }
  else if (results->decode_type == RC5) {
    Serial.print("Decoded RC5: ");
  }
  else if (results->decode_type == RC6) {
    Serial.print("Decoded RC6: ");
  }
  else if (results->decode_type == PANASONIC) {
    Serial.print("Decoded PANASONIC - Address: ");
    Serial.print(results->address, HEX);
    Serial.print(" Value: ");
  }
  else if (results->decode_type == LG) {
    Serial.print("Decoded LG: ");
  }
  else if (results->decode_type == JVC) {
    Serial.print("Decoded JVC: ");
  }
  else if (results->decode_type == AIWA_RC_T501) {
    Serial.print("Decoded AIWA RC T501: ");
  }
  else if (results->decode_type == WHYNTER) {
    Serial.print("Decoded Whynter: ");
  }
  Serial.print(results->value, HEX);
  Serial.print(" (");
  Serial.print(results->bits, DEC);
  Serial.println(" bits)");
  Serial.print("Raw (");
  Serial.print(count, DEC);
  Serial.print("): ");

  for (int i = 1; i < count; i++) {
    if (i & 1) {
      Serial.print(results->rawbuf[i]*USECPERTICK, DEC);
    }
    else {
      Serial.write('-');
      Serial.print((unsigned long) results->rawbuf[i]*USECPERTICK, DEC);
    }
    Serial.print(" ");
  }
  Serial.println();
 }

 void loop() {
  if (irrecv.decode(&results)) {
    Serial.println(results.value, HEX);
    dump(&results);
    irrecv.resume(); // Receive the next value
  }
 }
--- a/examples/IRrecvDumpV2/IRrecvDumpV2.ino
+++ b/examples/IRrecvDumpV2/IRrecvDumpV2.ino
@@ -0,0 +1,177 @@
 //------------------------------------------------------------------------------
 // Include the IRremote library header
 //
 #include <IRremote.h>

 //------------------------------------------------------------------------------
 // Tell IRremote which Arduino pin is connected to the IR Receiver (TSOP4838)
 //
 int recvPin = 11;
 IRrecv irrecv(recvPin);

 //+=============================================================================
 // Configure the Arduino
 //
 void  setup ( )
 {
  Serial.begin(9600);   // Status message will be sent to PC at 9600 baud
  irrecv.enableIRIn();  // Start the receiver
 }

 //+=============================================================================
 // Display IR code
 //
 void  ircode (decode_results *results)
 {
  // Panasonic has an Address
  if (results->decode_type == PANASONIC) {
    Serial.print(results->address, HEX);
    Serial.print(":");
  }

  // Print Code
  Serial.print(results->value, HEX);
 }

 //+=============================================================================
 // Display encoding type
 //
 void  encoding (decode_results *results)
 {
  switch (results->decode_type) {
    default:
    case UNKNOWN:      Serial.print("UNKNOWN");       break ;
    case NEC:          Serial.print("NEC");           break ;
    case SONY:         Serial.print("SONY");          break ;
    case RC5:          Serial.print("RC5");           break ;
    case RC6:          Serial.print("RC6");           break ;
    case DISH:         Serial.print("DISH");          break ;
    case SHARP:        Serial.print("SHARP");         break ;
    case JVC:          Serial.print("JVC");           break ;
    case SANYO:        Serial.print("SANYO");         break ;
    case MITSUBISHI:   Serial.print("MITSUBISHI");    break ;
    case SAMSUNG:      Serial.print("SAMSUNG");       break ;
    case LG:           Serial.print("LG");            break ;
    case WHYNTER:      Serial.print("WHYNTER");       break ;
    case AIWA_RC_T501: Serial.print("AIWA_RC_T501");  break ;
    case PANASONIC:    Serial.print("PANASONIC");     break ;
    case DENON:        Serial.print("Denon");         break ;
  }
 }

 //+=============================================================================
 // Dump out the decode_results structure.
 //
 void  dumpInfo (decode_results *results)
 {
  // Check if the buffer overflowed
  if (results->overflow) {
    Serial.println("IR code too long. Edit IRremoteInt.h and increase RAWBUF");
    return;
  }

  // Show Encoding standard
  Serial.print("Encoding  : ");
  encoding(results);
  Serial.println("");

  // Show Code & length
  Serial.print("Code      : ");
  ircode(results);
  Serial.print(" (");
  Serial.print(results->bits, DEC);
  Serial.println(" bits)");
 }

 //+=============================================================================
 // Dump out the decode_results structure.
 //
 void  dumpRaw (decode_results *results)
 {
  // Print Raw data
  Serial.print("Timing[");
  Serial.print(results->rawlen-1, DEC);
  Serial.println("]: ");

  for (int i = 1;  i < results->rawlen;  i++) {
    unsigned long  x = results->rawbuf[i] * USECPERTICK;
    if (!(i & 1)) {  // even
      Serial.print("-");
      if (x < 1000)  Serial.print(" ") ;
      if (x < 100)   Serial.print(" ") ;
      Serial.print(x, DEC);
    } else {  // odd
      Serial.print("     ");
      Serial.print("+");
      if (x < 1000)  Serial.print(" ") ;
      if (x < 100)   Serial.print(" ") ;
      Serial.print(x, DEC);
      if (i < results->rawlen-1) Serial.print(", "); //',' not needed for last one
    }
    if (!(i % 8))  Serial.println("");
  }
  Serial.println("");                    // Newline
 }

 //+=============================================================================
 // Dump out the decode_results structure.
 //
 void  dumpCode (decode_results *results)
 {
  // Start declaration
  Serial.print("unsigned int  ");          // variable type
  Serial.print("rawData[");                // array name
  Serial.print(results->rawlen - 1, DEC);  // array size
  Serial.print("] = {");                   // Start declaration

  // Dump data
  for (int i = 1;  i < results->rawlen;  i++) {
    Serial.print(results->rawbuf[i] * USECPERTICK, DEC);
    if ( i < results->rawlen-1 ) Serial.print(","); // ',' not needed on last one
    if (!(i & 1))  Serial.print(" ");
  }

  // End declaration
  Serial.print("};");  // 

  // Comment
  Serial.print("  // ");
  encoding(results);
  Serial.print(" ");
  ircode(results);

  // Newline
  Serial.println("");

  // Now dump "known" codes
  if (results->decode_type != UNKNOWN) {

    // Some protocols have an address
    if (results->decode_type == PANASONIC) {
      Serial.print("unsigned int  addr = 0x");
      Serial.print(results->address, HEX);
      Serial.println(";");
    }

    // All protocols have data
    Serial.print("unsigned int  data = 0x");
    Serial.print(results->value, HEX);
    Serial.println(";");
  }
 }

 //+=============================================================================
 // The repeating section of the code
 //
 void  loop ( )
 {
  decode_results  results;        // Somewhere to store the results

  if (irrecv.decode(&results)) {  // Grab an IR code
    dumpInfo(&results);           // Output the results
    dumpRaw(&results);            // Output the results in RAW format
    dumpCode(&results);           // Output the results as source code
    Serial.println("");           // Blank line between entries
    irrecv.resume();              // Prepare for the next value
  }
 }
--- a/examples/IRrelay/IRrelay.ino
+++ b/examples/IRrelay/IRrelay.ino
@@ -0,0 +1,85 @@
 /*
 * IRremote: IRrecvDemo - demonstrates receiving IR codes with IRrecv
 * An IR detector/demodulator must be connected to the input RECV_PIN.
 * Version 0.1 July, 2009
 * Copyright 2009 Ken Shirriff
 * http://arcfn.com
 */

 #include <IRremote.h>

 int RECV_PIN = 11;
 int RELAY_PIN = 4;

 IRrecv irrecv(RECV_PIN);
 decode_results results;

 // Dumps out the decode_results structure.
 // Call this after IRrecv::decode()
 // void * to work around compiler issue
 //void dump(void *v) {
 //  decode_results *results = (decode_results *)v
 void dump(decode_results *results) {
  int count = results->rawlen;
  if (results->decode_type == UNKNOWN) {
    Serial.println("Could not decode message");
  } 
  else {
    if (results->decode_type == NEC) {
      Serial.print("Decoded NEC: ");
    } 
    else if (results->decode_type == SONY) {
      Serial.print("Decoded SONY: ");
    } 
    else if (results->decode_type == RC5) {
      Serial.print("Decoded RC5: ");
    } 
    else if (results->decode_type == RC6) {
      Serial.print("Decoded RC6: ");
    }
    Serial.print(results->value, HEX);
    Serial.print(" (");
    Serial.print(results->bits, DEC);
    Serial.println(" bits)");
  }
  Serial.print("Raw (");
  Serial.print(count, DEC);
  Serial.print("): ");

  for (int i = 0; i < count; i++) {
    if ((i % 2) == 1) {
      Serial.print(results->rawbuf[i]*USECPERTICK, DEC);
    } 
    else {
      Serial.print(-(int)results->rawbuf[i]*USECPERTICK, DEC);
    }
    Serial.print(" ");
  }
  Serial.println("");
 }

 void setup()
 {
  pinMode(RELAY_PIN, OUTPUT);
  pinMode(13, OUTPUT);
    Serial.begin(9600);
  irrecv.enableIRIn(); // Start the receiver
 }

 int on = 0;
 unsigned long last = millis();

 void loop() {
  if (irrecv.decode(&results)) {
    // If it's been at least 1/4 second since the last
    // IR received, toggle the relay
    if (millis() - last > 250) {
      on = !on;
      digitalWrite(RELAY_PIN, on ? HIGH : LOW);
      digitalWrite(13, on ? HIGH : LOW);
      dump(&results);
    }
    last = millis();      
    irrecv.resume(); // Receive the next value
  }
 }
--- a/examples/IRremoteInfo/IRremoteInfo.ino
+++ b/examples/IRremoteInfo/IRremoteInfo.ino
@@ -0,0 +1,230 @@
 /*
 * IRremote: IRremoteInfo - prints relevant config info & settings for IRremote over serial
 * Intended to help identify & troubleshoot the various settings of IRremote
 * For example, sometimes users are unsure of which pin is used for Tx or the RAWBUF values
 * This example can be used to assist the user directly or with support.
 * Intended to help identify & troubleshoot the various settings of IRremote
 * Hopefully this utility will be a useful tool for support & troubleshooting for IRremote
 * Check out the blog post describing the sketch via http://www.analysir.com/blog/2015/11/28/helper-utility-for-troubleshooting-irremote/
 * Version 1.0 November 2015
 * Original Author: AnalysIR - IR software & modules for Makers & Pros, visit http://www.AnalysIR.com
 */


 #include <IRremote.h>

 void setup()
 {
  Serial.begin(115200); //You may alter the BAUD rate here as needed
  while (!Serial); //wait until Serial is established - required on some Platforms

  //Runs only once per restart of the Arduino.
  dumpHeader();
  dumpRAWBUF();
  dumpTIMER();
  dumpTimerPin();
  dumpClock();
  dumpPlatform();
  dumpPulseParams();
  dumpSignalParams();
  dumpArduinoIDE();
  dumpDebugMode();
  dumpProtocols();
  dumpFooter();
 }

 void loop() {
  //nothing to do!
 }

 void dumpRAWBUF() {
  Serial.print(F("RAWBUF: "));
  Serial.println(RAWBUF);
 }

 void dumpTIMER() {
  boolean flag = false;
 #ifdef IR_USE_TIMER1
  Serial.print(F("Timer defined for use: ")); Serial.println(F("Timer1")); flag = true;
 #endif
 #ifdef IR_USE_TIMER2
  Serial.print(F("Timer defined for use: ")); Serial.println(F("Timer2")); flag = true;
 #endif
 #ifdef IR_USE_TIMER3
  Serial.print(F("Timer defined for use: ")); Serial.println(F("Timer3")); flag = true;
 #endif
 #ifdef IR_USE_TIMER4
  Serial.print(F("Timer defined for use: ")); Serial.println(F("Timer4")); flag = true;
 #endif
 #ifdef IR_USE_TIMER5
  Serial.print(F("Timer defined for use: ")); Serial.println(F("Timer5")); flag = true;
 #endif
 #ifdef IR_USE_TIMER4_HS
  Serial.print(F("Timer defined for use: ")); Serial.println(F("Timer4_HS")); flag = true;
 #endif
 #ifdef IR_USE_TIMER_CMT
  Serial.print(F("Timer defined for use: ")); Serial.println(F("Timer_CMT")); flag = true;
 #endif
 #ifdef IR_USE_TIMER_TPM1
  Serial.print(F("Timer defined for use: ")); Serial.println(F("Timer_TPM1")); flag = true;
 #endif
 #ifdef IR_USE_TIMER_TINY0
  Serial.print(F("Timer defined for use: ")); Serial.println(F("Timer_TINY0")); flag = true;
 #endif

  if (!flag) {
    Serial.print(F("Timer Error: ")); Serial.println(F("not defined"));
  }
 }

 void dumpTimerPin() {
  Serial.print(F("IR Tx Pin: "));
  Serial.println(TIMER_PWM_PIN);
 }

 void dumpClock() {
  Serial.print(F("MCU Clock: "));
  Serial.println(F_CPU);
 }

 void dumpPlatform() {
  Serial.print(F("MCU Platform: "));

 #if defined(__AVR_ATmega1280__)
  Serial.println(F("Arduino Mega1280"));
 #elif  defined(__AVR_ATmega2560__)
  Serial.println(F("Arduino Mega2560"));
 #elif defined(__AVR_AT90USB162__)
  Serial.println(F("Teensy 1.0 / AT90USB162"));
  // Teensy 2.0
 #elif defined(__AVR_ATmega32U4__)
  Serial.println(F("Arduino Leonardo / Yun / Teensy 1.0 / ATmega32U4"));
 #elif defined(__MK20DX128__) || defined(__MK20DX256__)
  Serial.println(F("Teensy 3.0 / Teensy 3.1 / MK20DX128 / MK20DX256"));
 #elif defined(__MKL26Z64__)
  Serial.println(F("Teensy-LC / MKL26Z64"));
 #elif defined(__AVR_AT90USB646__)
  Serial.println(F("Teensy++ 1.0 / AT90USB646"));
 #elif defined(__AVR_AT90USB1286__)
  Serial.println(F("Teensy++ 2.0 / AT90USB1286"));
 #elif defined(__AVR_ATmega1284__) || defined(__AVR_ATmega1284P__)
  Serial.println(F("ATmega1284"));
 #elif defined(__AVR_ATmega644__) || defined(__AVR_ATmega644P__)
  Serial.println(F("ATmega644"));
 #elif defined(__AVR_ATmega324P__) || defined(__AVR_ATmega324A__) || defined(__AVR_ATmega324PA__)
  Serial.println(F("ATmega324")); 
 #elif defined(__AVR_ATmega164A__) || defined(__AVR_ATmega164P__)
  Serial.println(F("ATmega164"));
 #elif defined(__AVR_ATmega128__)
  Serial.println(F("ATmega128"));
 #elif defined(__AVR_ATmega88__) || defined(__AVR_ATmega88P__)
  Serial.println(F("ATmega88"));  
 #elif defined(__AVR_ATmega64__)
  Serial.println(F("ATmega64"));
 #elif defined(__AVR_ATmega48__) || defined(__AVR_ATmega48P__)
  Serial.println(F("ATmega48"));
 #elif defined(__AVR_ATmega32__)
  Serial.println(F("ATmega32"));  
 #elif defined(__AVR_ATmega16__)
  Serial.println(F("ATmega16"));
 #elif defined(__AVR_ATmega8535__)
  Serial.println(F("ATmega8535"));  
 #elif defined(__AVR_ATmega8__)
  Serial.println(F("Atmega8"));
 #elif defined(__AVR_ATtiny84__)
  Serial.println(F("ATtiny84"));
 #elif defined(__AVR_ATtiny85__)
  Serial.println(F("ATtiny85"));
 #else
  Serial.println(F("ATmega328(P) / (Duemilanove, Diecimila, LilyPad, Mini, Micro, Fio, Nano, etc)"));
 #endif
 }

 void dumpPulseParams() {
  Serial.print(F("Mark Excess: ")); Serial.print(MARK_EXCESS);; Serial.println(F(" uSecs"));
  Serial.print(F("Microseconds per tick: ")); Serial.print(USECPERTICK);; Serial.println(F(" uSecs"));
  Serial.print(F("Measurement tolerance: ")); Serial.print(TOLERANCE); Serial.println(F("%"));
 }

 void dumpSignalParams() {
  Serial.print(F("Minimum Gap between IR Signals: ")); Serial.print(_GAP); Serial.println(F(" uSecs"));
 }

 void dumpDebugMode() {
  Serial.print(F("Debug Mode: "));
 #if DEBUG
  Serial.println(F("ON"));
 #else
  Serial.println(F("OFF (Normal)"));
 #endif

 }

 void dumpArduinoIDE() {
  Serial.print(F("Arduino IDE version: "));
  Serial.print(ARDUINO / 10000);
  Serial.write('.');
  Serial.print((ARDUINO % 10000) / 100);
  Serial.write('.');
  Serial.println(ARDUINO % 100);
 }

 void dumpProtocols() {

  Serial.println(); Serial.print(F("IR PROTOCOLS  "));  Serial.print(F("SEND     "));  Serial.println(F("DECODE"));
  Serial.print(F("============= "));  Serial.print(F("======== "));  Serial.println(F("========"));
  Serial.print(F("RC5:          "));  printSendEnabled(SEND_RC5);  printDecodeEnabled(DECODE_RC6);
  Serial.print(F("RC6:          "));  printSendEnabled(SEND_RC6);  printDecodeEnabled(DECODE_RC5);
  Serial.print(F("NEC:          "));  printSendEnabled(SEND_NEC);  printDecodeEnabled(DECODE_NEC);
  Serial.print(F("SONY:         "));  printSendEnabled(SEND_SONY);  printDecodeEnabled(DECODE_SONY);
  Serial.print(F("PANASONIC:    "));  printSendEnabled(SEND_PANASONIC);  printDecodeEnabled(DECODE_PANASONIC);
  Serial.print(F("JVC:          "));  printSendEnabled(SEND_JVC);  printDecodeEnabled(DECODE_JVC);
  Serial.print(F("SAMSUNG:      "));  printSendEnabled(SEND_SAMSUNG);  printDecodeEnabled(DECODE_SAMSUNG);
  Serial.print(F("WHYNTER:      "));  printSendEnabled(SEND_WHYNTER);  printDecodeEnabled(DECODE_WHYNTER);
  Serial.print(F("AIWA_RC_T501: "));  printSendEnabled(SEND_AIWA_RC_T501);  printDecodeEnabled(DECODE_AIWA_RC_T501);
  Serial.print(F("LG:           "));  printSendEnabled(SEND_LG);  printDecodeEnabled(DECODE_LG);
  Serial.print(F("SANYO:        "));  printSendEnabled(SEND_SANYO);  printDecodeEnabled(DECODE_SANYO);
  Serial.print(F("MITSUBISHI:   "));  printSendEnabled(SEND_MITSUBISHI);  printDecodeEnabled(DECODE_MITSUBISHI);
  Serial.print(F("DISH:         "));  printSendEnabled(SEND_DISH);  printDecodeEnabled(DECODE_DISH);
  Serial.print(F("SHARP:        "));  printSendEnabled(SEND_SHARP);  printDecodeEnabled(DECODE_SHARP);
  Serial.print(F("DENON:        "));  printSendEnabled(SEND_DENON);  printDecodeEnabled(DECODE_DENON);
  Serial.print(F("PRONTO:       "));  printSendEnabled(SEND_PRONTO);  Serial.println(F("(Not Applicable)"));
 }

 void printSendEnabled(int flag) {
  if (flag) {
    Serial.print(F("Enabled  "));
  }
  else {
    Serial.print(F("Disabled "));
  }
 }

 void printDecodeEnabled(int flag) {
  if (flag) {
    Serial.println(F("Enabled"));
  }
  else {
    Serial.println(F("Disabled"));
  }
 }

 void dumpHeader() {
  Serial.println(F("IRremoteInfo - by AnalysIR (http://www.AnalysIR.com/)"));
  Serial.println(F("             - A helper sketch to assist in troubleshooting issues with the library by reviewing the settings within the IRremote library"));
  Serial.println(F("             - Prints out the important settings within the library, which can be configured to suit the many supported platforms"));
  Serial.println(F("             - When seeking on-line support, please post or upload the output of this sketch, where appropriate"));
  Serial.println();
  Serial.println(F("IRremote Library Settings"));
  Serial.println(F("========================="));
 }

 void dumpFooter() {
  Serial.println();
  Serial.println(F("Notes: "));
  Serial.println(F("     - Most of the seetings above can be configured in the following files included as part of the library"));
  Serial.println(F("     - IRremteInt.h"));
  Serial.println(F("     - IRremote.h"));
  Serial.println(F("     - You can save SRAM by disabling the Decode or Send features for any protocol (Near the top of IRremoteInt.h)"));
  Serial.println(F("     - Some Timer conflicts, with other libraries, can be easily resolved by configuring a differnt Timer for your platform"));
 }
--- a/examples/IRsendDemo/IRsendDemo.ino
+++ b/examples/IRsendDemo/IRsendDemo.ino
@@ -0,0 +1,24 @@
 /*
 * IRremote: IRsendDemo - demonstrates sending IR codes with IRsend
 * An IR LED must be connected to Arduino PWM pin 3.
 * Version 0.1 July, 2009
 * Copyright 2009 Ken Shirriff
 * http://arcfn.com
 */


 #include <IRremote.h>

 IRsend irsend;

 void setup()
 {
 }

 void loop() {
 	for (int i = 0; i < 3; i++) {
 		irsend.sendSony(0xa90, 12);
 		delay(40);
 	}
 	delay(5000); //5 second delay between each signal burst
 }
--- a/examples/IRsendRawDemo/IRsendRawDemo.ino
+++ b/examples/IRsendRawDemo/IRsendRawDemo.ino
@@ -0,0 +1,37 @@
 /*
 * IRremote: IRsendRawDemo - demonstrates sending IR codes with sendRaw
 * An IR LED must be connected to Arduino PWM pin 3.
 * Version 0.1 July, 2009
 * Copyright 2009 Ken Shirriff
 * http://arcfn.com
 *
 * IRsendRawDemo - added by AnalysIR (via www.AnalysIR.com), 24 August 2015
 *
 * This example shows how to send a RAW signal using the IRremote library.
 * The example signal is actually a 32 bit NEC signal.
 * Remote Control button: LGTV Power On/Off. 
 * Hex Value: 0x20DF10EF, 32 bits
 * 
 * It is more efficient to use the sendNEC function to send NEC signals. 
 * Use of sendRaw here, serves only as an example of using the function.
 * 
 */


 #include <IRremote.h>

 IRsend irsend;

 void setup()
 {

 }

 void loop() {
  int khz = 38; // 38kHz carrier frequency for the NEC protocol
  unsigned int irSignal[] = {9000, 4500, 560, 560, 560, 560, 560, 1690, 560, 560, 560, 560, 560, 560, 560, 560, 560, 560, 560, 1690, 560, 1690, 560, 560, 560, 1690, 560, 1690, 560, 1690, 560, 1690, 560, 1690, 560, 560, 560, 560, 560, 560, 560, 1690, 560, 560, 560, 560, 560, 560, 560, 560, 560, 1690, 560, 1690, 560, 1690, 560, 560, 560, 1690, 560, 1690, 560, 1690, 560, 1690, 560, 39416, 9000, 2210, 560}; //AnalysIR Batch Export (IRremote) - RAW
  
  irsend.sendRaw(irSignal, sizeof(irSignal) / sizeof(irSignal[0]), khz); //Note the approach used to automatically calculate the size of the array.

  delay(5000); //In this example, the signal will be repeated every 5 seconds, approximately.
 }
--- a/examples/IRtest/IRtest.ino
+++ b/examples/IRtest/IRtest.ino
@@ -0,0 +1,190 @@
 /*
 * IRremote: IRtest unittest
 * Version 0.1 July, 2009
 * Copyright 2009 Ken Shirriff
 * http://arcfn.com
 *
 * Note: to run these tests, edit IRremote/IRremote.h to add "#define TEST"
 * You must then recompile the library by removing IRremote.o and restarting
 * the arduino IDE.
 */

 #include <IRremote.h>
 #include <IRremoteInt.h>

 // Dumps out the decode_results structure.
 // Call this after IRrecv::decode()
 // void * to work around compiler issue
 //void dump(void *v) {
 //  decode_results *results = (decode_results *)v
 void dump(decode_results *results) {
  int count = results->rawlen;
  if (results->decode_type == UNKNOWN) {
    Serial.println("Could not decode message");
  } 
  else {
    if (results->decode_type == NEC) {
      Serial.print("Decoded NEC: ");
    } 
    else if (results->decode_type == SONY) {
      Serial.print("Decoded SONY: ");
    } 
    else if (results->decode_type == RC5) {
      Serial.print("Decoded RC5: ");
    } 
    else if (results->decode_type == RC6) {
      Serial.print("Decoded RC6: ");
    }
    Serial.print(results->value, HEX);
    Serial.print(" (");
    Serial.print(results->bits, DEC);
    Serial.println(" bits)");
  }
  Serial.print("Raw (");
  Serial.print(count, DEC);
  Serial.print("): ");

  for (int i = 0; i < count; i++) {
    if ((i % 2) == 1) {
      Serial.print(results->rawbuf[i]*USECPERTICK, DEC);
    } 
    else {
      Serial.print(-(int)results->rawbuf[i]*USECPERTICK, DEC);
    }
    Serial.print(" ");
  }
  Serial.println("");
 }

 IRrecv irrecv(0);
 decode_results results;

 class IRsendDummy : 
 public IRsend
 {
 public:
  // For testing, just log the marks/spaces
 #define SENDLOG_LEN 128
  int sendlog[SENDLOG_LEN];
  int sendlogcnt;
  IRsendDummy() : 
  IRsend() {
  }
  void reset() {
    sendlogcnt = 0;
  }
  void mark(int time) {
    sendlog[sendlogcnt] = time;
    if (sendlogcnt < SENDLOG_LEN) sendlogcnt++;
  }
  void space(int time) {
    sendlog[sendlogcnt] = -time;
    if (sendlogcnt < SENDLOG_LEN) sendlogcnt++;
  }
  // Copies the dummy buf into the interrupt buf
  void useDummyBuf() {
    int last = SPACE;
    irparams.rcvstate = STATE_STOP;
    irparams.rawlen = 1; // Skip the gap
    for (int i = 0 ; i < sendlogcnt; i++) {
      if (sendlog[i] < 0) {
        if (last == MARK) {
          // New space
          irparams.rawbuf[irparams.rawlen++] = (-sendlog[i] - MARK_EXCESS) / USECPERTICK;
          last = SPACE;
        } 
        else {
          // More space
          irparams.rawbuf[irparams.rawlen - 1] += -sendlog[i] / USECPERTICK;
        }
      } 
      else if (sendlog[i] > 0) {
        if (last == SPACE) {
          // New mark
          irparams.rawbuf[irparams.rawlen++] = (sendlog[i] + MARK_EXCESS) / USECPERTICK;
          last = MARK;
        } 
        else {
          // More mark
          irparams.rawbuf[irparams.rawlen - 1] += sendlog[i] / USECPERTICK;
        }
      }
    }
    if (irparams.rawlen % 2) {
      irparams.rawlen--; // Remove trailing space
    }
  }
 };

 IRsendDummy irsenddummy;

 void verify(unsigned long val, int bits, int type) {
  irsenddummy.useDummyBuf();
  irrecv.decode(&results);
  Serial.print("Testing ");
  Serial.print(val, HEX);
  if (results.value == val && results.bits == bits && results.decode_type == type) {
    Serial.println(": OK");
  } 
  else {
    Serial.println(": Error");
    dump(&results);
  }
 }  

 void testNEC(unsigned long val, int bits) {
  irsenddummy.reset();
  irsenddummy.sendNEC(val, bits);
  verify(val, bits, NEC);
 }
 void testSony(unsigned long val, int bits) {
  irsenddummy.reset();
  irsenddummy.sendSony(val, bits);
  verify(val, bits, SONY);
 }
 void testRC5(unsigned long val, int bits) {
  irsenddummy.reset();
  irsenddummy.sendRC5(val, bits);
  verify(val, bits, RC5);
 }
 void testRC6(unsigned long val, int bits) {
  irsenddummy.reset();
  irsenddummy.sendRC6(val, bits);
  verify(val, bits, RC6);
 }

 void test() {
  Serial.println("NEC tests");
  testNEC(0x00000000, 32);
  testNEC(0xffffffff, 32);
  testNEC(0xaaaaaaaa, 32);
  testNEC(0x55555555, 32);
  testNEC(0x12345678, 32);
  Serial.println("Sony tests");
  testSony(0xfff, 12);
  testSony(0x000, 12);
  testSony(0xaaa, 12);
  testSony(0x555, 12);
  testSony(0x123, 12);
  Serial.println("RC5 tests");
  testRC5(0xfff, 12);
  testRC5(0x000, 12);
  testRC5(0xaaa, 12);
  testRC5(0x555, 12);
  testRC5(0x123, 12);
  Serial.println("RC6 tests");
  testRC6(0xfffff, 20);
  testRC6(0x00000, 20);
  testRC6(0xaaaaa, 20);
  testRC6(0x55555, 20);
  testRC6(0x12345, 20);
 }

 void setup()
 {
  Serial.begin(9600);
  test();
 }

 void loop() {
 }
--- a/examples/IRtest2/IRtest2.ino
+++ b/examples/IRtest2/IRtest2.ino
@@ -0,0 +1,290 @@
 /*
 * Test send/receive functions of IRremote, using a pair of Arduinos.
 *
 * Arduino #1 should have an IR LED connected to the send pin (3).
 * Arduino #2 should have an IR detector/demodulator connected to the
 * receive pin (11) and a visible LED connected to pin 3.
 *
 * The cycle:
 *  Arduino #1 will wait 2 seconds, then run through the tests.
 *  It repeats this forever.
 *  Arduino #2 will wait for at least one second of no signal
 *  (to synchronize with #1).  It will then wait for the same test
 *  signals.  It will log all the status to the serial port.  It will
 *  also indicate status through the LED, which will flash each time a test
 *  is completed.  If there is an error, it will light up for 5 seconds.
 *
 * The test passes if the LED flashes 19 times, pauses, and then repeats.
 * The test fails if the LED lights for 5 seconds.
 *
 * The test software automatically decides which board is the sender and which is
 * the receiver by looking for an input on the send pin, which will indicate
 * the sender.  You should hook the serial port to the receiver for debugging.
 *  
 * Copyright 2010 Ken Shirriff
 * http://arcfn.com
 */

 #include <IRremote.h>

 int RECV_PIN = 11;
 int LED_PIN = 3;

 IRrecv irrecv(RECV_PIN);
 IRsend irsend;

 decode_results results;

 #define RECEIVER 1
 #define SENDER 2
 #define ERROR 3

 int mode;

 void setup()
 {
  Serial.begin(9600);
  // Check RECV_PIN to decide if we're RECEIVER or SENDER
  if (digitalRead(RECV_PIN) == HIGH) {
    mode = RECEIVER;
    irrecv.enableIRIn();
    pinMode(LED_PIN, OUTPUT);
    digitalWrite(LED_PIN, LOW);
    Serial.println("Receiver mode");
  } 
  else {
    mode = SENDER;
    Serial.println("Sender mode");
  }
 }

 // Wait for the gap between tests, to synchronize with
 // the sender.
 // Specifically, wait for a signal followed by a gap of at last gap ms.
 void waitForGap(unsigned long gap) {
  Serial.println("Waiting for gap");
  while (1) {
    while (digitalRead(RECV_PIN) == LOW) { 
    }
    unsigned long time = millis();
    while (digitalRead(RECV_PIN) == HIGH) {
      if (millis() - time > gap) {
        return;
      }
    }
  }
 }

 // Dumps out the decode_results structure.
 // Call this after IRrecv::decode()
 void dump(decode_results *results) {
  int count = results->rawlen;
  if (results->decode_type == UNKNOWN) {
    Serial.println("Could not decode message");
  } 
  else {
    if (results->decode_type == NEC) {
      Serial.print("Decoded NEC: ");
    } 
    else if (results->decode_type == SONY) {
      Serial.print("Decoded SONY: ");
    } 
    else if (results->decode_type == RC5) {
      Serial.print("Decoded RC5: ");
    } 
    else if (results->decode_type == RC6) {
      Serial.print("Decoded RC6: ");
    }
    Serial.print(results->value, HEX);
    Serial.print(" (");
    Serial.print(results->bits, DEC);
    Serial.println(" bits)");
  }
  Serial.print("Raw (");
  Serial.print(count, DEC);
  Serial.print("): ");

  for (int i = 0; i < count; i++) {
    if ((i % 2) == 1) {
      Serial.print(results->rawbuf[i]*USECPERTICK, DEC);
    } 
    else {
      Serial.print(-(int)results->rawbuf[i]*USECPERTICK, DEC);
    }
    Serial.print(" ");
  }
  Serial.println("");
 }


 // Test send or receive.
 // If mode is SENDER, send a code of the specified type, value, and bits
 // If mode is RECEIVER, receive a code and verify that it is of the
 // specified type, value, and bits.  For success, the LED is flashed;
 // for failure, the mode is set to ERROR.
 // The motivation behind this method is that the sender and the receiver
 // can do the same test calls, and the mode variable indicates whether
 // to send or receive.
 void test(const char *label, int type, unsigned long value, int bits) {
  if (mode == SENDER) {
    Serial.println(label);
    if (type == NEC) {
      irsend.sendNEC(value, bits);
    } 
    else if (type == SONY) {
      irsend.sendSony(value, bits);
    } 
    else if (type == RC5) {
      irsend.sendRC5(value, bits);
    } 
    else if (type == RC6) {
      irsend.sendRC6(value, bits);
    } 
    else {
      Serial.print(label);
      Serial.println("Bad type!");
    }
    delay(200);
  } 
  else if (mode == RECEIVER) {
    irrecv.resume(); // Receive the next value
    unsigned long max_time = millis() + 30000;
    Serial.print(label);

    // Wait for decode or timeout
    while (!irrecv.decode(&results)) {
      if (millis() > max_time) {
        Serial.println("Timeout receiving data");
        mode = ERROR;
        return;
      }
    }
    if (type == results.decode_type && value == results.value && bits == results.bits) {
      Serial.println (": OK");
      digitalWrite(LED_PIN, HIGH);
      delay(20);
      digitalWrite(LED_PIN, LOW);
    } 
    else {
      Serial.println(": BAD");
      dump(&results);
      mode = ERROR;
    }
  }
 }

 // Test raw send or receive.  This is similar to the test method,
 // except it send/receives raw data.
 void testRaw(const char *label, unsigned int *rawbuf, int rawlen) {
  if (mode == SENDER) {
    Serial.println(label);
    irsend.sendRaw(rawbuf, rawlen, 38 /* kHz */);
    delay(200);
  } 
  else if (mode == RECEIVER ) {
    irrecv.resume(); // Receive the next value
    unsigned long max_time = millis() + 30000;
    Serial.print(label);

    // Wait for decode or timeout
    while (!irrecv.decode(&results)) {
      if (millis() > max_time) {
        Serial.println("Timeout receiving data");
        mode = ERROR;
        return;
      }
    }

    // Received length has extra first element for gap
    if (rawlen != results.rawlen - 1) {
      Serial.print("Bad raw length ");
      Serial.println(results.rawlen, DEC);
      mode = ERROR;
      return;
    }
    for (int i = 0; i < rawlen; i++) {
      long got = results.rawbuf[i+1] * USECPERTICK;
      // Adjust for extra duration of marks
      if (i % 2 == 0) { 
        got -= MARK_EXCESS;
      } 
      else {
        got += MARK_EXCESS;
      }
      // See if close enough, within 25%
      if (rawbuf[i] * 1.25 < got || got * 1.25 < rawbuf[i]) {
        Serial.println(": BAD");
        dump(&results);
        mode = ERROR;
        return;
      }

    }
    Serial.println (": OK");
    digitalWrite(LED_PIN, HIGH);
    delay(20);
    digitalWrite(LED_PIN, LOW);
  }
 }   

 // This is the raw data corresponding to NEC 0x12345678
 unsigned int sendbuf[] = { /* NEC format */
  9000, 4500,
  560, 560, 560, 560, 560, 560, 560, 1690, /* 1 */
  560, 560, 560, 560, 560, 1690, 560, 560, /* 2 */
  560, 560, 560, 560, 560, 1690, 560, 1690, /* 3 */
  560, 560, 560, 1690, 560, 560, 560, 560, /* 4 */
  560, 560, 560, 1690, 560, 560, 560, 1690, /* 5 */
  560, 560, 560, 1690, 560, 1690, 560, 560, /* 6 */
  560, 560, 560, 1690, 560, 1690, 560, 1690, /* 7 */
  560, 1690, 560, 560, 560, 560, 560, 560, /* 8 */
  560};

 void loop() {
  if (mode == SENDER) {
    delay(2000);  // Delay for more than gap to give receiver a better chance to sync.
  } 
  else if (mode == RECEIVER) {
    waitForGap(1000);
  } 
  else if (mode == ERROR) {
    // Light up for 5 seconds for error
    digitalWrite(LED_PIN, HIGH);
    delay(5000);
    digitalWrite(LED_PIN, LOW);
    mode = RECEIVER;  // Try again
    return;
  }

  // The test suite.
  test("SONY1", SONY, 0x123, 12);
  test("SONY2", SONY, 0x000, 12);
  test("SONY3", SONY, 0xfff, 12);
  test("SONY4", SONY, 0x12345, 20);
  test("SONY5", SONY, 0x00000, 20);
  test("SONY6", SONY, 0xfffff, 20);
  test("NEC1", NEC, 0x12345678, 32);
  test("NEC2", NEC, 0x00000000, 32);
  test("NEC3", NEC, 0xffffffff, 32);
  test("NEC4", NEC, REPEAT, 32);
  test("RC51", RC5, 0x12345678, 32);
  test("RC52", RC5, 0x0, 32);
  test("RC53", RC5, 0xffffffff, 32);
  test("RC61", RC6, 0x12345678, 32);
  test("RC62", RC6, 0x0, 32);
  test("RC63", RC6, 0xffffffff, 32);

  // Tests of raw sending and receiving.
  // First test sending raw and receiving raw.
  // Then test sending raw and receiving decoded NEC
  // Then test sending NEC and receiving raw
  testRaw("RAW1", sendbuf, 67);
  if (mode == SENDER) {
    testRaw("RAW2", sendbuf, 67);
    test("RAW3", NEC, 0x12345678, 32);
  } 
  else {
    test("RAW2", NEC, 0x12345678, 32);
    testRaw("RAW3", sendbuf, 67);
  }
 }
--- a/examples/JVCPanasonicSendDemo/JVCPanasonicSendDemo.ino
+++ b/examples/JVCPanasonicSendDemo/JVCPanasonicSendDemo.ino
@@ -0,0 +1,29 @@
 /*
 * IRremote: IRsendDemo - demonstrates sending IR codes with IRsend
 * An IR LED must be connected to Arduino PWM pin 3.
 * Version 0.1 July, 2009
 * Copyright 2009 Ken Shirriff
 * http://arcfn.com
 * JVC and Panasonic protocol added by Kristian Lauszus (Thanks to zenwheel and other people at the original blog post)
 */
 #include <IRremote.h>
 
 #define PanasonicAddress      0x4004     // Panasonic address (Pre data) 
 #define PanasonicPower        0x100BCBD  // Panasonic Power button

 #define JVCPower              0xC5E8

 IRsend irsend;

 void setup()
 {
 }

 void loop() {
  irsend.sendPanasonic(PanasonicAddress,PanasonicPower); // This should turn your TV on and off
  
  irsend.sendJVC(JVCPower, 16,0); // hex value, 16 bits, no repeat
  delayMicroseconds(50); // see http://www.sbprojects.com/knowledge/ir/jvc.php for information
  irsend.sendJVC(JVCPower, 16,1); // hex value, 16 bits, repeat
  delayMicroseconds(50);
 }
--- a/examples/LGACSendDemo/LGACSendDemo.ino
+++ b/examples/LGACSendDemo/LGACSendDemo.ino
@@ -0,0 +1,263 @@
 #include <IRremote.h>
 #include <Wire.h>


 IRsend irsend;
 // not used
 int RECV_PIN = 11;
 IRrecv irrecv (RECV_PIN);

 const int AC_TYPE  = 0;
 // 0 : TOWER
 // 1 : WALL
 //

 int AC_HEAT = 0;
 // 0 : cooling
 // 1 : heating

 int AC_POWER_ON    = 0;
 // 0 : off
 // 1 : on

 int AC_AIR_ACLEAN  = 0;
 // 0 : off
 // 1 : on --> power on

 int AC_TEMPERATURE = 27;
 // temperature : 18 ~ 30

 int AC_FLOW        = 1;
 // 0 : low
 // 1 : mid
 // 2 : high
 // if AC_TYPE =1, 3 : change
 //


 const int AC_FLOW_TOWER[3] = {0, 4, 6};
 const int AC_FLOW_WALL[4]  = {0, 2, 4, 5};

 unsigned long AC_CODE_TO_SEND;

 int r = LOW;
 int o_r = LOW;

 byte a, b;

 void ac_send_code(unsigned long code)
 {
  Serial.print("code to send : ");
  Serial.print(code, BIN);
  Serial.print(" : ");
  Serial.println(code, HEX);

  irsend.sendLG(code, 28);
 }

 void ac_activate(int temperature, int air_flow)
 {

  int AC_MSBITS1 = 8;
  int AC_MSBITS2 = 8;
  int AC_MSBITS3 = 0;
  int AC_MSBITS4 ;
  if ( AC_HEAT == 1 ) {
    // heating
    AC_MSBITS4 = 4;
  } else {
    // cooling
    AC_MSBITS4 = 0;
  }
  int AC_MSBITS5 = temperature - 15;
  int AC_MSBITS6 ;

  if ( AC_TYPE == 0) {
    AC_MSBITS6 = AC_FLOW_TOWER[air_flow];
  } else {
    AC_MSBITS6 = AC_FLOW_WALL[air_flow];
  }

  int AC_MSBITS7 = (AC_MSBITS3 + AC_MSBITS4 + AC_MSBITS5 + AC_MSBITS6) & B00001111;

  AC_CODE_TO_SEND =  AC_MSBITS1 << 4 ;
  AC_CODE_TO_SEND =  (AC_CODE_TO_SEND + AC_MSBITS2) << 4;
  AC_CODE_TO_SEND =  (AC_CODE_TO_SEND + AC_MSBITS3) << 4;
  AC_CODE_TO_SEND =  (AC_CODE_TO_SEND + AC_MSBITS4) << 4;
  AC_CODE_TO_SEND =  (AC_CODE_TO_SEND + AC_MSBITS5) << 4;
  AC_CODE_TO_SEND =  (AC_CODE_TO_SEND + AC_MSBITS6) << 4;
  AC_CODE_TO_SEND =  (AC_CODE_TO_SEND + AC_MSBITS7);

  ac_send_code(AC_CODE_TO_SEND);

  AC_POWER_ON = 1;
  AC_TEMPERATURE = temperature;
  AC_FLOW = air_flow;
 }

 void ac_change_air_swing(int air_swing)
 {
  if ( AC_TYPE == 0) {
    if ( air_swing == 1) {
      AC_CODE_TO_SEND = 0x881316B;
    } else {
      AC_CODE_TO_SEND = 0x881317C;
    }
  } else {
    if ( air_swing == 1) {
      AC_CODE_TO_SEND = 0x8813149;
    } else {
      AC_CODE_TO_SEND = 0x881315A;
    }
  }

  ac_send_code(AC_CODE_TO_SEND);
 }

 void ac_power_down()
 {
  AC_CODE_TO_SEND = 0x88C0051;

  ac_send_code(AC_CODE_TO_SEND);

  AC_POWER_ON = 0;
 }

 void ac_air_clean(int air_clean)
 {
  if ( air_clean == 1) {
    AC_CODE_TO_SEND = 0x88C000C;
  } else {
    AC_CODE_TO_SEND = 0x88C0084;
  }

  ac_send_code(AC_CODE_TO_SEND);

  AC_AIR_ACLEAN = air_clean;
 }

 void setup()
 {
  Serial.begin(38400);
  delay(1000);
  Wire.begin(7);
  Wire.onReceive(receiveEvent);

  Serial.println("  - - - T E S T - - -   ");

  /* test
    ac_activate(25, 1);
    delay(5000);
    ac_activate(27, 2);
    delay(5000);

  */
 }

 void loop()
 {


  ac_activate(25, 1);
  delay(5000);
  ac_activate(27, 0);
  delay(5000);


  if ( r != o_r) {

    /*
    # a : mode or temp    b : air_flow, temp, swing, clean, cooling/heating
    # 18 ~ 30 : temp      0 ~ 2 : flow // on
    # 0 : off             0
    # 1 : on              0
    # 2 : air_swing       0 or 1
    # 3 : air_clean       0 or 1
    # 4 : air_flow        0 ~ 2 : flow
    # 5 : temp            18 ~ 30
    # + : temp + 1
    # - : temp - 1
    # m : change cooling to air clean, air clean to cooling
    */
    Serial.print("a : ");
    Serial.print(a);
    Serial.print("  b : ");
    Serial.println(b);

    switch (a) {
      case 0: // off
        ac_power_down();
        break;
      case 1: // on
        ac_activate(AC_TEMPERATURE, AC_FLOW);
        break;
      case 2:
        if ( b == 0 || b == 1 ) {
          ac_change_air_swing(b);
        }
        break;
      case 3: // 1  : clean on, power on
        if ( b == 0 || b == 1 ) {
          ac_air_clean(b);
        }
        break;
      case 4:
        if ( 0 <= b && b <= 2  ) {
          ac_activate(AC_TEMPERATURE, b);
        }
        break;
      case 5:
        if (18 <= b && b <= 30  ) {
          ac_activate(b, AC_FLOW);
        }
        break;
      case '+':
        if ( 18 <= AC_TEMPERATURE && AC_TEMPERATURE <= 29 ) {
          ac_activate((AC_TEMPERATURE + 1), AC_FLOW);
        }
        break;
      case '-':
        if ( 19 <= AC_TEMPERATURE && AC_TEMPERATURE <= 30 ) {
          ac_activate((AC_TEMPERATURE - 1), AC_FLOW);
        }
        break;
      case 'm':
        /*
          if ac is on,  1) turn off, 2) turn on ac_air_clean(1)
          if ac is off, 1) turn on,  2) turn off ac_air_clean(0)
        */
        if ( AC_POWER_ON == 1 ) {
          ac_power_down();
          delay(100);
          ac_air_clean(1);
        } else {
          if ( AC_AIR_ACLEAN == 1) {
            ac_air_clean(0);
            delay(100);
          }
          ac_activate(AC_TEMPERATURE, AC_FLOW);
        }
        break;
      default:
        if ( 18 <= a && a <= 30 ) {
          if ( 0 <= b && b <= 2 ) {
            ac_activate(a, b);
          }
        }
    }

    o_r = r ;
  }
  delay(100);
 }



 void receiveEvent(int howMany)
 {
  a = Wire.read();
  b = Wire.read();
  r = !r ;
 }


--- a/examples/LGACSendDemo/LGACSendDemo.md
+++ b/examples/LGACSendDemo/LGACSendDemo.md
@@ -0,0 +1,93 @@
 === decoding for LG A/C ====
 - 1) remote of LG AC has two type of HDR mark/space, 8000/4000 and 3100/10000 
 - 2) HDR 8000/4000 is decoded using decodeLG(IRrecvDumpV2) without problem
 - 3) for HDR 3100/10000, use AnalysIR's code : http://www.analysir.com/blog/2014/03/19/air-conditioners-problems-recording-long-infrared-remote-control-signals-arduino/
 - 4) for bin output based on AnalysIR's code : https://gist.github.com/chaeplin/a3a4b4b6b887c663bfe8
 - 5) remove first two byte(11)
 - 6) sample rawcode with bin output : https://gist.github.com/chaeplin/134d232e0b8cfb898860


 === *** ===
 - 1) Sample raw code : https://gist.github.com/chaeplin/ab2a7ad1533c41260f0d
 - 2) send raw code : https://gist.github.com/chaeplin/7c800d3166463bb51be4


 === *** ===
 - (0) : Cooling or Heating
 - (1) : fixed 
 - (2) : fixed
 - (3) : special(power, swing, air clean)
 - (4) : change air flow, temperature, cooling(0)/heating(4)
 - (5) : temperature ( 15 + (5) = )
 - (6) : air flow
 - (7) : crc ( 3 + 4 + 5 + 6 ) & B00001111


 °F = °C × 1.8 + 32
 °C = (°F − 32) / 1.8


 === *** ===
 * remote / Korea / without heating

 |       status   |(0)| (1)| (2)| (3)| (4)| (5)| (6)| (7)
 |----------------|---|----|----|----|----|----|----|----
 | on / 25 / mid  | C |1000|1000|0000|0000|1010|0010|1100
 | on / 26 / mid  | C |1000|1000|0000|0000|1011|0010|1101      
 | on / 27 / mid  | C |1000|1000|0000|0000|1100|0010|1110     
 | on / 28 / mid  | C |1000|1000|0000|0000|1101|0010|1111     
 | on / 25 / high | C |1000|1000|0000|0000|1010|0100|1110     
 | on / 26 / high | C |1000|1000|0000|0000|1011|0100|1111     
 | on / 27 / high | C |1000|1000|0000|0000|1100|0100|0000     
 | on / 28 / high | C |1000|1000|0000|0000|1101|0100|0001
 |----------------|---|----|----|----|----|----|----|----    
 | 1 up           | C |1000|1000|0000|1000|1101|0100|1001 
 |----------------|---|----|----|----|----|----|----|----    
 | Cool power     | C |1000|1000|0001|0000|0000|1100|1101     
 | energy saving  | C |1000|1000|0001|0000|0000|0100|0101     
 | power          | C |1000|1000|0001|0000|0000|1000|1001            
 | flow/up/down   | C |1000|1000|0001|0011|0001|0100|1001     
 | up/down off    | C |1000|1000|0001|0011|0001|0101|1010     
 | flow/left/right| C |1000|1000|0001|0011|0001|0110|1011     
 | left/right off | C |1000|1000|0001|0011|0001|0111|1100 
 |----------------|---|----|----|----|----|----|----|----    
 | Air clean      | C |1000|1000|1100|0000|0000|0000|1100
 |----------------|---|----|----|----|----|----|----|----    
 | off            | C |1000|1000|1100|0000|0000|0101|0001 



 * remote / with heating 
 * converted using raw code at https://github.com/chaeplin/RaspAC/blob/master/lircd.conf 

 |       status   |(0)| (1)| (2)| (3)| (4)| (5)| (6)| (7)
 |----------------|---|----|----|----|----|----|----|----
 | on             | C |1000|1000|0000|0000|1011|0010|1101
 |----------------|---|----|----|----|----|----|----|----
 | off            | C |1000|1000|1100|0000|0000|0101|0001
 |----------------|---|----|----|----|----|----|----|----
 | 64  / 18       | C |1000|1000|0000|0000|0011|0100|0111
 | 66  / 19       | C |1000|1000|0000|0000|0100|0100|1000
 | 68  / 20       | C |1000|1000|0000|0000|0101|0100|1001
 | 70  / 21       | C |1000|1000|0000|0000|0110|0100|1010
 | 72  / 22       | C |1000|1000|0000|0000|0111|0100|1011
 | 74  / 23       | C |1000|1000|0000|0000|1000|0100|1100
 | 76  / 25       | C |1000|1000|0000|0000|1010|0100|1110
 | 78  / 26       | C |1000|1000|0000|0000|1011|0100|1111
 | 80  / 27       | C |1000|1000|0000|0000|1100|0100|0000
 | 82  / 28       | C |1000|1000|0000|0000|1101|0100|0001
 | 84  / 29       | C |1000|1000|0000|0000|1110|0100|0010
 | 86  / 30       | C |1000|1000|0000|0000|1111|0100|0011
 |----------------|---|----|----|----|----|----|----|----
 | heat64         | H |1000|1000|0000|0100|0011|0100|1011
 | heat66         | H |1000|1000|0000|0100|0100|0100|1100
 | heat68         | H |1000|1000|0000|0100|0101|0100|1101
 | heat70         | H |1000|1000|0000|0100|0110|0100|1110
 | heat72         | H |1000|1000|0000|0100|0111|0100|1111
 | heat74         | H |1000|1000|0000|0100|1000|0100|0000
 | heat76         | H |1000|1000|0000|0100|1001|0100|0001
 | heat78         | H |1000|1000|0000|0100|1011|0100|0011
 | heat80         | H |1000|1000|0000|0100|1100|0100|0100
 | heat82         | H |1000|1000|0000|0100|1101|0100|0101
 | heat84         | H |1000|1000|0000|0100|1110|0100|0110
 | heat86         | H |1000|1000|0000|0100|1111|0100|0111
--- a/examples/LegoPowerFunctionsSendDemo/LegoPowerFunctionsSendDemo.ino
+++ b/examples/LegoPowerFunctionsSendDemo/LegoPowerFunctionsSendDemo.ino
@@ -0,0 +1,22 @@
 /*
 * LegoPowerFunctionsSendDemo: LEGO Power Functions
 * Copyright (c) 2016 Philipp Henkel
 */

 #include <IRremote.h>
 #include <IRremoteInt.h>

 IRsend irsend;

 void setup() {
 }

 void loop() {
  // Send repeated command "channel 1, blue forward, red backward"
  irsend.sendLegoPowerFunctions(0x197);
  delay(2000);

  // Send single command "channel 1, blue forward, red backward"
  irsend.sendLegoPowerFunctions(0x197, false);
  delay(2000);
 }
--- a/examples/LegoPowerFunctionsTests/LegoPowerFunctionsTests.ino
+++ b/examples/LegoPowerFunctionsTests/LegoPowerFunctionsTests.ino
@@ -0,0 +1,193 @@
 /*
 * LegoPowerFunctionsTest: LEGO Power Functions Tests
 * Copyright (c) 2016, 2017 Philipp Henkel
 */

 #include <ir_Lego_PF_BitStreamEncoder.h>

 void setup() {
  Serial.begin(9600);
  delay(1000); // wait for reset triggered by serial connection
  runBitStreamEncoderTests();
 }

 void loop() {
 }

 void runBitStreamEncoderTests() {
  Serial.println();
  Serial.println("BitStreamEncoder Tests");
  static LegoPfBitStreamEncoder bitStreamEncoder;
  testStartBit(bitStreamEncoder);
  testLowBit(bitStreamEncoder);
  testHighBit(bitStreamEncoder);
  testMessageBitCount(bitStreamEncoder);
  testMessageBitCountRepeat(bitStreamEncoder);
  testMessage407(bitStreamEncoder);
  testMessage407Repeated(bitStreamEncoder);
  testGetChannelId1(bitStreamEncoder);
  testGetChannelId2(bitStreamEncoder);
  testGetChannelId3(bitStreamEncoder);
  testGetChannelId4(bitStreamEncoder);
  testGetMessageLengthAllHigh(bitStreamEncoder);
  testGetMessageLengthAllLow(bitStreamEncoder);
 }

 void logTestResult(bool testPassed) {
  if (testPassed) {
    Serial.println("OK");
  }
  else {
    Serial.println("FAIL  ############");
  }
 }

 void testStartBit(LegoPfBitStreamEncoder& bitStreamEncoder) {
  Serial.print("  testStartBit                    ");
  bitStreamEncoder.reset(0, false);
  int startMark = bitStreamEncoder.getMarkDuration();
  int startPause = bitStreamEncoder.getPauseDuration();
  logTestResult(startMark == 158 && startPause == 1184-158);
 }

 void testLowBit(LegoPfBitStreamEncoder& bitStreamEncoder) {
  Serial.print("  testLowBit                      ");
  bitStreamEncoder.reset(0, false);
  bitStreamEncoder.next();
  int lowMark = bitStreamEncoder.getMarkDuration();
  int lowPause = bitStreamEncoder.getPauseDuration();
  logTestResult(lowMark == 158 && lowPause == 421-158);
 }

 void testHighBit(LegoPfBitStreamEncoder& bitStreamEncoder) {
  Serial.print("  testHighBit                     ");
  bitStreamEncoder.reset(0xFFFF, false);
  bitStreamEncoder.next();
  int highMark = bitStreamEncoder.getMarkDuration();
  int highPause = bitStreamEncoder.getPauseDuration();
  logTestResult(highMark == 158 && highPause == 711-158);
 }

 void testMessageBitCount(LegoPfBitStreamEncoder& bitStreamEncoder) {
  Serial.print("  testMessageBitCount             ");
  bitStreamEncoder.reset(0xFFFF, false);
  int bitCount = 1;
  while (bitStreamEncoder.next()) {
    bitCount++;
  }
  logTestResult(bitCount == 18);
 }

 boolean check(LegoPfBitStreamEncoder& bitStreamEncoder, unsigned long markDuration, unsigned long pauseDuration) {
  bool result = true;
  result = result && bitStreamEncoder.getMarkDuration() == markDuration;
  result = result && bitStreamEncoder.getPauseDuration() == pauseDuration;
  return result;
 }

 boolean checkNext(LegoPfBitStreamEncoder& bitStreamEncoder, unsigned long markDuration, unsigned long pauseDuration) {
  bool result = bitStreamEncoder.next();
  result = result && check(bitStreamEncoder, markDuration, pauseDuration);
  return result;
 }

 boolean checkDataBitsOfMessage407(LegoPfBitStreamEncoder& bitStreamEncoder) {
  bool result = true;
  result = result && checkNext(bitStreamEncoder, 158, 263);
  result = result && checkNext(bitStreamEncoder, 158, 263);
  result = result && checkNext(bitStreamEncoder, 158, 263);
  result = result && checkNext(bitStreamEncoder, 158, 263);
  result = result && checkNext(bitStreamEncoder, 158, 263);
  result = result && checkNext(bitStreamEncoder, 158, 263);
  result = result && checkNext(bitStreamEncoder, 158, 263);
  result = result && checkNext(bitStreamEncoder, 158, 553);
  result = result && checkNext(bitStreamEncoder, 158, 553);
  result = result && checkNext(bitStreamEncoder, 158, 263);
  result = result && checkNext(bitStreamEncoder, 158, 263);
  result = result && checkNext(bitStreamEncoder, 158, 553);
  result = result && checkNext(bitStreamEncoder, 158, 263);
  result = result && checkNext(bitStreamEncoder, 158, 553);
  result = result && checkNext(bitStreamEncoder, 158, 553);
  result = result && checkNext(bitStreamEncoder, 158, 553);
  return result;
 }

 void testMessage407(LegoPfBitStreamEncoder& bitStreamEncoder) {
  Serial.print("  testMessage407                  ");
  bitStreamEncoder.reset(407, false);
  bool result = true;
  result = result && check(bitStreamEncoder, 158, 1026);
  result = result && checkDataBitsOfMessage407(bitStreamEncoder);
  result = result && checkNext(bitStreamEncoder, 158, 1026);
  result = result && !bitStreamEncoder.next();
  logTestResult(result);
 }

 void testMessage407Repeated(LegoPfBitStreamEncoder& bitStreamEncoder) {
  Serial.print("  testMessage407Repeated          ");
  bitStreamEncoder.reset(407, true);
  bool result = true;
  result = result && check(bitStreamEncoder, 158, 1026);
  result = result && checkDataBitsOfMessage407(bitStreamEncoder);
  result = result && checkNext(bitStreamEncoder, 158, 1026L + 5L * 16000L - 10844L);
  result = result && checkNext(bitStreamEncoder, 158, 1026);
  result = result && checkDataBitsOfMessage407(bitStreamEncoder);
  result = result && checkNext(bitStreamEncoder, 158, 1026L + 5L * 16000L - 10844L);
  result = result && checkNext(bitStreamEncoder, 158, 1026);
  result = result && checkDataBitsOfMessage407(bitStreamEncoder);
  result = result && checkNext(bitStreamEncoder, 158, 1026L + 8L * 16000L - 10844L);
  result = result && checkNext(bitStreamEncoder, 158, 1026);
  result = result && checkDataBitsOfMessage407(bitStreamEncoder);
  result = result && checkNext(bitStreamEncoder, 158, 1026L + 8L * 16000L - 10844L);
  result = result && checkNext(bitStreamEncoder, 158, 1026);
  result = result && checkDataBitsOfMessage407(bitStreamEncoder);
  result = result && checkNext(bitStreamEncoder, 158, 1026);
  result = result && !bitStreamEncoder.next();
  logTestResult(result);
 }

 void testMessageBitCountRepeat(LegoPfBitStreamEncoder& bitStreamEncoder) {
  Serial.print("  testMessageBitCountRepeat       ");
  bitStreamEncoder.reset(0xFFFF, true);
  int bitCount = 1;
  while (bitStreamEncoder.next()) {
    bitCount++;
  }
  logTestResult(bitCount == 5*18);
 }

 void testGetChannelId1(LegoPfBitStreamEncoder& bitStreamEncoder) {
  Serial.print("  testGetChannelId1               ");
  bitStreamEncoder.reset(407, false);
  logTestResult(bitStreamEncoder.getChannelId() == 1);
 }

 void testGetChannelId2(LegoPfBitStreamEncoder& bitStreamEncoder) {
  Serial.print("  testGetChannelId2               ");
  bitStreamEncoder.reset(4502, false);
  logTestResult(bitStreamEncoder.getChannelId() == 2);
 }

 void testGetChannelId3(LegoPfBitStreamEncoder& bitStreamEncoder) {
  Serial.print("  testGetChannelId3               ");
  bitStreamEncoder.reset(8597, false);
  logTestResult(bitStreamEncoder.getChannelId() == 3);
 }

 void testGetChannelId4(LegoPfBitStreamEncoder& bitStreamEncoder) {
  Serial.print("  testGetChannelId4               ");
  bitStreamEncoder.reset(12692, false);
  logTestResult(bitStreamEncoder.getChannelId() == 4);
 }

 void testGetMessageLengthAllHigh(LegoPfBitStreamEncoder& bitStreamEncoder) {
  Serial.print("  testGetMessageLengthAllHigh     ");
  bitStreamEncoder.reset(0xFFFF, false);
  logTestResult(bitStreamEncoder.getMessageLength() == 13744);
 }

 void testGetMessageLengthAllLow(LegoPfBitStreamEncoder& bitStreamEncoder) {
  Serial.print("  testGetMessageLengthAllLow      ");
  bitStreamEncoder.reset(0x0, false);
  logTestResult(bitStreamEncoder.getMessageLength() == 9104);
 }
--- a/include/irr/IRremote.h
+++ b/include/irr/IRremote.h
@@ -0,0 +1,344 @@

 //******************************************************************************
 // IRremote
 // Version 2.0.1 June, 2015
 // Copyright 2009 Ken Shirriff
 // For details, see http://arcfn.com/2009/08/multi-protocol-infrared-remote-library.html
 // Edited by Mitra to add new controller SANYO
 //
 // Interrupt code based on NECIRrcv by Joe Knapp
 // http://www.arduino.cc/cgi-bin/yabb2/YaBB.pl?num=1210243556
 // Also influenced by http://zovirl.com/2008/11/12/building-a-universal-remote-with-an-arduino/
 //
 // JVC and Panasonic protocol added by Kristian Lauszus (Thanks to zenwheel and other people at the original blog post)
 // LG added by Darryl Smith (based on the JVC protocol)
 // Whynter A/C ARC-110WD added by Francesco Meschia
 //******************************************************************************

 #ifndef IRremote_h
 #define IRremote_h

 //------------------------------------------------------------------------------
 // The ISR header contains several useful macros the user may wish to use
 //
 #include "./IRremoteInt.h"

 //------------------------------------------------------------------------------
 // Supported IR protocols
 // Each protocol you include costs memory and, during decode, costs time
 // Disable (set to 0) all the protocols you do not need/want!
 //
 #define DECODE_RC5           1
 #define SEND_RC5             1

 #define DECODE_RC6           1
 #define SEND_RC6             1

 #define DECODE_NEC           1
 #define SEND_NEC             1

 #define DECODE_SONY          1
 #define SEND_SONY            1

 #define DECODE_PANASONIC     1
 #define SEND_PANASONIC       1

 #define DECODE_JVC           1
 #define SEND_JVC             1

 #define DECODE_SAMSUNG       1
 #define SEND_SAMSUNG         1

 #define DECODE_WHYNTER       1
 #define SEND_WHYNTER         1

 #define DECODE_AIWA_RC_T501  1
 #define SEND_AIWA_RC_T501    1

 #define DECODE_LG            1
 #define SEND_LG              1

 #define DECODE_SANYO         1
 #define SEND_SANYO           0 // NOT WRITTEN

 #define DECODE_MITSUBISHI    1
 #define SEND_MITSUBISHI      0 // NOT WRITTEN

 #define DECODE_DISH          0 // NOT WRITTEN
 #define SEND_DISH            1

 #define DECODE_SHARP         0 // NOT WRITTEN
 #define SEND_SHARP           1

 #define DECODE_DENON         1
 #define SEND_DENON           1

 #define DECODE_PRONTO        0 // This function doe not logically make sense
 #define SEND_PRONTO          1

 #define DECODE_LEGO_PF       0 // NOT WRITTEN
 #define SEND_LEGO_PF         1

 //------------------------------------------------------------------------------
 // When sending a Pronto code we request to send either the "once" code
 //                                                   or the "repeat" code
 // If the code requested does not exist we can request to fallback on the
 // other code (the one we did not explicitly request)
 //
 // I would suggest that "fallback" will be the standard calling method
 // The last paragraph on this page discusses the rationale of this idea:
 //   http://www.remotecentral.com/features/irdisp2.htm
 //
 #define PRONTO_ONCE        false
 #define PRONTO_REPEAT      true
 #define PRONTO_FALLBACK    true
 #define PRONTO_NOFALLBACK  false

 //------------------------------------------------------------------------------
 // An enumerated list of all supported formats
 // You do NOT need to remove entries from this list when disabling protocols!
 //
 typedef
 	enum {
 		UNKNOWN      = -1,
 		UNUSED       =  0,
 		RC5,
 		RC6,
 		NEC,
 		SONY,
 		PANASONIC,
 		JVC,
 		SAMSUNG,
 		WHYNTER,
 		AIWA_RC_T501,
 		LG,
 		SANYO,
 		MITSUBISHI,
 		DISH,
 		SHARP,
 		DENON,
 		PRONTO,
 		LEGO_PF,
 	}
 decode_type_t;

 //------------------------------------------------------------------------------
 // Set DEBUG to 1 for lots of lovely debug output
 //
 #define DEBUG  0

 //------------------------------------------------------------------------------
 // Debug directives
 //
 #if DEBUG
 #	define DBG_PRINT(...)    Serial.print(__VA_ARGS__)
 #	define DBG_PRINTLN(...)  Serial.println(__VA_ARGS__)
 #else
 #	define DBG_PRINT(...)
 #	define DBG_PRINTLN(...)
 #endif

 //------------------------------------------------------------------------------
 // Mark & Space matching functions
 //
 int  MATCH       (int measured, int desired) ;
 int  MATCH_MARK  (int measured_ticks, int desired_us) ;
 int  MATCH_SPACE (int measured_ticks, int desired_us) ;

 //------------------------------------------------------------------------------
 // Results returned from the decoder
 //
 class decode_results
 {
 	public:
 		decode_type_t          decode_type;  // UNKNOWN, NEC, SONY, RC5, ...
 		unsigned int           address;      // Used by Panasonic & Sharp [16-bits]
 		unsigned long          value;        // Decoded value [max 32-bits]
 		int                    bits;         // Number of bits in decoded value
 		volatile unsigned int  *rawbuf;      // Raw intervals in 50uS ticks
 		int                    rawlen;       // Number of records in rawbuf
 		int                    overflow;     // true iff IR raw code too long
 };

 //------------------------------------------------------------------------------
 // Decoded value for NEC when a repeat code is received
 //
 #define REPEAT 0xFFFFFFFF

 //------------------------------------------------------------------------------
 // Main class for receiving IR
 //
 class IRrecv
 {
 	public:
 		IRrecv (int recvpin) ;
 		IRrecv (int recvpin, int blinkpin);

 		void  blink13    (int blinkflag) ;
 		int   decode     (decode_results *results) ;
 		void  enableIRIn ( ) ;
 		bool  isIdle     ( ) ;
 		void  resume     ( ) ;

 	private:
 		long  decodeHash (decode_results *results) ;
 		int   compare    (unsigned int oldval, unsigned int newval) ;

 		//......................................................................
 #		if (DECODE_RC5 || DECODE_RC6)
 			// This helper function is shared by RC5 and RC6
 			int  getRClevel (decode_results *results,  int *offset,  int *used,  int t1) ;
 #		endif
 #		if DECODE_RC5
 			bool  decodeRC5        (decode_results *results) ;
 #		endif
 #		if DECODE_RC6
 			bool  decodeRC6        (decode_results *results) ;
 #		endif
 		//......................................................................
 #		if DECODE_NEC
 			bool  decodeNEC        (decode_results *results) ;
 #		endif
 		//......................................................................
 #		if DECODE_SONY
 			bool  decodeSony       (decode_results *results) ;
 #		endif
 		//......................................................................
 #		if DECODE_PANASONIC
 			bool  decodePanasonic  (decode_results *results) ;
 #		endif
 		//......................................................................
 #		if DECODE_JVC
 			bool  decodeJVC        (decode_results *results) ;
 #		endif
 		//......................................................................
 #		if DECODE_SAMSUNG
 			bool  decodeSAMSUNG    (decode_results *results) ;
 #		endif
 		//......................................................................
 #		if DECODE_WHYNTER
 			bool  decodeWhynter    (decode_results *results) ;
 #		endif
 		//......................................................................
 #		if DECODE_AIWA_RC_T501
 			bool  decodeAiwaRCT501 (decode_results *results) ;
 #		endif
 		//......................................................................
 #		if DECODE_LG
 			bool  decodeLG         (decode_results *results) ;
 #		endif
 		//......................................................................
 #		if DECODE_SANYO
 			bool  decodeSanyo      (decode_results *results) ;
 #		endif
 		//......................................................................
 #		if DECODE_MITSUBISHI
 			bool  decodeMitsubishi (decode_results *results) ;
 #		endif
 		//......................................................................
 #		if DECODE_DISH
 			bool  decodeDish (decode_results *results) ; // NOT WRITTEN
 #		endif
 		//......................................................................
 #		if DECODE_SHARP
 			bool  decodeSharp (decode_results *results) ; // NOT WRITTEN
 #		endif
 		//......................................................................
 #		if DECODE_DENON
 			bool  decodeDenon (decode_results *results) ;
 #		endif
 //......................................................................
 #		if DECODE_LEGO_PF
 			bool  decodeLegoPowerFunctions (decode_results *results) ;
 #		endif
 } ;

 //------------------------------------------------------------------------------
 // Main class for sending IR
 //
 class IRsend
 {
 	public:
 		IRsend () { }

 		void  custom_delay_usec (unsigned long uSecs);
 		void  enableIROut 		(int khz) ;
 		void  mark        		(unsigned int usec) ;
 		void  space       		(unsigned int usec) ;
 		void  sendRaw     		(const unsigned int buf[],  unsigned int len,  unsigned int hz) ;

 		//......................................................................
 #		if SEND_RC5
 			void  sendRC5        (unsigned long data,  int nbits) ;
 #		endif
 #		if SEND_RC6
 			void  sendRC6        (unsigned long data,  int nbits) ;
 #		endif
 		//......................................................................
 #		if SEND_NEC
 			void  sendNEC        (unsigned long data,  int nbits) ;
 #		endif
 		//......................................................................
 #		if SEND_SONY
 			void  sendSony       (unsigned long data,  int nbits) ;
 #		endif
 		//......................................................................
 #		if SEND_PANASONIC
 			void  sendPanasonic  (unsigned int address,  unsigned long data) ;
 #		endif
 		//......................................................................
 #		if SEND_JVC
 			// JVC does NOT repeat by sending a separate code (like NEC does).
 			// The JVC protocol repeats by skipping the header.
 			// To send a JVC repeat signal, send the original code value
 			//   and set 'repeat' to true
 			void  sendJVC        (unsigned long data,  int nbits,  bool repeat) ;
 #		endif
 		//......................................................................
 #		if SEND_SAMSUNG
 			void  sendSAMSUNG    (unsigned long data,  int nbits) ;
 #		endif
 		//......................................................................
 #		if SEND_WHYNTER
 			void  sendWhynter    (unsigned long data,  int nbits) ;
 #		endif
 		//......................................................................
 #		if SEND_AIWA_RC_T501
 			void  sendAiwaRCT501 (int code) ;
 #		endif
 		//......................................................................
 #		if SEND_LG
 			void  sendLG         (unsigned long data,  int nbits) ;
 #		endif
 		//......................................................................
 #		if SEND_SANYO
 			void  sendSanyo      ( ) ; // NOT WRITTEN
 #		endif
 		//......................................................................
 #		if SEND_MISUBISHI
 			void  sendMitsubishi ( ) ; // NOT WRITTEN
 #		endif
 		//......................................................................
 #		if SEND_DISH
 			void  sendDISH       (unsigned long data,  int nbits) ;
 #		endif
 		//......................................................................
 #		if SEND_SHARP
 			void  sendSharpRaw   (unsigned long data,  int nbits) ;
 			void  sendSharp      (unsigned int address,  unsigned int command) ;
 #		endif
 		//......................................................................
 #		if SEND_DENON
 			void  sendDenon      (unsigned long data,  int nbits) ;
 #		endif
 		//......................................................................
 #		if SEND_PRONTO
 			void  sendPronto     (char* code,  bool repeat,  bool fallback) ;
 #		endif
 //......................................................................
 #		if SEND_LEGO_PF
 			void  sendLegoPowerFunctions (uint16_t data, bool repeat = true) ;
 #		endif
 } ;

 #endif
--- a/include/irr/IRremoteInt.h
+++ b/include/irr/IRremoteInt.h
@@ -0,0 +1,113 @@
 //******************************************************************************
 // IRremote
 // Version 2.0.1 June, 2015
 // Copyright 2009 Ken Shirriff
 // For details, see http://arcfn.com/2009/08/multi-protocol-infrared-remote-library.html
 //
 // Modified by Paul Stoffregen <paul@pjrc.com> to support other boards and timers
 //
 // Interrupt code based on NECIRrcv by Joe Knapp
 // http://www.arduino.cc/cgi-bin/yabb2/YaBB.pl?num=1210243556
 // Also influenced by http://zovirl.com/2008/11/12/building-a-universal-remote-with-an-arduino/
 //
 // JVC and Panasonic protocol added by Kristian Lauszus (Thanks to zenwheel and other people at the original blog post)
 // Whynter A/C ARC-110WD added by Francesco Meschia
 //******************************************************************************

 #ifndef IRremoteint_h
 #define IRremoteint_h

 //------------------------------------------------------------------------------
 // Include the right Arduino header
 //
 #if defined(ARDUINO) && (ARDUINO >= 100)
 #	include <core/Arduino.h>
 #else
 #	if !defined(IRPRONTO)
 #		include <WProgram.h>
 #	endif
 #endif

 //------------------------------------------------------------------------------
 // This handles definition and access to global variables
 //
 #ifdef IR_GLOBAL
 #	define EXTERN
 #else
 #	define EXTERN extern
 #endif

 //------------------------------------------------------------------------------
 // Information for the Interrupt Service Routine
 //
 #define RAWBUF  101  // Maximum length of raw duration buffer

 typedef
 	struct {
 		// The fields are ordered to reduce memory over caused by struct-padding
 		uint8_t       rcvstate;        // State Machine state
 		uint8_t       recvpin;         // Pin connected to IR data from detector
 		uint8_t       blinkpin;
 		uint8_t       blinkflag;       // true -> enable blinking of pin on IR processing
 		uint8_t       rawlen;          // counter of entries in rawbuf
 		unsigned int  timer;           // State timer, counts 50uS ticks.
 		unsigned int  rawbuf[RAWBUF];  // raw data
 		uint8_t       overflow;        // Raw buffer overflow occurred
 	}
 irparams_t;

 // ISR State-Machine : Receiver States
 #define STATE_IDLE      2
 #define STATE_MARK      3
 #define STATE_SPACE     4
 #define STATE_STOP      5
 #define STATE_OVERFLOW  6

 // Allow all parts of the code access to the ISR data
 // NB. The data can be changed by the ISR at any time, even mid-function
 // Therefore we declare it as "volatile" to stop the compiler/CPU caching it
 EXTERN  volatile irparams_t  irparams;

 //------------------------------------------------------------------------------
 // Defines for setting and clearing register bits
 //
 #ifndef cbi
 #	define cbi(sfr, bit)  (_SFR_BYTE(sfr) &= ~_BV(bit))
 #endif

 #ifndef sbi
 #	define sbi(sfr, bit)  (_SFR_BYTE(sfr) |= _BV(bit))
 #endif

 //------------------------------------------------------------------------------
 // Pulse parms are ((X*50)-100) for the Mark and ((X*50)+100) for the Space.
 // First MARK is the one after the long gap
 // Pulse parameters in uSec
 //

 // Due to sensor lag, when received, Marks  tend to be 100us too long and
 //                                   Spaces tend to be 100us too short
 #define MARK_EXCESS    100

 // Upper and Lower percentage tolerances in measurements
 #define TOLERANCE       25
 #define LTOL            (1.0 - (TOLERANCE/100.))
 #define UTOL            (1.0 + (TOLERANCE/100.))

 // Minimum gap between IR transmissions
 #define _GAP            5000
 #define GAP_TICKS       (_GAP/USECPERTICK)

 #define TICKS_LOW(us)   ((int)(((us)*LTOL/USECPERTICK)))
 #define TICKS_HIGH(us)  ((int)(((us)*UTOL/USECPERTICK + 1)))

 //------------------------------------------------------------------------------
 // IR detector output is active low
 //
 #define MARK   0
 #define SPACE  1

 // All board specific stuff has been moved to its own file, included here.
 #include "./boarddefs.h"

 #endif
--- a/include/irr/boarddefs.h
+++ b/include/irr/boarddefs.h
@@ -0,0 +1,661 @@
 //******************************************************************************
 // IRremote
 // Version 2.0.1 June, 2015
 // Copyright 2009 Ken Shirriff
 // For details, see http://arcfn.com/2009/08/multi-protocol-infrared-remote-library.html

 // This file contains all board specific information. It was previously contained within
 // IRremoteInt.h

 // Modified by Paul Stoffregen <paul@pjrc.com> to support other boards and timers
 //
 // Interrupt code based on NECIRrcv by Joe Knapp
 // http://www.arduino.cc/cgi-bin/yabb2/YaBB.pl?num=1210243556
 // Also influenced by http://zovirl.com/2008/11/12/building-a-universal-remote-with-an-arduino/
 //
 // JVC and Panasonic protocol added by Kristian Lauszus (Thanks to zenwheel and other people at the original blog post)
 // Whynter A/C ARC-110WD added by Francesco Meschia

 // Sparkfun Pro Micro support by Alastair McCormack
 //******************************************************************************

 #ifndef boarddefs_h
 #define boarddefs_h

 //------------------------------------------------------------------------------
 // Defines for blinking the LED
 //

 #if defined(CORE_LED0_PIN)
 #	define BLINKLED        CORE_LED0_PIN
 #	define BLINKLED_ON()   (digitalWrite(CORE_LED0_PIN, HIGH))
 #	define BLINKLED_OFF()  (digitalWrite(CORE_LED0_PIN, LOW))

 #elif defined(__AVR_ATmega1280__) || defined(__AVR_ATmega2560__)
 #	define BLINKLED        13
 #	define BLINKLED_ON()   (PORTB |= B10000000)
 #	define BLINKLED_OFF()  (PORTB &= B01111111)

 #elif defined(__AVR_ATmega644P__) || defined(__AVR_ATmega644__)
 #	define BLINKLED        0
 #	define BLINKLED_ON()   (PORTD |= B00000001)
 #	define BLINKLED_OFF()  (PORTD &= B11111110)

 // No system LED on ESP32, disable blinking
 #elif defined(ESP32)
 #	define BLINKLED        255
 #	define BLINKLED_ON()   1
 #	define BLINKLED_OFF()  1
 #else
 #	define BLINKLED        13
 #	define BLINKLED_ON()  (PORTB |= B00100000)
 #	define BLINKLED_OFF()  (PORTB &= B11011111)
 #endif

 //------------------------------------------------------------------------------
 // CPU Frequency
 //
 #ifdef F_CPU
 #	define SYSCLOCK  F_CPU     // main Arduino clock
 #else
 #	define SYSCLOCK  16000000  // main Arduino clock
 #endif

 // microseconds per clock interrupt tick
 #define USECPERTICK    50

 //------------------------------------------------------------------------------
 // Define which timer to use
 //
 // Uncomment the timer you wish to use on your board.
 // If you are using another library which uses timer2, you have options to
 //   switch IRremote to use a different timer.
 //

 // Sparkfun Pro Micro
 #if defined(ARDUINO_AVR_PROMICRO)
 	//#define IR_USE_TIMER1     // tx = pin 9
 	#define IR_USE_TIMER3       // tx = pin 5
 	//#define IR_USE_TIMER4_HS  // tx = pin 5

 // Arduino Mega
 #elif defined(__AVR_ATmega1280__) || defined(__AVR_ATmega2560__)
 	//#define IR_USE_TIMER1   // tx = pin 11
 	#define IR_USE_TIMER2     // tx = pin 9
 	//#define IR_USE_TIMER3   // tx = pin 5
 	//#define IR_USE_TIMER4   // tx = pin 6
 	//#define IR_USE_TIMER5   // tx = pin 46

 // Teensy 1.0
 #elif defined(__AVR_AT90USB162__)
 	#define IR_USE_TIMER1     // tx = pin 17

 // Teensy 2.0
 #elif defined(__AVR_ATmega32U4__)
 	//#define IR_USE_TIMER1   // tx = pin 14
 	//#define IR_USE_TIMER3   // tx = pin 9
 	#define IR_USE_TIMER4_HS  // tx = pin 10

 // Teensy 3.0 / Teensy 3.1
 #elif defined(__MK20DX128__) || defined(__MK20DX256__) || defined(__MK64FX512__) || defined(__MK66FX1M0__)
 	#define IR_USE_TIMER_CMT  // tx = pin 5

 // Teensy-LC
 #elif defined(__MKL26Z64__)
  #define IR_USE_TIMER_TPM1 // tx = pin 16

 // Teensy 4
 #elif defined(__IMXRT1062__)
  #define IR_USE_TIMER_FLEXPWM1 // tx = pin 8

 // Teensy++ 1.0 & 2.0
 #elif defined(__AVR_AT90USB646__) || defined(__AVR_AT90USB1286__)
 	//#define IR_USE_TIMER1   // tx = pin 25
 	#define IR_USE_TIMER2     // tx = pin 1
 	//#define IR_USE_TIMER3   // tx = pin 16

 // MightyCore - ATmega1284
 #elif defined(__AVR_ATmega1284__) || defined(__AVR_ATmega1284P__)
 	//#define IR_USE_TIMER1   // tx = pin 13
 	#define IR_USE_TIMER2     // tx = pin 14
 	//#define IR_USE_TIMER3   // tx = pin 6

 // MightyCore - ATmega164, ATmega324, ATmega644
 #elif defined(__AVR_ATmega644__) || defined(__AVR_ATmega644P__) \
 || defined(__AVR_ATmega324P__) || defined(__AVR_ATmega324A__) \
 || defined(__AVR_ATmega324PA__) || defined(__AVR_ATmega164A__) \
 || defined(__AVR_ATmega164P__)
 	//#define IR_USE_TIMER1   // tx = pin 13
 	#define IR_USE_TIMER2     // tx = pin 14
 	
 //MegaCore - ATmega64, ATmega128
 #elif defined(__AVR_ATmega64__) || defined(__AVR_ATmega128__)
 	#define IR_USE_TIMER1     // tx = pin 13

 // MightyCore - ATmega8535, ATmega16, ATmega32
 #elif defined(__AVR_ATmega8535__) || defined(__AVR_ATmega16__) || defined(__AVR_ATmega32__)
 	#define IR_USE_TIMER1     // tx = pin 13

 // Atmega8
 #elif defined(__AVR_ATmega8__)
 	#define IR_USE_TIMER1     // tx = pin 9

 // ATtiny84
 #elif defined(__AVR_ATtiny84__)
 	#define IR_USE_TIMER1     // tx = pin 6

 //ATtiny85
 #elif defined(__AVR_ATtiny85__)
 	#define IR_USE_TIMER_TINY0   // tx = pin 1

 #elif defined(ESP32)
 	#define IR_TIMER_USE_ESP32
 #else
 // Arduino Duemilanove, Diecimila, LilyPad, Mini, Fio, Nano, etc
 // ATmega48, ATmega88, ATmega168, ATmega328
 	//#define IR_USE_TIMER1   // tx = pin 9
 	#define IR_USE_TIMER2     // tx = pin 3

 #endif

 //------------------------------------------------------------------------------
 // Defines for Timer

 //---------------------------------------------------------
 // Timer2 (8 bits)
 //
 #if defined(IR_USE_TIMER2)

 #define TIMER_RESET
 #define TIMER_ENABLE_PWM    (TCCR2A |= _BV(COM2B1))
 #define TIMER_DISABLE_PWM   (TCCR2A &= ~(_BV(COM2B1)))
 #define TIMER_ENABLE_INTR   (TIMSK2 = _BV(OCIE2A))
 #define TIMER_DISABLE_INTR  (TIMSK2 = 0)
 #define TIMER_INTR_NAME     TIMER2_COMPA_vect

 #define TIMER_CONFIG_KHZ(val) ({ \
 	const uint8_t pwmval = SYSCLOCK / 2000 / (val); \
 	TCCR2A               = _BV(WGM20); \
 	TCCR2B               = _BV(WGM22) | _BV(CS20); \
 	OCR2A                = pwmval; \
 	OCR2B                = pwmval / 3; \
 })

 #define TIMER_COUNT_TOP  (SYSCLOCK * USECPERTICK / 1000000)

 //-----------------
 #if (TIMER_COUNT_TOP < 256)
 #	define TIMER_CONFIG_NORMAL() ({ \
 		TCCR2A = _BV(WGM21); \
 		TCCR2B = _BV(CS20); \
 		OCR2A  = TIMER_COUNT_TOP; \
 		TCNT2  = 0; \
 	})
 #else
 #	define TIMER_CONFIG_NORMAL() ({ \
 		TCCR2A = _BV(WGM21); \
 		TCCR2B = _BV(CS21); \
 		OCR2A  = TIMER_COUNT_TOP / 8; \
 		TCNT2  = 0; \
 	})
 #endif

 //-----------------
 #if defined(CORE_OC2B_PIN)
 #	define TIMER_PWM_PIN  CORE_OC2B_PIN  // Teensy
 #elif defined(__AVR_ATmega1280__) || defined(__AVR_ATmega2560__)
 #	define TIMER_PWM_PIN  9              // Arduino Mega
 #elif defined(__AVR_ATmega1284__) || defined(__AVR_ATmega1284P__) \
 || defined(__AVR_ATmega644__) || defined(__AVR_ATmega644P__) \
 || defined(__AVR_ATmega324P__) || defined(__AVR_ATmega324A__) \
 || defined(__AVR_ATmega324PA__) || defined(__AVR_ATmega164A__) \
 || defined(__AVR_ATmega164P__)
 #	define TIMER_PWM_PIN  14             // MightyCore
 #else
 #	define TIMER_PWM_PIN  3              // Arduino Duemilanove, Diecimila, LilyPad, etc
 #endif					     // ATmega48, ATmega88, ATmega168, ATmega328

 //---------------------------------------------------------
 // Timer1 (16 bits)
 //
 #elif defined(IR_USE_TIMER1)

 #define TIMER_RESET
 #define TIMER_ENABLE_PWM   (TCCR1A |= _BV(COM1A1))
 #define TIMER_DISABLE_PWM  (TCCR1A &= ~(_BV(COM1A1)))

 //-----------------
 #if defined(__AVR_ATmega8__) || defined(__AVR_ATmega8535__) \
 || defined(__AVR_ATmega16__) || defined(__AVR_ATmega32__) \
 || defined(__AVR_ATmega64__) || defined(__AVR_ATmega128__)
 #	define TIMER_ENABLE_INTR   (TIMSK |= _BV(OCIE1A))
 #	define TIMER_DISABLE_INTR  (TIMSK &= ~_BV(OCIE1A))
 #else
 #	define TIMER_ENABLE_INTR   (TIMSK1 = _BV(OCIE1A))
 #	define TIMER_DISABLE_INTR  (TIMSK1 = 0)
 #endif

 //-----------------
 #define TIMER_INTR_NAME       TIMER1_COMPA_vect

 #define TIMER_CONFIG_KHZ(val) ({ \
 	const uint16_t pwmval = SYSCLOCK / 2000 / (val); \
 	TCCR1A                = _BV(WGM11); \
 	TCCR1B                = _BV(WGM13) | _BV(CS10); \
 	ICR1                  = pwmval; \
 	OCR1A                 = pwmval / 3; \
 })

 #define TIMER_CONFIG_NORMAL() ({ \
 	TCCR1A = 0; \
 	TCCR1B = _BV(WGM12) | _BV(CS10); \
 	OCR1A  = SYSCLOCK * USECPERTICK / 1000000; \
 	TCNT1  = 0; \
 })

 //-----------------
 #if defined(CORE_OC1A_PIN)
 #	define TIMER_PWM_PIN  CORE_OC1A_PIN  // Teensy
 #elif defined(__AVR_ATmega1280__) || defined(__AVR_ATmega2560__)
 #	define TIMER_PWM_PIN  11             // Arduino Mega
 #elif defined(__AVR_ATmega1284__) || defined(__AVR_ATmega1284P__) \
 || defined(__AVR_ATmega644__) || defined(__AVR_ATmega644P__) \
 || defined(__AVR_ATmega324P__) || defined(__AVR_ATmega324A__) \
 || defined(__AVR_ATmega324PA__) || defined(__AVR_ATmega164A__) \
 || defined(__AVR_ATmega164P__) || defined(__AVR_ATmega32__) \
 || defined(__AVR_ATmega16__) || defined(__AVR_ATmega8535__) \
 || defined(__AVR_ATmega64__) || defined(__AVR_ATmega128__)
 #	define TIMER_PWM_PIN  13             // MightyCore, MegaCore
 #elif defined(__AVR_ATtiny84__)
 # 	define TIMER_PWM_PIN  6
 #else
 #	define TIMER_PWM_PIN  9              // Arduino Duemilanove, Diecimila, LilyPad, Sparkfun Pro Micro etc
 #endif					     // ATmega48, ATmega88, ATmega168, ATmega328

 //---------------------------------------------------------
 // Timer3 (16 bits)
 //
 #elif defined(IR_USE_TIMER3)

 #define TIMER_RESET
 #define TIMER_ENABLE_PWM     (TCCR3A |= _BV(COM3A1))
 #define TIMER_DISABLE_PWM    (TCCR3A &= ~(_BV(COM3A1)))
 #define TIMER_ENABLE_INTR    (TIMSK3 = _BV(OCIE3A))
 #define TIMER_DISABLE_INTR   (TIMSK3 = 0)
 #define TIMER_INTR_NAME      TIMER3_COMPA_vect

 #define TIMER_CONFIG_KHZ(val) ({ \
  const uint16_t pwmval = SYSCLOCK / 2000 / (val); \
  TCCR3A = _BV(WGM31); \
  TCCR3B = _BV(WGM33) | _BV(CS30); \
  ICR3 = pwmval; \
  OCR3A = pwmval / 3; \
 })

 #define TIMER_CONFIG_NORMAL() ({ \
  TCCR3A = 0; \
  TCCR3B = _BV(WGM32) | _BV(CS30); \
  OCR3A = SYSCLOCK * USECPERTICK / 1000000; \
  TCNT3 = 0; \
 })

 //-----------------
 #if defined(CORE_OC3A_PIN)
 #	define TIMER_PWM_PIN  CORE_OC3A_PIN  // Teensy
 #elif defined(__AVR_ATmega1280__) || defined(__AVR_ATmega2560__) || defined(ARDUINO_AVR_PROMICRO)
 #	define TIMER_PWM_PIN  5              // Arduino Mega, Sparkfun Pro Micro
 #elif defined(__AVR_ATmega1284__) || defined(__AVR_ATmega1284P__)
 #	define TIMER_PWM_PIN  6              // MightyCore
 #else
 #	error "Please add OC3A pin number here\n"
 #endif

 //---------------------------------------------------------
 // Timer4 (10 bits, high speed option)
 //
 #elif defined(IR_USE_TIMER4_HS)

 #define TIMER_RESET

 #if defined(ARDUINO_AVR_PROMICRO) // Sparkfun Pro Micro                         
 	#define TIMER_ENABLE_PWM    (TCCR4A |= _BV(COM4A0))     // Use complimentary O̅C̅4̅A̅ output on pin 5
 	#define TIMER_DISABLE_PWM   (TCCR4A &= ~(_BV(COM4A0)))  // (Pro Micro does not map PC7 (32/ICP3/CLK0/OC4A)
 															// of ATmega32U4 )
 #else
 	#define TIMER_ENABLE_PWM    (TCCR4A |= _BV(COM4A1))
 	#define TIMER_DISABLE_PWM   (TCCR4A &= ~(_BV(COM4A1)))
 #endif

 #define TIMER_ENABLE_INTR   (TIMSK4 = _BV(TOIE4))
 #define TIMER_DISABLE_INTR  (TIMSK4 = 0)
 #define TIMER_INTR_NAME     TIMER4_OVF_vect


 #define TIMER_CONFIG_KHZ(val) ({ \
 	const uint16_t pwmval = SYSCLOCK / 2000 / (val); \
 	TCCR4A                = (1<<PWM4A); \
 	TCCR4B                = _BV(CS40); \
 	TCCR4C                = 0; \
 	TCCR4D                = (1<<WGM40); \
 	TCCR4E                = 0; \
 	TC4H                  = pwmval >> 8; \
 	OCR4C                 = pwmval; \
 	TC4H                  = (pwmval / 3) >> 8; \
 	OCR4A                 = (pwmval / 3) & 255; \
 })

 #define TIMER_CONFIG_NORMAL() ({ \
 	TCCR4A = 0; \
 	TCCR4B = _BV(CS40); \
 	TCCR4C = 0; \
 	TCCR4D = 0; \
 	TCCR4E = 0; \
 	TC4H   = (SYSCLOCK * USECPERTICK / 1000000) >> 8; \
 	OCR4C  = (SYSCLOCK * USECPERTICK / 1000000) & 255; \
 	TC4H   = 0; \
 	TCNT4  = 0; \
 })

 //-----------------
 #if defined(CORE_OC4A_PIN)
 #	define TIMER_PWM_PIN  CORE_OC4A_PIN  // Teensy
 #elif defined(ARDUINO_AVR_PROMICRO)
 #	define TIMER_PWM_PIN  5              // Sparkfun Pro Micro
 #elif defined(__AVR_ATmega32U4__)
 #	define TIMER_PWM_PIN  13             // Leonardo
 #else
 #	error "Please add OC4A pin number here\n"
 #endif

 //---------------------------------------------------------
 // Timer4 (16 bits)
 //
 #elif defined(IR_USE_TIMER4)

 #define TIMER_RESET
 #define TIMER_ENABLE_PWM    (TCCR4A |= _BV(COM4A1))
 #define TIMER_DISABLE_PWM   (TCCR4A &= ~(_BV(COM4A1)))
 #define TIMER_ENABLE_INTR   (TIMSK4 = _BV(OCIE4A))
 #define TIMER_DISABLE_INTR  (TIMSK4 = 0)
 #define TIMER_INTR_NAME     TIMER4_COMPA_vect

 #define TIMER_CONFIG_KHZ(val) ({ \
  const uint16_t pwmval = SYSCLOCK / 2000 / (val); \
  TCCR4A = _BV(WGM41); \
  TCCR4B = _BV(WGM43) | _BV(CS40); \
  ICR4 = pwmval; \
  OCR4A = pwmval / 3; \
 })

 #define TIMER_CONFIG_NORMAL() ({ \
  TCCR4A = 0; \
  TCCR4B = _BV(WGM42) | _BV(CS40); \
  OCR4A = SYSCLOCK * USECPERTICK / 1000000; \
  TCNT4 = 0; \
 })

 //-----------------
 #if defined(CORE_OC4A_PIN)
 #	define TIMER_PWM_PIN  CORE_OC4A_PIN
 #elif defined(__AVR_ATmega1280__) || defined(__AVR_ATmega2560__)
 #	define TIMER_PWM_PIN  6  // Arduino Mega
 #else
 #	error "Please add OC4A pin number here\n"
 #endif

 //---------------------------------------------------------
 // Timer5 (16 bits)
 //
 #elif defined(IR_USE_TIMER5)

 #define TIMER_RESET
 #define TIMER_ENABLE_PWM    (TCCR5A |= _BV(COM5A1))
 #define TIMER_DISABLE_PWM   (TCCR5A &= ~(_BV(COM5A1)))
 #define TIMER_ENABLE_INTR   (TIMSK5 = _BV(OCIE5A))
 #define TIMER_DISABLE_INTR  (TIMSK5 = 0)
 #define TIMER_INTR_NAME     TIMER5_COMPA_vect

 #define TIMER_CONFIG_KHZ(val) ({ \
  const uint16_t pwmval = SYSCLOCK / 2000 / (val); \
  TCCR5A = _BV(WGM51); \
  TCCR5B = _BV(WGM53) | _BV(CS50); \
  ICR5 = pwmval; \
  OCR5A = pwmval / 3; \
 })

 #define TIMER_CONFIG_NORMAL() ({ \
  TCCR5A = 0; \
  TCCR5B = _BV(WGM52) | _BV(CS50); \
  OCR5A = SYSCLOCK * USECPERTICK / 1000000; \
  TCNT5 = 0; \
 })

 //-----------------
 #if defined(CORE_OC5A_PIN)
 #	define TIMER_PWM_PIN  CORE_OC5A_PIN
 #elif defined(__AVR_ATmega1280__) || defined(__AVR_ATmega2560__)
 #	define TIMER_PWM_PIN  46  // Arduino Mega
 #else
 #	error "Please add OC5A pin number here\n"
 #endif

 //---------------------------------------------------------
 // Special carrier modulator timer
 //
 #elif defined(IR_USE_TIMER_CMT)

 #define TIMER_RESET ({     \
 	uint8_t tmp __attribute__((unused)) = CMT_MSC; \
 	CMT_CMD2 = 30;         \
 })

 #define TIMER_ENABLE_PWM  do {                                         \
 	CORE_PIN5_CONFIG = PORT_PCR_MUX(2) | PORT_PCR_DSE | PORT_PCR_SRE;  \
 } while(0)

 #define TIMER_DISABLE_PWM  do {                                        \
 	CORE_PIN5_CONFIG = PORT_PCR_MUX(1) | PORT_PCR_DSE | PORT_PCR_SRE;  \
 } while(0)

 #define TIMER_ENABLE_INTR   NVIC_ENABLE_IRQ(IRQ_CMT)
 #define TIMER_DISABLE_INTR  NVIC_DISABLE_IRQ(IRQ_CMT)
 #define TIMER_INTR_NAME     cmt_isr

 //-----------------
 #ifdef ISR
 #	undef ISR
 #endif
 #define  ISR(f)  void f(void)

 //-----------------
 #define CMT_PPS_DIV  ((F_BUS + 7999999) / 8000000)
 #if F_BUS < 8000000
 #error IRremote requires at least 8 MHz on Teensy 3.x
 #endif

 //-----------------
 #define TIMER_CONFIG_KHZ(val) ({ 	 \
 	SIM_SCGC4 |= SIM_SCGC4_CMT;      \
 	SIM_SOPT2 |= SIM_SOPT2_PTD7PAD;  \
 	CMT_PPS    = CMT_PPS_DIV - 1;    \
 	CMT_CGH1   = ((F_BUS / CMT_PPS_DIV / 3000) + ((val)/2)) / (val); \
 	CMT_CGL1   = ((F_BUS / CMT_PPS_DIV / 1500) + ((val)/2)) / (val); \
 	CMT_CMD1   = 0;                  \
 	CMT_CMD2   = 30;                 \
 	CMT_CMD3   = 0;                  \
 	CMT_CMD4   = 0;                  \
 	CMT_OC     = 0x60;               \
 	CMT_MSC    = 0x01;               \
 })

 #define TIMER_CONFIG_NORMAL() ({  \
 	SIM_SCGC4 |= SIM_SCGC4_CMT;   \
 	CMT_PPS    = CMT_PPS_DIV - 1; \
 	CMT_CGH1   = 1;               \
 	CMT_CGL1   = 1;               \
 	CMT_CMD1   = 0;               \
 	CMT_CMD2   = 30;              \
 	CMT_CMD3   = 0;               \
 	CMT_CMD4   = (F_BUS / 160000 + CMT_PPS_DIV / 2) / CMT_PPS_DIV - 31; \
 	CMT_OC     = 0;               \
 	CMT_MSC    = 0x03;            \
 })

 #define TIMER_PWM_PIN  5

 // defines for TPM1 timer on Teensy-LC
 #elif defined(IR_USE_TIMER_TPM1)
 #define TIMER_RESET          FTM1_SC |= FTM_SC_TOF;
 #define TIMER_ENABLE_PWM     CORE_PIN16_CONFIG = PORT_PCR_MUX(3)|PORT_PCR_DSE|PORT_PCR_SRE
 #define TIMER_DISABLE_PWM    CORE_PIN16_CONFIG = PORT_PCR_MUX(1)|PORT_PCR_SRE
 #define TIMER_ENABLE_INTR    NVIC_ENABLE_IRQ(IRQ_FTM1)
 #define TIMER_DISABLE_INTR   NVIC_DISABLE_IRQ(IRQ_FTM1)
 #define TIMER_INTR_NAME      ftm1_isr
 #ifdef ISR
 #undef ISR
 #endif
 #define ISR(f) void f(void)
 #define TIMER_CONFIG_KHZ(val) ({                     \
 	SIM_SCGC6 |= SIM_SCGC6_TPM1;                 \
 	FTM1_SC = 0;                                 \
 	FTM1_CNT = 0;                                \
 	FTM1_MOD = (F_PLL/2000) / val - 1;           \
 	FTM1_C0V = (F_PLL/6000) / val - 1;           \
 	FTM1_SC = FTM_SC_CLKS(1) | FTM_SC_PS(0);     \
 })
 #define TIMER_CONFIG_NORMAL() ({                     \
 	SIM_SCGC6 |= SIM_SCGC6_TPM1;                 \
 	FTM1_SC = 0;                                 \
 	FTM1_CNT = 0;                                \
 	FTM1_MOD = (F_PLL/40000) - 1;                \
 	FTM1_C0V = 0;                                \
 	FTM1_SC = FTM_SC_CLKS(1) | FTM_SC_PS(0) | FTM_SC_TOF | FTM_SC_TOIE; \
 })
 #define TIMER_PWM_PIN        16

 // defines for FlexPWM1 timer on Teensy 4
 #elif defined(IR_USE_TIMER_FLEXPWM1)
 #define TIMER_RESET          FLEXPWM1_SM3STS = FLEXPWM_SMSTS_RF;
 #define TIMER_ENABLE_PWM     FLEXPWM1_OUTEN |= FLEXPWM_OUTEN_PWMA_EN(8), \
                             IOMUXC_SW_MUX_CTL_PAD_GPIO_B1_00 = 6
 #define TIMER_DISABLE_PWM    IOMUXC_SW_MUX_CTL_PAD_GPIO_B1_00 = 5, \
                             FLEXPWM1_OUTEN &= ~FLEXPWM_OUTEN_PWMA_EN(8)
 #define TIMER_ENABLE_INTR    attachInterruptVector(IRQ_FLEXPWM1_3, pwm1_3_isr),\
                             FLEXPWM1_SM3STS = FLEXPWM_SMSTS_RF, \
                             FLEXPWM1_SM3INTEN = FLEXPWM_SMINTEN_RIE, \
                             NVIC_ENABLE_IRQ(IRQ_FLEXPWM1_3)
 #define TIMER_DISABLE_INTR   NVIC_DISABLE_IRQ(IRQ_FLEXPWM1_3)
 #define TIMER_INTR_NAME      pwm1_3_isr
 #define TIMER_INT_DECLARE    void pwm1_3_isr(void);
 #ifdef ISR
 #undef ISR
 #endif
 #define ISR(f) void f(void)
 #define TIMER_CONFIG_KHZ(val) ({                                             \
  uint32_t period = (float)F_BUS_ACTUAL / (float)((val) * 2000);             \
  uint32_t prescale = 0;                                                     \
  while (period > 32767) {                                                   \
    period = period >> 1;                                                    \
    if (prescale < 7) prescale++;                                            \
  }                                                                          \
  FLEXPWM1_FCTRL0 |= FLEXPWM_FCTRL0_FLVL(8);                                 \
  FLEXPWM1_FSTS0 = 0x0008;                                                   \
  FLEXPWM1_MCTRL |= FLEXPWM_MCTRL_CLDOK(8);                                  \
  FLEXPWM1_SM3CTRL2 = FLEXPWM_SMCTRL2_INDEP;                                 \
  FLEXPWM1_SM3CTRL = FLEXPWM_SMCTRL_HALF | FLEXPWM_SMCTRL_PRSC(prescale);    \
  FLEXPWM1_SM3INIT = -period;                                                \
  FLEXPWM1_SM3VAL0 = 0;                                                      \
  FLEXPWM1_SM3VAL1 = period;                                                 \
  FLEXPWM1_SM3VAL2 = -(period / 3);                                          \
  FLEXPWM1_SM3VAL3 = period / 3;                                             \
  FLEXPWM1_SM3VAL4 = 0;                                                      \
  FLEXPWM1_SM3VAL5 = 0;                                                      \
  FLEXPWM1_MCTRL |= FLEXPWM_MCTRL_LDOK(8) | FLEXPWM_MCTRL_RUN(8);            \
 })
 #define TIMER_CONFIG_NORMAL() ({                                             \
  uint32_t period = (float)F_BUS_ACTUAL * (float)USECPERTICK * 0.0000005f;   \
  uint32_t prescale = 0;                                                     \
  while (period > 32767) {                                                   \
    period = period >> 1;                                                    \
    if (prescale < 7) prescale++;                                            \
  }                                                                          \
  FLEXPWM1_FCTRL0 |= FLEXPWM_FCTRL0_FLVL(8);                                 \
  FLEXPWM1_FSTS0 = 0x0008;                                                   \
  FLEXPWM1_MCTRL |= FLEXPWM_MCTRL_CLDOK(8);                                  \
  FLEXPWM1_SM3CTRL2 = FLEXPWM_SMCTRL2_INDEP;                                 \
  FLEXPWM1_SM3CTRL = FLEXPWM_SMCTRL_HALF | FLEXPWM_SMCTRL_PRSC(prescale);    \
  FLEXPWM1_SM3INIT = -period;                                                \
  FLEXPWM1_SM3VAL0 = 0;                                                      \
  FLEXPWM1_SM3VAL1 = period;                                                 \
  FLEXPWM1_SM3VAL2 = 0;                                                      \
  FLEXPWM1_SM3VAL3 = 0;                                                      \
  FLEXPWM1_SM3VAL4 = 0;                                                      \
  FLEXPWM1_SM3VAL5 = 0;                                                      \
  FLEXPWM1_MCTRL |= FLEXPWM_MCTRL_LDOK(8) | FLEXPWM_MCTRL_RUN(8);            \
 })
 #define TIMER_PWM_PIN        7

 // defines for timer_tiny0 (8 bits)
 #elif defined(IR_USE_TIMER_TINY0)
 #define TIMER_RESET
 #define TIMER_ENABLE_PWM     (TCCR0A |= _BV(COM0B1))
 #define TIMER_DISABLE_PWM    (TCCR0A &= ~(_BV(COM0B1)))
 #define TIMER_ENABLE_INTR    (TIMSK |= _BV(OCIE0A))
 #define TIMER_DISABLE_INTR   (TIMSK &= ~(_BV(OCIE0A)))
 #define TIMER_INTR_NAME      TIMER0_COMPA_vect
 #define TIMER_CONFIG_KHZ(val) ({ \
  const uint8_t pwmval = SYSCLOCK / 2000 / (val); \
  TCCR0A = _BV(WGM00); \
  TCCR0B = _BV(WGM02) | _BV(CS00); \
  OCR0A = pwmval; \
  OCR0B = pwmval / 3; \
 })
 #define TIMER_COUNT_TOP      (SYSCLOCK * USECPERTICK / 1000000)
 #if (TIMER_COUNT_TOP < 256)
 #define TIMER_CONFIG_NORMAL() ({ \
  TCCR0A = _BV(WGM01); \
  TCCR0B = _BV(CS00); \
  OCR0A = TIMER_COUNT_TOP; \
  TCNT0 = 0; \
 })
 #else
 #define TIMER_CONFIG_NORMAL() ({ \
  TCCR0A = _BV(WGM01); \
  TCCR0B = _BV(CS01); \
  OCR0A = TIMER_COUNT_TOP / 8; \
  TCNT0 = 0; \
 })
 #endif

 #define TIMER_PWM_PIN        1  /* ATtiny85 */

 //---------------------------------------------------------
 // ESP32 (ESP8266 should likely be added here too)
 //

 // ESP32 has it own timer API and does not use these macros, but to avoid ifdef'ing
 // them out in the common code, they are defined to no-op. This allows the code to compile
 // (which it wouldn't otherwise) but irsend will not work until ESP32 specific code is written
 // for that -- merlin
 // As a warning, sending timing specific code from an ESP32 can be challenging if you need 100%
 // reliability because the arduino code may be interrupted and cause your sent waveform to be the
 // wrong length. This is specifically an issue for neopixels which require 800Khz resolution.
 // IR may just work as is with the common code since it's lower frequency, but if not, the other
 // way to do this on ESP32 is using the RMT built in driver like in this incomplete library below
 // https://github.com/ExploreEmbedded/ESP32_RMT
 #elif defined(IR_TIMER_USE_ESP32)
 #define TIMER_RESET	     
 #define TIMER_ENABLE_PWM     
 #define TIMER_DISABLE_PWM   Serial.println("IRsend not implemented for ESP32 yet");
 #define TIMER_ENABLE_INTR    
 #define TIMER_DISABLE_INTR   
 #define TIMER_INTR_NAME      

 //---------------------------------------------------------
 // Unknown Timer
 //
 #else
 #	error "Internal code configuration error, no known IR_USE_TIMER# defined\n"
 #endif

 #endif // ! boarddefs_h
--- a/include/irr/ir_Lego_PF_BitStreamEncoder.h
+++ b/include/irr/ir_Lego_PF_BitStreamEncoder.h
@@ -0,0 +1,115 @@

 //==============================================================================
 //    L       EEEEEE   EEEE    OOOO
 //    L       E       E       O    O
 //    L       EEEE    E  EEE  O    O
 //    L       E       E    E  O    O    LEGO Power Functions
 //    LLLLLL  EEEEEE   EEEE    OOOO     Copyright (c) 2016, 2017 Philipp Henkel
 //==============================================================================

 //+=============================================================================
 //

 class LegoPfBitStreamEncoder {
 private:
  uint16_t data;
  bool repeatMessage;
  uint8_t messageBitIdx;
  uint8_t repeatCount;
  uint16_t messageLength;

 public:
  // HIGH data bit = IR mark + high pause
  // LOW data bit = IR mark + low pause
  static const uint16_t LOW_BIT_DURATION = 421;
  static const uint16_t HIGH_BIT_DURATION = 711;
  static const uint16_t START_BIT_DURATION = 1184;
  static const uint16_t STOP_BIT_DURATION = 1184;
  static const uint8_t IR_MARK_DURATION = 158;
  static const uint16_t HIGH_PAUSE_DURATION = HIGH_BIT_DURATION - IR_MARK_DURATION;
  static const uint16_t LOW_PAUSE_DURATION = LOW_BIT_DURATION - IR_MARK_DURATION;
  static const uint16_t START_PAUSE_DURATION = START_BIT_DURATION - IR_MARK_DURATION;
  static const uint16_t STOP_PAUSE_DURATION = STOP_BIT_DURATION - IR_MARK_DURATION;
  static const uint8_t MESSAGE_BITS = 18;
  static const uint16_t MAX_MESSAGE_LENGTH = 16000;

  void reset(uint16_t data, bool repeatMessage) {
    this->data = data;
    this->repeatMessage = repeatMessage;
    messageBitIdx = 0;
    repeatCount = 0;
    messageLength = getMessageLength();
  }

  int getChannelId() const { return 1 + ((data >> 12) & 0x3); }

  uint16_t getMessageLength() const {
    // Sum up all marks
    uint16_t length = MESSAGE_BITS * IR_MARK_DURATION;

    // Sum up all pauses
    length += START_PAUSE_DURATION;
    for (unsigned long mask = 1UL << 15; mask; mask >>= 1) {
      if (data & mask) {
        length += HIGH_PAUSE_DURATION;
      } else {
        length += LOW_PAUSE_DURATION;
      }
    }
    length += STOP_PAUSE_DURATION;
    return length;
  }

  boolean next() {
    messageBitIdx++;
    if (messageBitIdx >= MESSAGE_BITS) {
      repeatCount++;
      messageBitIdx = 0;
    }
    if (repeatCount >= 1 && !repeatMessage) {
      return false;
    } else if (repeatCount >= 5) {
      return false;
    } else {
      return true;
    }
  }

  uint8_t getMarkDuration() const { return IR_MARK_DURATION; }

  uint32_t getPauseDuration() const {
    if (messageBitIdx == 0)
      return START_PAUSE_DURATION;
    else if (messageBitIdx < MESSAGE_BITS - 1) {
      return getDataBitPause();
    } else {
      return getStopPause();
    }
  }

 private:
  uint16_t getDataBitPause() const {
    const int pos = MESSAGE_BITS - 2 - messageBitIdx;
    const bool isHigh = data & (1 << pos);
    return isHigh ? HIGH_PAUSE_DURATION : LOW_PAUSE_DURATION;
  }

  uint32_t getStopPause() const {
    if (repeatMessage) {
      return getRepeatStopPause();
    } else {
      return STOP_PAUSE_DURATION;
    }
  }

  uint32_t getRepeatStopPause() const {
    if (repeatCount == 0 || repeatCount == 1) {
      return STOP_PAUSE_DURATION + (uint32_t)5 * MAX_MESSAGE_LENGTH - messageLength;
    } else if (repeatCount == 2 || repeatCount == 3) {
      return STOP_PAUSE_DURATION
             + (uint32_t)(6 + 2 * getChannelId()) * MAX_MESSAGE_LENGTH - messageLength;
    } else {
      return STOP_PAUSE_DURATION;
    }
  }
 };
--- a/src/IRremote.cpp
+++ b/src/IRremote.cpp
@@ -0,0 +1,203 @@
 //******************************************************************************
 // IRremote
 // Version 2.0.1 June, 2015
 // Copyright 2009 Ken Shirriff
 // For details, see http://arcfn.com/2009/08/multi-protocol-infrared-remote-library.html
 //
 // Modified by Paul Stoffregen <paul@pjrc.com> to support other boards and timers
 // Modified  by Mitra Ardron <mitra@mitra.biz>
 // Added Sanyo and Mitsubishi controllers
 // Modified Sony to spot the repeat codes that some Sony's send
 //
 // Interrupt code based on NECIRrcv by Joe Knapp
 // http://www.arduino.cc/cgi-bin/yabb2/YaBB.pl?num=1210243556
 // Also influenced by http://zovirl.com/2008/11/12/building-a-universal-remote-with-an-arduino/
 //
 // JVC and Panasonic protocol added by Kristian Lauszus (Thanks to zenwheel and other people at the original blog post)
 // LG added by Darryl Smith (based on the JVC protocol)
 // Whynter A/C ARC-110WD added by Francesco Meschia
 //******************************************************************************

 // Defining IR_GLOBAL here allows us to declare the instantiation of global variables
 #define IR_GLOBAL
 #	include "irr/IRremote.h"
 #	include "irr/IRremoteInt.h"
 #undef IR_GLOBAL

 #ifndef IR_TIMER_USE_ESP32
 #include <core/avr/interrupt.h>
 #endif


 //+=============================================================================
 // The match functions were (apparently) originally MACROs to improve code speed
 //   (although this would have bloated the code) hence the names being CAPS
 // A later release implemented debug output and so they needed to be converted
 //   to functions.
 // I tried to implement a dual-compile mode (DEBUG/non-DEBUG) but for some
 //   reason, no matter what I did I could not get them to function as macros again.
 // I have found a *lot* of bugs in the Arduino compiler over the last few weeks,
 //   and I am currently assuming that one of these bugs is my problem.
 // I may revisit this code at a later date and look at the assembler produced
 //   in a hope of finding out what is going on, but for now they will remain as
 //   functions even in non-DEBUG mode
 //
 int  MATCH (int measured,  int desired)
 {
 	DBG_PRINT(F("Testing: "));
 	DBG_PRINT(TICKS_LOW(desired), DEC);
 	DBG_PRINT(F(" <= "));
 	DBG_PRINT(measured, DEC);
 	DBG_PRINT(F(" <= "));
 	DBG_PRINT(TICKS_HIGH(desired), DEC);

  bool passed = ((measured >= TICKS_LOW(desired)) && (measured <= TICKS_HIGH(desired)));
  if (passed) {
 	  DBG_PRINTLN(F("?; passed"));
  } else {
 	  DBG_PRINTLN(F("?; FAILED"));
  }
 	return passed;
 }

 //+========================================================
 // Due to sensor lag, when received, Marks tend to be 100us too long
 //
 int  MATCH_MARK (int measured_ticks,  int desired_us)
 {
 	DBG_PRINT(F("Testing mark (actual vs desired): "));
 	DBG_PRINT(measured_ticks * USECPERTICK, DEC);
 	DBG_PRINT(F("us vs "));
 	DBG_PRINT(desired_us, DEC);
 	DBG_PRINT("us");
 	DBG_PRINT(": ");
 	DBG_PRINT(TICKS_LOW(desired_us + MARK_EXCESS) * USECPERTICK, DEC);
 	DBG_PRINT(F(" <= "));
 	DBG_PRINT(measured_ticks * USECPERTICK, DEC);
 	DBG_PRINT(F(" <= "));
 	DBG_PRINT(TICKS_HIGH(desired_us + MARK_EXCESS) * USECPERTICK, DEC);

  bool passed = ((measured_ticks >= TICKS_LOW (desired_us + MARK_EXCESS))
                && (measured_ticks <= TICKS_HIGH(desired_us + MARK_EXCESS)));
  if (passed) {
 	  DBG_PRINTLN(F("?; passed"));
  } else {
 	  DBG_PRINTLN(F("?; FAILED"));
  }
 	return passed;
 }

 //+========================================================
 // Due to sensor lag, when received, Spaces tend to be 100us too short
 //
 int  MATCH_SPACE (int measured_ticks,  int desired_us)
 {
 	DBG_PRINT(F("Testing space (actual vs desired): "));
 	DBG_PRINT(measured_ticks * USECPERTICK, DEC);
 	DBG_PRINT(F("us vs "));
 	DBG_PRINT(desired_us, DEC);
 	DBG_PRINT("us");
 	DBG_PRINT(": ");
 	DBG_PRINT(TICKS_LOW(desired_us - MARK_EXCESS) * USECPERTICK, DEC);
 	DBG_PRINT(F(" <= "));
 	DBG_PRINT(measured_ticks * USECPERTICK, DEC);
 	DBG_PRINT(F(" <= "));
 	DBG_PRINT(TICKS_HIGH(desired_us - MARK_EXCESS) * USECPERTICK, DEC);

  bool passed = ((measured_ticks >= TICKS_LOW (desired_us - MARK_EXCESS))
                && (measured_ticks <= TICKS_HIGH(desired_us - MARK_EXCESS)));
  if (passed) {
 	  DBG_PRINTLN(F("?; passed"));
  } else {
 	  DBG_PRINTLN(F("?; FAILED"));
  }
 	return passed;
 }

 //+=============================================================================
 // Interrupt Service Routine - Fires every 50uS
 // TIMER2 interrupt code to collect raw data.
 // Widths of alternating SPACE, MARK are recorded in rawbuf.
 // Recorded in ticks of 50uS [microseconds, 0.000050 seconds]
 // 'rawlen' counts the number of entries recorded so far.
 // First entry is the SPACE between transmissions.
 // As soon as a the first [SPACE] entry gets long:
 //   Ready is set; State switches to IDLE; Timing of SPACE continues.
 // As soon as first MARK arrives:
 //   Gap width is recorded; Ready is cleared; New logging starts
 //
 #ifdef IR_TIMER_USE_ESP32
 void IRTimer()
 #else
 ISR (TIMER_INTR_NAME)
 #endif
 {
 	TIMER_RESET;

 	// Read if IR Receiver -> SPACE [xmt LED off] or a MARK [xmt LED on]
 	// digitalRead() is very slow. Optimisation is possible, but makes the code unportable
 	uint8_t  irdata = (uint8_t)digitalRead(irparams.recvpin);

 	irparams.timer++;  // One more 50uS tick
 	if (irparams.rawlen >= RAWBUF)  irparams.rcvstate = STATE_OVERFLOW ;  // Buffer overflow

 	switch(irparams.rcvstate) {
 		//......................................................................
 		case STATE_IDLE: // In the middle of a gap
 			if (irdata == MARK) {
 				if (irparams.timer < GAP_TICKS)  {  // Not big enough to be a gap.
 					irparams.timer = 0;

 				} else {
 					// Gap just ended; Record duration; Start recording transmission
 					irparams.overflow                  = false;
 					irparams.rawlen                    = 0;
 					irparams.rawbuf[irparams.rawlen++] = irparams.timer;
 					irparams.timer                     = 0;
 					irparams.rcvstate                  = STATE_MARK;
 				}
 			}
 			break;
 		//......................................................................
 		case STATE_MARK:  // Timing Mark
 			if (irdata == SPACE) {   // Mark ended; Record time
 				irparams.rawbuf[irparams.rawlen++] = irparams.timer;
 				irparams.timer                     = 0;
 				irparams.rcvstate                  = STATE_SPACE;
 			}
 			break;
 		//......................................................................
 		case STATE_SPACE:  // Timing Space
 			if (irdata == MARK) {  // Space just ended; Record time
 				irparams.rawbuf[irparams.rawlen++] = irparams.timer;
 				irparams.timer                     = 0;
 				irparams.rcvstate                  = STATE_MARK;

 			} else if (irparams.timer > GAP_TICKS) {  // Space
 					// A long Space, indicates gap between codes
 					// Flag the current code as ready for processing
 					// Switch to STOP
 					// Don't reset timer; keep counting Space width
 					irparams.rcvstate = STATE_STOP;
 			}
 			break;
 		//......................................................................
 		case STATE_STOP:  // Waiting; Measuring Gap
 		 	if (irdata == MARK)  irparams.timer = 0 ;  // Reset gap timer
 		 	break;
 		//......................................................................
 		case STATE_OVERFLOW:  // Flag up a read overflow; Stop the State Machine
 			irparams.overflow = true;
 			irparams.rcvstate = STATE_STOP;
 		 	break;
 	}

 	// If requested, flash LED while receiving IR data
 	if (irparams.blinkflag) {
 		if (irdata == MARK)
 			if (irparams.blinkpin) digitalWrite(irparams.blinkpin, HIGH); // Turn user defined pin LED on
 				else BLINKLED_ON() ;   // if no user defined LED pin, turn default LED pin for the hardware on
 		else if (irparams.blinkpin) digitalWrite(irparams.blinkpin, LOW); // Turn user defined pin LED on
 				else BLINKLED_OFF() ;   // if no user defined LED pin, turn default LED pin for the hardware on
 	}
 }
--- a/src/irPronto.cpp
+++ b/src/irPronto.cpp
@@ -0,0 +1,513 @@
 #define TEST 0

 #if TEST
 #	define SEND_PRONTO        1
 #	define PRONTO_ONCE        false
 #	define PRONTO_REPEAT      true
 #	define PRONTO_FALLBACK    true
 #	define PRONTO_NOFALLBACK  false
 #endif

 #if SEND_PRONTO

 //******************************************************************************
 #if TEST
 #	include <stdio.h>
 	void  enableIROut (int freq)  { printf("\nFreq = %d KHz\n", freq); }
 	void  mark        (int t)     { printf("+%d," , t); }
 	void  space       (int t)     { printf("-%d, ", t); }
 #else
 #	include "irr/IRremote.h"
 #endif // TEST

 //+=============================================================================
 // Check for a valid hex digit
 //
 bool  ishex (char ch)
 {
 	return ( ((ch >= '0') && (ch <= '9')) ||
             ((ch >= 'A') && (ch <= 'F')) ||
             ((ch >= 'a') && (ch <= 'f'))   ) ? true : false ;
 }

 //+=============================================================================
 // Check for a valid "blank" ... '\0' is a valid "blank"
 //
 bool  isblank (char ch)
 {
 	return ((ch == ' ') || (ch == '\t') || (ch == '\0')) ? true : false ;
 }

 //+=============================================================================
 // Bypass spaces
 //
 bool  byp (char** pcp)
 {
 	while (isblank(**pcp))  (*pcp)++ ;
 }

 //+=============================================================================
 // Hex-to-Byte : Decode a hex digit
 // We assume the character has already been validated
 //
 uint8_t  htob (char ch)
 {
 	if ((ch >= '0') && (ch <= '9'))  return ch - '0' ;
 	if ((ch >= 'A') && (ch <= 'F'))  return ch - 'A' + 10 ;
 	if ((ch >= 'a') && (ch <= 'f'))  return ch - 'a' + 10 ;
 }

 //+=============================================================================
 // Hex-to-Word : Decode a block of 4 hex digits
 // We assume the string has already been validated
 //   and the pointer being passed points at the start of a block of 4 hex digits
 //
 uint16_t  htow (char* cp)
 {
 	return ( (htob(cp[0]) << 12) | (htob(cp[1]) <<  8) |
             (htob(cp[2]) <<  4) | (htob(cp[3])      )  ) ;
 }

 //+=============================================================================
 //
 bool sendPronto (char* s,  bool repeat,  bool fallback)
 {
 	int       i;
 	int       len;
 	int       skip;
 	char*     cp;
 	uint16_t  freq;  // Frequency in KHz
 	uint8_t   usec;  // pronto uSec/tick
 	uint8_t   once;
 	uint8_t   rpt;

 	// Validate the string
 	for (cp = s;  *cp;  cp += 4) {
 		byp(&cp);
 		if ( !ishex(cp[0]) || !ishex(cp[1]) ||
 		     !ishex(cp[2]) || !ishex(cp[3]) || !isblank(cp[4]) )  return false ;
 	}

 	// We will use cp to traverse the string
 	cp = s;

 	// Check mode = Oscillated/Learned
 	byp(&cp);
 	if (htow(cp) != 0000)  return false;
 	cp += 4;

 	// Extract & set frequency
 	byp(&cp);
 	freq = (int)(1000000 / (htow(cp) * 0.241246));  // Rounding errors will occur, tolerance is +/- 10%
 	usec = (int)(((1.0 / freq) * 1000000) + 0.5);  // Another rounding error, thank Cod for analogue electronics
 	freq /= 1000;  // This will introduce a(nother) rounding error which we do not want in the usec calcualtion
 	cp += 4;

 	// Get length of "once" code
 	byp(&cp);
 	once = htow(cp);
 	cp += 4;

 	// Get length of "repeat" code
 	byp(&cp);
 	rpt = htow(cp);
 	cp += 4;

 	// Which code are we sending?
 	if (fallback) { // fallback on the "other" code if "this" code is not present
 		if (!repeat) { // requested 'once'
 			if (once)  len = once * 2,  skip = 0 ;  // if once exists send it
 			else       len = rpt  * 2,  skip = 0 ;  // else send repeat code
 		} else { // requested 'repeat'
 			if (rpt)   len = rpt  * 2,  skip = 0 ;  // if rpt exists send it
 			else       len = once * 2,  skip = 0 ;  // else send once code
 		}
 	} else {  // Send what we asked for, do not fallback if the code is empty!
 		if (!repeat)  len = once * 2,  skip = 0 ;     // 'once' starts at 0
 		else          len = rpt  * 2,  skip = once ;  // 'repeat' starts where 'once' ends
    }

 	// Skip to start of code
 	for (i = 0;  i < skip;  i++, cp += 4)  byp(&cp) ;

 	// Send code
 	enableIROut(freq);
 	for (i = 0;  i < len;  i++) {
 		byp(&cp);
 		if (i & 1)  space(htow(cp) * usec);
 		else        mark (htow(cp) * usec);
 		cp += 4;
 	}
 }

 //+=============================================================================
 #if TEST

 int  main ( )
 {
 	char  prontoTest[] =
 		"0000 0070 0000 0032 0080 0040 0010 0010 0010 0030 " //  10
 		"0010 0010 0010 0010 0010 0010 0010 0010 0010 0010 " //  20
 		"0010 0010 0010 0010 0010 0010 0010 0010 0010 0010 " //  30
 		"0010 0010 0010 0030 0010 0010 0010 0010 0010 0010 " //  40
 		"0010 0010 0010 0010 0010 0010 0010 0010 0010 0010 " //  50
 		"0010 0010 0010 0030 0010 0010 0010 0010 0010 0010 " //  60
 		"0010 0010 0010 0010 0010 0010 0010 0010 0010 0010 " //  70
 		"0010 0010 0010 0030 0010 0010 0010 0030 0010 0010 " //  80
 		"0010 0010 0010 0030 0010 0010 0010 0010 0010 0030 " //  90
 		"0010 0010 0010 0030 0010 0010 0010 0010 0010 0030 " // 100
 		"0010 0030 0010 0aa6";                               // 104

 	sendPronto(prontoTest, PRONTO_ONCE,   PRONTO_FALLBACK);    // once code
 	sendPronto(prontoTest, PRONTO_REPEAT, PRONTO_FALLBACK);    // repeat code
 	sendPronto(prontoTest, PRONTO_ONCE,   PRONTO_NOFALLBACK);  // once code
 	sendPronto(prontoTest, PRONTO_REPEAT, PRONTO_NOFALLBACK);  // repeat code

 	return 0;
 }

 #endif // TEST

 #endif // SEND_PRONTO


























































 #if 0
 //******************************************************************************
 // Sources:
 //   http://www.remotecentral.com/features/irdisp2.htm
 //   http://www.hifi-remote.com/wiki/index.php?title=Working_With_Pronto_Hex
 //******************************************************************************

 #include <stdint.h>
 #include <stdio.h>

 #define IRPRONTO
 #include "irr/IRremoteInt.h"  // The Arduino IRremote library defines USECPERTICK

 //------------------------------------------------------------------------------
 // Source: https://www.google.co.uk/search?q=DENON+MASTER+IR+Hex+Command+Sheet
 //         -> http://assets.denon.com/documentmaster/us/denon%20master%20ir%20hex.xls
 //
 char  prontoTest[] =
 	"0000 0070 0000 0032 0080 0040 0010 0010 0010 0030 " //  10
 	"0010 0010 0010 0010 0010 0010 0010 0010 0010 0010 " //  20
 	"0010 0010 0010 0010 0010 0010 0010 0010 0010 0010 " //  30
 	"0010 0010 0010 0030 0010 0010 0010 0010 0010 0010 " //  40
 	"0010 0010 0010 0010 0010 0010 0010 0010 0010 0010 " //  50
 	"0010 0010 0010 0030 0010 0010 0010 0010 0010 0010 " //  60
 	"0010 0010 0010 0010 0010 0010 0010 0010 0010 0010 " //  70
 	"0010 0010 0010 0030 0010 0010 0010 0030 0010 0010 " //  80
 	"0010 0010 0010 0030 0010 0010 0010 0010 0010 0030 " //  90
 	"0010 0010 0010 0030 0010 0010 0010 0010 0010 0030 " // 100
 	"0010 0030 0010 0aa6";                               // 104

 //------------------------------------------------------------------------------
 // This is the longest code we can support
 #define CODEMAX  200

 //------------------------------------------------------------------------------
 // This is the data we pull out of the pronto code
 typedef
 	struct {
 		int        freq;           // Carrier frequency (in Hz)
 		int        usec;           // uSec per tick (based on freq)

 		int        codeLen;        // Length of code
 		uint16_t   code[CODEMAX];  // Code in hex

 		int        onceLen;        // Length of "once" transmit
 		uint16_t*  once;           // Pointer to start within 'code'

 		int        rptLen;         // Length of "repeat" transmit
 		uint16_t*  rpt;            // Pointer to start within 'code'
 	}
 pronto_t;

 //------------------------------------------------------------------------------
 // From what I have seen, the only time we go over 8-bits is the 'space'
 // on the end which creates the lead-out/inter-code gap.  Assuming I'm right,
 // we can code this up as a special case and otherwise halve the size of our
 // data!
 // Ignoring the first four values (the config data) and the last value
 // (the lead-out), if you find a protocol that uses values greater than 00fe
 // we are going to have to revisit this code!
 //
 //
 // So, the 0th byte will be the carrier frequency in Khz (NOT Hz)
 //      "  1st  "    "   "   "  length of the "once" code
 //      "  2nd  "    "   "   "  length of the "repeat" code
 //
 // Thereafter, odd  bytes will be Mark  lengths as a multiple of USECPERTICK uS
 //             even   "     "  "  Space    "    "  "    "     "       "      "
 //
 // Any occurence of "FF" in either a Mark or a Space will indicate
 //   "Use the 16-bit FF value" which will also be a multiple of USECPERTICK uS
 //
 //
 // As a point of comparison, the test code (prontoTest[]) is 520 bytes
 // (yes, more than 0.5KB of our Arduino's precious 32KB) ... after conversion
 // to pronto hex that goes down to ((520/5)*2) = 208 bytes ... once converted to
 // our format we are down to ((208/2) -1 -1 +2) = 104 bytes
 //
 // In fariness this is still very memory-hungry
 // ...As a rough guide:
 //   10 codes cost 1K of memory (this will vary depending on the protocol).
 //
 // So if you're building a complex remote control, you will probably need to
 // keep the codes on an external memory device (not in the Arduino sketch) and
 // load them as you need them.  Hmmm.
 //
 // This dictates that "Oscillated Pronto Codes" are probably NOT the way forward
 //
 // For example, prontoTest[] happens to be: A 48-bit IR code in Denon format
 // So we know it starts with 80/40                           (Denon header)
 //             and ends with 10/aa6                          (Denon leadout)
 //             and all (48) bits in between are either 10/10 (Denon 0)
 //                                                  or 10/30 (Denon 1)
 // So we could easily store this data in 1-byte  ("Denon")
 //                                     + 1-byte  (Length=48)
 //                                     + 6-bytes (IR code)
 // At 8-bytes per code, we can store 128 codes in 1KB or memory - that's a lot
 // better than the 2 (two) we started off with!
 //
 // And serendipitously, by reducing the amount of data, our program will run
 // a LOT faster!
 //
 // Again, I repeat, even after you have spent time converting the "Oscillated
 // Pronto Codes" in to IRremote format, it will be a LOT more memory-hungry
 // than using sendDenon() (or whichever) ...BUT these codes are easily
 // available on the internet, so we'll support them!
 //
 typedef
 	struct {
 		uint16_t   FF;
 		uint8_t    code[CODEMAX];
 	}
 irCode_t;

 //------------------------------------------------------------------------------
 #define DEBUGF(...)  printf(__VA_ARGS__)

 //+=============================================================================
 // String must be block of 4 hex digits separated with blanks
 //
 bool  validate (char* cp,  int* len)
 {
 	for (*len = 0;  *cp;  (*len)++, cp += 4) {
 		byp(&cp);
 		if ( !ishex(cp[0]) || !ishex(cp[1]) ||
 		     !ishex(cp[2]) || !ishex(cp[3]) || !isblank(cp[4]) )  return false ;
 	}

 	return true;
 }

 //+=============================================================================
 // Hex-to-Byte : Decode a hex digit
 // We assume the character has already been validated
 //
 uint8_t  htob (char ch)
 {
 	if ((ch >= '0') && (ch <= '9'))  return ch - '0' ;
 	if ((ch >= 'A') && (ch <= 'F'))  return ch - 'A' + 10 ;
 	if ((ch >= 'a') && (ch <= 'f'))  return ch - 'a' + 10 ;
 }

 //+=============================================================================
 // Hex-to-Word : Decode a block of 4 hex digits
 // We assume the string has already been validated
 //   and the pointer being passed points at the start of a block of 4 hex digits
 //
 uint16_t  htow (char* cp)
 {
 	return ( (htob(cp[0]) << 12) | (htob(cp[1]) <<  8) |
             (htob(cp[2]) <<  4) | (htob(cp[3])      )  ) ;
 }

 //+=============================================================================
 // Convert the pronto string in to data
 //
 bool  decode (char* s,  pronto_t* p,  irCode_t* ir)
 {
 	int    i, len;
 	char*  cp;

 	// Validate the Pronto string
 	if (!validate(s, &p->codeLen)) {
 		DEBUGF("Invalid pronto string\n");
 		return false ;
    }
 	DEBUGF("Found %d hex codes\n", p->codeLen);

 	// Allocate memory to store the decoded string
 	//if (!(p->code = malloc(p->len))) {
 	//	DEBUGF("Memory allocation failed\n");
 	//	return false ;
 	//}

 	// Check in case our code is too long
 	if (p->codeLen > CODEMAX) {
 		DEBUGF("Code too long, edit CODEMAX and recompile\n");
 		return false ;
 	}

 	// Decode the string
 	cp = s;
 	for (i = 0;  i < p->codeLen;  i++, cp += 4) {
 		byp(&cp);
 		p->code[i] = htow(cp);
 	}

 	// Announce our findings
 	DEBUGF("Input: |%s|\n", s);
 	DEBUGF("Found: |");
    for (i = 0;  i < p->codeLen;  i++)  DEBUGF("%04x ", p->code[i]) ;
 	DEBUGF("|\n");

 	DEBUGF("Form [%04X] : ", p->code[0]);
 	if      (p->code[0] == 0x0000)  DEBUGF("Oscillated (Learned)\n");
 	else if (p->code[0] == 0x0100)  DEBUGF("Unmodulated\n");
 	else                            DEBUGF("Unknown\n");
    if (p->code[0] != 0x0000)  return false ;  // Can only handle Oscillated

 	// Calculate the carrier frequency (+/- 10%) & uSecs per pulse
 	// Pronto uses a crystal which generates a timeabse of 0.241246
 	p->freq     = (int)(1000000 / (p->code[1] * 0.241246));
 	p->usec     = (int)(((1.0 / p->freq) * 1000000) + 0.5);
 	ir->code[0] = p->freq / 1000;
    DEBUGF("Freq [%04X] : %d Hz  (%d uS/pluse) -> %d KHz\n",
 	       p->code[1], p->freq, p->usec, ir->code[0]);

 	// Set the length & start pointer for the "once" code
 	p->onceLen  = p->code[2];
 	p->once     = &p->code[4];
 	ir->code[1] = p->onceLen;
 	DEBUGF("Once [%04X] : %d\n", p->code[2], p->onceLen);

 	// Set the length & start pointer for the "repeat" code
 	p->rptLen = p->code[3];
 	p->rpt    = &p->code[4 + p->onceLen];
 	ir->code[2] = p->rptLen;
 	DEBUGF("Rpt  [%04X] : %d\n", p->code[3], p->rptLen);

 	// Check everything tallies
 	if (1 + 1 + 1 + 1 + (p->onceLen * 2) + (p->rptLen * 2) != p->codeLen) {
 		DEBUGF("Bad code length\n");
 		return false;
 	}

 	// Convert the IR data to our new format
 	ir->FF = p->code[p->codeLen - 1];

 	len = (p->onceLen * 2) + (p->rptLen * 2);
 	DEBUGF("Encoded: |");
 	for (i = 0;  i < len;  i++) {
 		if (p->code[i+4] == ir->FF) {
 			ir->code[i+3] = 0xFF;
 		} else if (p->code[i+4] > 0xFE) {
 			DEBUGF("\n%04X : Mark/Space overflow\n", p->code[i+4]);
 			return false;
 		} else {
 			ir->code[i+3] = (p->code[i+4] * p->usec) / USECPERTICK;
 		}
 		DEBUGF("%s%d", !i ? "" : (i&1 ? "," : ", "), ir->code[i+3]);
 	}
 	DEBUGF("|\n");

 	ir->FF = (ir->FF * p->usec) / USECPERTICK;
 	DEBUGF("FF -> %d\n", ir->FF);

 	return true;
 }

 //+=============================================================================
 //
 void  irDump (irCode_t* ir)
 {
 	int  i, len;

 	printf("uint8_t  buttonName[%d] = {", len);

 	printf("%d,%d, ", (ir->FF >> 8), ir->FF & 0xFF);
 	printf("%d,%d,%d, ", ir->code[0], ir->code[1], ir->code[2]);

 	len = (ir->code[1] * 2) + (ir->code[2] * 2);
 	for (i = 0;  i < len;  i++) {
 		printf("%s%d", !i ? "" : (i&1 ? "," : ", "), ir->code[i+3]);
 	}

 	printf("};\n");

 }

 //+=============================================================================
 //
 int  main ( )
 {
 	pronto_t  pCode;
 	irCode_t  irCode;

 	decode(prontoTest, &pCode, &irCode);

 	irDump(&irCode);

 	return 0;
 }

 #endif //0
--- a/src/irRecv.cpp
+++ b/src/irRecv.cpp
@@ -0,0 +1,239 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 #ifdef TIMER_INT_DECLARE
 TIMER_INT_DECLARE
 #endif

 #ifdef IR_TIMER_USE_ESP32
 hw_timer_t *timer;
 void IRTimer(); // defined in IRremote.cpp
 #endif

 //+=============================================================================
 // Decodes the received IR message
 // Returns 0 if no data ready, 1 if data ready.
 // Results of decoding are stored in results
 //
 int  IRrecv::decode (decode_results *results)
 {
 	results->rawbuf   = irparams.rawbuf;
 	results->rawlen   = irparams.rawlen;

 	results->overflow = irparams.overflow;

 	if (irparams.rcvstate != STATE_STOP)  return false ;

 #if DECODE_NEC
 	DBG_PRINTLN("Attempting NEC decode");
 	if (decodeNEC(results))  return true ;
 #endif

 #if DECODE_SONY
 	DBG_PRINTLN("Attempting Sony decode");
 	if (decodeSony(results))  return true ;
 #endif

 #if DECODE_SANYO
 	DBG_PRINTLN("Attempting Sanyo decode");
 	if (decodeSanyo(results))  return true ;
 #endif

 #if DECODE_MITSUBISHI
 	DBG_PRINTLN("Attempting Mitsubishi decode");
 	if (decodeMitsubishi(results))  return true ;
 #endif

 #if DECODE_RC5
 	DBG_PRINTLN("Attempting RC5 decode");
 	if (decodeRC5(results))  return true ;
 #endif

 #if DECODE_RC6
 	DBG_PRINTLN("Attempting RC6 decode");
 	if (decodeRC6(results))  return true ;
 #endif

 #if DECODE_PANASONIC
 	DBG_PRINTLN("Attempting Panasonic decode");
 	if (decodePanasonic(results))  return true ;
 #endif

 #if DECODE_LG
 	DBG_PRINTLN("Attempting LG decode");
 	if (decodeLG(results))  return true ;
 #endif

 #if DECODE_JVC
 	DBG_PRINTLN("Attempting JVC decode");
 	if (decodeJVC(results))  return true ;
 #endif

 #if DECODE_SAMSUNG
 	DBG_PRINTLN("Attempting SAMSUNG decode");
 	if (decodeSAMSUNG(results))  return true ;
 #endif

 #if DECODE_WHYNTER
 	DBG_PRINTLN("Attempting Whynter decode");
 	if (decodeWhynter(results))  return true ;
 #endif

 #if DECODE_AIWA_RC_T501
 	DBG_PRINTLN("Attempting Aiwa RC-T501 decode");
 	if (decodeAiwaRCT501(results))  return true ;
 #endif

 #if DECODE_DENON
 	DBG_PRINTLN("Attempting Denon decode");
 	if (decodeDenon(results))  return true ;
 #endif

 #if DECODE_LEGO_PF
 	DBG_PRINTLN("Attempting Lego Power Functions");
 	if (decodeLegoPowerFunctions(results))  return true ;
 #endif

 	// decodeHash returns a hash on any input.
 	// Thus, it needs to be last in the list.
 	// If you add any decodes, add them before this.
 	if (decodeHash(results))  return true ;

 	// Throw away and start over
 	resume();
 	return false;
 }

 //+=============================================================================
 IRrecv::IRrecv (int recvpin)
 {
 	irparams.recvpin = recvpin;
 	irparams.blinkflag = 0;
 }

 IRrecv::IRrecv (int recvpin, int blinkpin)
 {
 	irparams.recvpin = recvpin;
 	irparams.blinkpin = blinkpin;
 	pinMode(blinkpin, OUTPUT);
 	irparams.blinkflag = 0;
 }



 //+=============================================================================
 // initialization
 //
 void  IRrecv::enableIRIn ( )
 {
 // Interrupt Service Routine - Fires every 50uS
 #ifdef ESP32
 	// ESP32 has a proper API to setup timers, no weird chip macros needed
 	// simply call the readable API versions :)
 	// 3 timers, choose #1, 80 divider nanosecond precision, 1 to count up
 	timer = timerBegin(1, 80, 1);
 	timerAttachInterrupt(timer, &IRTimer, 1);
 	// every 50ns, autoreload = true
 	timerAlarmWrite(timer, 50, true);
 	timerAlarmEnable(timer);
 #else
 	cli();
 	// Setup pulse clock timer interrupt
 	// Prescale /8 (16M/8 = 0.5 microseconds per tick)
 	// Therefore, the timer interval can range from 0.5 to 128 microseconds
 	// Depending on the reset value (255 to 0)
 	TIMER_CONFIG_NORMAL();

 	// Timer2 Overflow Interrupt Enable
 	TIMER_ENABLE_INTR;

 	TIMER_RESET;

 	sei();  // enable interrupts
 #endif

 	// Initialize state machine variables
 	irparams.rcvstate = STATE_IDLE;
 	irparams.rawlen = 0;

 	// Set pin modes
 	pinMode(irparams.recvpin, INPUT);
 }

 //+=============================================================================
 // Enable/disable blinking of pin 13 on IR processing
 //
 void  IRrecv::blink13 (int blinkflag)
 {
 	irparams.blinkflag = blinkflag;
 	if (blinkflag)  pinMode(BLINKLED, OUTPUT) ;
 }

 //+=============================================================================
 // Return if receiving new IR signals
 //
 bool  IRrecv::isIdle ( )
 {
 return (irparams.rcvstate == STATE_IDLE || irparams.rcvstate == STATE_STOP) ? true : false;
 }
 //+=============================================================================
 // Restart the ISR state machine
 //
 void  IRrecv::resume ( )
 {
 	irparams.rcvstate = STATE_IDLE;
 	irparams.rawlen = 0;
 }

 //+=============================================================================
 // hashdecode - decode an arbitrary IR code.
 // Instead of decoding using a standard encoding scheme
 // (e.g. Sony, NEC, RC5), the code is hashed to a 32-bit value.
 //
 // The algorithm: look at the sequence of MARK signals, and see if each one
 // is shorter (0), the same length (1), or longer (2) than the previous.
 // Do the same with the SPACE signals.  Hash the resulting sequence of 0's,
 // 1's, and 2's to a 32-bit value.  This will give a unique value for each
 // different code (probably), for most code systems.
 //
 // http://arcfn.com/2010/01/using-arbitrary-remotes-with-arduino.html
 //
 // Compare two tick values, returning 0 if newval is shorter,
 // 1 if newval is equal, and 2 if newval is longer
 // Use a tolerance of 20%
 //
 int  IRrecv::compare (unsigned int oldval,  unsigned int newval)
 {
 	if      (newval < oldval * .8)  return 0 ;
 	else if (oldval < newval * .8)  return 2 ;
 	else                            return 1 ;
 }

 //+=============================================================================
 // Use FNV hash algorithm: http://isthe.com/chongo/tech/comp/fnv/#FNV-param
 // Converts the raw code values into a 32-bit hash code.
 // Hopefully this code is unique for each button.
 // This isn't a "real" decoding, just an arbitrary value.
 //
 #define FNV_PRIME_32 16777619
 #define FNV_BASIS_32 2166136261

 long  IRrecv::decodeHash (decode_results *results)
 {
 	long  hash = FNV_BASIS_32;

 	// Require at least 6 samples to prevent triggering on noise
 	if (results->rawlen < 6)  return false ;

 	for (int i = 1;  (i + 2) < results->rawlen;  i++) {
 		int value =  compare(results->rawbuf[i], results->rawbuf[i+2]);
 		// Add value into the hash
 		hash = (hash * FNV_PRIME_32) ^ value;
 	}

 	results->value       = hash;
 	results->bits        = 32;
 	results->decode_type = UNKNOWN;

 	return true;
 }
--- a/src/irSend.cpp
+++ b/src/irSend.cpp
@@ -0,0 +1,90 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 //+=============================================================================
 void  IRsend::sendRaw (const unsigned int buf[],  unsigned int len,  unsigned int hz)
 {
 	// Set IR carrier frequency
 	enableIROut(hz);

 	for (unsigned int i = 0;  i < len;  i++) {
 		if (i & 1)  space(buf[i]) ;
 		else        mark (buf[i]) ;
 	}

 	space(0);  // Always end with the LED off
 }

 //+=============================================================================
 // Sends an IR mark for the specified number of microseconds.
 // The mark output is modulated at the PWM frequency.
 //
 void  IRsend::mark (unsigned int time)
 {
 	TIMER_ENABLE_PWM; // Enable pin 3 PWM output
 	if (time > 0) custom_delay_usec(time);
 }

 //+=============================================================================
 // Leave pin off for time (given in microseconds)
 // Sends an IR space for the specified number of microseconds.
 // A space is no output, so the PWM output is disabled.
 //
 void  IRsend::space (unsigned int time)
 {
 	TIMER_DISABLE_PWM; // Disable pin 3 PWM output
 	if (time > 0) IRsend::custom_delay_usec(time);
 }





 //+=============================================================================
 // Enables IR output.  The khz value controls the modulation frequency in kilohertz.
 // The IR output will be on pin 3 (OC2B).
 // This routine is designed for 36-40KHz; if you use it for other values, it's up to you
 // to make sure it gives reasonable results.  (Watch out for overflow / underflow / rounding.)
 // TIMER2 is used in phase-correct PWM mode, with OCR2A controlling the frequency and OCR2B
 // controlling the duty cycle.
 // There is no prescaling, so the output frequency is 16MHz / (2 * OCR2A)
 // To turn the output on and off, we leave the PWM running, but connect and disconnect the output pin.
 // A few hours staring at the ATmega documentation and this will all make sense.
 // See my Secrets of Arduino PWM at http://arcfn.com/2009/07/secrets-of-arduino-pwm.html for details.
 //
 void  IRsend::enableIROut (int khz)
 {
 // FIXME: implement ESP32 support, see IR_TIMER_USE_ESP32 in boarddefs.h
 #ifndef ESP32
 	// Disable the Timer2 Interrupt (which is used for receiving IR)
 	TIMER_DISABLE_INTR; //Timer2 Overflow Interrupt

 	pinMode(TIMER_PWM_PIN, OUTPUT);
 	digitalWrite(TIMER_PWM_PIN, LOW); // When not sending PWM, we want it low

 	// COM2A = 00: disconnect OC2A
 	// COM2B = 00: disconnect OC2B; to send signal set to 10: OC2B non-inverted
 	// WGM2 = 101: phase-correct PWM with OCRA as top
 	// CS2  = 000: no prescaling
 	// The top value for the timer.  The modulation frequency will be SYSCLOCK / 2 / OCR2A.
 	TIMER_CONFIG_KHZ(khz);
 #endif
 }

 //+=============================================================================
 // Custom delay function that circumvents Arduino's delayMicroseconds limit

 void IRsend::custom_delay_usec(unsigned long uSecs) {
  if (uSecs > 4) {
    unsigned long start = micros();
    unsigned long endMicros = start + uSecs - 4;
    if (endMicros < start) { // Check if overflow
      while ( micros() > start ) {} // wait until overflow
    }
    while ( micros() < endMicros ) {} // normal wait
  }
  //else {
  //  __asm__("nop\n\t"); // must have or compiler optimizes out
  //}
 }

--- a/src/ir_Aiwa.cpp
+++ b/src/ir_Aiwa.cpp
@@ -0,0 +1,105 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 //==============================================================================
 //                         AAA   IIIII  W   W   AAA
 //                        A   A    I    W   W  A   A
 //                        AAAAA    I    W W W  AAAAA
 //                        A   A    I    W W W  A   A
 //                        A   A  IIIII   WWW   A   A
 //==============================================================================

 // Based off the RC-T501 RCU
 // Lirc file http://lirc.sourceforge.net/remotes/aiwa/RC-T501

 #define AIWA_RC_T501_HZ            38
 #define AIWA_RC_T501_BITS          15
 #define AIWA_RC_T501_PRE_BITS      26
 #define AIWA_RC_T501_POST_BITS      1
 #define AIWA_RC_T501_SUM_BITS    (AIWA_RC_T501_PRE_BITS + AIWA_RC_T501_BITS + AIWA_RC_T501_POST_BITS)
 #define AIWA_RC_T501_HDR_MARK    8800
 #define AIWA_RC_T501_HDR_SPACE   4500
 #define AIWA_RC_T501_BIT_MARK     500
 #define AIWA_RC_T501_ONE_SPACE    600
 #define AIWA_RC_T501_ZERO_SPACE  1700

 //+=============================================================================
 #if SEND_AIWA_RC_T501
 void  IRsend::sendAiwaRCT501 (int code)
 {
 	unsigned long  pre = 0x0227EEC0;  // 26-bits

 	// Set IR carrier frequency
 	enableIROut(AIWA_RC_T501_HZ);

 	// Header
 	mark(AIWA_RC_T501_HDR_MARK);
 	space(AIWA_RC_T501_HDR_SPACE);

 	// Send "pre" data
 	for (unsigned long  mask = 1UL << (26 - 1);  mask;  mask >>= 1) {
 		mark(AIWA_RC_T501_BIT_MARK);
 		if (pre & mask)  space(AIWA_RC_T501_ONE_SPACE) ;
 		else             space(AIWA_RC_T501_ZERO_SPACE) ;
 	}

 //-v- THIS CODE LOOKS LIKE IT MIGHT BE WRONG - CHECK!
 //    it only send 15bits and ignores the top bit
 //    then uses TOPBIT which is 0x80000000 to check the bit code
 //    I suspect TOPBIT should be changed to 0x00008000

 	// Skip first code bit
 	code <<= 1;
 	// Send code
 	for (int  i = 0;  i < 15;  i++) {
 		mark(AIWA_RC_T501_BIT_MARK);
 		if (code & 0x80000000)  space(AIWA_RC_T501_ONE_SPACE) ;
 		else                    space(AIWA_RC_T501_ZERO_SPACE) ;
 		code <<= 1;
 	}

 //-^- THIS CODE LOOKS LIKE IT MIGHT BE WRONG - CHECK!

 	// POST-DATA, 1 bit, 0x0
 	mark(AIWA_RC_T501_BIT_MARK);
 	space(AIWA_RC_T501_ZERO_SPACE);

 	mark(AIWA_RC_T501_BIT_MARK);
 	space(0);
 }
 #endif

 //+=============================================================================
 #if DECODE_AIWA_RC_T501
 bool  IRrecv::decodeAiwaRCT501 (decode_results *results)
 {
 	int  data   = 0;
 	int  offset = 1;

 	// Check SIZE
 	if (irparams.rawlen < 2 * (AIWA_RC_T501_SUM_BITS) + 4)  return false ;

 	// Check HDR Mark/Space
 	if (!MATCH_MARK (results->rawbuf[offset++], AIWA_RC_T501_HDR_MARK ))  return false ;
 	if (!MATCH_SPACE(results->rawbuf[offset++], AIWA_RC_T501_HDR_SPACE))  return false ;

 	offset += 26;  // skip pre-data - optional
 	while(offset < irparams.rawlen - 4) {
 		if (MATCH_MARK(results->rawbuf[offset], AIWA_RC_T501_BIT_MARK))  offset++ ;
 		else                                                             return false ;

 		// ONE & ZERO
 		if      (MATCH_SPACE(results->rawbuf[offset], AIWA_RC_T501_ONE_SPACE))   data = (data << 1) | 1 ;
 		else if (MATCH_SPACE(results->rawbuf[offset], AIWA_RC_T501_ZERO_SPACE))  data = (data << 1) | 0 ;
 		else                                                                     break ;  // End of one & zero detected
 		offset++;
 	}

 	results->bits = (offset - 1) / 2;
 	if (results->bits < 42)  return false ;

 	results->value       = data;
 	results->decode_type = AIWA_RC_T501;
 	return true;
 }
 #endif
--- a/src/ir_Denon.cpp
+++ b/src/ir_Denon.cpp
@@ -0,0 +1,94 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 // Reverse Engineered by looking at RAW dumps generated by IRremote

 // I have since discovered that Denon publish all their IR codes:
 //  https://www.google.co.uk/search?q=DENON+MASTER+IR+Hex+Command+Sheet
 //  -> http://assets.denon.com/documentmaster/us/denon%20master%20ir%20hex.xls

 // Having looked at the official Denon Pronto sheet and reverse engineered
 // the timing values from it, it is obvious that Denon have a range of
 // different timings and protocols ...the values here work for my AVR-3801 Amp!

 //==============================================================================
 //                    DDDD   EEEEE  N   N   OOO   N   N
 //                     D  D  E      NN  N  O   O  NN  N
 //                     D  D  EEE    N N N  O   O  N N N
 //                     D  D  E      N  NN  O   O  N  NN
 //                    DDDD   EEEEE  N   N   OOO   N   N
 //==============================================================================

 #define BITS          14  // The number of bits in the command

 #define HDR_MARK     300  // The length of the Header:Mark
 #define HDR_SPACE    750  // The lenght of the Header:Space

 #define BIT_MARK     300  // The length of a Bit:Mark
 #define ONE_SPACE   1800  // The length of a Bit:Space for 1's
 #define ZERO_SPACE   750  // The length of a Bit:Space for 0's

 //+=============================================================================
 //
 #if SEND_DENON
 void  IRsend::sendDenon (unsigned long data,  int nbits)
 {
 	// Set IR carrier frequency
 	enableIROut(38);

 	// Header
 	mark (HDR_MARK);
 	space(HDR_SPACE);

 	// Data
 	for (unsigned long  mask = 1UL << (nbits - 1);  mask;  mask >>= 1) {
 		if (data & mask) {
 			mark (BIT_MARK);
 			space(ONE_SPACE);
 		} else {
 			mark (BIT_MARK);
 			space(ZERO_SPACE);
 		}
 	}

 	// Footer
 	mark(BIT_MARK);
    space(0);  // Always end with the LED off
 }
 #endif

 //+=============================================================================
 //
 #if DECODE_DENON
 bool  IRrecv::decodeDenon (decode_results *results)
 {
 	unsigned long  data   = 0;  // Somewhere to build our code
 	int            offset = 1;  // Skip the Gap reading

 	// Check we have the right amount of data
 	if (irparams.rawlen != 1 + 2 + (2 * BITS) + 1)  return false ;

 	// Check initial Mark+Space match
 	if (!MATCH_MARK (results->rawbuf[offset++], HDR_MARK ))  return false ;
 	if (!MATCH_SPACE(results->rawbuf[offset++], HDR_SPACE))  return false ;

 	// Read the bits in
 	for (int i = 0;  i < BITS;  i++) {
 		// Each bit looks like: MARK + SPACE_1 -> 1
 		//                 or : MARK + SPACE_0 -> 0
 		if (!MATCH_MARK(results->rawbuf[offset++], BIT_MARK))  return false ;

 		// IR data is big-endian, so we shuffle it in from the right:
 		if      (MATCH_SPACE(results->rawbuf[offset], ONE_SPACE))   data = (data << 1) | 1 ;
 		else if (MATCH_SPACE(results->rawbuf[offset], ZERO_SPACE))  data = (data << 1) | 0 ;
 		else                                                        return false ;
 		offset++;
 	}

 	// Success
 	results->bits        = BITS;
 	results->value       = data;
 	results->decode_type = DENON;
 	return true;
 }
 #endif
--- a/src/ir_Dish.cpp
+++ b/src/ir_Dish.cpp
@@ -0,0 +1,54 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 //==============================================================================
 //                       DDDD   IIIII   SSSS  H   H
 //                        D  D    I    S      H   H
 //                        D  D    I     SSS   HHHHH
 //                        D  D    I        S  H   H
 //                       DDDD   IIIII  SSSS   H   H
 //==============================================================================

 // Sharp and DISH support by Todd Treece ( http://unionbridge.org/design/ircommand )
 //
 // The sned function needs to be repeated 4 times
 //
 // Only send the last for characters of the hex.
 // I.E.  Use 0x1C10 instead of 0x0000000000001C10 as listed in the LIRC file.
 //
 // Here is the LIRC file I found that seems to match the remote codes from the
 // oscilloscope:
 //   DISH NETWORK (echostar 301):
 //   http://lirc.sourceforge.net/remotes/echostar/301_501_3100_5100_58xx_59xx

 #define DISH_BITS          16
 #define DISH_HDR_MARK     400
 #define DISH_HDR_SPACE   6100
 #define DISH_BIT_MARK     400
 #define DISH_ONE_SPACE   1700
 #define DISH_ZERO_SPACE  2800
 #define DISH_RPT_SPACE   6200

 //+=============================================================================
 #if SEND_DISH
 void  IRsend::sendDISH (unsigned long data,  int nbits)
 {
 	// Set IR carrier frequency
 	enableIROut(56);

 	mark(DISH_HDR_MARK);
 	space(DISH_HDR_SPACE);

 	for (unsigned long  mask = 1UL << (nbits - 1);  mask;  mask >>= 1) {
 		if (data & mask) {
 			mark(DISH_BIT_MARK);
 			space(DISH_ONE_SPACE);
 		} else {
 			mark(DISH_BIT_MARK);
 			space(DISH_ZERO_SPACE);
 		}
 	}
 	mark(DISH_HDR_MARK); //added 26th March 2016, by AnalysIR ( https://www.AnalysIR.com )
 }
 #endif

--- a/src/ir_JVC.cpp
+++ b/src/ir_JVC.cpp
@@ -0,0 +1,101 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 //==============================================================================
 //                             JJJJJ  V   V   CCCC
 //                               J    V   V  C
 //                               J     V V   C
 //                             J J     V V   C
 //                              J       V     CCCC
 //==============================================================================

 #define JVC_BITS           16
 #define JVC_HDR_MARK     8000
 #define JVC_HDR_SPACE    4000
 #define JVC_BIT_MARK      600
 #define JVC_ONE_SPACE    1600
 #define JVC_ZERO_SPACE    550
 #define JVC_RPT_LENGTH  60000

 //+=============================================================================
 // JVC does NOT repeat by sending a separate code (like NEC does).
 // The JVC protocol repeats by skipping the header.
 // To send a JVC repeat signal, send the original code value
 //   and set 'repeat' to true
 //
 #if SEND_JVC
 void  IRsend::sendJVC (unsigned long data,  int nbits,  bool repeat)
 {
 	// Set IR carrier frequency
 	enableIROut(38);

 	// Only send the Header if this is NOT a repeat command
 	if (!repeat){
 		mark(JVC_HDR_MARK);
 		space(JVC_HDR_SPACE);
 	}

 	// Data
 	for (unsigned long  mask = 1UL << (nbits - 1);  mask;  mask >>= 1) {
 		if (data & mask) {
 			mark(JVC_BIT_MARK);
 			space(JVC_ONE_SPACE);
 		} else {
 			mark(JVC_BIT_MARK);
 			space(JVC_ZERO_SPACE);
 		}
 	}

 	// Footer
    mark(JVC_BIT_MARK);
    space(0);  // Always end with the LED off
 }
 #endif

 //+=============================================================================
 #if DECODE_JVC
 bool  IRrecv::decodeJVC (decode_results *results)
 {
 	long  data   = 0;
 	int   offset = 1; // Skip first space

 	// Check for repeat
 	if (  (irparams.rawlen - 1 == 33)
 	    && MATCH_MARK(results->rawbuf[offset], JVC_BIT_MARK)
 	    && MATCH_MARK(results->rawbuf[irparams.rawlen-1], JVC_BIT_MARK)
 	   ) {
 		results->bits        = 0;
 		results->value       = REPEAT;
 		results->decode_type = JVC;
 		return true;
 	}

 	// Initial mark
 	if (!MATCH_MARK(results->rawbuf[offset++], JVC_HDR_MARK))  return false ;

 	if (irparams.rawlen < (2 * JVC_BITS) + 1 )  return false ;

 	// Initial space
 	if (!MATCH_SPACE(results->rawbuf[offset++], JVC_HDR_SPACE))  return false ;

 	for (int i = 0;  i < JVC_BITS;  i++) {
 		if (!MATCH_MARK(results->rawbuf[offset++], JVC_BIT_MARK))  return false ;

 		if      (MATCH_SPACE(results->rawbuf[offset], JVC_ONE_SPACE))   data = (data << 1) | 1 ;
 		else if (MATCH_SPACE(results->rawbuf[offset], JVC_ZERO_SPACE))  data = (data << 1) | 0 ;
 		else                                                            return false ;
 		offset++;
 	}

 	// Stop bit
 	if (!MATCH_MARK(results->rawbuf[offset], JVC_BIT_MARK))  return false ;

 	// Success
 	results->bits        = JVC_BITS;
 	results->value       = data;
 	results->decode_type = JVC;

 	return true;
 }
 #endif

--- a/src/ir_LG.cpp
+++ b/src/ir_LG.cpp
@@ -0,0 +1,80 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 //==============================================================================
 //                               L       GGGG
 //                               L      G
 //                               L      G  GG
 //                               L      G   G
 //                               LLLLL   GGG
 //==============================================================================

 #define LG_BITS 28

 #define LG_HDR_MARK 8000
 #define LG_HDR_SPACE 4000
 #define LG_BIT_MARK 600
 #define LG_ONE_SPACE 1600
 #define LG_ZERO_SPACE 550
 #define LG_RPT_LENGTH 60000

 //+=============================================================================
 #if DECODE_LG
 bool  IRrecv::decodeLG (decode_results *results)
 {
    long  data   = 0;
    int   offset = 1; // Skip first space

 	// Check we have the right amount of data
    if (irparams.rawlen < (2 * LG_BITS) + 1 )  return false ;

    // Initial mark/space
    if (!MATCH_MARK(results->rawbuf[offset++], LG_HDR_MARK))  return false ;
    if (!MATCH_SPACE(results->rawbuf[offset++], LG_HDR_SPACE))  return false ;

    for (int i = 0;  i < LG_BITS;  i++) {
        if (!MATCH_MARK(results->rawbuf[offset++], LG_BIT_MARK))  return false ;

        if      (MATCH_SPACE(results->rawbuf[offset], LG_ONE_SPACE))   data = (data << 1) | 1 ;
        else if (MATCH_SPACE(results->rawbuf[offset], LG_ZERO_SPACE))  data = (data << 1) | 0 ;
        else                                                           return false ;
        offset++;
    }

    // Stop bit
    if (!MATCH_MARK(results->rawbuf[offset], LG_BIT_MARK))   return false ;

    // Success
    results->bits        = LG_BITS;
    results->value       = data;
    results->decode_type = LG;
    return true;
 }
 #endif

 //+=============================================================================
 #if SEND_LG
 void  IRsend::sendLG (unsigned long data,  int nbits)
 {
    // Set IR carrier frequency
    enableIROut(38);

    // Header
    mark(LG_HDR_MARK);
    space(LG_HDR_SPACE);
    mark(LG_BIT_MARK);

    // Data
    for (unsigned long  mask = 1UL << (nbits - 1);  mask;  mask >>= 1) {
        if (data & mask) {
            space(LG_ONE_SPACE);
            mark(LG_BIT_MARK);
        } else {
            space(LG_ZERO_SPACE);
            mark(LG_BIT_MARK);
        }
    }
    space(0);  // Always end with the LED off
 }
 #endif

--- a/src/ir_Lego_PF.cpp
+++ b/src/ir_Lego_PF.cpp
@@ -0,0 +1,46 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"
 #include "irr/ir_Lego_PF_BitStreamEncoder.h"

 //==============================================================================
 //    L       EEEEEE   EEEE    OOOO
 //    L       E       E       O    O
 //    L       EEEE    E  EEE  O    O
 //    L       E       E    E  O    O    LEGO Power Functions
 //    LLLLLL  EEEEEE   EEEE    OOOO     Copyright (c) 2016 Philipp Henkel
 //==============================================================================

 // Supported Devices
 // LEGO® Power Functions IR Receiver 8884

 //+=============================================================================
 //
 #if SEND_LEGO_PF

 #if DEBUG
 namespace {
 void logFunctionParameters(uint16_t data, bool repeat) {
  DBG_PRINT("sendLegoPowerFunctions(data=");
  DBG_PRINT(data);
  DBG_PRINT(", repeat=");
  DBG_PRINTLN(repeat?"true)" : "false)");
 }
 } // anonymous namespace
 #endif // DEBUG

 void IRsend::sendLegoPowerFunctions(uint16_t data, bool repeat)
 {
 #if DEBUG
  ::logFunctionParameters(data, repeat);
 #endif // DEBUG

  enableIROut(38);
  static LegoPfBitStreamEncoder bitStreamEncoder;
  bitStreamEncoder.reset(data, repeat);
  do {
    mark(bitStreamEncoder.getMarkDuration());
    space(bitStreamEncoder.getPauseDuration());
  } while (bitStreamEncoder.next());
 }

 #endif // SEND_LEGO_PF
--- a/src/ir_Mitsubishi.cpp
+++ b/src/ir_Mitsubishi.cpp
@@ -0,0 +1,85 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 //==============================================================================
 //    MMMMM  IIIII TTTTT   SSSS  U   U  BBBB   IIIII   SSSS  H   H  IIIII
 //    M M M    I     T    S      U   U  B   B    I    S      H   H    I
 //    M M M    I     T     SSS   U   U  BBBB     I     SSS   HHHHH    I
 //    M   M    I     T        S  U   U  B   B    I        S  H   H    I
 //    M   M  IIIII   T    SSSS    UUU   BBBBB  IIIII  SSSS   H   H  IIIII
 //==============================================================================

 // Looks like Sony except for timings, 48 chars of data and time/space different

 #define MITSUBISHI_BITS 16

 // Mitsubishi RM 75501
 // 14200 7 41 7 42 7 42 7 17 7 17 7 18 7 41 7 18 7 17 7 17 7 18 7 41 8 17 7 17 7 18 7 17 7
 // #define MITSUBISHI_HDR_MARK	250  // seen range 3500
 #define MITSUBISHI_HDR_SPACE	350 //  7*50+100
 #define MITSUBISHI_ONE_MARK	1950 // 41*50-100
 #define MITSUBISHI_ZERO_MARK  750 // 17*50-100
 // #define MITSUBISHI_DOUBLE_SPACE_USECS  800  // usually ssee 713 - not using ticks as get number wrapround
 // #define MITSUBISHI_RPT_LENGTH 45000

 //+=============================================================================
 #if DECODE_MITSUBISHI
 bool  IRrecv::decodeMitsubishi (decode_results *results)
 {
  // Serial.print("?!? decoding Mitsubishi:");Serial.print(irparams.rawlen); Serial.print(" want "); Serial.println( 2 * MITSUBISHI_BITS + 2);
  long data = 0;
  if (irparams.rawlen < 2 * MITSUBISHI_BITS + 2)  return false ;
  int offset = 0; // Skip first space
  // Initial space

 #if 0
  // Put this back in for debugging - note can't use #DEBUG as if Debug on we don't see the repeat cos of the delay
  Serial.print("IR Gap: ");
  Serial.println( results->rawbuf[offset]);
  Serial.println( "test against:");
  Serial.println(results->rawbuf[offset]);
 #endif

 #if 0
  // Not seeing double keys from Mitsubishi
  if (results->rawbuf[offset] < MITSUBISHI_DOUBLE_SPACE_USECS) {
    // Serial.print("IR Gap found: ");
    results->bits = 0;
    results->value = REPEAT;
    results->decode_type = MITSUBISHI;
    return true;
  }
 #endif

  offset++;

  // Typical
  // 14200 7 41 7 42 7 42 7 17 7 17 7 18 7 41 7 18 7 17 7 17 7 18 7 41 8 17 7 17 7 18 7 17 7

  // Initial Space
  if (!MATCH_MARK(results->rawbuf[offset], MITSUBISHI_HDR_SPACE))  return false ;
  offset++;

  while (offset + 1 < irparams.rawlen) {
    if      (MATCH_MARK(results->rawbuf[offset], MITSUBISHI_ONE_MARK))   data = (data << 1) | 1 ;
    else if (MATCH_MARK(results->rawbuf[offset], MITSUBISHI_ZERO_MARK))  data <<= 1 ;
    else                                                                 return false ;
    offset++;

    if (!MATCH_SPACE(results->rawbuf[offset], MITSUBISHI_HDR_SPACE))  break ;
    offset++;
  }

  // Success
  results->bits = (offset - 1) / 2;
  if (results->bits < MITSUBISHI_BITS) {
    results->bits = 0;
    return false;
  }

  results->value       = data;
  results->decode_type = MITSUBISHI;
  return true;
 }
 #endif

--- a/src/ir_NEC.cpp
+++ b/src/ir_NEC.cpp
@@ -0,0 +1,98 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 //==============================================================================
 //                           N   N  EEEEE   CCCC
 //                           NN  N  E      C
 //                           N N N  EEE    C
 //                           N  NN  E      C
 //                           N   N  EEEEE   CCCC
 //==============================================================================

 #define NEC_BITS          32
 #define NEC_HDR_MARK    9000
 #define NEC_HDR_SPACE   4500
 #define NEC_BIT_MARK     560
 #define NEC_ONE_SPACE   1690
 #define NEC_ZERO_SPACE   560
 #define NEC_RPT_SPACE   2250

 //+=============================================================================
 #if SEND_NEC
 void  IRsend::sendNEC (unsigned long data,  int nbits)
 {
 	// Set IR carrier frequency
 	enableIROut(38);

 	// Header
 	mark(NEC_HDR_MARK);
 	space(NEC_HDR_SPACE);

 	// Data
 	for (unsigned long  mask = 1UL << (nbits - 1);  mask;  mask >>= 1) {
 		if (data & mask) {
 			mark(NEC_BIT_MARK);
 			space(NEC_ONE_SPACE);
 		} else {
 			mark(NEC_BIT_MARK);
 			space(NEC_ZERO_SPACE);
 		}
 	}

 	// Footer
 	mark(NEC_BIT_MARK);
 	space(0);  // Always end with the LED off
 }
 #endif

 //+=============================================================================
 // NECs have a repeat only 4 items long
 //
 #if DECODE_NEC
 bool  IRrecv::decodeNEC (decode_results *results)
 {
 	long  data   = 0;  // We decode in to here; Start with nothing
 	int   offset = 1;  // Index in to results; Skip first entry!?

 	// Check header "mark"
 	if (!MATCH_MARK(results->rawbuf[offset], NEC_HDR_MARK))  return false ;
 	offset++;

 	// Check for repeat
 	if ( (irparams.rawlen == 4)
 	    && MATCH_SPACE(results->rawbuf[offset  ], NEC_RPT_SPACE)
 	    && MATCH_MARK (results->rawbuf[offset+1], NEC_BIT_MARK )
 	   ) {
 		results->bits        = 0;
 		results->value       = REPEAT;
 		results->decode_type = NEC;
 		return true;
 	}

 	// Check we have enough data
 	if (irparams.rawlen < (2 * NEC_BITS) + 4)  return false ;

 	// Check header "space"
 	if (!MATCH_SPACE(results->rawbuf[offset], NEC_HDR_SPACE))  return false ;
 	offset++;

 	// Build the data
 	for (int i = 0;  i < NEC_BITS;  i++) {
 		// Check data "mark"
 		if (!MATCH_MARK(results->rawbuf[offset], NEC_BIT_MARK))  return false ;
 		offset++;
        // Suppend this bit
 		if      (MATCH_SPACE(results->rawbuf[offset], NEC_ONE_SPACE ))  data = (data << 1) | 1 ;
 		else if (MATCH_SPACE(results->rawbuf[offset], NEC_ZERO_SPACE))  data = (data << 1) | 0 ;
 		else                                                            return false ;
 		offset++;
 	}

 	// Success
 	results->bits        = NEC_BITS;
 	results->value       = data;
 	results->decode_type = NEC;

 	return true;
 }
 #endif
--- a/src/ir_Panasonic.cpp
+++ b/src/ir_Panasonic.cpp
@@ -0,0 +1,78 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 //==============================================================================
 //       PPPP    AAA   N   N   AAA    SSSS   OOO   N   N  IIIII   CCCC
 //       P   P  A   A  NN  N  A   A  S      O   O  NN  N    I    C
 //       PPPP   AAAAA  N N N  AAAAA   SSS   O   O  N N N    I    C
 //       P      A   A  N  NN  A   A      S  O   O  N  NN    I    C
 //       P      A   A  N   N  A   A  SSSS    OOO   N   N  IIIII   CCCC
 //==============================================================================

 #define PANASONIC_BITS          48
 #define PANASONIC_HDR_MARK    3502
 #define PANASONIC_HDR_SPACE   1750
 #define PANASONIC_BIT_MARK     502
 #define PANASONIC_ONE_SPACE   1244
 #define PANASONIC_ZERO_SPACE   400

 //+=============================================================================
 #if SEND_PANASONIC
 void  IRsend::sendPanasonic (unsigned int address,  unsigned long data)
 {
 	// Set IR carrier frequency
 	enableIROut(35);

 	// Header
 	mark(PANASONIC_HDR_MARK);
 	space(PANASONIC_HDR_SPACE);

 	// Address
 	for (unsigned long  mask = 1UL << (16 - 1);  mask;  mask >>= 1) {
 		mark(PANASONIC_BIT_MARK);
 		if (address & mask)  space(PANASONIC_ONE_SPACE) ;
 		else                 space(PANASONIC_ZERO_SPACE) ;
    }

 	// Data
 	for (unsigned long  mask = 1UL << (32 - 1);  mask;  mask >>= 1) {
        mark(PANASONIC_BIT_MARK);
        if (data & mask)  space(PANASONIC_ONE_SPACE) ;
        else              space(PANASONIC_ZERO_SPACE) ;
    }

 	// Footer
    mark(PANASONIC_BIT_MARK);
    space(0);  // Always end with the LED off
 }
 #endif

 //+=============================================================================
 #if DECODE_PANASONIC
 bool  IRrecv::decodePanasonic (decode_results *results)
 {
    unsigned long long  data   = 0;
    int                 offset = 1;

    if (!MATCH_MARK(results->rawbuf[offset++], PANASONIC_HDR_MARK ))  return false ;
    if (!MATCH_MARK(results->rawbuf[offset++], PANASONIC_HDR_SPACE))  return false ;

    // decode address
    for (int i = 0;  i < PANASONIC_BITS;  i++) {
        if (!MATCH_MARK(results->rawbuf[offset++], PANASONIC_BIT_MARK))  return false ;

        if      (MATCH_SPACE(results->rawbuf[offset],PANASONIC_ONE_SPACE ))  data = (data << 1) | 1 ;
        else if (MATCH_SPACE(results->rawbuf[offset],PANASONIC_ZERO_SPACE))  data = (data << 1) | 0 ;
        else                                                                 return false ;
        offset++;
    }

    results->value       = (unsigned long)data;
    results->address     = (unsigned int)(data >> 32);
    results->decode_type = PANASONIC;
    results->bits        = PANASONIC_BITS;

    return true;
 }
 #endif

--- a/src/ir_RC5_RC6.cpp
+++ b/src/ir_RC5_RC6.cpp
@@ -0,0 +1,207 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 //+=============================================================================
 // Gets one undecoded level at a time from the raw buffer.
 // The RC5/6 decoding is easier if the data is broken into time intervals.
 // E.g. if the buffer has MARK for 2 time intervals and SPACE for 1,
 // successive calls to getRClevel will return MARK, MARK, SPACE.
 // offset and used are updated to keep track of the current position.
 // t1 is the time interval for a single bit in microseconds.
 // Returns -1 for error (measured time interval is not a multiple of t1).
 //
 #if (DECODE_RC5 || DECODE_RC6)
 int  IRrecv::getRClevel (decode_results *results,  int *offset,  int *used,  int t1)
 {
 	int  width;
 	int  val;
 	int  correction;
 	int  avail;

 	if (*offset >= results->rawlen)  return SPACE ;  // After end of recorded buffer, assume SPACE.
 	width      = results->rawbuf[*offset];
 	val        = ((*offset) % 2) ? MARK : SPACE;
 	correction = (val == MARK) ? MARK_EXCESS : - MARK_EXCESS;

 	if      (MATCH(width, (  t1) + correction))  avail = 1 ;
 	else if (MATCH(width, (2*t1) + correction))  avail = 2 ;
 	else if (MATCH(width, (3*t1) + correction))  avail = 3 ;
 	else                                         return -1 ;

 	(*used)++;
 	if (*used >= avail) {
 		*used = 0;
 		(*offset)++;
 	}

 	DBG_PRINTLN( (val == MARK) ? "MARK" : "SPACE" );

 	return val;
 }
 #endif

 //==============================================================================
 // RRRR    CCCC  55555
 // R   R  C      5
 // RRRR   C      5555
 // R  R   C          5
 // R   R   CCCC  5555
 //
 // NB: First bit must be a one (start bit)
 //
 #define MIN_RC5_SAMPLES     11
 #define RC5_T1             889
 #define RC5_RPT_LENGTH   46000

 //+=============================================================================
 #if SEND_RC5
 void  IRsend::sendRC5 (unsigned long data,  int nbits)
 {
 	// Set IR carrier frequency
 	enableIROut(36);

 	// Start
 	mark(RC5_T1);
 	space(RC5_T1);
 	mark(RC5_T1);

 	// Data
 	for (unsigned long  mask = 1UL << (nbits - 1);  mask;  mask >>= 1) {
 		if (data & mask) {
 			space(RC5_T1); // 1 is space, then mark
 			mark(RC5_T1);
 		} else {
 			mark(RC5_T1);
 			space(RC5_T1);
 		}
 	}

 	space(0);  // Always end with the LED off
 }
 #endif

 //+=============================================================================
 #if DECODE_RC5
 bool  IRrecv::decodeRC5 (decode_results *results)
 {
 	int   nbits;
 	long  data   = 0;
 	int   used   = 0;
 	int   offset = 1;  // Skip gap space

 	if (irparams.rawlen < MIN_RC5_SAMPLES + 2)  return false ;

 	// Get start bits
 	if (getRClevel(results, &offset, &used, RC5_T1) != MARK)   return false ;
 	if (getRClevel(results, &offset, &used, RC5_T1) != SPACE)  return false ;
 	if (getRClevel(results, &offset, &used, RC5_T1) != MARK)   return false ;

 	for (nbits = 0;  offset < irparams.rawlen;  nbits++) {
 		int  levelA = getRClevel(results, &offset, &used, RC5_T1);
 		int  levelB = getRClevel(results, &offset, &used, RC5_T1);

 		if      ((levelA == SPACE) && (levelB == MARK ))  data = (data << 1) | 1 ;
 		else if ((levelA == MARK ) && (levelB == SPACE))  data = (data << 1) | 0 ;
 		else                                              return false ;
 	}

 	// Success
 	results->bits        = nbits;
 	results->value       = data;
 	results->decode_type = RC5;
 	return true;
 }
 #endif

 //+=============================================================================
 // RRRR    CCCC   6666
 // R   R  C      6
 // RRRR   C      6666
 // R  R   C      6   6
 // R   R   CCCC   666
 //
 // NB : Caller needs to take care of flipping the toggle bit
 //
 #define MIN_RC6_SAMPLES      1
 #define RC6_HDR_MARK      2666
 #define RC6_HDR_SPACE      889
 #define RC6_T1             444
 #define RC6_RPT_LENGTH   46000

 #if SEND_RC6
 void  IRsend::sendRC6 (unsigned long data,  int nbits)
 {
 	// Set IR carrier frequency
 	enableIROut(36);

 	// Header
 	mark(RC6_HDR_MARK);
 	space(RC6_HDR_SPACE);

 	// Start bit
 	mark(RC6_T1);
 	space(RC6_T1);

 	// Data
 	for (unsigned long  i = 1, mask = 1UL << (nbits - 1);  mask;  i++, mask >>= 1) {
 		// The fourth bit we send is a "double width trailer bit"
 		int  t = (i == 4) ? (RC6_T1 * 2) : (RC6_T1) ;
 		if (data & mask) {
 			mark(t);
 			space(t);
 		} else {
 			space(t);
 			mark(t);
 		}
 	}

 	space(0);  // Always end with the LED off
 }
 #endif

 //+=============================================================================
 #if DECODE_RC6
 bool  IRrecv::decodeRC6 (decode_results *results)
 {
 	int   nbits;
 	long  data   = 0;
 	int   used   = 0;
 	int   offset = 1;  // Skip first space

 	if (results->rawlen < MIN_RC6_SAMPLES)  return false ;

 	// Initial mark
 	if (!MATCH_MARK(results->rawbuf[offset++],  RC6_HDR_MARK))   return false ;
 	if (!MATCH_SPACE(results->rawbuf[offset++], RC6_HDR_SPACE))  return false ;

 	// Get start bit (1)
 	if (getRClevel(results, &offset, &used, RC6_T1) != MARK)   return false ;
 	if (getRClevel(results, &offset, &used, RC6_T1) != SPACE)  return false ;

 	for (nbits = 0;  offset < results->rawlen;  nbits++) {
 		int  levelA, levelB;  // Next two levels

 		levelA = getRClevel(results, &offset, &used, RC6_T1);
 		if (nbits == 3) {
 			// T bit is double wide; make sure second half matches
 			if (levelA != getRClevel(results, &offset, &used, RC6_T1)) return false;
 		}

 		levelB = getRClevel(results, &offset, &used, RC6_T1);
 		if (nbits == 3) {
 			// T bit is double wide; make sure second half matches
 			if (levelB != getRClevel(results, &offset, &used, RC6_T1)) return false;
 		}

 		if      ((levelA == MARK ) && (levelB == SPACE))  data = (data << 1) | 1 ;  // inverted compared to RC5
 		else if ((levelA == SPACE) && (levelB == MARK ))  data = (data << 1) | 0 ;  // ...
 		else                                              return false ;            // Error
 	}

 	// Success
 	results->bits        = nbits;
 	results->value       = data;
 	results->decode_type = RC6;
 	return true;
 }
 #endif
--- a/src/ir_Samsung.cpp
+++ b/src/ir_Samsung.cpp
@@ -0,0 +1,92 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 //==============================================================================
 //              SSSS   AAA    MMM    SSSS  U   U  N   N   GGGG
 //             S      A   A  M M M  S      U   U  NN  N  G
 //              SSS   AAAAA  M M M   SSS   U   U  N N N  G  GG
 //                 S  A   A  M   M      S  U   U  N  NN  G   G
 //             SSSS   A   A  M   M  SSSS    UUU   N   N   GGG
 //==============================================================================

 #define SAMSUNG_BITS          32
 #define SAMSUNG_HDR_MARK    5000
 #define SAMSUNG_HDR_SPACE   5000
 #define SAMSUNG_BIT_MARK     560
 #define SAMSUNG_ONE_SPACE   1600
 #define SAMSUNG_ZERO_SPACE   560
 #define SAMSUNG_RPT_SPACE   2250

 //+=============================================================================
 #if SEND_SAMSUNG
 void  IRsend::sendSAMSUNG (unsigned long data,  int nbits)
 {
 	// Set IR carrier frequency
 	enableIROut(38);

 	// Header
 	mark(SAMSUNG_HDR_MARK);
 	space(SAMSUNG_HDR_SPACE);

 	// Data
 	for (unsigned long  mask = 1UL << (nbits - 1);  mask;  mask >>= 1) {
 		if (data & mask) {
 			mark(SAMSUNG_BIT_MARK);
 			space(SAMSUNG_ONE_SPACE);
 		} else {
 			mark(SAMSUNG_BIT_MARK);
 			space(SAMSUNG_ZERO_SPACE);
 		}
 	}

 	// Footer
 	mark(SAMSUNG_BIT_MARK);
    space(0);  // Always end with the LED off
 }
 #endif

 //+=============================================================================
 // SAMSUNGs have a repeat only 4 items long
 //
 #if DECODE_SAMSUNG
 bool  IRrecv::decodeSAMSUNG (decode_results *results)
 {
 	long  data   = 0;
 	int   offset = 1;  // Skip first space

 	// Initial mark
 	if (!MATCH_MARK(results->rawbuf[offset], SAMSUNG_HDR_MARK))   return false ;
 	offset++;

 	// Check for repeat
 	if (    (irparams.rawlen == 4)
 	     && MATCH_SPACE(results->rawbuf[offset], SAMSUNG_RPT_SPACE)
 	     && MATCH_MARK(results->rawbuf[offset+1], SAMSUNG_BIT_MARK)
 	   ) {
 		results->bits        = 0;
 		results->value       = REPEAT;
 		results->decode_type = SAMSUNG;
 		return true;
 	}
 	if (irparams.rawlen < (2 * SAMSUNG_BITS) + 4)  return false ;

 	// Initial space
 	if (!MATCH_SPACE(results->rawbuf[offset++], SAMSUNG_HDR_SPACE))  return false ;

 	for (int i = 0;  i < SAMSUNG_BITS;   i++) {
 		if (!MATCH_MARK(results->rawbuf[offset++], SAMSUNG_BIT_MARK))  return false ;

 		if      (MATCH_SPACE(results->rawbuf[offset], SAMSUNG_ONE_SPACE))   data = (data << 1) | 1 ;
 		else if (MATCH_SPACE(results->rawbuf[offset], SAMSUNG_ZERO_SPACE))  data = (data << 1) | 0 ;
 		else                                                                return false ;
 		offset++;
 	}

 	// Success
 	results->bits        = SAMSUNG_BITS;
 	results->value       = data;
 	results->decode_type = SAMSUNG;
 	return true;
 }
 #endif

--- a/src/ir_Sanyo.cpp
+++ b/src/ir_Sanyo.cpp
@@ -0,0 +1,76 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 //==============================================================================
 //                      SSSS   AAA   N   N  Y   Y   OOO
 //                     S      A   A  NN  N   Y Y   O   O
 //                      SSS   AAAAA  N N N    Y    O   O
 //                         S  A   A  N  NN    Y    O   O
 //                     SSSS   A   A  N   N    Y     OOO
 //==============================================================================

 // I think this is a Sanyo decoder:  Serial = SA 8650B
 // Looks like Sony except for timings, 48 chars of data and time/space different

 #define SANYO_BITS                   12
 #define SANYO_HDR_MARK	           3500  // seen range 3500
 #define SANYO_HDR_SPACE	            950  // seen 950
 #define SANYO_ONE_MARK	           2400  // seen 2400
 #define SANYO_ZERO_MARK             700  // seen 700
 #define SANYO_DOUBLE_SPACE_USECS    800  // usually ssee 713 - not using ticks as get number wrapround
 #define SANYO_RPT_LENGTH          45000

 //+=============================================================================
 #if DECODE_SANYO
 bool  IRrecv::decodeSanyo (decode_results *results)
 {
 	long  data   = 0;
 	int   offset = 0;  // Skip first space  <-- CHECK THIS!

 	if (irparams.rawlen < (2 * SANYO_BITS) + 2)  return false ;

 #if 0
 	// Put this back in for debugging - note can't use #DEBUG as if Debug on we don't see the repeat cos of the delay
 	Serial.print("IR Gap: ");
 	Serial.println( results->rawbuf[offset]);
 	Serial.println( "test against:");
 	Serial.println(results->rawbuf[offset]);
 #endif

 	// Initial space
 	if (results->rawbuf[offset] < SANYO_DOUBLE_SPACE_USECS) {
 		//Serial.print("IR Gap found: ");
 		results->bits        = 0;
 		results->value       = REPEAT;
 		results->decode_type = SANYO;
 		return true;
 	}
 	offset++;

 	// Initial mark
 	if (!MATCH_MARK(results->rawbuf[offset++], SANYO_HDR_MARK))  return false ;

 	// Skip Second Mark
 	if (!MATCH_MARK(results->rawbuf[offset++], SANYO_HDR_MARK))  return false ;

 	while (offset + 1 < irparams.rawlen) {
 		if (!MATCH_SPACE(results->rawbuf[offset++], SANYO_HDR_SPACE))  break ;

 		if      (MATCH_MARK(results->rawbuf[offset], SANYO_ONE_MARK))   data = (data << 1) | 1 ;
 		else if (MATCH_MARK(results->rawbuf[offset], SANYO_ZERO_MARK))  data = (data << 1) | 0 ;
 		else                                                            return false ;
 		offset++;
 	}

 	// Success
 	results->bits = (offset - 1) / 2;
 	if (results->bits < 12) {
 		results->bits = 0;
 		return false;
 	}

 	results->value       = data;
 	results->decode_type = SANYO;
 	return true;
 }
 #endif
--- a/src/ir_Sharp.cpp
+++ b/src/ir_Sharp.cpp
@@ -0,0 +1,71 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 //==============================================================================
 //                       SSSS  H   H   AAA   RRRR   PPPP
 //                      S      H   H  A   A  R   R  P   P
 //                       SSS   HHHHH  AAAAA  RRRR   PPPP
 //                          S  H   H  A   A  R  R   P
 //                      SSSS   H   H  A   A  R   R  P
 //==============================================================================

 // Sharp and DISH support by Todd Treece: http://unionbridge.org/design/ircommand
 //
 // The send function has the necessary repeat built in because of the need to
 // invert the signal.
 //
 // Sharp protocol documentation:
 //   http://www.sbprojects.com/knowledge/ir/sharp.htm
 //
 // Here is the LIRC file I found that seems to match the remote codes from the
 // oscilloscope:
 //   Sharp LCD TV:
 //   http://lirc.sourceforge.net/remotes/sharp/GA538WJSA

 #define SHARP_BITS             15
 #define SHARP_BIT_MARK        245
 #define SHARP_ONE_SPACE      1805
 #define SHARP_ZERO_SPACE      795
 #define SHARP_GAP          600000
 #define SHARP_RPT_SPACE      3000

 #define SHARP_TOGGLE_MASK  0x3FF

 //+=============================================================================
 #if SEND_SHARP
 void  IRsend::sendSharpRaw (unsigned long data,  int nbits)
 {
 	enableIROut(38);

 	// Sending codes in bursts of 3 (normal, inverted, normal) makes transmission
 	// much more reliable. That's the exact behaviour of CD-S6470 remote control.
 	for (int n = 0;  n < 3;  n++) {
 		for (unsigned long  mask = 1UL << (nbits - 1);  mask;  mask >>= 1) {
 			if (data & mask) {
 				mark(SHARP_BIT_MARK);
 				space(SHARP_ONE_SPACE);
 			} else {
 				mark(SHARP_BIT_MARK);
 				space(SHARP_ZERO_SPACE);
 			}
 		}

 		mark(SHARP_BIT_MARK);
 		space(SHARP_ZERO_SPACE);
 		delay(40);

 		data = data ^ SHARP_TOGGLE_MASK;
 	}
 }
 #endif

 //+=============================================================================
 // Sharp send compatible with data obtained through decodeSharp()
 //                                                  ^^^^^^^^^^^^^ FUNCTION MISSING!
 //
 #if SEND_SHARP
 void  IRsend::sendSharp (unsigned int address,  unsigned int command)
 {
 	sendSharpRaw((address << 10) | (command << 2) | 2, SHARP_BITS);
 }
 #endif
--- a/src/ir_Sony.cpp
+++ b/src/ir_Sony.cpp
@@ -0,0 +1,95 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 //==============================================================================
 //                           SSSS   OOO   N   N  Y   Y
 //                          S      O   O  NN  N   Y Y
 //                           SSS   O   O  N N N    Y
 //                              S  O   O  N  NN    Y
 //                          SSSS    OOO   N   N    Y
 //==============================================================================

 #define SONY_BITS                   12
 #define SONY_HDR_MARK             2400
 #define SONY_HDR_SPACE             600
 #define SONY_ONE_MARK             1200
 #define SONY_ZERO_MARK             600
 #define SONY_RPT_LENGTH          45000
 #define SONY_DOUBLE_SPACE_USECS    500  // usually ssee 713 - not using ticks as get number wrapround

 //+=============================================================================
 #if SEND_SONY
 void  IRsend::sendSony (unsigned long data,  int nbits)
 {
 	// Set IR carrier frequency
 	enableIROut(40);

 	// Header
 	mark(SONY_HDR_MARK);
 	space(SONY_HDR_SPACE);

 	// Data
 	for (unsigned long  mask = 1UL << (nbits - 1);  mask;  mask >>= 1) {
 		if (data & mask) {
 			mark(SONY_ONE_MARK);
 			space(SONY_HDR_SPACE);
 		} else {
 			mark(SONY_ZERO_MARK);
 			space(SONY_HDR_SPACE);
    	}
  	}

 	// We will have ended with LED off
 }
 #endif

 //+=============================================================================
 #if DECODE_SONY
 bool  IRrecv::decodeSony (decode_results *results)
 {
 	long  data   = 0;
 	int   offset = 0;  // Dont skip first space, check its size

 	if (irparams.rawlen < (2 * SONY_BITS) + 2)  return false ;

 	// Some Sony's deliver repeats fast after first
 	// unfortunately can't spot difference from of repeat from two fast clicks
 	if (results->rawbuf[offset] < SONY_DOUBLE_SPACE_USECS) {
 		// Serial.print("IR Gap found: ");
 		results->bits = 0;
 		results->value = REPEAT;

 #	ifdef DECODE_SANYO
 		results->decode_type = SANYO;
 #	else
 		results->decode_type = UNKNOWN;
 #	endif

 	    return true;
 	}
 	offset++;

 	// Initial mark
 	if (!MATCH_MARK(results->rawbuf[offset++], SONY_HDR_MARK))  return false ;

 	while (offset + 1 < irparams.rawlen) {
 		if (!MATCH_SPACE(results->rawbuf[offset++], SONY_HDR_SPACE))  break ;

 		if      (MATCH_MARK(results->rawbuf[offset], SONY_ONE_MARK))   data = (data << 1) | 1 ;
 		else if (MATCH_MARK(results->rawbuf[offset], SONY_ZERO_MARK))  data = (data << 1) | 0 ;
 		else                                                           return false ;
 		offset++;
 	}

 	// Success
 	results->bits = (offset - 1) / 2;
 	if (results->bits < 12) {
 		results->bits = 0;
 		return false;
 	}
 	results->value       = data;
 	results->decode_type = SONY;
 	return true;
 }
 #endif

--- a/src/ir_Template.cpp
+++ b/src/ir_Template.cpp
@@ -0,0 +1,179 @@
 /*
 Assuming the protocol we are adding is for the (imaginary) manufacturer:  Shuzu

 Our fantasy protocol is a standard protocol, so we can use this standard
 template without too much work. Some protocols are quite unique and will require
 considerably more work in this file! It is way beyond the scope of this text to
 explain how to reverse engineer "unusual" IR protocols. But, unless you own an
 oscilloscope, the starting point is probably to use the rawDump.ino sketch and
 try to spot the pattern!

 Before you start, make sure the IR library is working OK:
  # Open up the Arduino IDE
  # Load up the rawDump.ino example sketch
  # Run it

 Now we can start to add our new protocol...

 1. Copy this file to : ir_Shuzu.cpp

 2. Replace all occurrences of "Shuzu" with the name of your protocol.

 3. Tweak the #defines to suit your protocol.

 4. If you're lucky, tweaking the #defines will make the default send() function
   work.

 5. Again, if you're lucky, tweaking the #defines will have made the default
   decode() function work.

 You have written the code to support your new protocol!

 Now you must do a few things to add it to the IRremote system:

 1. Open IRremote.h and make the following changes:
   REMEMEBER to change occurences of "SHUZU" with the name of your protocol

   A. At the top, in the section "Supported Protocols", add:
      #define DECODE_SHUZU  1
      #define SEND_SHUZU    1

   B. In the section "enumerated list of all supported formats", add:
      SHUZU,
      to the end of the list (notice there is a comma after the protocol name)

   C. Further down in "Main class for receiving IR", add:
      //......................................................................
      #if DECODE_SHUZU
          bool  decodeShuzu (decode_results *results) ;
      #endif

   D. Further down in "Main class for sending IR", add:
      //......................................................................
      #if SEND_SHUZU
          void  sendShuzu (unsigned long data,  int nbits) ;
      #endif

   E. Save your changes and close the file

 2. Now open irRecv.cpp and make the following change:

   A. In the function IRrecv::decode(), add:
      #ifdef DECODE_NEC
          DBG_PRINTLN("Attempting Shuzu decode");
          if (decodeShuzu(results))  return true ;
      #endif

   B. Save your changes and close the file

 You will probably want to add your new protocol to the example sketch

 3. Open MyDocuments\Arduino\libraries\IRremote\examples\IRrecvDumpV2.ino

   A. In the encoding() function, add:
      case SHUZU:    Serial.print("SHUZU");     break ;

 Now open the Arduino IDE, load up the rawDump.ino sketch, and run it.
 Hopefully it will compile and upload.
 If it doesn't, you've done something wrong. Check your work.
 If you can't get it to work - seek help from somewhere.

 If you get this far, I will assume you have successfully added your new protocol
 There is one last thing to do.

 1. Delete this giant instructional comment.

 2. Send a copy of your work to us so we can include it in the library and
   others may benefit from your hard work and maybe even write a song about how
   great you are for helping them! :)

 Regards,
  BlueChip
 */

 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 //==============================================================================
 //
 //
 //                              S H U Z U
 //
 //
 //==============================================================================

 #define BITS          32  // The number of bits in the command

 #define HDR_MARK    1000  // The length of the Header:Mark
 #define HDR_SPACE   2000  // The lenght of the Header:Space

 #define BIT_MARK    3000  // The length of a Bit:Mark
 #define ONE_SPACE   4000  // The length of a Bit:Space for 1's
 #define ZERO_SPACE  5000  // The length of a Bit:Space for 0's

 #define OTHER       1234  // Other things you may need to define

 //+=============================================================================
 //
 #if SEND_SHUZU
 void  IRsend::sendShuzu (unsigned long data,  int nbits)
 {
 	// Set IR carrier frequency
 	enableIROut(38);

 	// Header
 	mark (HDR_MARK);
 	space(HDR_SPACE);

 	// Data
 	for (unsigned long  mask = 1UL << (nbits - 1);  mask;  mask >>= 1) {
 		if (data & mask) {
 			mark (BIT_MARK);
 			space(ONE_SPACE);
 		} else {
 			mark (BIT_MARK);
 			space(ZERO_SPACE);
 		}
 	}

 	// Footer
 	mark(BIT_MARK);
    space(0);  // Always end with the LED off
 }
 #endif

 //+=============================================================================
 //
 #if DECODE_SHUZU
 bool  IRrecv::decodeShuzu (decode_results *results)
 {
 	unsigned long  data   = 0;  // Somewhere to build our code
 	int            offset = 1;  // Skip the Gap reading

 	// Check we have the right amount of data
 	if (irparams.rawlen != 1 + 2 + (2 * BITS) + 1)  return false ;

 	// Check initial Mark+Space match
 	if (!MATCH_MARK (results->rawbuf[offset++], HDR_MARK ))  return false ;
 	if (!MATCH_SPACE(results->rawbuf[offset++], HDR_SPACE))  return false ;

 	// Read the bits in
 	for (int i = 0;  i < SHUZU_BITS;  i++) {
 		// Each bit looks like: MARK + SPACE_1 -> 1
 		//                 or : MARK + SPACE_0 -> 0
 		if (!MATCH_MARK(results->rawbuf[offset++], BIT_MARK))  return false ;

 		// IR data is big-endian, so we shuffle it in from the right:
 		if      (MATCH_SPACE(results->rawbuf[offset], ONE_SPACE))   data = (data << 1) | 1 ;
 		else if (MATCH_SPACE(results->rawbuf[offset], ZERO_SPACE))  data = (data << 1) | 0 ;
 		else                                                        return false ;
 		offset++;
 	}

 	// Success
 	results->bits        = BITS;
 	results->value       = data;
 	results->decode_type = SHUZU;
 	return true;
 }
 #endif
--- a/src/ir_Whynter.cpp
+++ b/src/ir_Whynter.cpp
@@ -0,0 +1,91 @@
 #include "irr/IRremote.h"
 #include "irr/IRremoteInt.h"

 //==============================================================================
 //               W   W  H   H  Y   Y N   N TTTTT EEEEE  RRRRR
 //               W   W  H   H   Y Y  NN  N   T   E      R   R
 //               W W W  HHHHH    Y   N N N   T   EEE    RRRR
 //               W W W  H   H    Y   N  NN   T   E      R  R
 //                WWW   H   H    Y   N   N   T   EEEEE  R   R
 //==============================================================================

 #define WHYNTER_BITS          32
 #define WHYNTER_HDR_MARK    2850
 #define WHYNTER_HDR_SPACE   2850
 #define WHYNTER_BIT_MARK     750
 #define WHYNTER_ONE_MARK     750
 #define WHYNTER_ONE_SPACE   2150
 #define WHYNTER_ZERO_MARK    750
 #define WHYNTER_ZERO_SPACE   750

 //+=============================================================================
 #if SEND_WHYNTER
 void  IRsend::sendWhynter (unsigned long data,  int nbits)
 {
 	// Set IR carrier frequency
 	enableIROut(38);

 	// Start
 	mark(WHYNTER_ZERO_MARK);
 	space(WHYNTER_ZERO_SPACE);

 	// Header
 	mark(WHYNTER_HDR_MARK);
 	space(WHYNTER_HDR_SPACE);

 	// Data
 	for (unsigned long  mask = 1UL << (nbits - 1);  mask;  mask >>= 1) {
 		if (data & mask) {
 			mark(WHYNTER_ONE_MARK);
 			space(WHYNTER_ONE_SPACE);
 		} else {
 			mark(WHYNTER_ZERO_MARK);
 			space(WHYNTER_ZERO_SPACE);
 		}
 	}

 	// Footer
 	mark(WHYNTER_ZERO_MARK);
 	space(WHYNTER_ZERO_SPACE);  // Always end with the LED off
 }
 #endif

 //+=============================================================================
 #if DECODE_WHYNTER
 bool  IRrecv::decodeWhynter (decode_results *results)
 {
 	long  data   = 0;
 	int   offset = 1;  // skip initial space

 	// Check we have the right amount of data
 	if (irparams.rawlen < (2 * WHYNTER_BITS) + 6)  return false ;

 	// Sequence begins with a bit mark and a zero space
 	if (!MATCH_MARK (results->rawbuf[offset++], WHYNTER_BIT_MARK  ))  return false ;
 	if (!MATCH_SPACE(results->rawbuf[offset++], WHYNTER_ZERO_SPACE))  return false ;

 	// header mark and space
 	if (!MATCH_MARK (results->rawbuf[offset++], WHYNTER_HDR_MARK ))  return false ;
 	if (!MATCH_SPACE(results->rawbuf[offset++], WHYNTER_HDR_SPACE))  return false ;

 	// data bits
 	for (int i = 0;  i < WHYNTER_BITS;  i++) {
 		if (!MATCH_MARK(results->rawbuf[offset++], WHYNTER_BIT_MARK))  return false ;

 		if      (MATCH_SPACE(results->rawbuf[offset], WHYNTER_ONE_SPACE ))  data = (data << 1) | 1 ;
 		else if (MATCH_SPACE(results->rawbuf[offset], WHYNTER_ZERO_SPACE))  data = (data << 1) | 0 ;
 		else                                                                return false ;
 		offset++;
 	}

 	// trailing mark
 	if (!MATCH_MARK(results->rawbuf[offset], WHYNTER_BIT_MARK))  return false ;

 	// Success
 	results->bits = WHYNTER_BITS;
 	results->value = data;
 	results->decode_type = WHYNTER;
 	return true;
 }
 #endif