// Copyright 2016 sillyfrog // Copyright 2017 sillyfrog, crankyoldgit // Copyright 2018-2020 crankyoldgit // Copyright 2019 pasna (IRDaikin160 class / Daikin176 class) /// @file /// @brief Support for Daikin A/C protocols. /// @see Daikin http://harizanov.com/2012/02/control-daikin-air-conditioner-over-the-internet/ /// @see Daikin https://github.com/mharizanov/Daikin-AC-remote-control-over-the-Internet/tree/master/IRremote /// @see Daikin http://rdlab.cdmt.vn/project-2013/daikin-ir-protocol /// @see Daikin https://github.com/blafois/Daikin-IR-Reverse /// @see Daikin128 https://github.com/crankyoldgit/IRremoteESP8266/issues/827 /// @see Daikin152 https://github.com/crankyoldgit/IRremoteESP8266/issues/873 /// @see Daikin152 https://github.com/ToniA/arduino-heatpumpir/blob/master/DaikinHeatpumpARC480A14IR.cpp /// @see Daikin152 https://github.com/ToniA/arduino-heatpumpir/blob/master/DaikinHeatpumpARC480A14IR.h /// @see Daikin160 https://github.com/crankyoldgit/IRremoteESP8266/issues/731 /// @see Daikin2 https://docs.google.com/spreadsheets/d/1f8EGfIbBUo2B-CzUFdrgKQprWakoYNKM80IKZN4KXQE/edit#gid=236366525&range=B25:D32 /// @see Daikin2 https://github.com/crankyoldgit/IRremoteESP8266/issues/582 /// @see Daikin2 https://www.daikin.co.nz/sites/default/files/daikin-split-system-US7-FTXZ25-50NV1B.pdf /// @see Daikin216 https://github.com/crankyoldgit/IRremoteESP8266/issues/689 /// @see Daikin216 https://github.com/danny-source/Arduino_DY_IRDaikin /// @see Daikin64 https://github.com/crankyoldgit/IRremoteESP8266/issues/1064 // Supports: // Brand: Daikin, Model: ARC433** remote (DAIKIN) // Brand: Daikin, Model: ARC477A1 remote (DAIKIN2) // Brand: Daikin, Model: FTXZ25NV1B A/C (DAIKIN2) // Brand: Daikin, Model: FTXZ35NV1B A/C (DAIKIN2) // Brand: Daikin, Model: FTXZ50NV1B A/C (DAIKIN2) // Brand: Daikin, Model: ARC433B69 remote (DAIKIN216) // Brand: Daikin, Model: ARC423A5 remote (DAIKIN160) // Brand: Daikin, Model: FTE12HV2S A/C // Brand: Daikin, Model: BRC4C153 remote (DAIKIN176) // Brand: Daikin, Model: FFQ35B8V1B A/C (DAIKIN176) // Brand: Daikin, Model: BRC4C151 remote (DAIKIN176) // Brand: Daikin, Model: 17 Series A/C (DAIKIN128) // Brand: Daikin, Model: FTXB12AXVJU A/C (DAIKIN128) // Brand: Daikin, Model: FTXB09AXVJU A/C (DAIKIN128) // Brand: Daikin, Model: BRC52B63 remote (DAIKIN128) // Brand: Daikin, Model: ARC480A5 remote (DAIKIN152) // Brand: Daikin, Model: FFN-C/FCN-F Series A/C (DAIKIN64) // Brand: Daikin, Model: DGS01 remote (DAIKIN64) // Brand: Daikin, Model: M Series A/C (DAIKIN) // Brand: Daikin, Model: FTXM-M A/C (DAIKIN) // Brand: Daikin, Model: ARC466A33 remote (DAIKIN) #ifndef IR_DAIKIN_H_ #define IR_DAIKIN_H_ #ifndef UNIT_TEST #include #endif #include "IRrecv.h" #include "IRremoteESP8266.h" #include "IRsend.h" #ifdef UNIT_TEST #include "IRsend_test.h" #endif /// Native representation of a Daikin A/C message. union DaikinESPProtocol{ uint8_t raw[kDaikinStateLength]; ///< The state of the IR remote. struct { // Byte 0~5 uint64_t :48; // Byte 6 uint64_t :4; uint64_t Comfort :1; uint64_t :3; // Byte 7 uint64_t Sum1 :8; // checksum of the first part // Byte 8~12 uint64_t :40; // Byte 13~14 uint64_t CurrentTime :11; // Current time, mins past midnight uint64_t CurrentDay :3; // Day of the week (SUN=1, MON=2, ..., SAT=7) uint64_t :2; // Byte 15 uint64_t Sum2 :8; // checksum of the second part // Byte 16~20 uint64_t :40; // Byte 21 uint64_t Power :1; uint64_t OnTimer :1; uint64_t OffTimer :1; uint64_t :1; // always 1 uint64_t Mode :3; uint64_t :1; // Byte 22 uint64_t :1; uint64_t Temp :7; // Temp should be between 10 - 32 // Byte 23 uint64_t :8; // Byte 24 uint64_t SwingV :4; // 0000 = off, 1111 = on uint64_t Fan :4; // Byte 25 uint64_t SwingH :4; // 0000 = off, 1111 = on uint64_t :4; // Byte 26~28 uint64_t OnTime :12; // timer mins past midnight uint64_t OffTime :12; // timer mins past midnight // Byte 29 uint64_t Powerful :1; uint64_t :4; uint64_t Quiet :1; uint64_t :2; // Byte 30~31 uint64_t :0; // Byte 32 uint8_t :1; uint8_t Sensor :1; uint8_t Econo :1; uint8_t :4; uint8_t WeeklyTimer :1; // Byte 33 uint8_t :1; uint8_t Mold :1; uint8_t :6; // Byte 34 uint8_t Sum3 :8; // checksum of the third part }; }; // Constants const uint8_t kDaikinAuto = 0b000; // temp 25 const uint8_t kDaikinDry = 0b010; // temp 0xc0 = 96 degrees c const uint8_t kDaikinCool = 0b011; const uint8_t kDaikinHeat = 0b100; // temp 23 const uint8_t kDaikinFan = 0b110; // temp not shown, but 25 const uint8_t kDaikinMinTemp = 10; // Celsius const uint8_t kDaikinMaxTemp = 32; // Celsius const uint8_t kDaikinFanMin = 1; const uint8_t kDaikinFanMed = 3; const uint8_t kDaikinFanMax = 5; const uint8_t kDaikinFanAuto = 0b1010; // 10 / 0xA const uint8_t kDaikinFanQuiet = 0b1011; // 11 / 0xB const uint8_t kDaikinSwingOn = 0b1111; const uint8_t kDaikinSwingOff = 0b0000; const uint16_t kDaikinHeaderLength = 5; const uint8_t kDaikinSections = 3; const uint8_t kDaikinSection1Length = 8; const uint8_t kDaikinSection2Length = 8; const uint8_t kDaikinSection3Length = kDaikinStateLength - kDaikinSection1Length - kDaikinSection2Length; const uint8_t kDaikinByteChecksum1 = 7; const uint8_t kDaikinByteChecksum2 = 15; // const uint8_t kDaikinBitEye = 0b10000000; const uint16_t kDaikinUnusedTime = 0x600; const uint8_t kDaikinBeepQuiet = 1; const uint8_t kDaikinBeepLoud = 2; const uint8_t kDaikinBeepOff = 3; const uint8_t kDaikinLightBright = 1; const uint8_t kDaikinLightDim = 2; const uint8_t kDaikinLightOff = 3; const uint8_t kDaikinCurBit = kDaikinStateLength; const uint8_t kDaikinCurIndex = kDaikinStateLength + 1; const uint8_t kDaikinTolerance = 35; const uint16_t kDaikinMarkExcess = kMarkExcess; const uint16_t kDaikinHdrMark = 3650; // kDaikinBitMark * 8 const uint16_t kDaikinHdrSpace = 1623; // kDaikinBitMark * 4 const uint16_t kDaikinBitMark = 428; const uint16_t kDaikinZeroSpace = 428; const uint16_t kDaikinOneSpace = 1280; const uint16_t kDaikinGap = 29000; // Note bits in each octet swapped so can be sent as a single value const uint64_t kDaikinFirstHeader64 = 0b1101011100000000000000001100010100000000001001111101101000010001; /// Native representation of a Daikin2 A/C message. union Daikin2Protocol{ struct{ uint8_t pad[3]; uint8_t raw[kDaikin2StateLength]; ///< The state of the IR remote. }; struct { // Byte -3~4 uint64_t :64; // Byte 5~6 uint64_t CurrentTime :12; uint64_t :3; uint64_t Power2 :1; // Byte 7 uint64_t :4; uint64_t Light :2; uint64_t Beep :2; // Byte 8 uint64_t FreshAir :1; uint64_t :2; uint64_t Mold :1; uint64_t :1; uint64_t Clean :1; uint64_t :1; uint64_t FreshAirHigh :1; // Byte 9~12 uint64_t :32; // Byte 13 uint64_t :7; uint64_t EyeAuto :1; // Byte 14~16 uint64_t :24; // Byte 17 uint64_t SwingH :8; // Byte 18 uint64_t SwingV :4; uint64_t :4; // Byte 19 uint64_t Sum1 :8; // Byte 20 uint64_t :8; // Byte 21~24 uint64_t :32; // Byte 25 uint64_t Power :1; uint64_t OnTimer :1; uint64_t OffTimer :1; uint64_t :1; uint64_t Mode :3; uint64_t :1; // Byte 26 uint64_t :1; uint64_t Temp :7; // Byte 27 uint64_t :8; // Byte 28 uint64_t :4; uint64_t Fan :4; // Byte 29 uint64_t :8; // Byte 30~32 /// @see https://github.com/crankyoldgit/IRremoteESP8266/pull/1264 uint64_t OnTime :12; uint64_t OffTime :12; // Byte 33 uint64_t Powerful :1; uint64_t :4; uint64_t Quiet :1; uint64_t :2; // Byte 34~35 uint64_t :16; // Byte 36 uint64_t :1; uint64_t Eye :1; uint64_t Econo :1; uint64_t :1; uint64_t Purify :1; uint64_t SleepTimer :1; uint64_t :2; // Byte 37 uint8_t :8; // Byte 38 uint8_t Sum2 :8; }; }; const uint16_t kDaikin2Freq = 36700; // Modulation Frequency in Hz. const uint16_t kDaikin2LeaderMark = 10024; const uint16_t kDaikin2LeaderSpace = 25180; const uint16_t kDaikin2Gap = kDaikin2LeaderMark + kDaikin2LeaderSpace; const uint16_t kDaikin2HdrMark = 3500; const uint16_t kDaikin2HdrSpace = 1728; const uint16_t kDaikin2BitMark = 460; const uint16_t kDaikin2OneSpace = 1270; const uint16_t kDaikin2ZeroSpace = 420; const uint16_t kDaikin2Sections = 2; const uint16_t kDaikin2Section1Length = 20; const uint16_t kDaikin2Section2Length = 19; const uint8_t kDaikin2Tolerance = 5; // Extra percentage tolerance const uint8_t kDaikin2SwingVHighest = 0x1; const uint8_t kDaikin2SwingVHigh = 0x2; const uint8_t kDaikin2SwingVUpperMiddle = 0x3; const uint8_t kDaikin2SwingVLowerMiddle = 0x4; const uint8_t kDaikin2SwingVLow = 0x5; const uint8_t kDaikin2SwingVLowest = 0x6; const uint8_t kDaikin2SwingVBreeze = 0xC; const uint8_t kDaikin2SwingVCirculate = 0xD; const uint8_t kDaikin2SwingVOff = 0xE; const uint8_t kDaikin2SwingVAuto = 0xF; // A.k.a "Swing" const uint8_t kDaikin2SwingVSwing = kDaikin2SwingVAuto; const uint8_t kDaikin2SwingHWide = 0xA3; const uint8_t kDaikin2SwingHLeftMax = 0xA8; const uint8_t kDaikin2SwingHLeft = 0xA9; const uint8_t kDaikin2SwingHMiddle = 0xAA; const uint8_t kDaikin2SwingHRight = 0xAB; const uint8_t kDaikin2SwingHRightMax = 0xAC; const uint8_t kDaikin2SwingHAuto = 0xBE; // A.k.a "Swing" const uint8_t kDaikin2SwingHOff = 0xBF; const uint8_t kDaikin2SwingHSwing = kDaikin2SwingHAuto; const uint8_t kDaikin2MinCoolTemp = 18; // Min temp (in C) when in Cool mode. /// Native representation of a Daikin216 A/C message. union Daikin216Protocol{ uint8_t raw[kDaikin216StateLength]; ///< The state of the IR remote. struct { // Byte 0~6 uint8_t pad0[7]; // Byte 7 uint8_t Sum1 :8; // Byte 8~12 uint8_t pad1[5]; // Byte 13 uint8_t Power :1; uint8_t :3; uint8_t Mode :3; uint8_t :1; // Byte 14 uint8_t :1; uint8_t Temp :6; uint8_t :1; // Byte 15 uint8_t :8; // Byte 16 uint8_t SwingV :4; uint8_t Fan :4; // Byte 17 uint8_t SwingH :4; uint8_t :4; // Byte 18~20 uint8_t pad2[3]; // Byte 21 uint8_t Powerful :1; uint8_t :0; // Byte 22~25 uint8_t pad3[4]; // Byte 26 uint8_t Sum2 :8; }; }; const uint16_t kDaikin216Freq = 38000; // Modulation Frequency in Hz. const uint16_t kDaikin216HdrMark = 3440; const uint16_t kDaikin216HdrSpace = 1750; const uint16_t kDaikin216BitMark = 420; const uint16_t kDaikin216OneSpace = 1300; const uint16_t kDaikin216ZeroSpace = 450; const uint16_t kDaikin216Gap = 29650; const uint16_t kDaikin216Sections = 2; const uint16_t kDaikin216Section1Length = 8; const uint16_t kDaikin216Section2Length = kDaikin216StateLength - kDaikin216Section1Length; const uint8_t kDaikin216SwingOn = 0b1111; const uint8_t kDaikin216SwingOff = 0b0000; /// Native representation of a Daikin160 A/C message. union Daikin160Protocol{ uint8_t raw[kDaikin160StateLength]; ///< The state of the IR remote. struct { // Byte 0~5 uint8_t pad0[6]; // Byte 6 uint8_t Sum1 :8; // Byte 7~11 uint8_t pad1[5]; // Byte 12 uint8_t Power :1; uint8_t :3; uint8_t Mode :3; uint8_t :1; // Byte 13 uint8_t :4; uint8_t SwingV :4; // Byte 14~15 uint8_t pad2[2]; // Byte 16 uint8_t :1; uint8_t Temp :6; uint8_t :1; // Byte 17 uint8_t Fan :4; uint8_t :4; // Byte 18 uint8_t :8; // Byte 19 uint8_t Sum2 :8; }; }; const uint16_t kDaikin160Freq = 38000; // Modulation Frequency in Hz. const uint16_t kDaikin160HdrMark = 5000; const uint16_t kDaikin160HdrSpace = 2145; const uint16_t kDaikin160BitMark = 342; const uint16_t kDaikin160OneSpace = 1786; const uint16_t kDaikin160ZeroSpace = 700; const uint16_t kDaikin160Gap = 29650; const uint16_t kDaikin160Sections = 2; const uint16_t kDaikin160Section1Length = 7; const uint16_t kDaikin160Section2Length = kDaikin160StateLength - kDaikin160Section1Length; const uint8_t kDaikin160SwingVLowest = 0x1; const uint8_t kDaikin160SwingVLow = 0x2; const uint8_t kDaikin160SwingVMiddle = 0x3; const uint8_t kDaikin160SwingVHigh = 0x4; const uint8_t kDaikin160SwingVHighest = 0x5; const uint8_t kDaikin160SwingVAuto = 0xF; /// Native representation of a Daikin176 A/C message. union Daikin176Protocol{ uint8_t raw[kDaikin176StateLength]; ///< The state of the IR remote. struct { // Byte 0~5 uint8_t pad0[6]; // Byte 6 uint8_t Sum1 :8; // Byte 7~11 uint8_t pad1[5]; // Byte 12 uint8_t :4; uint8_t AltMode :3; uint8_t :1; // Byte 13 uint8_t ModeButton :8; // Byte 14 uint8_t Power :1; uint8_t :3; uint8_t Mode :3; uint8_t :1; // Byte 15~16 uint8_t pad2[2]; // Byte 17 uint8_t :1; uint8_t Temp :6; uint8_t :1; // Byte 18 uint8_t SwingH :4; uint8_t Fan :4; // Byte 19~20 uint8_t pad3[2]; // Byte 21 uint8_t Sum2 :8; }; }; const uint16_t kDaikin176Freq = 38000; // Modulation Frequency in Hz. const uint16_t kDaikin176HdrMark = 5070; const uint16_t kDaikin176HdrSpace = 2140; const uint16_t kDaikin176BitMark = 370; const uint16_t kDaikin176OneSpace = 1780; const uint16_t kDaikin176ZeroSpace = 710; const uint16_t kDaikin176Gap = 29410; const uint16_t kDaikin176Sections = 2; const uint16_t kDaikin176Section1Length = 7; const uint16_t kDaikin176Section2Length = kDaikin176StateLength - kDaikin176Section1Length; const uint8_t kDaikin176Fan = 0b000; // 0 const uint8_t kDaikin176Heat = 0b001; // 1 const uint8_t kDaikin176Cool = 0b010; // 2 const uint8_t kDaikin176Auto = 0b011; // 3 const uint8_t kDaikin176Dry = 0b111; // 7 const uint8_t kDaikin176ModeButton = 0b00000100; const uint8_t kDaikin176DryFanTemp = 17; // Dry/Fan mode is always 17 Celsius. const uint8_t kDaikin176FanMax = 3; const uint8_t kDaikin176SwingHAuto = 0x5; const uint8_t kDaikin176SwingHOff = 0x6; /// Native representation of a Daikin128 A/C message. union Daikin128Protocol{ uint8_t raw[kDaikin128StateLength]; ///< The state of the IR remote. struct { // Byte 0 uint8_t :8; // Byte 1 uint8_t Mode :4; uint8_t Fan :4; // Byte 2 uint8_t ClockMins :8; // Byte 3 uint8_t ClockHours :8; // Byte 4 uint8_t OnHours :6; uint8_t OnHalfHour :1; uint8_t OnTimer :1; // Byte 5 uint8_t OffHours :6; uint8_t OffHalfHour :1; uint8_t OffTimer :1; // Byte 6 uint8_t Temp :8; // Byte 7 uint8_t SwingV :1; uint8_t Sleep :1; uint8_t :1; // always 1 uint8_t Power :1; uint8_t Sum1 :4; // Byte 8 uint8_t :8; // Byte 9 uint8_t Ceiling :1; uint8_t :1; uint8_t Econo :1; uint8_t Wall :1; uint8_t :4; // Byte 10~14 uint8_t pad[5]; // Byte 15 uint8_t Sum2 :8; }; }; const uint16_t kDaikin128Freq = 38000; // Modulation Frequency in Hz. const uint16_t kDaikin128LeaderMark = 9800; const uint16_t kDaikin128LeaderSpace = 9800; const uint16_t kDaikin128HdrMark = 4600; const uint16_t kDaikin128HdrSpace = 2500; const uint16_t kDaikin128BitMark = 350; const uint16_t kDaikin128OneSpace = 954; const uint16_t kDaikin128ZeroSpace = 382; const uint16_t kDaikin128Gap = 20300; const uint16_t kDaikin128FooterMark = kDaikin128HdrMark; const uint16_t kDaikin128Sections = 2; const uint16_t kDaikin128SectionLength = 8; const uint8_t kDaikin128Dry = 0b00000001; const uint8_t kDaikin128Cool = 0b00000010; const uint8_t kDaikin128Fan = 0b00000100; const uint8_t kDaikin128Heat = 0b00001000; const uint8_t kDaikin128Auto = 0b00001010; const uint8_t kDaikin128FanAuto = 0b0001; const uint8_t kDaikin128FanHigh = 0b0010; const uint8_t kDaikin128FanMed = 0b0100; const uint8_t kDaikin128FanLow = 0b1000; const uint8_t kDaikin128FanPowerful = 0b0011; const uint8_t kDaikin128FanQuiet = 0b1001; const uint8_t kDaikin128MinTemp = 16; // C const uint8_t kDaikin128MaxTemp = 30; // C const uint8_t kDaikin128BitWall = 0b00001000; const uint8_t kDaikin128BitCeiling = 0b00000001; /// Native representation of a Daikin152 A/C message. union Daikin152Protocol{ uint8_t raw[kDaikin152StateLength]; ///< The state of the IR remote. struct { // Byte 0~4 uint8_t pad0[5]; // Byte 5 uint8_t Power :1; uint8_t :3; uint8_t Mode :3; uint8_t :1; // Byte 6 uint8_t :1; uint8_t Temp :7; // Byte 7 uint8_t :8; // Byte 8 uint8_t SwingV :4; uint8_t Fan :4; // Byte 9~12 uint8_t pad1[4]; // Byte 13 uint8_t Powerful :1; uint8_t :4; uint8_t Quiet :1; uint8_t :2; // Byte 14~15 uint8_t pad2[2]; // Byte 16 uint8_t :1; uint8_t Comfort :1; uint8_t Econo :1; uint8_t Sensor :1; uint8_t :4; // Byte 17 uint8_t :8; // Byte 18 uint8_t Sum :8; }; }; const uint16_t kDaikin152Freq = 38000; // Modulation Frequency in Hz. const uint8_t kDaikin152LeaderBits = 5; const uint16_t kDaikin152HdrMark = 3492; const uint16_t kDaikin152HdrSpace = 1718; const uint16_t kDaikin152BitMark = 433; const uint16_t kDaikin152OneSpace = 1529; const uint16_t kDaikin152ZeroSpace = kDaikin152BitMark; const uint16_t kDaikin152Gap = 25182; const uint8_t kDaikin152DryTemp = kDaikin2MinCoolTemp; // Celsius const uint8_t kDaikin152FanTemp = 0x60; // 96 Celsius /// Native representation of a Daikin64 A/C message. union Daikin64Protocol{ uint64_t raw; ///< The state of the IR remote. struct { uint8_t :8; uint8_t Mode :4; uint8_t Fan :4; uint8_t ClockMins :8; uint8_t ClockHours :8; uint8_t OnHours :6; uint8_t OnHalfHour :1; uint8_t OnTimer :1; uint8_t OffHours :6; uint8_t OffHalfHour :1; uint8_t OffTimer :1; uint8_t Temp :8; uint8_t SwingV :1; uint8_t Sleep :1; uint8_t :1; uint8_t Power :1; uint8_t Sum :4; }; }; const uint16_t kDaikin64HdrMark = kDaikin128HdrMark; const uint16_t kDaikin64BitMark = kDaikin128BitMark; const uint16_t kDaikin64HdrSpace = kDaikin128HdrSpace; const uint16_t kDaikin64OneSpace = kDaikin128OneSpace; const uint16_t kDaikin64ZeroSpace = kDaikin128ZeroSpace; const uint16_t kDaikin64LdrMark = kDaikin128LeaderMark; const uint16_t kDaikin64Gap = kDaikin128Gap; const uint16_t kDaikin64LdrSpace = kDaikin128LeaderSpace; const uint16_t kDaikin64Freq = kDaikin128Freq; // Hz. const uint8_t kDaikin64Overhead = 9; const int8_t kDaikin64ToleranceDelta = 5; // +5% const uint64_t kDaikin64KnownGoodState = 0x7C16161607204216; const uint8_t kDaikin64Dry = 0b001; const uint8_t kDaikin64Cool = 0b010; const uint8_t kDaikin64Fan = 0b100; const uint8_t kDaikin64FanAuto = 0b0001; const uint8_t kDaikin64FanLow = 0b1000; const uint8_t kDaikin64FanMed = 0b0100; const uint8_t kDaikin64FanHigh = 0b0010; const uint8_t kDaikin64FanQuiet = 0b1001; const uint8_t kDaikin64FanTurbo = 0b0011; const uint8_t kDaikin64MinTemp = 16; // Celsius const uint8_t kDaikin64MaxTemp = 30; // Celsius const uint8_t kDaikin64ChecksumOffset = 60; const uint8_t kDaikin64ChecksumSize = 4; // Mask 0b1111 << 59 // Legacy defines. #define DAIKIN_COOL kDaikinCool #define DAIKIN_HEAT kDaikinHeat #define DAIKIN_FAN kDaikinFan #define DAIKIN_AUTO kDaikinAuto #define DAIKIN_DRY kDaikinDry #define DAIKIN_MIN_TEMP kDaikinMinTemp #define DAIKIN_MAX_TEMP kDaikinMaxTemp #define DAIKIN_FAN_MIN kDaikinFanMin #define DAIKIN_FAN_MAX kDaikinFanMax #define DAIKIN_FAN_AUTO kDaikinFanAuto #define DAIKIN_FAN_QUIET kDaikinFanQuiet /// Class for handling detailed Daikin 280-bit A/C messages. class IRDaikinESP { public: explicit IRDaikinESP(const uint16_t pin, const bool inverted = false, const bool use_modulation = true); #if SEND_DAIKIN void send(const uint16_t repeat = kDaikinDefaultRepeat); /// Run the calibration to calculate uSec timing offsets for this platform. /// @return The uSec timing offset needed per modulation of the IR Led. /// @note This will produce a 65ms IR signal pulse at 38kHz. /// Only ever needs to be run once per object instantiation, if at all. int8_t calibrate(void) { return _irsend.calibrate(); } #endif void begin(void); void on(void); void off(void); void setPower(const bool on); bool getPower(void) const; void setTemp(const uint8_t temp); uint8_t getTemp(void) const; void setFan(const uint8_t fan); uint8_t getFan(void) const; void setMode(const uint8_t mode); uint8_t getMode(void) const; void setSwingVertical(const bool on); bool getSwingVertical(void) const; void setSwingHorizontal(const bool on); bool getSwingHorizontal(void) const; bool getQuiet(void) const; void setQuiet(const bool on); bool getPowerful(void) const; void setPowerful(const bool on); void setSensor(const bool on); bool getSensor(void) const; void setEcono(const bool on); bool getEcono(void) const; void setMold(const bool on); bool getMold(void) const; void setComfort(const bool on); bool getComfort(void) const; void enableOnTimer(const uint16_t starttime); void disableOnTimer(void); uint16_t getOnTime(void) const; bool getOnTimerEnabled(void) const; void enableOffTimer(const uint16_t endtime); void disableOffTimer(void); uint16_t getOffTime(void) const; bool getOffTimerEnabled(void) const; void setCurrentTime(const uint16_t mins_since_midnight); uint16_t getCurrentTime(void) const; void setCurrentDay(const uint8_t day_of_week); uint8_t getCurrentDay(void) const; void setWeeklyTimerEnable(const bool on); bool getWeeklyTimerEnable(void) const; uint8_t* getRaw(void); void setRaw(const uint8_t new_code[], const uint16_t length = kDaikinStateLength); static bool validChecksum(uint8_t state[], const uint16_t length = kDaikinStateLength); static uint8_t convertMode(const stdAc::opmode_t mode); static uint8_t convertFan(const stdAc::fanspeed_t speed); static stdAc::opmode_t toCommonMode(const uint8_t mode); static stdAc::fanspeed_t toCommonFanSpeed(const uint8_t speed); stdAc::state_t toCommon(void) const; String toString(void) const; #ifndef UNIT_TEST private: IRsend _irsend; ///< instance of the IR send class #else /// @cond IGNORE IRsendTest _irsend; ///< instance of the testing IR send class /// @endcond #endif // # of bytes per command DaikinESPProtocol _; void stateReset(void); void checksum(void); }; /// Class for handling detailed Daikin 312-bit A/C messages. /// @note Code by crankyoldgit, Reverse engineering analysis by sheppy99 class IRDaikin2 { public: explicit IRDaikin2(const uint16_t pin, const bool inverted = false, const bool use_modulation = true); #if SEND_DAIKIN2 void send(const uint16_t repeat = kDaikin2DefaultRepeat); /// Run the calibration to calculate uSec timing offsets for this platform. /// @return The uSec timing offset needed per modulation of the IR Led. /// @note This will produce a 65ms IR signal pulse at 38kHz. /// Only ever needs to be run once per object instantiation, if at all. int8_t calibrate(void) { return _irsend.calibrate(); } #endif void begin(void); void on(void); void off(void); void setPower(const bool state); bool getPower(void) const; void setTemp(const uint8_t temp); uint8_t getTemp(void) const; void setFan(const uint8_t fan); uint8_t getFan(void) const; uint8_t getMode(void) const; void setMode(const uint8_t mode); void setSwingVertical(const uint8_t position); uint8_t getSwingVertical(void) const; void setSwingHorizontal(const uint8_t position); uint8_t getSwingHorizontal(void) const; bool getQuiet(void) const; void setQuiet(const bool on); bool getPowerful(void) const; void setPowerful(const bool on); void setEcono(const bool on); bool getEcono(void) const; void setEye(const bool on); bool getEye(void) const; void setEyeAuto(const bool on); bool getEyeAuto(void) const; void setPurify(const bool on); bool getPurify(void) const; void setMold(const bool on); bool getMold(void) const; void enableOnTimer(const uint16_t starttime); void disableOnTimer(void); uint16_t getOnTime(void) const; bool getOnTimerEnabled(void) const; void enableSleepTimer(const uint16_t sleeptime); void disableSleepTimer(void); uint16_t getSleepTime(void) const; bool getSleepTimerEnabled(void) const; void enableOffTimer(const uint16_t endtime); void disableOffTimer(void); uint16_t getOffTime(void) const; bool getOffTimerEnabled(void) const; void setCurrentTime(const uint16_t time); uint16_t getCurrentTime(void) const; void setBeep(const uint8_t beep); uint8_t getBeep(void) const; void setLight(const uint8_t light); uint8_t getLight(void) const; void setClean(const bool on); bool getClean(void) const; void setFreshAir(const bool on); bool getFreshAir(void) const; void setFreshAirHigh(const bool on); bool getFreshAirHigh(void) const; uint8_t* getRaw(void); void setRaw(const uint8_t new_code[]); static bool validChecksum(uint8_t state[], const uint16_t length = kDaikin2StateLength); static uint8_t convertMode(const stdAc::opmode_t mode); static uint8_t convertFan(const stdAc::fanspeed_t speed); static uint8_t convertSwingV(const stdAc::swingv_t position); static uint8_t convertSwingH(const stdAc::swingh_t position); static stdAc::swingv_t toCommonSwingV(const uint8_t setting); static stdAc::swingh_t toCommonSwingH(const uint8_t setting); stdAc::state_t toCommon(void) const; String toString(void) const; #ifndef UNIT_TEST private: IRsend _irsend; ///< instance of the IR send class #else /// @cond IGNORE IRsendTest _irsend; ///< instance of the testing IR send class /// @endcond #endif // # of bytes per command Daikin2Protocol _; void stateReset(void); void checksum(void); void clearOnTimerFlag(void); void clearSleepTimerFlag(void); }; /// Class for handling detailed Daikin 216-bit A/C messages. class IRDaikin216 { public: explicit IRDaikin216(const uint16_t pin, const bool inverted = false, const bool use_modulation = true); #if SEND_DAIKIN216 void send(const uint16_t repeat = kDaikin216DefaultRepeat); /// Run the calibration to calculate uSec timing offsets for this platform. /// @return The uSec timing offset needed per modulation of the IR Led. /// @note This will produce a 65ms IR signal pulse at 38kHz. /// Only ever needs to be run once per object instantiation, if at all. int8_t calibrate(void) { return _irsend.calibrate(); } #endif void begin(void); uint8_t* getRaw(void); void setRaw(const uint8_t new_code[]); static bool validChecksum(uint8_t state[], const uint16_t length = kDaikin216StateLength); void on(void); void off(void); void setPower(const bool on); bool getPower(void) const; void setTemp(const uint8_t temp); uint8_t getTemp(void) const; void setMode(const uint8_t mode); uint8_t getMode(void) const; static uint8_t convertMode(const stdAc::opmode_t mode); void setFan(const uint8_t fan); uint8_t getFan(void) const; static uint8_t convertFan(const stdAc::fanspeed_t speed); void setSwingVertical(const bool on); bool getSwingVertical(void) const; void setSwingHorizontal(const bool on); bool getSwingHorizontal(void) const; void setQuiet(const bool on); bool getQuiet(void) const; void setPowerful(const bool on); bool getPowerful(void) const; stdAc::state_t toCommon(void) const; String toString(void) const; #ifndef UNIT_TEST private: IRsend _irsend; ///< instance of the IR send class #else /// @cond IGNORE IRsendTest _irsend; ///< instance of the testing IR send class /// @endcond #endif // # of bytes per command Daikin216Protocol _; void stateReset(void); void checksum(void); }; /// Class for handling detailed Daikin 160-bit A/C messages. class IRDaikin160 { public: explicit IRDaikin160(const uint16_t pin, const bool inverted = false, const bool use_modulation = true); #if SEND_DAIKIN160 void send(const uint16_t repeat = kDaikin160DefaultRepeat); /// Run the calibration to calculate uSec timing offsets for this platform. /// @return The uSec timing offset needed per modulation of the IR Led. /// @note This will produce a 65ms IR signal pulse at 38kHz. /// Only ever needs to be run once per object instantiation, if at all. int8_t calibrate(void) { return _irsend.calibrate(); } #endif void begin(void); uint8_t* getRaw(void); void setRaw(const uint8_t new_code[]); static bool validChecksum(uint8_t state[], const uint16_t length = kDaikin160StateLength); void on(void); void off(void); void setPower(const bool on); bool getPower(void) const; void setTemp(const uint8_t temp); uint8_t getTemp(void) const; void setMode(const uint8_t mode); uint8_t getMode(void) const; static uint8_t convertMode(const stdAc::opmode_t mode); void setFan(const uint8_t fan); uint8_t getFan(void) const; static uint8_t convertFan(const stdAc::fanspeed_t speed); void setSwingVertical(const uint8_t position); uint8_t getSwingVertical(void) const; static uint8_t convertSwingV(const stdAc::swingv_t position); static stdAc::swingv_t toCommonSwingV(const uint8_t setting); stdAc::state_t toCommon(void) const; String toString(void) const; #ifndef UNIT_TEST private: IRsend _irsend; ///< instance of the IR send class #else /// @cond IGNORE IRsendTest _irsend; ///< instance of the testing IR send class /// @endcond #endif // # of bytes per command Daikin160Protocol _; void stateReset(void); void checksum(void); }; /// Class for handling detailed Daikin 176-bit A/C messages. class IRDaikin176 { public: explicit IRDaikin176(const uint16_t pin, const bool inverted = false, const bool use_modulation = true); #if SEND_DAIKIN176 void send(const uint16_t repeat = kDaikin176DefaultRepeat); /// Run the calibration to calculate uSec timing offsets for this platform. /// @return The uSec timing offset needed per modulation of the IR Led. /// @note This will produce a 65ms IR signal pulse at 38kHz. /// Only ever needs to be run once per object instantiation, if at all. int8_t calibrate(void) { return _irsend.calibrate(); } #endif void begin(void); uint8_t* getRaw(void); void setRaw(const uint8_t new_code[]); static bool validChecksum(uint8_t state[], const uint16_t length = kDaikin176StateLength); void on(void); void off(void); void setPower(const bool on); bool getPower(void) const; void setTemp(const uint8_t temp); uint8_t getTemp(void) const; void setMode(const uint8_t mode); uint8_t getMode(void) const; static uint8_t convertMode(const stdAc::opmode_t mode); void setFan(const uint8_t fan); uint8_t getFan(void) const; static uint8_t convertFan(const stdAc::fanspeed_t speed); void setSwingHorizontal(const uint8_t position); uint8_t getSwingHorizontal(void) const; static uint8_t convertSwingH(const stdAc::swingh_t position); static stdAc::fanspeed_t toCommonFanSpeed(const uint8_t speed); static stdAc::opmode_t toCommonMode(const uint8_t mode); static stdAc::swingh_t toCommonSwingH(const uint8_t setting); stdAc::state_t toCommon(void) const; String toString(void) const; #ifndef UNIT_TEST private: IRsend _irsend; ///< instance of the IR send class #else /// @cond IGNORE IRsendTest _irsend; ///< instance of the testing IR send class /// @endcond #endif // # of bytes per command Daikin176Protocol _; uint8_t _saved_temp; ///< The previously user requested temp value. void stateReset(void); void checksum(void); }; /// Class for handling detailed Daikin 128-bit A/C messages. /// @note Code by crankyoldgit. Analysis by Daniel Vena class IRDaikin128 { public: explicit IRDaikin128(const uint16_t pin, const bool inverted = false, const bool use_modulation = true); #if SEND_DAIKIN128 void send(const uint16_t repeat = kDaikin128DefaultRepeat); /// Run the calibration to calculate uSec timing offsets for this platform. /// @return The uSec timing offset needed per modulation of the IR Led. /// @note This will produce a 65ms IR signal pulse at 38kHz. /// Only ever needs to be run once per object instantiation, if at all. int8_t calibrate(void) { return _irsend.calibrate(); } #endif // SEND_DAIKIN128 void begin(void); void setPowerToggle(const bool toggle); bool getPowerToggle(void) const; void setTemp(const uint8_t temp); uint8_t getTemp(void) const; void setFan(const uint8_t fan); uint8_t getFan(void) const; uint8_t getMode(void) const; void setMode(const uint8_t mode); void setSwingVertical(const bool on); bool getSwingVertical(void) const; bool getSleep(void) const; void setSleep(const bool on); bool getQuiet(void) const; void setQuiet(const bool on); bool getPowerful(void) const; void setPowerful(const bool on); void setEcono(const bool on); bool getEcono(void) const; void setOnTimer(const uint16_t mins_since_midnight); uint16_t getOnTimer(void) const; bool getOnTimerEnabled(void) const; void setOnTimerEnabled(const bool on); void setOffTimer(const uint16_t mins_since_midnight); uint16_t getOffTimer(void) const; bool getOffTimerEnabled(void) const; void setOffTimerEnabled(const bool on); void setClock(const uint16_t mins_since_midnight); uint16_t getClock(void) const; void setLightToggle(const uint8_t unit_type); uint8_t getLightToggle(void) const; uint8_t* getRaw(void); void setRaw(const uint8_t new_code[]); static bool validChecksum(uint8_t state[]); static uint8_t convertMode(const stdAc::opmode_t mode); static uint8_t convertFan(const stdAc::fanspeed_t speed); static stdAc::opmode_t toCommonMode(const uint8_t mode); static stdAc::fanspeed_t toCommonFanSpeed(const uint8_t speed); stdAc::state_t toCommon(const stdAc::state_t *prev = NULL) const; String toString(void) const; #ifndef UNIT_TEST private: IRsend _irsend; ///< instance of the IR send class #else /// @cond IGNORE IRsendTest _irsend; ///< instance of the testing IR send class /// @endcond #endif // # of bytes per command Daikin128Protocol _; void stateReset(void); static uint8_t calcFirstChecksum(const uint8_t state[]); static uint8_t calcSecondChecksum(const uint8_t state[]); void checksum(void); }; /// Class for handling detailed Daikin 152-bit A/C messages. class IRDaikin152 { public: explicit IRDaikin152(const uint16_t pin, const bool inverted = false, const bool use_modulation = true); #if SEND_DAIKIN152 void send(const uint16_t repeat = kDaikin152DefaultRepeat); /// Run the calibration to calculate uSec timing offsets for this platform. /// @return The uSec timing offset needed per modulation of the IR Led. /// @note This will produce a 65ms IR signal pulse at 38kHz. /// Only ever needs to be run once per object instantiation, if at all. int8_t calibrate(void) { return _irsend.calibrate(); } #endif void begin(void); uint8_t* getRaw(void); void setRaw(const uint8_t new_code[]); static bool validChecksum(uint8_t state[], const uint16_t length = kDaikin152StateLength); void on(void); void off(void); void setPower(const bool on); bool getPower(void) const; void setTemp(const uint8_t temp); uint8_t getTemp(void) const; void setFan(const uint8_t fan); uint8_t getFan(void) const; void setMode(const uint8_t mode); uint8_t getMode(void) const; void setSwingV(const bool on); bool getSwingV(void) const; bool getQuiet(void) const; void setQuiet(const bool on); bool getPowerful(void) const; void setPowerful(const bool on); void setSensor(const bool on); bool getSensor(void) const; void setEcono(const bool on); bool getEcono(void) const; void setComfort(const bool on); bool getComfort(void) const; static uint8_t convertMode(const stdAc::opmode_t mode); static uint8_t convertFan(const stdAc::fanspeed_t speed); stdAc::state_t toCommon(void) const; String toString(void) const; #ifndef UNIT_TEST private: IRsend _irsend; ///< instance of the IR send class #else /// @cond IGNORE IRsendTest _irsend; ///< instance of the testing IR send class /// @endcond #endif // # of bytes per command Daikin152Protocol _; void stateReset(void); void checksum(void); }; /// Class for handling detailed Daikin 64-bit A/C messages. class IRDaikin64 { public: explicit IRDaikin64(const uint16_t pin, const bool inverted = false, const bool use_modulation = true); #if SEND_DAIKIN64 void send(const uint16_t repeat = kDaikin64DefaultRepeat); /// Run the calibration to calculate uSec timing offsets for this platform. /// @return The uSec timing offset needed per modulation of the IR Led. /// @note This will produce a 65ms IR signal pulse at 38kHz. /// Only ever needs to be run once per object instantiation, if at all. int8_t calibrate(void) { return _irsend.calibrate(); } #endif // SEND_DAIKIN64 void begin(void); uint64_t getRaw(void); void setRaw(const uint64_t new_state); static uint8_t calcChecksum(const uint64_t state); static bool validChecksum(const uint64_t state); void setPowerToggle(const bool on); bool getPowerToggle(void) const; void setTemp(const uint8_t temp); uint8_t getTemp(void) const; void setFan(const uint8_t fan); uint8_t getFan(void) const; void setMode(const uint8_t mode); uint8_t getMode(void) const; void setSwingVertical(const bool on); bool getSwingVertical(void) const; void setSleep(const bool on); bool getSleep(void) const; bool getQuiet(void) const; void setQuiet(const bool on); bool getTurbo(void) const; void setTurbo(const bool on); void setClock(const uint16_t mins_since_midnight); uint16_t getClock(void) const; void setOnTimeEnabled(const bool on); bool getOnTimeEnabled(void) const; void setOnTime(const uint16_t mins_since_midnight); uint16_t getOnTime(void) const; void setOffTimeEnabled(const bool on); bool getOffTimeEnabled(void) const; void setOffTime(const uint16_t mins_since_midnight); uint16_t getOffTime(void) const; static uint8_t convertMode(const stdAc::opmode_t mode); static uint8_t convertFan(const stdAc::fanspeed_t speed); static stdAc::opmode_t toCommonMode(const uint8_t mode); static stdAc::fanspeed_t toCommonFanSpeed(const uint8_t speed); stdAc::state_t toCommon(const stdAc::state_t *prev = NULL) const; String toString(void) const; #ifndef UNIT_TEST private: IRsend _irsend; ///< instance of the IR send class #else /// @cond IGNORE IRsendTest _irsend; ///< instance of the testing IR send class /// @endcond #endif Daikin64Protocol _; void stateReset(void); void checksum(void); }; #endif // IR_DAIKIN_H_