Remove unused thermal model

This commit is contained in:
Ben V. Brown
2019-12-23 15:06:55 +11:00
parent 9e7355adab
commit 720f81a0f5

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@@ -69,240 +69,6 @@ uint32_t TipThermoModel::convertTipRawADCToDegF(uint16_t rawADC) {
//Table that is designed to be walked to find the best sample for the lookup
struct HakkoThermocoupleLookup {
// 0 is the uV reading
// 1 is the deg C X10
// This was created from numbers transcribed from the patent by <Kuba Sztandera>
constexpr HakkoThermocoupleLookup() :
values() {
values[0][0] = 0;
values[0][1] = 0;
values[1][0] = 0;
values[1][1] = 0;
values[2][0] = 175;
values[2][1] = 100;
values[3][0] = 381;
values[3][1] = 200;
values[4][0] = 587;
values[4][1] = 300;
values[5][0] = 804;
values[5][1] = 400;
values[6][0] = 1005;
values[6][1] = 500;
values[7][0] = 1007;
values[7][1] = 600;
values[8][0] = 1107;
values[8][1] = 700;
values[9][0] = 1310;
values[9][1] = 800;
values[10][0] = 1522;
values[10][1] = 900;
values[11][0] = 1731;
values[11][1] = 1000;
values[12][0] = 1939;
values[12][1] = 1100;
values[13][0] = 2079;
values[13][1] = 1200;
values[14][0] = 2265;
values[14][1] = 1300;
values[15][0] = 2470;
values[15][1] = 1400;
values[16][0] = 2676;
values[16][1] = 1500;
values[17][0] = 2899;
values[17][1] = 1600;
values[18][0] = 3081;
values[18][1] = 1700;
values[19][0] = 3186;
values[19][1] = 1800;
values[20][0] = 3422;
values[20][1] = 1900;
values[21][0] = 3622;
values[21][1] = 2000;
values[22][0] = 3830;
values[22][1] = 2100;
values[23][0] = 4044;
values[23][1] = 2200;
values[24][0] = 4400;
values[24][1] = 2300;
values[25][0] = 4691;
values[25][1] = 2400;
values[26][0] = 4989;
values[26][1] = 2500;
values[27][0] = 5289;
values[27][1] = 2600;
values[28][0] = 5583;
values[28][1] = 2700;
values[29][0] = 5879;
values[29][1] = 2800;
values[30][0] = 6075;
values[30][1] = 2900;
values[31][0] = 6332;
values[31][1] = 3000;
values[32][0] = 6521;
values[32][1] = 3100;
values[33][0] = 6724;
values[33][1] = 3200;
values[34][0] = 6929;
values[34][1] = 3300;
values[35][0] = 7132;
values[35][1] = 3400;
values[36][0] = 7356;
values[36][1] = 3500;
values[37][0] = 7561;
values[37][1] = 3600;
values[38][0] = 7774;
values[38][1] = 3700;
values[39][0] = 7992;
values[39][1] = 3800;
values[40][0] = 8200;
values[40][1] = 3900;
values[41][0] = 8410;
values[41][1] = 4000;
values[42][0] = 8626;
values[42][1] = 4100;
values[43][0] = 8849;
values[43][1] = 4200;
values[44][0] = 9060;
values[44][1] = 4300;
values[45][0] = 9271;
values[45][1] = 4400;
values[46][0] = 9531;
values[46][1] = 4500;
values[47][0] = 9748;
values[47][1] = 4600;
values[48][0] = 10210;
values[48][1] = 4700;
values[49][0] = 10219;
values[49][1] = 4800;
values[50][0] = 10429;
values[50][1] = 4900;
values[51][0] = 10649;
values[51][1] = 5000;
}
uint32_t count = 52;
uint32_t values[52][2];
};
struct MiniwareThermocoupleLookup {
// 0 is the uV reading
// 1 is the deg C X10
// This was created from numbers transcribed from the patent by <Kuba Sztandera>
constexpr MiniwareThermocoupleLookup() :
values() {
values[0][0] = 0;
values[0][1] = 0;
values[1][0] = 0;
values[1][1] = 0;
values[2][0] = 0;
values[2][1] = 100;
values[3][0] = 192;
values[3][1] = 200;
values[4][0] = 490;
values[4][1] = 300;
values[5][0] = 791;
values[5][1] = 400;
values[6][0] = 373;
values[6][1] = 500;
values[7][0] = 612;
values[7][1] = 600;
values[8][0] = 874;
values[8][1] = 700;
values[9][0] = 1590;
values[9][1] = 800;
values[10][0] = 1882;
values[10][1] = 900;
values[11][0] = 2081;
values[11][1] = 1000;
values[12][0] = 2466;
values[12][1] = 1100;
values[13][0] = 2977;
values[13][1] = 1200;
values[14][0] = 3196;
values[14][1] = 1300;
values[15][0] = 3311;
values[15][1] = 1400;
values[16][0] = 3707;
values[16][1] = 1500;
values[17][0] = 3889;
values[17][1] = 1600;
values[18][0] = 4072;
values[18][1] = 1700;
values[19][0] = 4271;
values[19][1] = 1800;
values[20][0] = 4550;
values[20][1] = 1900;
values[21][0] = 4753;
values[21][1] = 2000;
values[22][0] = 4975;
values[22][1] = 2100;
values[23][0] = 5112;
values[23][1] = 2200;
values[24][0] = 5605;
values[24][1] = 2300;
values[25][0] = 5734;
values[25][1] = 2400;
values[26][0] = 5855;
values[26][1] = 2500;
values[27][0] = 5959;
values[27][1] = 2600;
values[28][0] = 6130;
values[28][1] = 2700;
values[29][0] = 6352;
values[29][1] = 2800;
values[30][0] = 6481;
values[30][1] = 2900;
values[31][0] = 6700;
values[31][1] = 3000;
values[32][0] = 6882;
values[32][1] = 3100;
values[33][0] = 7247;
values[33][1] = 3200;
values[34][0] = 7466;
values[34][1] = 3300;
values[35][0] = 7633;
values[35][1] = 3400;
values[36][0] = 7749;
values[36][1] = 3500;
values[37][0] = 8391;
values[37][1] = 3600;
values[38][0] = 8600;
values[38][1] = 3700;
values[39][0] = 8804;
values[39][1] = 3800;
values[40][0] = 8999;
values[40][1] = 3900;
values[41][0] = 9183;
values[41][1] = 4000;
values[42][0] = 9362;
values[42][1] = 4100;
values[43][0] = 9548;
values[43][1] = 4200;
values[44][0] = 9727;
values[44][1] = 4300;
values[45][0] = 9911;
values[45][1] = 4400;
values[46][0] = 10086;
values[46][1] = 4500;
values[47][0] = 10247;
values[47][1] = 4600;
values[48][0] = 10403;
values[48][1] = 4700;
values[49][0] = 10566;
values[49][1] = 4800;
values[50][0] = 10744;
values[50][1] = 4900;
values[51][0] = 10935;
values[51][1] = 5000;
}
uint32_t count = 52;
uint32_t values[52][2];
};
//constexpr auto ThermalTable = MiniwareThermocoupleLookup();
//Extrapolate between two points
// [x1, y1] = point 1
// [x2, y2] = point 2
@@ -319,25 +85,6 @@ uint32_t TipThermoModel::convertuVToDegC(uint32_t tipuVDelta) {
tipuVDelta *= TIP_GAIN;
tipuVDelta /= 10000;
return tipuVDelta;
//Perform lookup on table of values to find the closest two measurement points, and then linearly interpolate these
//This assumes results in the table are increasing order
// TODO -> Should this be made into a binary search? Is it much faster??
// for (uint32_t i = 1; i < ThermalTable.count; i++) {
// if (((uint32_t) ThermalTable.values[i][0]) > tipuVDelta) {
// //Then extrapolate
// //Where i= the lower raw sample, i-1 is the higher raw sample
// return LinearInterpolate( //
// ThermalTable.values[i][0], // x1
// ThermalTable.values[i][1], // y1
// ThermalTable.values[i - 1][0], // x2
// ThermalTable.values[i - 1][1], // y2
// tipuVDelta) / 10; // raw sample to be interpolated
//
// }
// }
// return 500; // fail high -> will turn off heater
}
uint32_t TipThermoModel::convertuVToDegF(uint32_t tipuVDelta) {
@@ -345,21 +92,6 @@ uint32_t TipThermoModel::convertuVToDegF(uint32_t tipuVDelta) {
tipuVDelta /= 1000;
return ((tipuVDelta * 9) / 50) + 32;
//(Y °C × 9/5) + 32 =Y°F
// for (uint32_t i = 1; i < ThermalTable.count; i++) {
// if (((uint32_t) ThermalTable.values[i][0]) < tipuVDelta) {
// //Then extrapolate
// //Where i= the lower raw sample, i-1 is the higher raw sample
// return ((LinearInterpolate( //
// ThermalTable.values[i][0], // x1
// ThermalTable.values[i][1], // y1
// ThermalTable.values[i - 1][0], // x2
// ThermalTable.values[i - 1][1], // y2
// tipuVDelta) // raw sample to be interpolated
// * 9) / 50) + 32; // Convert C ->> F for 'mericans
//
// }
// }
// return 932; // fail high -> will turn off heater
}
uint32_t TipThermoModel::convertCtoF(uint32_t degC) {