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mthread_calculate.cpp
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/* mthread_calculate.cpp - source text to Coil64 - Radio frequency inductor and choke calculator
Copyright (C) 2019 Kustarev V.
This program is free software; you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation; either version 3 of the License, or
(at your option) any later version.
This program is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with this program. If not, see <https://www.gnu.org/licenses
*/
#include "mthread_calculate.h"
MThread_calculate::MThread_calculate(int _coilForm, int _tab, double _arg1, double _arg2, double _arg3, double _arg4,
double _arg5, double _arg6, double _arg7, double _arg8, Material _mt, double _tand)
{
this->coilForm = _coilForm;
this->tab = _tab;
this->arg1 = _arg1;
this->arg2 = _arg2;
this->arg3 = _arg3;
this->arg4 = _arg4;
this->arg5 = _arg5;
this->arg6 = _arg6;
this->arg7 = _arg7;
this->arg8 = _arg8;
this->tand = _tand;
this->mt = _mt;
qRegisterMetaType<_CoilResult>();
}
////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
void MThread_calculate::run(){
_CoilResult result = {0,0,0,0,0,0,0};
try{
switch (this->tab) {
case 0:{
switch (this->coilForm) {
case _Onelayer_cw:
case _Onelayer:{
//arg: Dk, d, k, I, f, 0, 0, myOpt->dwAccuracy, mt
double Dk = 0;
double dw = 0;
if (arg3 > 0){ //when winding length option is activated, k=0
result.N = getOneLayerN_withRoundWire( arg1, arg2, arg3, arg4, &result.sec, arg8 );//number of turns
Dk = arg1;
dw = arg2;
} else {
result.N = getOneLayerN_byWindingLength(arg1, arg2, arg4, &result, arg8);
dw = result.five;
arg3 = odCalc(dw);
Dk = arg1 + arg3;
}
result.thd = find_Cs(arg3, Dk, arg3 * result.N); //self-capacitance
result.fourth = findSRF(arg3 * result.N, Dk, result.sec);//self-resonance frequency
result.six = solve_Qr(arg4, Dk, arg3, dw, arg5, result.fourth, result.N, result.thd, mt, &result);//Q-factor
break;
}
case _Onelayer_p:{
//arg: Dk, w, t, p, I, f, 0, mt
result.N = getOneLayerN_withRectWire( arg1, arg2, arg3, arg4, arg5, &result.sec, arg8 );//number of turns
result.thd = find_Cs(arg4, arg1, arg4 * result.N); //self-capacitance
result.fourth = findSRF(arg4 * result.N, arg1, result.sec);//self-resonance frequency
result.six = solve_Qc(arg5,arg1,arg4,arg2, arg3, arg6, result.fourth, result.N, result.thd, mt, &result);//Q-factor
break;
}
case _Onelayer_q:{
//arg: I, Dk, d, p, f, _n, 0, mt
//double I, double Dk, double dw, double p, double n, _CoilResult *result, unsigned int accuracy
result.N = getOneLayerN_Poligonal( arg1, arg2, arg3, arg4, arg6, &result, arg8 );//number of turns
result.fourth = find_Cs(arg4, result.seven, arg4 * result.N); //self-capacitance
result.five = findSRF(arg4 * result.N, result.seven, result.thd);//self-resonance frequency
result.six = solve_Qr(arg1, result.seven, arg4, arg3, arg5, result.five, result.N, result.fourth, mt, &result);//Q-factor
break;
}
case _Multilayer:{
//arg: I, D, d, k, lk
bool isOrthocyclic = !!arg8;
getMultiLayerN(arg1, arg2, arg3, arg4, arg5, 0, -1, &result, isOrthocyclic);
break;
}
case _Multilayer_p:{
//arg: I, D, d, k, lk, gap, ng
getMultiLayerN(arg1, arg2, arg3, arg4, arg5, arg6, arg7, &result, false);
break;
}
case _Multilayer_r:{
//arg: I, a, b, l, d, k
getMultiLayerN_rectFormer(arg1, arg2, arg3, arg4, arg5, arg6, &result);
break;
}
case _Multilayer_f:{
//arg: Dk, w, t, ins, I, 0, 0, 0
getMultilayerN_Foil( arg1, arg2, arg3, arg4, arg5, &result );//number of turns
break;
}
case _FerrToroid:{
//arg:I, D1, D2, h, d, mu, Ch
getFerriteN(arg1, arg2, arg3, arg4, arg5, arg6, arg7, &result);
break;
}
case _PCB_coil:{
//arg: I, D1, D2, ratio, layoutPCB, th, f, a
int layoutPCB = round(arg5);
if (layoutPCB != 2)
getPCB_N(arg1, arg2, arg3, arg4, layoutPCB, &result);
else
getPCB_RectN(arg1, arg2, arg3, arg8, arg6, arg4, &result);
if ((result.sec != 0) && (result.thd != 0))
result.fourth = solve_Qpcb(result.N, arg1, arg2, arg3, result.thd, arg6, result.sec, arg7, tand, layoutPCB);
break;
}
case _Flat_Spiral:{
//arg:I, Di, d, s
getSpiralN(arg1, arg2, arg3, arg4, &result);
break;
}
default:
break;
}
break;
}
case 1:{
switch (this->coilForm) {
case _Onelayer_cw:
case _Onelayer:{
//arg: Dk, d, p, N, f, 0, 0, mt
result.N = getOneLayerI_withRoundWire( arg1, arg2, arg3, arg4, &result.sec, arg8 );//number of turns
result.thd = find_Cs(arg3, arg1, arg3 * arg4); //self-capacitance
result.fourth = findSRF(arg3 * arg4, arg1, result.sec);//self-resonance frequency
result.six = solve_Qr(result.N,arg1, arg3, arg2, arg5, result.fourth, arg4, result.thd, mt, &result);//Q-factor
break;
}
case _Onelayer_p:{
//arg:Dk, w, t, p, N, f, 0, mt
result.N = getOneLayerI_withRectWire( arg1, arg2, arg3, arg4, arg5, &result.sec, arg8 );//number of turns
result.thd = find_Cs(arg4, arg1, arg4 * arg5); //self-capacitance
result.fourth = findSRF(arg4 * arg5, arg1, result.sec);//self-resonance frequency
result.six = solve_Qc(result.N, arg1, arg4, arg2, arg3, arg6, result.fourth, arg5, result.thd, mt, &result);//Q-factor
break;
}
case _Onelayer_q:{
//arg: Dk, d, p, N, f, _n, 0, mt
//double Dk, double dw, double p, double N, double n, _CoilResult *result, unsigned int accuracy
getOneLayerI_Poligonal( arg1, arg2, arg3, arg4, arg6, &result, arg8);
result.fourth = find_Cs(arg3, result.seven, arg3 * arg4); //self-capacitance
result.five = findSRF(arg4 * arg3, arg1, result.thd);//self-resonance frequency
result.six = solve_Qr(result.sec, result.seven, arg3, arg2, arg5, result.five, arg4, result.fourth, mt, &result);//Q-factor
break;
}
case _Multilayer:{
//arg: D, l, c, d, k, 0, 0; D, l, c, Rm, k, 0, 1;
bool isOrthocyclic = !!arg8;
if (arg7 == 0){
getMultiLayerI_byN(arg1, arg2, arg4, arg5, arg3, &result, isOrthocyclic);
} else if (arg7 == 1){
getMultiLayerI(arg1, arg2, arg4, arg5, arg3, 0, -1, &result, isOrthocyclic);
} else if (arg7 == 2){
getMultiLayerI_fromResistance(arg1, arg2, arg3, arg5, arg4, &result, isOrthocyclic);
}
break;
}
case _Multilayer_p:{
//arg: D, l, c, d, k, g, Ng
//double D, double lk, double dw, double k, double b, double gap, long Ng, _CoilResult *result
getMultiLayerI(arg1, arg2, arg4, arg5, arg3, arg6, arg7, &result, false);
break;
}
case _Multilayer_r:{
//arg: a, b, l, c, d, k
//double a, double b, double l, double c, double dw, double k, _CoilResult *result
if (arg7 == 0){
getMultiLayerI_rectFormer_byN(arg4, arg1, arg2, arg3, arg5, arg6, &result);
} else if (arg7 == 1){
getMultiLayerI_rectFormer(arg1, arg2, arg3, arg4, arg5, arg6, &result);
}
break;
}
case _Multilayer_f:{
//arg: D, w, t, ins, N
getMultilayerI_Foil(arg1, arg2, arg3, arg4, arg5, &result);
break;
}
case _FerrToroid:{
//arg: N, D1, D2, h, mu, Ch, dw
result.N = getFerriteI(arg1, arg2, arg3, arg4, arg5, arg6, arg7, &result);
break;
}
case _PCB_coil:{
//arg: N, 0, D2, s, W, layoutPCB, th, f
int layoutPCB = round(arg6);
if (layoutPCB != 2)
//double N, double _d, double _s, int layout
result.N = getPCB_I(arg1, arg3, arg4, layoutPCB, &result);
else
result.N = getPCB_RectI(arg1,arg2,arg3,arg4,arg5,arg7, &result);
//long N, double _I, double _D, double _d, double _W, double _t, double _s, double _f, int layout
result.fourth = solve_Qpcb(arg1, result.N, arg2, arg3, arg5, arg7, arg4, arg8, tand, layoutPCB);
break;
}
case _Flat_Spiral:{
//arg: N, D1, D2, d, 0, 0, 0
getSpiralI(arg2, arg3, arg4, arg1, &result);
break;
}
default:
break;
}
break;
}
default:
break;
}
emit sendResult(result);
} catch (...) {
this->quit();
}
}