Exemple #1
0
        public trans_calc_input_text Load(string fileName)
        {
            trans_calc_input_text input_text = new trans_calc_input_text();

            using (StreamReader sr = new StreamReader(fileName))
            {
                while (sr.Peek() >= 0)
                {
                    ProcessLine(sr.ReadLine(), ref input_text);
                }
            }

            return(input_text);
        }
Exemple #2
0
 public void SaveSettings(trans_calc_input_text strin, string fileName)
 {
     using (StreamWriter sw = new StreamWriter(fileName))
     {
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.V_IN]}={strin.Vin}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.B_MAX]}={strin.Bmax}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.H]}={strin.H}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.PERMEABILITY]}={strin.permeability}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.I_EX]}={strin.I_ex}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.CORE_W]}={strin.core_W}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.CORE_H]}={strin.core_H}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.CORE_L]}={strin.core_L}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.Ae_W]}={strin.Ae_W}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.Ae_H]}={strin.Ae_H}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.MPATH_W]}={strin.mpath_W}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.MPATH_H]}={strin.mpath_H}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.WINDOW_SIZE]}={strin.window_size}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.COUPLING_COEFF]}={strin.coupling_coeff}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.STACKING_FACTOR]}={strin.stackingFactor}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.INSULATION]}={strin.insulationThickness}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.V_OUT]}={strin.Vout}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.IS_V_OUT_AT_MAX_LOAD]}={strin.isVoutAtFullLoad}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.I_OUT]}={strin.Iout_max}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.MAX_TEMP]}={strin.maxTemp}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.MAX_EQ_R]}={strin.max_eq_R}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.AWG_1]}={strin.awg1}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.W_FACTOR_1]}={strin.wfactor1}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.N_1]}={strin.N1}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.N_PER_LAYER_1]}={strin.N_per_layer1}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.PF_1]}={strin.pf}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.CM_PER_AMP_1]}={strin.ampacity1}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.AWG_2]}={strin.awg2}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.W_FACTOR_2]}={strin.wfactor2}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.N_2]}={strin.N2}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.N_PER_LAYER_2]}={strin.N_per_layer2}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.CM_PER_AMP_2]}={strin.ampacity2}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.H_UNITS]}={(int)tc.H_Units}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.TEMP_UNITS]}={(tc.IsTempUnitsC ? "1" : "0")}");
         sw.WriteLine($"{cfg_keywords[CONFIG_KEYWORDS.WEIGHT_UNITS]}={(tc.IsMassUnits_g ? "1" : "0")}");
     }
 }
Exemple #3
0
        public void ConvertTextToInput(trans_calc_input_text strin)
        {
            common  = new trans_calc_input_common();
            primary = new trans_calc_input_winding();

            if (strin.Vin == "")
            {
                throw new Exception("Vin not set");
            }
            common.Vin = double.Parse(strin.Vin, NumberStyles.Float);
            if (strin.Vin == "120")
            {
                common.Freq = 60;
            }
            else if (strin.Vin == "220")
            {
                common.Freq = 50;
            }
            else
            {
                throw new Exception($"Unexpected mains voltage: {strin.Vin}, 110 or 220 expected");
            }

            common.IsVoutAtFullLoad = strin.isVoutAtFullLoad;

            if (strin.Bmax == "" && strin.N1 == "")
            {
                throw new Exception("Either Bmax or Primary turns must be set");
            }

            if (strin.Bmax != "")
            {
                common.B_max = double.Parse(strin.Bmax, NumberStyles.Float);
                if (common.B_max < 0.1 || common.B_max > 2)
                {
                    throw new Exception("Bmax, has to be in the range of 0.1T to 2T");
                }
            }

            if (strin.permeability != "")
            {
                common.permeability = double.Parse(strin.permeability, NumberStyles.Float);
                if (common.permeability < 1000 || common.permeability > 10000)
                {
                    throw new Exception("Permeability has to be in the range of 1000 to 10000");
                }
            }

            if (strin.I_ex != "")
            {
                // from mA to A
                common.I_ex = double.Parse(strin.I_ex, NumberStyles.Float) / 1000;
                if (common.I_ex < 0.01 || common.I_ex > 2)
                {
                    throw new Exception("Iex has to be in the range of 10mA to 2A");
                }
            }

            if (strin.H != "")
            {
                common.H = double.Parse(strin.H, NumberStyles.Float);
                if (tc.H_Units == TransCalc.H_UNITS.OERSTEDS)
                {
                    common.H = TransCalc.Oe_to_Ampturns(common.H);
                }
                else if (tc.H_Units == TransCalc.H_UNITS.AMP_TURNS_IN)
                {
                    common.H /= 0.0254;
                }
                if (common.H < 1 || common.H > 2000)
                {
                    throw new Exception("Amp t / m has to be in the range of 1 to 2000 Amp-t-m");
                }
            }

            if (strin.core_L == "" || strin.core_W == "" || strin.core_H == "")
            {
                throw new Exception("Core W/H/L not set");
            }

            if (strin.pf != "")
            {
                common.pf1 = double.Parse(strin.pf, NumberStyles.Float);
                if (common.pf1 < 0 || common.pf1 > 1.0)
                {
                    throw new Exception("pf has to be between 0 and 1");
                }
            }

            //to m
            common.Core_L = double.Parse(strin.core_L, NumberStyles.Float) / 100;
            common.Core_W = double.Parse(strin.core_W, NumberStyles.Float) / 100;
            common.Core_H = double.Parse(strin.core_H, NumberStyles.Float) / 100;

            if (common.Core_L < 0.01 || common.Core_L > 0.5)
            {
                throw new Exception("Invalid core L");
            }
            if (common.Core_W < 0.01 || common.Core_W > 0.5)
            {
                throw new Exception("Invalid core W");
            }
            if (common.Core_H < 0.01 || common.Core_H > 0.5)
            {
                throw new Exception("Invalid core H");
            }

            if (strin.Ae_W == "" || strin.Ae_H == "")
            {
                throw new Exception("Ae W/H not set");
            }
            //to m
            common.Ae_W = double.Parse(strin.Ae_W) / 100;
            if (common.Ae_W < 0.01 || common.Ae_W > 0.5)
            {
                throw new Exception("Invalid Ae width");
            }
            common.Ae_H = double.Parse(strin.Ae_H) / 100;
            if (common.Ae_H < 0.01 || common.Ae_H > 0.5)
            {
                throw new Exception("Invalid Ae height");
            }

            if (common.Ae_W > common.Core_W)
            {
                throw new Exception("Ae_W > bobbin W");
            }

            if (common.Ae_H > common.Core_H)
            {
                throw new Exception("Ae_H > bobbin H");
            }

            if (strin.mpath_H != "" && strin.mpath_W != "")
            {
                //cm
                double Mpath_H = double.Parse(strin.mpath_H, NumberStyles.Float) / 100;
                double Mpath_W = double.Parse(strin.mpath_W, NumberStyles.Float) / 100;

                if (Mpath_H < 0.01 || Mpath_H > 0.5)
                {
                    throw new Exception("Invalid magnetic path value: H");
                }

                if (Mpath_W < 0.01 || Mpath_W > 0.5)
                {
                    throw new Exception("Invalid magnetic path value: W");
                }

                common.mpath_l_cm = (Mpath_H + Mpath_W) * 2;
            }

            if (strin.window_size != "")
            {
                // in cm
                common.WindowSize = double.Parse(strin.window_size, NumberStyles.Float);
                if (common.WindowSize < 0.1 || common.WindowSize > 50)
                {
                    throw new Exception("Invalid window size in cm");
                }
            }

            if (strin.coupling_coeff == "")
            {
                throw new Exception("Coupling coefficient not set");
            }

            common.CouplingCoeff = double.Parse(strin.coupling_coeff, NumberStyles.Float);
            if (common.CouplingCoeff < 0.5 || common.CouplingCoeff > 1.0)
            {
                throw new Exception("Coupling coefficient has to be in the range of 0.5 to 1.0");
            }

            if (strin.stackingFactor == "")
            {
                throw new Exception("Stacking factor not set");
            }

            common.StackingFactor = double.Parse(strin.stackingFactor, NumberStyles.Float);
            if (common.StackingFactor < 0.5 || common.StackingFactor > 1.0)
            {
                throw new Exception("Stacking factor has to be in the range of 0.5 to 1.0");
            }

            if (strin.insulationThickness != "")
            {
                common.InsulationThickness = double.Parse(strin.insulationThickness, NumberStyles.Float);
            }

            if (common.WindowSize > 0.0000001)
            {
                if (common.InsulationThickness < 0 || common.InsulationThickness > common.WindowSize)
                {
                    throw new Exception("Insulation thickness in mm cannot exceed window size");
                }
            }

            if (strin.Vout != "")
            {
                common.Vout = double.Parse(strin.Vout, NumberStyles.Float);
                if (common.Vout < 0.1)
                {
                    throw new Exception("Invalid Vout value");
                }
            }

            if (strin.Iout_max != "")
            {
                common.Iout_max = double.Parse(strin.Iout_max, NumberStyles.Float);
                if (common.Iout_max < 0.00000000001)
                {
                    throw new Exception("Invalid Iout_max value");
                }
            }

            common.max_temp = double.Parse(strin.maxTemp, NumberStyles.Float);
            if (!tc.IsTempUnitsC)
            {
                common.max_temp = TransCalc.F_to_C(common.max_temp);
            }

            if (common.max_temp < 20)
            {
                common.max_temp = 20;
            }

            if (strin.max_eq_R != "")
            {
                common.max_res_R = double.Parse(strin.max_eq_R, NumberStyles.Float);
                if (common.max_res_R < 1)
                {
                    throw new Exception("Invalid value of max equivalent R");
                }
            }

            primary = convertWinding("Primary", strin.awg1, strin.wfactor1, strin.N1, strin.N_per_layer1, strin.ampacity1);

            if ((strin.N2 != "" || strin.Vout != ""))
            {
                secondary        = convertWinding("Secondary", strin.awg2, strin.wfactor2, strin.N2, strin.N_per_layer2, strin.ampacity2);
                processSecondary = true;
            }
            else
            {
                processSecondary = false;
            }

            isMinimizeRegulation = strin.isMinimizeRegulation;
        }
Exemple #4
0
        private void ProcessLine(string line, ref trans_calc_input_text strin)
        {
            string[] parts = line.Split('=');

            var key = cfg_keywords.FirstOrDefault(e => e.Value.Equals(parts[0].Trim(), StringComparison.OrdinalIgnoreCase)).Key;

            if (key == CONFIG_KEYWORDS.UNKNOWN_KEYWORD)
            {
                throw new Exception($"Error parsing cfg file, invalid keyword: {line}");
            }
            switch (key)
            {
            case CONFIG_KEYWORDS.V_IN:
                strin.Vin = parts[1];
                break;

            case CONFIG_KEYWORDS.B_MAX:
                strin.Bmax = parts[1];
                break;

            case CONFIG_KEYWORDS.H:
                strin.H = parts[1];
                break;

            case CONFIG_KEYWORDS.PERMEABILITY:
                strin.permeability = parts[1];
                break;

            case CONFIG_KEYWORDS.I_EX:
                strin.I_ex = parts[1];
                break;

            case CONFIG_KEYWORDS.CORE_W:
                strin.core_W = parts[1];
                break;

            case CONFIG_KEYWORDS.CORE_H:
                strin.core_H = parts[1];
                break;

            case CONFIG_KEYWORDS.CORE_L:
                strin.core_L = parts[1];
                break;

            case CONFIG_KEYWORDS.Ae_W:
                strin.Ae_W = parts[1];
                break;

            case CONFIG_KEYWORDS.Ae_H:
                strin.Ae_H = parts[1];
                break;

            case CONFIG_KEYWORDS.MPATH_W:
                strin.mpath_W = parts[1];
                break;

            case CONFIG_KEYWORDS.MPATH_H:
                strin.mpath_H = parts[1];
                break;

            case CONFIG_KEYWORDS.WINDOW_SIZE:
                strin.window_size = parts[1];
                break;

            case CONFIG_KEYWORDS.COUPLING_COEFF:
                strin.coupling_coeff = parts[1];
                break;

            case CONFIG_KEYWORDS.STACKING_FACTOR:
                strin.stackingFactor = parts[1];
                break;

            case CONFIG_KEYWORDS.INSULATION:
                strin.insulationThickness = parts[1];
                break;

            case CONFIG_KEYWORDS.V_OUT:
                strin.Vout = parts[1];
                break;

            case CONFIG_KEYWORDS.IS_V_OUT_AT_MAX_LOAD:
                strin.isVoutAtFullLoad = bool.Parse(parts[1]);
                break;

            case CONFIG_KEYWORDS.I_OUT:
                strin.Iout_max = parts[1];
                break;

            case CONFIG_KEYWORDS.MAX_TEMP:
                strin.maxTemp = parts[1];
                break;

            case CONFIG_KEYWORDS.MAX_EQ_R:
                strin.max_eq_R = parts[1];
                break;

            case CONFIG_KEYWORDS.AWG_1:
                strin.awg1 = parts[1];
                break;

            case CONFIG_KEYWORDS.W_FACTOR_1:
                strin.wfactor1 = parts[1];
                break;

            case CONFIG_KEYWORDS.N_1:
                strin.N1 = parts[1];
                break;

            case CONFIG_KEYWORDS.N_PER_LAYER_1:
                strin.N_per_layer1 = parts[1];
                break;

            case CONFIG_KEYWORDS.PF_1:
                strin.pf = parts[1];
                break;

            case CONFIG_KEYWORDS.CM_PER_AMP_1:
                strin.ampacity1 = parts[1];
                break;

            case CONFIG_KEYWORDS.AWG_2:
                strin.awg2 = parts[1];
                break;

            case CONFIG_KEYWORDS.W_FACTOR_2:
                strin.wfactor2 = parts[1];
                break;

            case CONFIG_KEYWORDS.N_2:
                strin.N2 = parts[1];
                break;

            case CONFIG_KEYWORDS.N_PER_LAYER_2:
                strin.N_per_layer2 = parts[1];
                break;

            case CONFIG_KEYWORDS.CM_PER_AMP_2:
                strin.ampacity2 = parts[1];
                break;

            case CONFIG_KEYWORDS.H_UNITS:
                tc.SetHUnits(parts[1]);
                break;

            case CONFIG_KEYWORDS.TEMP_UNITS:
                tc.IsTempUnitsC = parts[1] == "1" ? true : false;
                break;

            case CONFIG_KEYWORDS.WEIGHT_UNITS:
                tc.IsMassUnits_g = parts[1] == "1" ? true : false;
                break;

            default:
                throw new Exception($"Unknown key: {key}");
            }
        }
Exemple #5
0
        public void SaveResults(trans_calc_input_text strin, trans_calc_result_text result, string fileName)
        {
            TransCalcInput input = new TransCalcInput(tc);

            input.ConvertTextToInput(strin);

            using (StreamWriter sw = new StreamWriter(fileName))
            {
                sw.WriteLine("Input:\n");

                sw.WriteLine($"Core size  WxHxL     : {strin.core_W} x {strin.core_H} x {strin.core_L} cm");
                sw.WriteLine($"Ae, WxH              : {strin.Ae_W} x {strin.Ae_H} cm");
                if (strin.window_size != "")
                {
                    sw.WriteLine($"Window size          : {strin.window_size} mm");
                }
                if (input.common.mpath_l_cm > 0.0000001)
                {
                    sw.WriteLine($"Mpath, WxH           : {strin.mpath_W} x {strin.mpath_H} cm");
                }
                if (strin.Bmax != "")
                {
                    sw.WriteLine($"Bmax                 : {strin.Bmax} T");
                }
                if (strin.H != "")
                {
                    sw.WriteLine($"H                    : {strin.H} " + tc.HUnitlsLabel);
                }
                if (strin.permeability != "")
                {
                    sw.WriteLine($"u/u0                 : {strin.permeability}");
                }
                if (strin.I_ex != "")
                {
                    sw.WriteLine($"Iex                  : {strin.I_ex} A");
                }

                sw.WriteLine($"L1/L2 coupling coeff : {strin.coupling_coeff}");
                sw.WriteLine($"Stacking factor      : {strin.stackingFactor}");
                if (strin.insulationThickness != "")
                {
                    sw.WriteLine($"Insulation           : {strin.insulationThickness} mm");
                }
                if (strin.Vout != "")
                {
                    string fullLoad = strin.isVoutAtFullLoad ? "(full load)" : "(idle)";
                    sw.WriteLine($"Vout                 : {strin.Vout} {fullLoad}");
                }
                if (strin.Iout_max != "")
                {
                    sw.WriteLine($"Iout max             : {strin.Iout_max} A");
                }
                sw.WriteLine($"Max temperature      : {strin.maxTemp} " + tc.TempUnitsLabel);
                if (strin.max_eq_R != "")
                {
                    sw.WriteLine($"Max equivalent R     : {strin.max_eq_R}");
                }
                sw.WriteLine();

                sw.WriteLine($"Primary   : {strin.awg1} AWG, Wfactor: {strin.wfactor1}, N: {strin.N1}, " +
                             $"N per layer: {strin.N_per_layer1} C.M. per amp: {strin.ampacity1}");

                if (input.processSecondary)
                {
                    sw.WriteLine($"Secondary : {strin.awg2} AWG, Wfactor: {strin.wfactor2}, N: {strin.N2}, " +
                                 $"N per layer: {strin.N_per_layer2} C.M. per amp: {strin.ampacity2}");
                }

                sw.WriteLine($"\nMains: {input.common.Vin.ToString()}V / {input.common.Freq.ToString()}Hz");

                sw.WriteLine("\n=== Results: =====================================\n");
                sw.WriteLine("Primary:\n");
                sw.WriteLine($"AWG                  : {result.AWG1}");
                sw.WriteLine($"Turns                : {result.N_1}");
                sw.WriteLine($"Turns per layer      : {result.N_per_layer_1}");
                sw.WriteLine($"Total layers         : {result.totalLayers_1}");
                sw.WriteLine($"Last layer turns     : {result.lastLayerTurns_1}");
                sw.WriteLine($"Wire length          : {result.length_m_1} m / {result.length_ft_1} ft");
                sw.WriteLine($"Build-up             : {result.buildup_mm_1} mm");
                sw.WriteLine($"R                    : {result.R_1}");
                if (result.mpath_l_m != Constants.EmptyValue)
                {
                    sw.WriteLine($"Magnetic path        : {result.mpath_l_m} m");
                }
                if (result.L_1 != Constants.EmptyValue)
                {
                    sw.WriteLine($"L                    : {result.L_1} H");
                }
                sw.WriteLine($"Bmax                 : {result.B_max} T");
                if (result.permeability != Constants.EmptyValue)
                {
                    sw.WriteLine($"u/u0                 : {result.permeability}");
                }
                if (result.H != Constants.EmptyValue)
                {
                    sw.WriteLine($"H                    : {result.H} " + tc.HUnitlsLabel);
                }
                if (result.I_ex != Constants.EmptyValue)
                {
                    sw.WriteLine($"Iex                  : {result.I_ex} A");
                }
                if (result.Ip_full_load != Constants.EmptyValue)
                {
                    sw.WriteLine($"Ip, full load        : {result.Ip_full_load} A");
                }
                if (result.awg_max_current_amp_1 != Constants.EmptyValue)
                {
                    sw.WriteLine($"AWG max current      : {result.awg_max_current_amp_1} A");
                }
                sw.WriteLine($"Weight               : {result.weight_1} " + tc.MassUnitsLabel);

                if (input.processSecondary)
                {
                    sw.WriteLine("\nSecondary:\n");
                    sw.WriteLine($"AWG                  : {result.AWG2}");
                    sw.WriteLine($"Turns                : {result.N_2}");
                    sw.WriteLine($"Turns per layer      : {result.N_per_layer_2}");
                    sw.WriteLine($"Total layers         : {result.totalLayers_2}");
                    sw.WriteLine($"Last layer turns     : {result.lastLayerTurns_2}");
                    sw.WriteLine($"Wire length          : {result.length_m_2} m / {result.length_ft_2} ft");
                    sw.WriteLine($"Build-up             : {result.buildup_mm_2} mm");
                    sw.WriteLine($"R                    : {result.R_2}");
                    sw.WriteLine($"Total build-up       : {result.total_thickness_mm} mm");
                    sw.WriteLine($"L                    : {result.L_2} H");
                    sw.WriteLine($"Vout idle            : {result.Vout_idle} V");
                    sw.WriteLine($"Vout full load       : {result.Vout_load} V");
                    sw.WriteLine($"Iout full load       : {result.Iout_max} A");
                    sw.WriteLine($"AWG max current      : {result.awg_max_current_amp_2} A");
                    sw.WriteLine($"Weight               : {result.weight_2} " + tc.MassUnitsLabel);

                    sw.WriteLine($"\nTurns ratio          : {result.turns_ratio}");
                    sw.WriteLine($"Wire c.s.a ratio     : {result.wire_csa_ratio}");
                    sw.WriteLine($"Total weight         : {result.wire_total_weight} " + tc.MassUnitsLabel);
                    sw.WriteLine($"Weight ratio         : {result.wire_weight_ratio}");
                    sw.WriteLine($"Output Power         : {result.power_VA} VA");
                    sw.WriteLine($"Total equivalent R   : {result.total_eq_R}");
                    sw.WriteLine($"% Regulation         : {result.regulation}");
                }
                if (result.warnings.Count > 0)
                {
                    sw.WriteLine("\nWarnings:\n");
                    foreach (string msg in result.warnings)
                    {
                        sw.WriteLine(msg);
                    }
                }
            }
        }
Exemple #6
0
        public trans_calc_result_text Calculate(trans_calc_input_text text_input)
        {
            _input.ConvertTextToInput(text_input);


            double L1;
            double Ae;

            CalculateCommon(out L1, out Ae);

            // Calculate primary
            bool retry_primary = false;
            int  minAWG        = 8;

            if (_input.primary.awg == null)
            {
                retry_primary = true;
            }

            if (_input.processSecondary)
            {
                CalculateTurnsRatio();
                CalculatePrimaryCurrent();
            }

            do
            {
                if (retry_primary)
                {
                    _input.primary.awg = AutoSelectAWG(minAWG++, _input.isMinimizeRegulation, _input.primary, _result.Ip_full_load);
                }

                trans_calc_result_winding w1 = calculateWinding(_input.common, _input.primary);

                w1.L            = L1;
                _result.primary = w1;

                //Calculate secondary if configured
                if (_input.processSecondary)
                {
                    _result.Iout_max      = _input.common.Iout_max;
                    _input.common.Core_H += w1.thickness_mm / 1000;
                    _input.common.Core_W += w1.thickness_mm / 1000;

                    bool retry_secondary = false;
                    minAWG = 8;
                    if (_input.secondary.awg == null)
                    {
                        retry_secondary = true;
                    }

                    trans_calc_result_winding w2 = null;
                    do
                    {
                        if (retry_secondary)
                        {
                            _input.secondary.awg = AutoSelectAWG(minAWG++, _input.isMinimizeRegulation, _input.secondary, _input.common.Iout_max);
                        }

                        w2 = CalculateSecondaryWithRetries(w1.resistance);

                        if (retry_secondary &&
                            (_input.common.WindowSize < 0.000000001 ||
                             w1.thickness_mm + _input.common.InsulationThickness + w2.thickness_mm
                             <= _input.common.WindowSize))
                        {
                            retry_secondary = false;
                            retry_primary   = false;
                        }
                    } while (retry_secondary);

                    if (_result.permeability > 0.00000000001 && _result.mpath_l_m > 0.0000001)
                    {
                        w2.L = w2.N * w2.N * _result.permeability * u0 * Ae / _result.mpath_l_m;
                    }

                    _result.secondary          = w2;
                    _result.total_thickness_mm =
                        w1.thickness_mm + _input.common.InsulationThickness + w2.thickness_mm;
                    _result.wire_total_weight = w1.mass + w2.mass;
                    _result.wire_csa_ratio    = w1.awg.Csa_m2 / w2.awg.Csa_m2;
                    _result.wire_weight_ratio = w1.mass / w2.mass;
                }
            }while (retry_primary);

            ConvertUnits();

            return(new trans_calc_result_text(_result, _input));
        }
Exemple #7
0
 public void SaveSettings(trans_calc_input_text strin, string fileName)
 {
     _filePersistence.SaveSettings(strin, fileName);
 }
Exemple #8
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 public void SaveResults(trans_calc_input_text strin, trans_calc_result_text result, string fileName)
 {
     _filePersistence.SaveResults(strin, result, fileName);
 }