private void MaterialTypeComboBox_SelectedIndexChanged(object sender, EventArgs e) { acq.item_type = (string)((ComboBox)sender).SelectedItem; INCCSelector sel = new INCCSelector(acq.detector_id, acq.item_type); AnalysisMethods lam; bool found = NC.App.DB.DetectorMaterialAnalysisMethods.TryGetValue(sel, out lam); if (found) { am = new AnalysisMethods(sel); am.CopySettings(lam); ActivePassiveCheckBox.Checked = am.choices[(int)AnalysisMethod.ActivePassive]; ActiveCalCurveCheckBox.Checked = am.choices[(int)AnalysisMethod.Active]; ActiveMultCheckBox.Checked = am.choices[(int)AnalysisMethod.ActiveMultiplicity]; CollarCheckBox.Checked = am.choices[(int)AnalysisMethod.Collar]; PassiveCalCurveCheckBox.Checked = am.choices[(int)AnalysisMethod.CalibrationCurve]; KnownAlphaCheckBox.Checked = am.choices[(int)AnalysisMethod.KnownA]; KnownMCheckBox.Checked = am.choices[(int)AnalysisMethod.KnownM]; PassiveMultiplicityCheckBox.Checked = am.choices[(int)AnalysisMethod.Multiplicity]; AddASourceCheckBox.Checked = am.choices[(int)AnalysisMethod.AddASource]; CuRatioCheckBox.Checked = am.choices[(int)AnalysisMethod.CuriumRatio]; TruncatedMultCheckBox.Checked = am.choices[(int)AnalysisMethod.TruncatedMultiplicity]; collaractive(); } else { // create an AM marked None and insert in Map here, set modified flag am = new AnalysisMethods(sel); NC.App.DB.DetectorMaterialAnalysisMethods.Add(sel, am); am.modified = true; } }
private void MaterialTypeComboBox_SelectedIndexChanged(object sender, EventArgs e) { acq.item_type = (string)((ComboBox)sender).SelectedItem; INCCSelector sel = new INCCSelector(acq.detector_id, acq.item_type); AnalysisMethods lam; bool found = NC.App.DB.DetectorMaterialAnalysisMethods.TryGetValue(sel, out lam); if (found) { am = new AnalysisMethods(sel); am.CopySettings(lam); ActivePassiveCheckBox.Checked = am.choices[(int)AnalysisMethod.ActivePassive]; ActiveCalCurveCheckBox.Checked = am.choices[(int)AnalysisMethod.Active]; ActiveMultCheckBox.Checked = am.choices[(int)AnalysisMethod.ActiveMultiplicity]; CollarAmLiCheckBox.Checked = am.choices[(int)AnalysisMethod.CollarAmLi] && (acq.collar_mode == (int)CollarType.AmLiThermal || acq.collar_mode == (int)CollarType.AmLiFast); CollarCfCheckBox.Checked = am.choices[(int)AnalysisMethod.CollarCf] && (acq.collar_mode == (int)CollarType.CfThermal || acq.collar_mode == (int)CollarType.CfFast); PassiveCalCurveCheckBox.Checked = am.choices[(int)AnalysisMethod.CalibrationCurve]; KnownAlphaCheckBox.Checked = am.choices[(int)AnalysisMethod.KnownA]; KnownMCheckBox.Checked = am.choices[(int)AnalysisMethod.KnownM]; PassiveMultiplicityCheckBox.Checked = am.choices[(int)AnalysisMethod.Multiplicity]; AddASourceCheckBox.Checked = am.choices[(int)AnalysisMethod.AddASource]; CuRatioCheckBox.Checked = am.choices[(int)AnalysisMethod.CuriumRatio]; TruncatedMultCheckBox.Checked = am.choices[(int)AnalysisMethod.TruncatedMultiplicity]; collaractive(); } else { // create an AM marked None and insert in Map here, set modified flag am = new AnalysisMethods(sel); NC.App.DB.DetectorMaterialAnalysisMethods.Add(sel, am); am.modified = true; } }
public static AnalysisMethods GetMethodSelections(string det, string mat) { INCCSelector sel = new INCCSelector(det, mat); AnalysisMethods lam; bool found = CentralizedState.App.DB.DetectorMaterialAnalysisMethods.TryGetValue(sel, out lam); return(lam); }
public void UpdateAnalysisMethod(INCCSelector sel, AnalysisMethods ams) { DB.AnalysisMethodSpecifiers db = new DB.AnalysisMethodSpecifiers(); if (ams.modified) { UpdateAnalysisMethods(sel, ams, db); } UpdateAnalysisMethodSpecifics(sel.detectorid, sel.material, db); }
private void OKBtn_Click(object sender, EventArgs e) { if (modified) { AnalysisMethod am = AnalysisMethod.CalibrationCurve; INCCAnalysisParams.INCCMethodDescriptor c = ams.GetMethodParameters(am); ((INCCAnalysisParams.cal_curve_rec)c).percent_u235 = percent; INCCSelector sel = new INCCSelector(acq.detector_id, acq.item_type); NC.App.DB.UpdateAnalysisMethod(sel, ams); // flush changes on internal map to the DB } DialogResult = System.Windows.Forms.DialogResult.OK; Close(); }
public void UpdateAnalysisMethods(INCCSelector sel, AnalysisMethods am, DB.AnalysisMethodSpecifiers db = null) { if (db == null) { db = new DB.AnalysisMethodSpecifiers(); } DB.ElementList saParams; saParams = am.ToDBElementList(); if (!db.Update(sel.detectorid, sel.material, saParams)) // am not there, so add it { NC.App.Pest.logger.TraceEvent(LogLevels.Verbose, 34027, "Failed to update analysis method spec for " + sel.ToString()); } else { NC.App.Pest.logger.TraceEvent(LogLevels.Verbose, 34026, "Updated/created analysis method spec for " + sel.ToString()); } am.modified = false; }
public void Persist() { if (imd.modified) { if (ams == null) // HN No analysis methods existed. { ams = new AnalysisMethods(); ams.AddMethod(am, imd); } if (ams.HasMethod(am)) // if found, update the existing parameter values { INCCAnalysisParams.INCCMethodDescriptor c = ams.GetMethodParameters(am); imd.CopyTo(c); // This a virtual so imd can be the primary type } else // add the new method params under the current method key { ams.AddMethod(am, imd); } INCCSelector sel = new INCCSelector(acq.detector_id, acq.item_type); N.App.DB.UpdateAnalysisMethod(sel, ams); // flush changes on internal map to the DB } }
internal static unsafe cal_curve_rec MoveCC(INCCSelector se, INCCAnalysisParams.INCCMethodDescriptor md) { INCCAnalysisParams.cal_curve_rec imr = (INCCAnalysisParams.cal_curve_rec)md; cal_curve_rec m = new cal_curve_rec(); byte[] b = new byte[INCC.MAX_DETECTOR_ID_LENGTH]; char[] a = se.detectorid.ToCharArray(0, Math.Min(se.detectorid.Length, INCC.MAX_DETECTOR_ID_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.cal_curve_detector_id); b = new byte[INCC.MAX_ITEM_TYPE_LENGTH]; a = se.material.ToCharArray(0, Math.Min(se.material.Length, INCC.MAX_ITEM_TYPE_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.cal_curve_item_type); m.cc_a = imr.cev.a; m.cc_b = imr.cev.b; m.cc_c = imr.cev.c; m.cc_d = imr.cev.d; m.cc_cal_curve_type = (double)imr.CalCurveType; m.cc_covar_ab = imr.cev.covar(Coeff.a, Coeff.b); m.cc_covar_ac = imr.cev.covar(Coeff.a, Coeff.c); m.cc_covar_ad = imr.cev.covar(Coeff.a, Coeff.d); m.cc_covar_bc = imr.cev.covar(Coeff.b, Coeff.c); m.cc_covar_bd = imr.cev.covar(Coeff.b, Coeff.d); m.cc_covar_cd = imr.cev.covar(Coeff.c, Coeff.d); m.cc_var_a = imr.cev.var_a; m.cc_var_b = imr.cev.var_b; m.cc_var_c = imr.cev.var_c; m.cc_var_d = imr.cev.var_d; m.cc_sigma_x = imr.cev.sigma_x; m.cc_upper_mass_limit = imr.cev.upper_mass_limit; m.cc_lower_mass_limit = imr.cev.lower_mass_limit; m.cc_heavy_metal_corr_factor = imr.heavy_metal_corr_factor; m.cc_heavy_metal_reference = imr.heavy_metal_reference; m.cc_cal_curve_type = (double)imr.CalCurveType; m.cc_percent_u235 = imr.percent_u235; TransferUtils.CopyDbls(imr.dcl_mass, m.cc_dcl_mass); TransferUtils.CopyDbls(imr.doubles, m.cc_doubles); return m; }
void ApplyCoefficients(INCCAnalysisParams.CurveEquationVals coeff, CalibrationCurveList cclist) { INCCSelector sel = new INCCSelector(det.Id.DetectorId, Material); AnalysisMethods lam; bool found = N.App.DB.DetectorMaterialAnalysisMethods.TryGetValue(sel, out lam); if (!found) { lam = new AnalysisMethods(sel); } if (!lam.HasMethod(AnalysisMethod)) // create it from scratch here ???? { MessageBox.Show(string.Format("{0} method not specified for detector {1} and material {2}", AnalysisMethod.FullName(), det.Id.DetectorId, Material), "Coefficient File Ingester", MessageBoxButtons.OK); return; } INCCAnalysisParams.INCCMethodDescriptor imd = lam.GetMethodParameters(AnalysisMethod); switch (AnalysisMethod) { case AnalysisMethod.CalibrationCurve: INCCAnalysisParams.cal_curve_rec c = (INCCAnalysisParams.cal_curve_rec)imd; CopyCoefficients(coeff, c.cev); c.cev.cal_curve_equation = CurveEquation; c.cev.lower_mass_limit = cclist.LowerMassLimit; c.cev.upper_mass_limit = cclist.UpperMassLimit; c.dcl_mass = cclist.MassAsArray; c.doubles = cclist.DoublesAsArray; break; case AnalysisMethod.KnownA: INCCAnalysisParams.known_alpha_rec ka = (INCCAnalysisParams.known_alpha_rec)imd; CopyCoefficients(coeff, ka.cev); ka.cev.cal_curve_equation = CurveEquation; ka.cev.lower_mass_limit = cclist.LowerMassLimit; ka.cev.upper_mass_limit = cclist.UpperMassLimit; ka.dcl_mass = cclist.MassAsArray; ka.doubles = cclist.DoublesAsArray; break; case AnalysisMethod.AddASource: INCCAnalysisParams.add_a_source_rec aas = (INCCAnalysisParams.add_a_source_rec)imd; CopyCoefficients(coeff, aas.cev); aas.cev.cal_curve_equation = CurveEquation; aas.cev.lower_mass_limit = cclist.LowerMassLimit; aas.cev.upper_mass_limit = cclist.UpperMassLimit; aas.dcl_mass = cclist.MassAsArray; aas.doubles = cclist.DoublesAsArray; break; case AnalysisMethod.Active: INCCAnalysisParams.active_rec ac = (INCCAnalysisParams.active_rec)imd; CopyCoefficients(coeff, ac.cev); ac.cev.cal_curve_equation = CurveEquation; ac.cev.lower_mass_limit = cclist.LowerMassLimit; ac.cev.upper_mass_limit = cclist.UpperMassLimit; ac.dcl_mass = cclist.MassAsArray; ac.doubles = cclist.DoublesAsArray; break; } imd.modified = true; // ok save it now N.App.DB.UpdateAnalysisMethod(sel, lam); // flush changes on internal map to the DB MessageBox.Show(string.Format("Calibration data for analysis method {0} and material type {1} successfully stored in the database", det.Id.DetectorId, Material), "Coefficient File Ingester", MessageBoxButtons.OK); }
internal static unsafe add_a_source_rec MoveAS(INCCSelector se, INCCAnalysisParams.INCCMethodDescriptor md) { INCCAnalysisParams.add_a_source_rec imr = (INCCAnalysisParams.add_a_source_rec)md; add_a_source_rec m = new add_a_source_rec(); byte[] b = new byte[INCC.MAX_DETECTOR_ID_LENGTH]; char[] a = se.detectorid.ToCharArray(0, Math.Min(se.detectorid.Length, INCC.MAX_DETECTOR_ID_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.add_a_source_detector_id); b = new byte[INCC.MAX_ITEM_TYPE_LENGTH]; a = se.material.ToCharArray(0, Math.Min(se.material.Length, INCC.MAX_ITEM_TYPE_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.add_a_source_item_type); m.ad_a = imr.cev.a; m.ad_b = imr.cev.b; m.ad_c = imr.cev.c; m.ad_d = imr.cev.d; m.add_a_source_equation = (byte)imr.cev.cal_curve_equation; m.ad_covar_ab = imr.cev.covar(Coeff.a, Coeff.b); m.ad_covar_ac = imr.cev.covar(Coeff.a, Coeff.c); m.ad_covar_ad = imr.cev.covar(Coeff.a, Coeff.d); m.ad_covar_bc = imr.cev.covar(Coeff.b, Coeff.c); m.ad_covar_bd = imr.cev.covar(Coeff.b, Coeff.d); m.ad_covar_cd = imr.cev.covar(Coeff.c, Coeff.d); m.ad_var_a = imr.cev.var_a; m.ad_var_b = imr.cev.var_b; m.ad_var_c = imr.cev.var_c; m.ad_var_d = imr.cev.var_d; m.ad_sigma_x = imr.cev.sigma_x; m.ad_upper_mass_limit = imr.cev.upper_mass_limit; m.ad_lower_mass_limit = imr.cev.lower_mass_limit; TransferUtils.CopyDbls(imr.dcl_mass, m.ad_dcl_mass); TransferUtils.CopyDbls(imr.doubles, m.ad_doubles); TransferUtils.CopyDbls(imr.position_dzero, m.ad_position_dzero); m.ad_cf_a = imr.cf.a; m.ad_cf_b = imr.cf.b; m.ad_cf_c = imr.cf.c; m.ad_cf_d = imr.cf.d; m.ad_dzero_avg = imr.dzero_avg; m.ad_num_runs = imr.num_runs; m.ad_tm_dbls_rate_upper_limit = imr.tm_dbls_rate_upper_limit; m.ad_tm_weighting_factor = imr.tm_weighting_factor; m.ad_use_truncated_mult = imr.use_truncated_mult ? 1 : 0; b = new byte[INCC.DATE_TIME_LENGTH]; a = imr.dzero_ref_date.ToString("yy.MM.dd").ToCharArray(); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.ad_dzero_ref_date); return m; }
internal static unsafe known_m_rec MoveKM(INCCSelector se, INCCAnalysisParams.INCCMethodDescriptor md) { INCCAnalysisParams.known_m_rec imr = (INCCAnalysisParams.known_m_rec)md; known_m_rec m = new known_m_rec(); byte[] b = new byte[INCC.MAX_DETECTOR_ID_LENGTH]; char[] a = se.detectorid.ToCharArray(0, Math.Min(se.detectorid.Length, INCC.MAX_DETECTOR_ID_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.known_m_detector_id); b = new byte[INCC.MAX_ITEM_TYPE_LENGTH]; a = se.material.ToCharArray(0, Math.Min(se.material.Length, INCC.MAX_ITEM_TYPE_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.known_m_item_type); m.km_b = imr.b; m.km_c = imr.c; m.km_sf_rate = imr.sf_rate; m.km_sigma_x = imr.sigma_x; m.km_upper_mass_limit = imr.upper_mass_limit; m.km_lower_mass_limit = imr.lower_mass_limit; m.km_vi1 = imr.vi1; m.km_vi2 = imr.vi2; m.km_vs1 = imr.vs1; m.km_vs2 = imr.vs2; return m; }
/// <summary> /// Imprint a new measurement with as much information as possible from a results_rec. /// </summary> /// <param name="rec">The results_rec with the measurement details</param> /// <param name="meaId">Unique id for the measurement, from the results_rec fields</param> /// <param name="logger">logger handle</param> /// <returns>A new measurement</returns> public Measurement(INCCResults.results_rec rec, MeasId meaId, LMLoggers.LognLM logger) { HVCalibrationParameters hv = NCC.IntegrationHelpers.GetCurrentHVCalibrationParams(rec.det); MeasurementTuple mt = new MeasurementTuple(new DetectorList(rec.det), rec.tests, rec.norm, rec.bkg, rec.iso, rec.acq, hv); this.mt = mt; this.logger = logger; mid = meaId; InitMisc(); if (rec.det.ListMode) { AnalysisParams = NC.App.LMBD.CountingParameters(rec.det, applySRFromDetector: true); if (meaId.MeasOption.IsListMode()) // pure List Mode, not INCC5 { // for a list-mode-only measurement with a multiplicity analyzer the detector SR params must match at least one of the multiplicity analyzer SR params NCC.IntegrationHelpers.ApplyVSRChangesToDefaultDetector(this); } else // it is an INCC5 analysis driven with LM data { // prepare or identify an active CA entry with matching CA gatewidth and FA, with remaining SR params as the detector AnalysisParams.PrepareMatchingVSR(rec.det.MultiplicityParams); } } else { // prepare analyzer params from detector SR params AnalysisParams = NC.App.LMBD.CountingParameters(rec.det, applySRFromDetector: false); if (!AnalysisParams.Exists(w => { return((w is Multiplicity) && (w as Multiplicity).Equals(rec.det.MultiplicityParams)); })) { AnalysisParams.Add(rec.det.MultiplicityParams); } } // get the INCC5 analysis methods INCCAnalysisState = new INCCAnalysisState(); INCCSelector sel = new INCCSelector(rec.acq.detector_id, rec.acq.item_type); AnalysisMethods am; bool found = NC.App.DB.DetectorMaterialAnalysisMethods.TryGetValue(sel, out am); if (found) { am.selector = sel; // gotta do this so that the equality operator is correct INCCAnalysisState.Methods = am; } else { INCCAnalysisState.Methods = new AnalysisMethods(sel); } InitializeContext(clearCounterResults: true); PrepareINCCResults(); // a list mode measurement may not have a multiplicity analyzer at all, create on results, copying the current values if (CountingAnalysisResults.ContainsKey(rec.det.MultiplicityParams)) { MultiplicityCountingRes mcr = (MultiplicityCountingRes)CountingAnalysisResults[rec.det.MultiplicityParams]; if (rec.mcr.AB.Unset) { SDTMultiplicityCalculator.SetAlphaBeta(rec.det.MultiplicityParams, rec.mcr); // works only if MaxBins is set } mcr.CopyFrom(rec.mcr); // copy the mcr results onto the first moskey entry // the same results are copied to the full results structure MeasOptionSelector mos = new MeasOptionSelector(MeasOption, rec.det.MultiplicityParams); INCCResult result = INCCAnalysisState.Lookup(mos); result.CopyFrom(rec.mcr); } Stratum = new Stratum(rec.st); // the stratum from the results rec }
internal static unsafe collar_rec MoveCO(INCCSelector se, INCCAnalysisParams.INCCMethodDescriptor md) { INCCAnalysisParams.collar_combined_rec imr = (INCCAnalysisParams.collar_combined_rec)md; collar_rec m = new collar_rec(); byte[] b = new byte[INCC.MAX_ITEM_TYPE_LENGTH]; char[] a = se.material.ToCharArray(0, Math.Min(se.material.Length, INCC.MAX_ITEM_TYPE_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.collar_item_type); m.col_a = imr.collar.cev.a; m.col_b = imr.collar.cev.b; m.col_c = imr.collar.cev.c; m.col_d = imr.collar.cev.d; m.collar_equation = (byte)imr.collar.cev.cal_curve_equation; m.col_covar_ab = imr.collar.cev.covar(Coeff.a, Coeff.b); m.col_covar_ac = imr.collar.cev.covar(Coeff.a, Coeff.c); m.col_covar_ad = imr.collar.cev.covar(Coeff.a, Coeff.d); m.col_covar_bc = imr.collar.cev.covar(Coeff.b, Coeff.c); m.col_covar_bd = imr.collar.cev.covar(Coeff.b, Coeff.d); m.col_covar_cd = imr.collar.cev.covar(Coeff.c, Coeff.d); m.col_var_a = imr.collar.cev.var_a; m.col_var_b = imr.collar.cev.var_b; m.col_var_c = imr.collar.cev.var_c; m.col_var_d = imr.collar.cev.var_d; m.col_sigma_x = imr.collar.cev.sigma_x; m.col_upper_mass_limit = imr.collar.cev.upper_mass_limit; m.col_lower_mass_limit = imr.collar.cev.lower_mass_limit; m.col_number_calib_rods = imr.collar.number_calib_rods; m.col_sample_corr_fact = imr.collar.sample_corr_fact.v; m.col_sample_corr_fact_err = imr.collar.sample_corr_fact.err; m.col_u_mass_corr_fact_a = imr.collar.u_mass_corr_fact_a.v; m.col_u_mass_corr_fact_a_err = imr.collar.u_mass_corr_fact_a.err; m.col_u_mass_corr_fact_b = imr.collar.u_mass_corr_fact_b.v; m.col_u_mass_corr_fact_b_err = imr.collar.u_mass_corr_fact_b.err; m.collar_mode = (byte)(imr.collar.collar_mode ? 1 : 0); byte[] bb = new byte[INCC.MAX_POISON_ROD_TYPES * INCC.MAX_ROD_TYPE_LENGTH]; int indx = 0; for (int i = 0; i < INCC.MAX_POISON_ROD_TYPES; i++) { if (string.IsNullOrEmpty(imr.collar.poison_rod_type[i])) { char[] aa = imr.collar.poison_rod_type[i].ToCharArray(0, Math.Min(imr.collar.poison_rod_type[i].Length, INCC.MAX_ROD_TYPE_LENGTH)); Encoding.ASCII.GetBytes(aa, 0, aa.Length, bb, indx); } indx += 2; } TransferUtils.Copy(bb, 0, m.col_poison_rod_type, 0, INCC.MAX_POISON_ROD_TYPES * INCC.MAX_ROD_TYPE_LENGTH); TransferUtils.CopyDbls(imr.collar.poison_absorption_fact, m.col_poison_absorption_fact); CopyTuples(imr.collar.poison_rod_a, m.col_poison_rod_a, m.col_poison_rod_a_err, INCC.MAX_POISON_ROD_TYPES); CopyTuples(imr.collar.poison_rod_b, m.col_poison_rod_b, m.col_poison_rod_b_err, INCC.MAX_POISON_ROD_TYPES); CopyTuples(imr.collar.poison_rod_c, m.col_poison_rod_c, m.col_poison_rod_c_err, INCC.MAX_POISON_ROD_TYPES); return m; }
internal static unsafe de_mult_rec MoveDE(INCCSelector se, INCCAnalysisParams.INCCMethodDescriptor md) { INCCAnalysisParams.de_mult_rec imr = (INCCAnalysisParams.de_mult_rec)md; de_mult_rec m = new de_mult_rec(); byte[] b = new byte[INCC.MAX_DETECTOR_ID_LENGTH]; char[] a = se.detectorid.ToCharArray(0, Math.Min(se.detectorid.Length, INCC.MAX_DETECTOR_ID_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.de_detector_id); b = new byte[INCC.MAX_ITEM_TYPE_LENGTH]; a = se.material.ToCharArray(0, Math.Min(se.material.Length, INCC.MAX_ITEM_TYPE_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.de_item_type); m.de_inner_ring_efficiency = imr.inner_ring_efficiency; m.de_outer_ring_efficiency = imr.outer_ring_efficiency; TransferUtils.CopyDbls(imr.neutron_energy, m.de_neutron_energy); TransferUtils.CopyDbls(imr.detector_efficiency, m.de_detector_efficiency); TransferUtils.CopyDbls(imr.inner_outer_ring_ratio, m.de_inner_outer_ring_ratio); TransferUtils.CopyDbls(imr.relative_fission, m.de_relative_fission); return m; }
public void Persist() { if (imd.modified) { if (ams == null) // HN No analysis methods existed. { ams = new AnalysisMethods(); ams.AddMethod(am, imd); } if (ams.HasMethod(am)) // if found, update the existing parameter values { INCCAnalysisParams.INCCMethodDescriptor c = ams.GetMethodParameters(am); imd.CopyTo(c); // This a virtual so imd can be the primary type } else // add the new method params under the current method key { ams.AddMethod(am, imd); } INCCSelector sel = new INCCSelector(acq.detector_id, acq.item_type); N.App.DB.UpdateAnalysisMethod(sel, ams); // flush changes on internal map to the DB } }
internal static unsafe truncated_mult_rec MoveTM(INCCSelector se, INCCAnalysisParams.INCCMethodDescriptor md) { INCCAnalysisParams.truncated_mult_rec imr = (INCCAnalysisParams.truncated_mult_rec)md; truncated_mult_rec m = new truncated_mult_rec(); byte[] b = new byte[INCC.MAX_DETECTOR_ID_LENGTH]; char[] a = se.detectorid.ToCharArray(0, Math.Min(se.detectorid.Length, INCC.MAX_DETECTOR_ID_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.truncated_mult_detector_id); b = new byte[INCC.MAX_ITEM_TYPE_LENGTH]; a = se.material.ToCharArray(0, Math.Min(se.material.Length, INCC.MAX_ITEM_TYPE_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.truncated_mult_item_type); m.tm_a = imr.a; m.tm_b = imr.b; m.tm_known_eff = (byte)(imr.known_eff ? 1 : 0); m.tm_solve_eff = (byte)(imr.solve_eff ? 1 : 0); return m; }
private void OKBtn_Click(object sender, EventArgs e) { if (modified) { AnalysisMethod am = AnalysisMethod.CalibrationCurve; INCCAnalysisParams.INCCMethodDescriptor c = ams.GetMethodParameters(am); ((INCCAnalysisParams.cal_curve_rec)c).percent_u235 = percent; INCCSelector sel = new INCCSelector(acq.detector_id, acq.item_type); NC.App.DB.UpdateAnalysisMethod(sel, ams); // flush changes on internal map to the DB } DialogResult = System.Windows.Forms.DialogResult.OK; Close(); }
void ApplyCoefficients(INCCAnalysisParams.CurveEquationVals coeff, CalibrationCurveList cclist) { INCCSelector sel = new INCCSelector(det.Id.DetectorId, Material); AnalysisMethods lam; bool found = N.App.DB.DetectorMaterialAnalysisMethods.TryGetValue(sel, out lam); if (!found) { lam = new AnalysisMethods(sel); } if (!lam.HasMethod(AnalysisMethod)) // create it from scratch here ???? { MessageBox.Show(string.Format("{0} method not specified for detector {1} and material {2}", AnalysisMethod.FullName(), det.Id.DetectorId, Material), "Coefficient File Ingester", MessageBoxButtons.OK); return; } INCCAnalysisParams.INCCMethodDescriptor imd = lam.GetMethodParameters(AnalysisMethod); switch (AnalysisMethod) { case AnalysisMethod.CalibrationCurve: INCCAnalysisParams.cal_curve_rec c = (INCCAnalysisParams.cal_curve_rec)imd; CopyCoefficients(coeff, c.cev); c.cev.cal_curve_equation = CurveEquation; c.cev.lower_mass_limit = cclist.LowerMassLimit; c.cev.upper_mass_limit = cclist.UpperMassLimit; c.dcl_mass = cclist.MassAsArray; c.doubles = cclist.DoublesAsArray; break; case AnalysisMethod.KnownA: INCCAnalysisParams.known_alpha_rec ka = (INCCAnalysisParams.known_alpha_rec)imd; CopyCoefficients(coeff, ka.cev); ka.cev.cal_curve_equation = CurveEquation; ka.cev.lower_mass_limit = cclist.LowerMassLimit; ka.cev.upper_mass_limit = cclist.UpperMassLimit; ka.dcl_mass = cclist.MassAsArray; ka.doubles = cclist.DoublesAsArray; break; case AnalysisMethod.AddASource: INCCAnalysisParams.add_a_source_rec aas = (INCCAnalysisParams.add_a_source_rec)imd; CopyCoefficients(coeff, aas.cev); aas.cev.cal_curve_equation = CurveEquation; aas.cev.lower_mass_limit = cclist.LowerMassLimit; aas.cev.upper_mass_limit = cclist.UpperMassLimit; aas.dcl_mass = cclist.MassAsArray; aas.doubles = cclist.DoublesAsArray; break; case AnalysisMethod.Active: INCCAnalysisParams.active_rec ac = (INCCAnalysisParams.active_rec)imd; CopyCoefficients(coeff, ac.cev); ac.cev.cal_curve_equation = CurveEquation; ac.cev.lower_mass_limit = cclist.LowerMassLimit; ac.cev.upper_mass_limit = cclist.UpperMassLimit; ac.dcl_mass = cclist.MassAsArray; ac.doubles = cclist.DoublesAsArray; break; } imd.modified = true; // ok save it now N.App.DB.UpdateAnalysisMethod(sel, lam); // flush changes on internal map to the DB MessageBox.Show(string.Format("Calibration data for analysis method {0} and material type {1} successfully stored in the database", det.Id.DetectorId, Material), "Coefficient File Ingester", MessageBoxButtons.OK); }
/// <summary> /// Get specific parameter sets for the given detector, material type pair. /// Returns default values if database entry not found /// </summary> /// <param name="detname"></param> /// <param name="mat"></param> /// <param name="db"></param> public void IngestAnalysisMethodSpecificsFromDB(INCCSelector sel, AnalysisMethods ams, DB.AnalysisMethodSpecifiers db) { foreach (AnalysisMethod am in System.Enum.GetValues(typeof(AnalysisMethod))) { if (!ams.choices[(int)am]) { continue; } if (!(am > AnalysisMethod.None && am <= AnalysisMethod.TruncatedMultiplicity && (am != AnalysisMethod.INCCNone))) { if (!am.IsNone()) { NC.App.Pest.logger.TraceEvent(LogLevels.Warning, 34061, "Skipping DB ingest of {0} {1} calib params", sel, am); } continue; } string current = String.Format("{0} {1} parameters", sel, am.FullName()); int logid = 34170 + (int)am; LogLevels lvl = LogLevels.Verbose; DataRow dr; switch (am) { case AnalysisMethod.KnownA: INCCAnalysisParams.known_alpha_rec ks = new INCCAnalysisParams.known_alpha_rec(); dr = db.Get(sel.detectorid, sel.material, "known_alpha_rec"); if (dr != null) { ks.rho_zero = DB.Utils.DBDouble(dr["rho_zero"]); ks.alpha_wt = DB.Utils.DBDouble(dr["alpha_wt"]); ks.k = DB.Utils.DBDouble(dr["k"]); ks.cev.a = DB.Utils.DBDouble(dr["a"]); ks.cev.b = DB.Utils.DBDouble(dr["b"]); ks.cev.var_a = DB.Utils.DBDouble(dr["var_a"]); ks.cev.var_b = DB.Utils.DBDouble(dr["var_b"]); ks.cev.setcovar(Coeff.a, Coeff.b, DB.Utils.DBDouble(dr["covar_ab"])); ks.cev.sigma_x = DB.Utils.DBDouble(dr["sigma_x"]); ks.known_alpha_type = (INCCAnalysisParams.KnownAlphaVariant)(DB.Utils.DBInt32(dr["known_alpha_type"])); ks.ring_ratio.cal_curve_equation = (INCCAnalysisParams.CurveEquation)(DB.Utils.DBInt32(dr["ring_ratio_equation"])); ks.ring_ratio.a = DB.Utils.DBDouble(dr["ring_ratio_a"]); ks.ring_ratio.b = DB.Utils.DBDouble(dr["ring_ratio_b"]); ks.ring_ratio.c = DB.Utils.DBDouble(dr["ring_ratio_c"]); ks.ring_ratio.d = DB.Utils.DBDouble(dr["ring_ratio_d"]); ks.dcl_mass = DB.Utils.ReifyDoubles((string)dr["dcl_mass"]); ks.doubles = DB.Utils.ReifyDoubles((string)dr["doubles"]); ks.heavy_metal_reference = DB.Utils.DBDouble(dr["heavy_metal_reference"]); ks.heavy_metal_corr_factor = DB.Utils.DBDouble(dr["heavy_metal_corr_factor"]); ks.cev.upper_mass_limit = DB.Utils.DBDouble(dr["upper_mass_limit"]); ks.cev.lower_mass_limit = DB.Utils.DBDouble(dr["lower_mass_limit"]); } else { lvl = LogLevels.Info; } ams.AddMethod(am, ks); break; case AnalysisMethod.CalibrationCurve: INCCAnalysisParams.cal_curve_rec cs = new INCCAnalysisParams.cal_curve_rec(); dr = db.Get(sel.detectorid, sel.material, "cal_curve_rec"); if (dr != null) { CalCurveDBSnock(cs.cev, dr); cs.CalCurveType = (INCCAnalysisParams.CalCurveType)DB.Utils.DBInt32(dr["cal_curve_type"]); cs.dcl_mass = DB.Utils.ReifyDoubles((string)dr["dcl_mass"]); cs.doubles = DB.Utils.ReifyDoubles((string)dr["doubles"]); cs.percent_u235 = DB.Utils.DBDouble(dr["percent_u235"]); cs.heavy_metal_reference = DB.Utils.DBDouble(dr["heavy_metal_reference"]); cs.heavy_metal_corr_factor = DB.Utils.DBDouble(dr["heavy_metal_corr_factor"]); } else { lvl = LogLevels.Info; } ams.AddMethod(am, cs); break; case AnalysisMethod.KnownM: INCCAnalysisParams.known_m_rec ms = new INCCAnalysisParams.known_m_rec(); dr = db.Get(sel.detectorid, sel.material, "known_m_rec"); if (dr != null) { ms.sf_rate = DB.Utils.DBDouble(dr["sf_rate"]); ms.vs1 = DB.Utils.DBDouble(dr["vs1"]); ms.vs2 = DB.Utils.DBDouble(dr["vs2"]); ms.vi1 = DB.Utils.DBDouble(dr["vi1"]); ms.vi2 = DB.Utils.DBDouble(dr["vi2"]); ms.b = DB.Utils.DBDouble(dr["b"]); ms.c = DB.Utils.DBDouble(dr["c"]); ms.sigma_x = DB.Utils.DBDouble(dr["sigma_x"]); ms.lower_mass_limit = DB.Utils.DBDouble(dr["lower_mass_limit"]); ms.upper_mass_limit = DB.Utils.DBDouble(dr["upper_mass_limit"]); } else { lvl = LogLevels.Info; } ams.AddMethod(am, ms); break; case AnalysisMethod.Multiplicity: INCCAnalysisParams.multiplicity_rec mu = new INCCAnalysisParams.multiplicity_rec(); dr = db.Get(sel.detectorid, sel.material, "multiplicity_rec"); if (dr != null) { mu.solve_efficiency = (INCCAnalysisParams.MultChoice)DB.Utils.DBInt32(dr["solve_efficiency"]); mu.sf_rate = DB.Utils.DBDouble(dr["sf_rate"]); mu.vs1 = DB.Utils.DBDouble(dr["vs1"]); mu.vs2 = DB.Utils.DBDouble(dr["vs2"]); mu.vs3 = DB.Utils.DBDouble(dr["vs3"]); mu.vi1 = DB.Utils.DBDouble(dr["vi1"]); mu.vi2 = DB.Utils.DBDouble(dr["vi2"]); mu.vi3 = DB.Utils.DBDouble(dr["vi3"]); mu.a = DB.Utils.DBDouble(dr["a"]); mu.b = DB.Utils.DBDouble(dr["b"]); mu.c = DB.Utils.DBDouble(dr["c"]); mu.sigma_x = DB.Utils.DBDouble(dr["sigma_x"]); mu.alpha_weight = DB.Utils.DBDouble(dr["alpha_weight"]); mu.multEffCorFactor = DB.Utils.DBDouble(dr["eff_cor"]); } else { lvl = LogLevels.Info; } ams.AddMethod(am, mu); break; case AnalysisMethod.TruncatedMultiplicity: INCCAnalysisParams.truncated_mult_rec tm = new INCCAnalysisParams.truncated_mult_rec(); dr = db.Get(sel.detectorid, sel.material, "truncated_mult_rec"); if (dr != null) { tm.known_eff = DB.Utils.DBBool(dr["known_eff"]); tm.solve_eff = DB.Utils.DBBool(dr["vs1"]); tm.a = DB.Utils.DBDouble(dr["a"]); tm.b = DB.Utils.DBDouble(dr["b"]); } else { lvl = LogLevels.Info; } ams.AddMethod(am, tm); break; case AnalysisMethod.CuriumRatio: INCCAnalysisParams.curium_ratio_rec cm = new INCCAnalysisParams.curium_ratio_rec(); dr = db.Get(sel.detectorid, sel.material, "curium_ratio_rec"); if (dr != null) { cm.curium_ratio_type = (INCCAnalysisParams.CuriumRatioVariant)DB.Utils.DBInt32(dr["curium_ratio_type"]); CalCurveDBSnock(cm.cev, dr); } else { lvl = LogLevels.Info; } ams.AddMethod(am, cm); break; case AnalysisMethod.Active: INCCAnalysisParams.active_rec ar = new INCCAnalysisParams.active_rec(); dr = db.Get(sel.detectorid, sel.material, "active_rec"); if (dr != null) { CalCurveDBSnock(ar.cev, dr); ar.dcl_mass = DB.Utils.ReifyDoubles((string)dr["dcl_mass"]); ar.doubles = DB.Utils.ReifyDoubles((string)dr["doubles"]); } else { lvl = LogLevels.Warning; } ams.AddMethod(am, ar); break; case AnalysisMethod.AddASource: INCCAnalysisParams.add_a_source_rec aas = new INCCAnalysisParams.add_a_source_rec(); dr = db.Get(sel.detectorid, sel.material, "add_a_source_rec"); if (dr != null) { CalCurveDBSnock(aas.cev, dr); aas.dcl_mass = DB.Utils.ReifyDoubles((string)dr["dcl_mass"]); aas.doubles = DB.Utils.ReifyDoubles((string)dr["doubles"]); aas.cf.a = DB.Utils.DBDouble(dr["cf_a"]); aas.cf.b = DB.Utils.DBDouble(dr["cf_b"]); aas.cf.c = DB.Utils.DBDouble(dr["cf_c"]); aas.cf.d = DB.Utils.DBDouble(dr["cf_d"]); aas.dzero_avg = DB.Utils.DBDouble(dr["dzero_avg"]); aas.num_runs = DB.Utils.DBUInt16(dr["num_runs"]); aas.position_dzero = DB.Utils.ReifyDoubles((string)dr["position_dzero"]); aas.dzero_ref_date = DB.Utils.DBDateTime(dr["dzero_ref_date"]); aas.use_truncated_mult = DB.Utils.DBBool(dr["use_truncated_mult"]); aas.tm_dbls_rate_upper_limit = DB.Utils.DBDouble(dr["tm_dbls_rate_upper_limit"]); aas.tm_weighting_factor = DB.Utils.DBDouble(dr["tm_weighting_factor"]); } else { lvl = LogLevels.Info; } ams.AddMethod(am, aas); break; case AnalysisMethod.ActiveMultiplicity: INCCAnalysisParams.active_mult_rec amr = new INCCAnalysisParams.active_mult_rec(); dr = db.Get(sel.detectorid, sel.material, "active_mult_rec"); if (dr != null) { amr.vf1 = DB.Utils.DBDouble(dr["vf1"]); amr.vf2 = DB.Utils.DBDouble(dr["vf2"]); amr.vf3 = DB.Utils.DBDouble(dr["vf3"]); amr.vt1 = DB.Utils.DBDouble(dr["vt1"]); amr.vt2 = DB.Utils.DBDouble(dr["vt2"]); amr.vt3 = DB.Utils.DBDouble(dr["vt3"]); } else { lvl = LogLevels.Info; } ams.AddMethod(am, amr); break; case AnalysisMethod.ActivePassive: INCCAnalysisParams.active_passive_rec acp = new INCCAnalysisParams.active_passive_rec(); dr = db.Get(sel.detectorid, sel.material, "active_passive_rec"); if (dr != null) { CalCurveDBSnock(acp.cev, dr); } else { lvl = LogLevels.Info; } ams.AddMethod(am, acp); break; case AnalysisMethod.Collar: INCCAnalysisParams.collar_rec cr = new INCCAnalysisParams.collar_rec(); dr = db.Get(sel.detectorid, sel.material, "collar_rec"); if (dr != null) { CalCurveDBSnock(cr.cev, dr); cr.collar_mode = DB.Utils.DBBool(dr["collar_mode"]); cr.number_calib_rods = DB.Utils.DBInt32(dr["number_calib_rods"]); cr.sample_corr_fact.v = DB.Utils.DBDouble(dr["sample_corr_fact"]); cr.sample_corr_fact.err = DB.Utils.DBDouble(dr["sample_corr_fact_err"]); cr.u_mass_corr_fact_a.v = DB.Utils.DBDouble(dr["u_mass_corr_fact_a"]); cr.u_mass_corr_fact_a.err = DB.Utils.DBDouble(dr["u_mass_corr_fact_a_err"]); cr.u_mass_corr_fact_b.v = DB.Utils.DBDouble(dr["u_mass_corr_fact_b"]); cr.u_mass_corr_fact_b.err = DB.Utils.DBDouble(dr["u_mass_corr_fact_b_err"]); cr.poison_absorption_fact = DB.Utils.ReifyDoubles((string)dr["poison_absorption_fact"]); cr.poison_rod_type = DB.Utils.ReifyStrings((string)dr["poison_rod_type"]); cr.poison_rod_a = TupleArraySlurp(ref cr.poison_rod_a, "poison_rod_a", dr); cr.poison_rod_b = TupleArraySlurp(ref cr.poison_rod_b, "poison_rod_b", dr); cr.poison_rod_c = TupleArraySlurp(ref cr.poison_rod_c, "poison_rod_c", dr); } else { lvl = LogLevels.Info; } ams.AddMethod(am, cr); break; default: lvl = LogLevels.Error; logid = 34181; current = "Choosing to not construct" + current; break; } switch (lvl) { case LogLevels.Info: current = "Using default for " + current; lvl = LogLevels.Verbose; break; case LogLevels.Verbose: current = "Retrieved for " + current; break; default: break; } NC.App.Pest.logger.TraceEvent(lvl, logid, current); } // for }
public void UpdateAnalysisMethod(INCCSelector sel, AnalysisMethods ams) { DB.AnalysisMethodSpecifiers db = new DB.AnalysisMethodSpecifiers(); if (ams.modified) { UpdateAnalysisMethods(sel, ams, db); } UpdateAnalysisMethodSpecifics(sel.detectorid, sel.material,db); }
public void UpdateAnalysisMethods(INCCSelector sel, AnalysisMethods am, DB.AnalysisMethodSpecifiers db = null) { if (db == null) db = new DB.AnalysisMethodSpecifiers(); DB.ElementList saParams; saParams = am.ToDBElementList(); if (!db.Update(sel.detectorid, sel.material, saParams)) // am not there, so add it { NC.App.Pest.logger.TraceEvent(LogLevels.Verbose, 34027, "Failed to update analysis method spec for " + sel.ToString()); } else { NC.App.Pest.logger.TraceEvent(LogLevels.Verbose, 34026, "Updated/created analysis method spec for " + sel.ToString()); } am.modified = false; }
internal static unsafe collar_detector_rec MoveCD(INCCSelector se, INCCAnalysisParams.INCCMethodDescriptor md) { INCCAnalysisParams.collar_combined_rec imr = (INCCAnalysisParams.collar_combined_rec)md; collar_detector_rec m = new collar_detector_rec(); byte[] b = new byte[INCC.MAX_DETECTOR_ID_LENGTH]; char[] a = se.detectorid.ToCharArray(0, Math.Min(se.detectorid.Length, INCC.MAX_DETECTOR_ID_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.collar_detector_id); b = new byte[INCC.MAX_ITEM_TYPE_LENGTH]; a = se.material.ToCharArray(0, Math.Min(se.material.Length, INCC.MAX_ITEM_TYPE_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.collar_detector_item_type); m.collar_detector_mode = (byte)(imr.collar_det.collar_mode ? 1 : 0); b = new byte[INCC.DATE_TIME_LENGTH]; a = imr.collar_det.reference_date.ToString("yy.MM.dd").ToCharArray(); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.col_reference_date); m.col_relative_doubles_rate = imr.collar_det.relative_doubles_rate; return m; }
public static unsafe List<INCCInitialDataCalibrationFile> CalibFromDetectors(List<Detector> dets) { List<INCCInitialDataCalibrationFile> list = new List<INCCInitialDataCalibrationFile>(); foreach(Detector det in dets) { INCCInitialDataCalibrationFile idcf = new INCCInitialDataCalibrationFile(NC.App.Loggers.Logger(LMLoggers.AppSection.Control), null); idcf.Name = det.Id.DetectorId; foreach (INCCDB.Descriptor desc in NC.App.DB.Materials.GetList()) { INCCSelector se = new INCCSelector(det.Id.DetectorId, desc.Name); if (!NC.App.DB.DetectorMaterialAnalysisMethods.ContainsKey(se)) continue; // do the method choice rec first DetectorMaterialMethod dmm = new DetectorMaterialMethod(se.material, se.detectorid, INCC.METHOD_NONE); idcf.DetectorMaterialMethodParameters.Add(dmm, Calib5.MoveAMR(se)); // then do each method rec AnalysisMethods ams = NC.App.DB.DetectorMaterialAnalysisMethods[se]; IEnumerator iter = ams.GetMethodEnumerator(); while (iter.MoveNext()) { Tuple<AnalysisMethod, INCCAnalysisParams.INCCMethodDescriptor> md = (Tuple<AnalysisMethod, INCCAnalysisParams.INCCMethodDescriptor>)iter.Current; dmm = new DetectorMaterialMethod(se.material, se.detectorid, (byte)NewTypeToOldMethodId(md.Item1)); switch(md.Item1) { case AnalysisMethod.KnownA: idcf.DetectorMaterialMethodParameters.Add(dmm, Calib5.MoveKA(se, md.Item2)); break; case AnalysisMethod.CalibrationCurve: idcf.DetectorMaterialMethodParameters.Add(dmm, Calib5.MoveCC(se, md.Item2)); break; case AnalysisMethod.KnownM: idcf.DetectorMaterialMethodParameters.Add(dmm, Calib5.MoveKM(se, md.Item2)); break; case AnalysisMethod.Multiplicity: idcf.DetectorMaterialMethodParameters.Add(dmm, Calib5.MoveMult(se, md.Item2)); break; case AnalysisMethod.TruncatedMultiplicity: idcf.DetectorMaterialMethodParameters.Add(dmm, Calib5.MoveTM(se, md.Item2)); break; case AnalysisMethod.AddASource: idcf.DetectorMaterialMethodParameters.Add(dmm, Calib5.MoveAS(se, md.Item2)); break; case AnalysisMethod.CuriumRatio: idcf.DetectorMaterialMethodParameters.Add(dmm, Calib5.MoveCR(se, md.Item2)); break; case AnalysisMethod.Active: idcf.DetectorMaterialMethodParameters.Add(dmm, Calib5.MoveCA(se, md.Item2)); break; case AnalysisMethod.ActivePassive: idcf.DetectorMaterialMethodParameters.Add(dmm, Calib5.MoveAP(se, md.Item2)); break; case AnalysisMethod.ActiveMultiplicity: idcf.DetectorMaterialMethodParameters.Add(dmm, Calib5.MoveAM(se, md.Item2)); break; case AnalysisMethod.DUAL_ENERGY_MULT_SAVE_RESTORE: idcf.DetectorMaterialMethodParameters.Add(dmm, Calib5.MoveDE(se, md.Item2)); break; case AnalysisMethod.Collar: try { idcf.DetectorMaterialMethodParameters. Add(new DetectorMaterialMethod(se.material, se.detectorid, INCC.COLLAR_DETECTOR_SAVE_RESTORE), Calib5.MoveCD(se, md.Item2)); idcf.DetectorMaterialMethodParameters. Add(new DetectorMaterialMethod(se.material, se.detectorid, INCC.COLLAR_SAVE_RESTORE), Calib5.MoveCO(se, md.Item2)); idcf.DetectorMaterialMethodParameters. Add(new DetectorMaterialMethod(se.material, se.detectorid, INCC.COLLAR_K5_SAVE_RESTORE), Calib5.MoveCK(se, md.Item2)); } catch (Exception e) { NC.App.Loggers.Logger(LMLoggers.AppSection.Control).TraceEvent(LogLevels.Warning, 34102, "Collar xfer processing error {0} {1}", md.Item1.FullName(), e.Message); } break; case AnalysisMethod.COLLAR_SAVE_RESTORE: case AnalysisMethod.COLLAR_DETECTOR_SAVE_RESTORE: case AnalysisMethod.COLLAR_K5_SAVE_RESTORE: NC.App.Loggers.Logger(LMLoggers.AppSection.Control).TraceEvent(LogLevels.Verbose, 34100, "Got '{0}' ", md.Item1.FullName()); break; case AnalysisMethod.INCCNone: break; default: break; } } } list.Add(idcf); } return list; }
internal static unsafe collar_k5_rec MoveCK(INCCSelector se, INCCAnalysisParams.INCCMethodDescriptor md) { INCCAnalysisParams.collar_combined_rec imr = (INCCAnalysisParams.collar_combined_rec)md; collar_k5_rec m = new collar_k5_rec(); byte[] b = new byte[INCC.MAX_ITEM_TYPE_LENGTH]; char[] a = se.material.ToCharArray(0, Math.Min(se.material.Length, INCC.MAX_ITEM_TYPE_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.collar_k5_item_type); CopyTuples(imr.k5.k5, m.collar_k5, m.collar_k5_err, INCC.MAX_COLLAR_K5_PARAMETERS); TransferUtils.CopyBoolsToInts(imr.k5.k5_checkbox, m.collar_k5_checkbox); m.collar_k5_mode = (byte)(imr.k5.k5_mode ? 1 : 0); byte[] bb = new byte[INCC.MAX_COLLAR_K5_PARAMETERS * INCC.MAX_K5_LABEL_LENGTH]; int indx = 0; for (int i = 0; i < INCC.MAX_COLLAR_K5_PARAMETERS; i++) { char[] aa = imr.k5.k5_label[i].ToCharArray(0, Math.Min(imr.k5.k5_label[i].Length, INCC.MAX_K5_LABEL_LENGTH)); Encoding.ASCII.GetBytes(aa, 0, aa.Length, bb, indx); indx += INCC.MAX_K5_LABEL_LENGTH; } TransferUtils.Copy(bb, 0, m.collar_k5_label, 0, INCC.MAX_COLLAR_K5_PARAMETERS * INCC.MAX_K5_LABEL_LENGTH); return m; }
/// <summary> /// Get specific parameter sets for the given detector, material type pair. /// Returns default values if database entry not found /// </summary> /// <param name="detname"></param> /// <param name="mat"></param> /// <param name="db"></param> public void IngestAnalysisMethodSpecificsFromDB(INCCSelector sel, AnalysisMethods ams, DB.AnalysisMethodSpecifiers db) { foreach (AnalysisMethod am in System.Enum.GetValues(typeof(AnalysisMethod))) { if (!ams.choices[(int)am]) continue; if (!(am > AnalysisMethod.None && am <= AnalysisMethod.TruncatedMultiplicity && (am != AnalysisMethod.INCCNone))) { if (!am.IsNone()) NC.App.Pest.logger.TraceEvent(LogLevels.Warning, 34061, "Skipping DB ingest of {0} {1} calib params", sel, am); continue; } string current = String.Format("{0} {1} parameters", sel, am.FullName()); int logid = 34170 + (int)am; LogLevels lvl = LogLevels.Verbose; DataRow dr; switch (am) { case AnalysisMethod.KnownA: INCCAnalysisParams.known_alpha_rec ks = new INCCAnalysisParams.known_alpha_rec(); dr = db.Get(sel.detectorid, sel.material, "known_alpha_rec"); if (dr != null) { ks.rho_zero = DB.Utils.DBDouble(dr["rho_zero"]); ks.alpha_wt = DB.Utils.DBDouble(dr["alpha_wt"]); ks.k = DB.Utils.DBDouble(dr["k"]); ks.cev.a = DB.Utils.DBDouble(dr["a"]); ks.cev.b = DB.Utils.DBDouble(dr["b"]); ks.cev.var_a = DB.Utils.DBDouble(dr["var_a"]); ks.cev.var_b = DB.Utils.DBDouble(dr["var_b"]); ks.cev.setcovar(Coeff.a, Coeff.b, DB.Utils.DBDouble(dr["covar_ab"])); ks.cev.sigma_x = DB.Utils.DBDouble(dr["sigma_x"]); ks.known_alpha_type = (INCCAnalysisParams.KnownAlphaVariant)(DB.Utils.DBInt32(dr["known_alpha_type"])); ks.ring_ratio.cal_curve_equation = (INCCAnalysisParams.CurveEquation)(DB.Utils.DBInt32(dr["ring_ratio_equation"])); ks.ring_ratio.a = DB.Utils.DBDouble(dr["ring_ratio_a"]); ks.ring_ratio.b = DB.Utils.DBDouble(dr["ring_ratio_b"]); ks.ring_ratio.c = DB.Utils.DBDouble(dr["ring_ratio_c"]); ks.ring_ratio.d = DB.Utils.DBDouble(dr["ring_ratio_d"]); ks.dcl_mass = DB.Utils.ReifyDoubles((string)dr["dcl_mass"]); ks.doubles = DB.Utils.ReifyDoubles((string)dr["doubles"]); ks.heavy_metal_reference = DB.Utils.DBDouble(dr["heavy_metal_reference"]); ks.heavy_metal_corr_factor = DB.Utils.DBDouble(dr["heavy_metal_corr_factor"]); ks.cev.upper_mass_limit = DB.Utils.DBDouble(dr["upper_mass_limit"]); ks.cev.lower_mass_limit = DB.Utils.DBDouble(dr["lower_mass_limit"]); } else lvl = LogLevels.Info; ams.AddMethod(am, ks); break; case AnalysisMethod.CalibrationCurve: INCCAnalysisParams.cal_curve_rec cs = new INCCAnalysisParams.cal_curve_rec(); dr = db.Get(sel.detectorid, sel.material, "cal_curve_rec"); if (dr != null) { CalCurveDBSnock(cs.cev, dr); cs.CalCurveType = (INCCAnalysisParams.CalCurveType)DB.Utils.DBInt32(dr["cal_curve_type"]); cs.dcl_mass = DB.Utils.ReifyDoubles((string)dr["dcl_mass"]); cs.doubles = DB.Utils.ReifyDoubles((string)dr["doubles"]); cs.percent_u235 = DB.Utils.DBDouble(dr["percent_u235"]); cs.heavy_metal_reference = DB.Utils.DBDouble(dr["heavy_metal_reference"]); cs.heavy_metal_corr_factor = DB.Utils.DBDouble(dr["heavy_metal_corr_factor"]); } else lvl = LogLevels.Info; ams.AddMethod(am, cs); break; case AnalysisMethod.KnownM: INCCAnalysisParams.known_m_rec ms = new INCCAnalysisParams.known_m_rec(); dr = db.Get(sel.detectorid, sel.material, "known_m_rec"); if (dr != null) { ms.sf_rate = DB.Utils.DBDouble(dr["sf_rate"]); ms.vs1 = DB.Utils.DBDouble(dr["vs1"]); ms.vs2 = DB.Utils.DBDouble(dr["vs2"]); ms.vi1 = DB.Utils.DBDouble(dr["vi1"]); ms.vi2 = DB.Utils.DBDouble(dr["vi2"]); ms.b = DB.Utils.DBDouble(dr["b"]); ms.c = DB.Utils.DBDouble(dr["c"]); ms.sigma_x = DB.Utils.DBDouble(dr["sigma_x"]); ms.lower_mass_limit = DB.Utils.DBDouble(dr["lower_mass_limit"]); ms.upper_mass_limit = DB.Utils.DBDouble(dr["upper_mass_limit"]); } else lvl = LogLevels.Info; ams.AddMethod(am, ms); break; case AnalysisMethod.Multiplicity: INCCAnalysisParams.multiplicity_rec mu = new INCCAnalysisParams.multiplicity_rec(); dr = db.Get(sel.detectorid, sel.material, "multiplicity_rec"); if (dr != null) { mu.solve_efficiency = (INCCAnalysisParams.MultChoice)DB.Utils.DBInt32(dr["solve_efficiency"]); mu.sf_rate = DB.Utils.DBDouble(dr["sf_rate"]); mu.vs1 = DB.Utils.DBDouble(dr["vs1"]); mu.vs2 = DB.Utils.DBDouble(dr["vs2"]); mu.vs3 = DB.Utils.DBDouble(dr["vs3"]); mu.vi1 = DB.Utils.DBDouble(dr["vi1"]); mu.vi2 = DB.Utils.DBDouble(dr["vi2"]); mu.vi3 = DB.Utils.DBDouble(dr["vi3"]); mu.a = DB.Utils.DBDouble(dr["a"]); mu.b = DB.Utils.DBDouble(dr["b"]); mu.c = DB.Utils.DBDouble(dr["c"]); mu.sigma_x = DB.Utils.DBDouble(dr["sigma_x"]); mu.alpha_weight = DB.Utils.DBDouble(dr["alpha_weight"]); mu.multEffCorFactor = DB.Utils.DBDouble(dr["eff_cor"]); } else lvl = LogLevels.Info; ams.AddMethod(am, mu); break; case AnalysisMethod.TruncatedMultiplicity: INCCAnalysisParams.truncated_mult_rec tm = new INCCAnalysisParams.truncated_mult_rec(); dr = db.Get(sel.detectorid, sel.material, "truncated_mult_rec"); if (dr != null) { tm.known_eff = DB.Utils.DBBool(dr["known_eff"]); tm.solve_eff = DB.Utils.DBBool(dr["vs1"]); tm.a = DB.Utils.DBDouble(dr["a"]); tm.b = DB.Utils.DBDouble(dr["b"]); } else lvl = LogLevels.Info; ams.AddMethod(am, tm); break; case AnalysisMethod.CuriumRatio: INCCAnalysisParams.curium_ratio_rec cm = new INCCAnalysisParams.curium_ratio_rec(); dr = db.Get(sel.detectorid, sel.material, "curium_ratio_rec"); if (dr != null) { cm.curium_ratio_type = (INCCAnalysisParams.CuriumRatioVariant)DB.Utils.DBInt32(dr["curium_ratio_type"]); CalCurveDBSnock(cm.cev, dr); } else lvl = LogLevels.Info; ams.AddMethod(am, cm); break; case AnalysisMethod.Active: INCCAnalysisParams.active_rec ar = new INCCAnalysisParams.active_rec(); dr = db.Get(sel.detectorid, sel.material, "active_rec"); if (dr != null) { CalCurveDBSnock(ar.cev, dr); ar.dcl_mass = DB.Utils.ReifyDoubles((string)dr["dcl_mass"]); ar.doubles = DB.Utils.ReifyDoubles((string)dr["doubles"]); } else lvl = LogLevels.Info; ams.AddMethod(am, ar); break; case AnalysisMethod.AddASource: INCCAnalysisParams.add_a_source_rec aas = new INCCAnalysisParams.add_a_source_rec(); dr = db.Get(sel.detectorid, sel.material, "add_a_source_rec"); if (dr != null) { CalCurveDBSnock(aas.cev, dr); aas.dcl_mass = DB.Utils.ReifyDoubles((string)dr["dcl_mass"]); aas.doubles = DB.Utils.ReifyDoubles((string)dr["doubles"]); aas.cf.a = DB.Utils.DBDouble(dr["cf_a"]); aas.cf.b = DB.Utils.DBDouble(dr["cf_b"]); aas.cf.c = DB.Utils.DBDouble(dr["cf_c"]); aas.cf.d = DB.Utils.DBDouble(dr["cf_d"]); aas.dzero_avg = DB.Utils.DBDouble(dr["dzero_avg"]); aas.num_runs = DB.Utils.DBUInt16(dr["num_runs"]); aas.position_dzero = DB.Utils.ReifyDoubles((string)dr["position_dzero"]); aas.dzero_ref_date = DB.Utils.DBDateTime(dr["dzero_ref_date"]); aas.use_truncated_mult = DB.Utils.DBBool(dr["use_truncated_mult"]); aas.tm_dbls_rate_upper_limit = DB.Utils.DBDouble(dr["tm_dbls_rate_upper_limit"]); aas.tm_weighting_factor = DB.Utils.DBDouble(dr["tm_weighting_factor"]); } else lvl = LogLevels.Info; ams.AddMethod(am, aas); break; case AnalysisMethod.ActiveMultiplicity: INCCAnalysisParams.active_mult_rec amr = new INCCAnalysisParams.active_mult_rec(); dr = db.Get(sel.detectorid, sel.material, "active_mult_rec"); if (dr != null) { amr.vf1 = DB.Utils.DBDouble(dr["vf1"]); amr.vf2 = DB.Utils.DBDouble(dr["vf2"]); amr.vf3 = DB.Utils.DBDouble(dr["vf3"]); amr.vt1 = DB.Utils.DBDouble(dr["vt1"]); amr.vt2 = DB.Utils.DBDouble(dr["vt2"]); amr.vt3 = DB.Utils.DBDouble(dr["vt3"]); } else lvl = LogLevels.Info; ams.AddMethod(am, amr); break; case AnalysisMethod.ActivePassive: INCCAnalysisParams.active_passive_rec acp = new INCCAnalysisParams.active_passive_rec(); dr = db.Get(sel.detectorid, sel.material, "active_passive_rec"); if (dr != null) { CalCurveDBSnock(acp.cev, dr); } else lvl = LogLevels.Info; ams.AddMethod(am, acp); break; case AnalysisMethod.Collar: INCCAnalysisParams.collar_combined_rec cr = new INCCAnalysisParams.collar_combined_rec(); dr = db.Get(sel.detectorid, sel.material, "collar_detector_rec"); if (dr != null) { cr.collar_det.collar_mode = DB.Utils.DBBool(dr["collar_detector_mode"]); cr.collar_det.reference_date = DB.Utils.DBDateTime(dr["reference_date"]); cr.collar_det.relative_doubles_rate = DB.Utils.DBDouble(dr["relative_doubles_rate"]); } else lvl = LogLevels.Info; dr = db.Get(sel.detectorid, sel.material, "collar_rec"); if (dr != null) { CalCurveDBSnock(cr.collar.cev, dr); cr.collar.collar_mode = DB.Utils.DBBool(dr["collar_mode"]); cr.collar.number_calib_rods = DB.Utils.DBInt32(dr["number_calib_rods"]); cr.collar.sample_corr_fact.v = DB.Utils.DBDouble(dr["sample_corr_fact"]); cr.collar.sample_corr_fact.err = DB.Utils.DBDouble(dr["sample_corr_fact_err"]); cr.collar.u_mass_corr_fact_a.v = DB.Utils.DBDouble(dr["u_mass_corr_fact_a"]); cr.collar.u_mass_corr_fact_a.err = DB.Utils.DBDouble(dr["u_mass_corr_fact_a_err"]); cr.collar.u_mass_corr_fact_b.v = DB.Utils.DBDouble(dr["u_mass_corr_fact_b"]); cr.collar.u_mass_corr_fact_b.err = DB.Utils.DBDouble(dr["u_mass_corr_fact_b_err"]); cr.collar.poison_absorption_fact = DB.Utils.ReifyDoubles(dr["poison_absorption_fact"].ToString()); cr.collar.poison_rod_type = DB.Utils.ReifyStrings(dr["poison_rod_type"].ToString()); TupleArraySlurp(ref cr.collar.poison_rod_a, "poison_rod_a", dr); TupleArraySlurp(ref cr.collar.poison_rod_b, "poison_rod_b", dr); TupleArraySlurp(ref cr.collar.poison_rod_c, "poison_rod_c", dr); } else lvl = LogLevels.Info; dr = db.Get(sel.detectorid, sel.material, "collar_k5_rec"); if (dr != null) { cr.k5.k5_mode = DB.Utils.DBBool(dr["k5_mode"]); cr.k5.k5_checkbox = DB.Utils.ReifyBools(dr["k5_checkbox"].ToString()); cr.k5.k5_item_type = string.Copy(sel.material); cr.k5.k5_label = DB.Utils.ReifyStrings(dr["k5_label"].ToString()); TupleArraySlurp(ref cr.k5.k5, "k5", dr); } else lvl = LogLevels.Info; ams.AddMethod(am, cr); break; default: lvl = LogLevels.Error; logid = 34181; current = "Choosing to not construct" + current; break; } switch (lvl) { case LogLevels.Info: current = "Using default for " + current; lvl = LogLevels.Verbose; break; case LogLevels.Verbose: current = "Retrieved for " + current; break; default: break; } NC.App.Pest.logger.TraceEvent(lvl, logid, current); } // for }
internal static unsafe curium_ratio_rec MoveCR(INCCSelector se, INCCAnalysisParams.INCCMethodDescriptor md) { INCCAnalysisParams.curium_ratio_rec imr = (INCCAnalysisParams.curium_ratio_rec)md; curium_ratio_rec m = new curium_ratio_rec(); byte[] b = new byte[INCC.MAX_DETECTOR_ID_LENGTH]; char[] a = se.detectorid.ToCharArray(0, Math.Min(se.detectorid.Length, INCC.MAX_DETECTOR_ID_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.curium_ratio_detector_id); b = new byte[INCC.MAX_ITEM_TYPE_LENGTH]; a = se.material.ToCharArray(0, Math.Min(se.material.Length, INCC.MAX_ITEM_TYPE_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.curium_ratio_item_type); m.cr_a = imr.cev.a; m.cr_b = imr.cev.b; m.cr_c = imr.cev.c; m.cr_d = imr.cev.d; m.curium_ratio_equation = (byte)imr.cev.cal_curve_equation; m.curium_ratio_type = NewToOldCRVariants(imr.curium_ratio_type); m.cr_covar_ab = imr.cev.covar(Coeff.a, Coeff.b); m.cr_covar_ac = imr.cev.covar(Coeff.a, Coeff.c); m.cr_covar_ad = imr.cev.covar(Coeff.a, Coeff.d); m.cr_covar_bc = imr.cev.covar(Coeff.b, Coeff.c); m.cr_covar_bd = imr.cev.covar(Coeff.b, Coeff.d); m.cr_covar_cd = imr.cev.covar(Coeff.c, Coeff.d); m.cr_var_a = imr.cev.var_a; m.cr_var_b = imr.cev.var_b; m.cr_var_c = imr.cev.var_c; m.cr_var_d = imr.cev.var_d; m.cr_sigma_x = imr.cev.sigma_x; m.cr_upper_mass_limit = imr.cev.upper_mass_limit; m.cr_lower_mass_limit = imr.cev.lower_mass_limit; return m; }
/// <summary> /// Finalize measurement instance content for analysis /// Populate calibration parameters maps /// </summary> /// <param name="meas">The partially initialized measurement instance</param> /// <param name="useCurCalibParams">Default behavior is to use active method and other calibration parameters; /// skipped if Reanalysis prepared the details from database measurement results /// </param> public static void FillInReanalysisRemainingDetails(Measurement meas, bool useCurCalibParams = true) { // get the current INCC5 analysis methods if (useCurCalibParams || meas.INCCAnalysisState == null) { meas.INCCAnalysisState = new INCCAnalysisState(); INCCSelector sel = new INCCSelector(meas.AcquireState.detector_id, meas.AcquireState.item_type); AnalysisMethods am; bool found = CentralizedState.App.DB.DetectorMaterialAnalysisMethods.TryGetValue(sel, out am); if (found) { am.selector = sel; // gotta do this so that the equality operator is not incorrect meas.INCCAnalysisState.Methods = am; } else meas.INCCAnalysisState.Methods = new AnalysisMethods(sel); } // else use what was there meas.InitializeContext(clearCounterResults:false); meas.PrepareINCCResults(); System.Collections.IEnumerator iter = meas.CountingAnalysisResults.GetATypedParameterEnumerator(typeof(Multiplicity)); while (iter.MoveNext()) { Multiplicity mkey = (Multiplicity)iter.Current; try { MultiplicityCountingRes mcr = (MultiplicityCountingRes)meas.CountingAnalysisResults[mkey]; if (mcr.AB.Unset) LMRawAnalysis.SDTMultiplicityCalculator.SetAlphaBeta(mkey, mcr); // works only if MaxBins is set MeasOptionSelector mos = new MeasOptionSelector(meas.MeasOption, mkey); INCCResult result = meas.INCCAnalysisState.Lookup(mos); result.CopyFrom(mcr); } catch (Exception) { //logger.TraceEvent(LogLevels.Error, 4027, "PrepareINCCResults error: " + ex.Message); } } // stratum look up, finds existing stratum by name if (useCurCalibParams || meas.Stratum == null) { List<INCCDB.StratumDescriptor> sl = CentralizedState.App.DB.StrataList(); INCCDB.StratumDescriptor s = sl.Find(w => string.Compare(w.Desc.Name, meas.AcquireState.stratum_id.Name, true) == 0); if (s == null) meas.Stratum = new Stratum(); else meas.Stratum = new Stratum(s.Stratum); } INCCResults.results_rec xres = new INCCResults.results_rec(meas); meas.INCCAnalysisResults.TradResultsRec = xres; CentralizedState.App.Opstate.Measurement = meas; // put the measurement definition on the global state }
internal static unsafe known_alpha_rec MoveKA(INCCSelector se, INCCAnalysisParams.INCCMethodDescriptor md) { INCCAnalysisParams.known_alpha_rec imr = (INCCAnalysisParams.known_alpha_rec)md; known_alpha_rec m = new known_alpha_rec(); byte[] b = new byte[INCC.MAX_DETECTOR_ID_LENGTH]; char[] a = se.detectorid.ToCharArray(0, Math.Min(se.detectorid.Length, INCC.MAX_DETECTOR_ID_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.known_alpha_detector_id); b = new byte[INCC.MAX_ITEM_TYPE_LENGTH]; a = se.material.ToCharArray(0, Math.Min(se.material.Length, INCC.MAX_ITEM_TYPE_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.known_alpha_item_type); m.ka_a = imr.cev.a; m.ka_b = imr.cev.b; m.ka_var_a = imr.cev.var_a; m.ka_var_b = imr.cev.var_b; m.ka_covar_ab = imr.cev.covar(Coeff.a, Coeff.b); m.ka_sigma_x = imr.cev.sigma_x; m.ka_ring_ratio_a = imr.ring_ratio.a; m.ka_ring_ratio_b = imr.ring_ratio.b; m.ka_ring_ratio_c = imr.ring_ratio.c; m.ka_ring_ratio_d = imr.ring_ratio.d; m.ka_alpha_wt = imr.alpha_wt; m.ka_rho_zero = imr.rho_zero; m.ka_ring_ratio_equation = (double)imr.ring_ratio.cal_curve_equation; m.ka_upper_mass_limit = imr.cev.upper_mass_limit; m.ka_lower_mass_limit = imr.cev.lower_mass_limit; m.ka_heavy_metal_corr_factor = imr.heavy_metal_corr_factor; m.ka_heavy_metal_reference = imr.heavy_metal_reference; m.ka_k = imr.k; m.ka_known_alpha_type = (double)imr.known_alpha_type; TransferUtils.CopyDbls(imr.dcl_mass, m.ka_dcl_mass); TransferUtils.CopyDbls(imr.doubles, m.ka_doubles); return m; }
/// <summary> /// Construct a full measurement state and set it on the internal lameness /// </summary> /// <param name="acq">Acquire Parameters</param> /// <param name="det">Detector</param> /// <param name="mo">MeasurementOption</param> public static void BuildMeasurement(AcquireParameters acq, Detector det, AssaySelector.MeasurementOption mo) { // gather it all together MeasurementTuple mt = new MeasurementTuple(new DetectorList(det), CentralizedState.App.DB.TestParameters.Get(), GetCurrentNormParams(det), GetCurrentBackgroundParams(det), GetAcquireIsotopics(acq), acq, GetCurrentHVCalibrationParams(det)); det.Id.source = acq.data_src; // set the detector overall data source value here // create the context holder for the measurement. Everything is rooted here ... Measurement meas = new Measurement(mt, mo, CentralizedState.App.Logger(LMLoggers.AppSection.Data)); if (det.ListMode) { // dev note: design flaw exposed by this mess here, when LM has > 1 SVR, there is no way to associate > 1 SVRs with a single detector/SR/Mult/Conn pairing // It should be the other way around, the Mult params for each LMMultiplicity analyzer override the single entry on the sr_parms_rec when each analyis is performed. meas.AnalysisParams = CentralizedState.App.LMBD.CountingParameters(det, applySRFromDetector: true); if (mo == AssaySelector.MeasurementOption.unspecified) // pure List Mode, not INCC5 { // for a list-mode-only measurement with a multiplicity analyzer the detector SR params must match at least one of the multiplicity analyzer SR params ApplyVSRChangesToDefaultDetector(meas); } else // it is an INCC5 analysis driven with LM data { // check to see if detector settings are copied into an active CA entry if (!meas.AnalysisParams.Exists(w => { return((w is Multiplicity) && (w as Multiplicity).Equals(det.MultiplicityParams) && w.Active); })) { meas.AnalysisParams.Add(det.MultiplicityParams); } } } else { // prepare analyzer params from detector SR params meas.AnalysisParams = CentralizedState.App.LMBD.CountingParameters(det, applySRFromDetector: false); if (!meas.AnalysisParams.Exists(w => { return((w is Multiplicity) && (w as Multiplicity).Equals(det.MultiplicityParams)); })) { meas.AnalysisParams.Add(det.MultiplicityParams); } } // get the INCC5 analysis methods meas.INCCAnalysisState = new INCCAnalysisState(); INCCSelector sel = new INCCSelector(acq.detector_id, acq.item_type); AnalysisMethods am; bool found = CentralizedState.App.DB.DetectorMaterialAnalysisMethods.TryGetValue(sel, out am); if (found) { am.selector = sel; // gotta do this so that the equality operator is not incorrect meas.INCCAnalysisState.Methods = am; } else { meas.INCCAnalysisState.Methods = new AnalysisMethods(sel); } meas.InitializeContext(); meas.PrepareINCCResults(); // next: stratum not set List <INCCDB.StratumDescriptor> sl = CentralizedState.App.DB.StrataList(); INCCDB.StratumDescriptor s = sl.Find(w => w.Desc.CompareTo(acq.stratum_id) == 0); if (s == null) { meas.Stratum = new Stratum(); } else { meas.Stratum = new Stratum(s.Stratum); } INCCResults.results_rec xres = new INCCResults.results_rec(meas); meas.INCCAnalysisResults.TradResultsRec = xres; CentralizedState.App.Opstate.Measurement = meas; // put the measurement definition on the global state // ready for insertion of methods and processing start }
internal static unsafe multiplicity_rec MoveMult(INCCSelector se, INCCAnalysisParams.INCCMethodDescriptor md) { INCCAnalysisParams.multiplicity_rec imr = (INCCAnalysisParams.multiplicity_rec)md; multiplicity_rec mr = new multiplicity_rec(); byte[] b = new byte[INCC.MAX_DETECTOR_ID_LENGTH]; char[] a = se.detectorid.ToCharArray(0, Math.Min(se.detectorid.Length, INCC.MAX_DETECTOR_ID_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, mr.multiplicity_detector_id); b = new byte[INCC.MAX_ITEM_TYPE_LENGTH]; a = se.material.ToCharArray(0, Math.Min(se.material.Length, INCC.MAX_ITEM_TYPE_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, mr.multiplicity_item_type); mr.mul_a = imr.a; mr.mul_b = imr.b; mr.mul_c = imr.c; mr.mul_vi1 = imr.vi1; mr.mul_vi2 = imr.vi2; mr.mul_vi3 = imr.vi3; mr.mul_vs1 = imr.vs1; mr.mul_vs2 = imr.vs2; mr.mul_vs3 = imr.vs3; mr.mul_alpha_weight = imr.alpha_weight; mr.mul_sf_rate = imr.sf_rate; mr.mul_sigma_x = imr.sigma_x; mr.mul_solve_efficiency = (byte)imr.solve_efficiency; return mr; }
/// <summary> /// Do the third phase . . . /// From calc_res.cpp, /// </summary> public static void CalculateResults(this Measurement meas) { IEnumerator iter = meas.CountingAnalysisResults.GetMultiplicityEnumerator(); while (iter.MoveNext()) { Multiplicity mkey = (Multiplicity)((KeyValuePair<SpecificCountingAnalyzerParams, object>)(iter.Current)).Key; if (NC.App.Opstate.IsAbortRequested) return; INCCResult results; MeasOptionSelector ar = new MeasOptionSelector(meas.MeasOption, mkey); bool found = meas.INCCAnalysisResults.TryGetValue(ar, out results); if (!found) { meas.AddErrorMessage("No results available", 10151, mkey); return; } /* if using measure to precision, and max # runs reached, then add warning message indicating actual precision reached. */ if (meas.AcquireState.acquire_type == AcquireConvergence.DoublesPrecision) { if (results.rates.DTCRates.DoublesRate != 0.0) { double error = results.rates.DTCRates.Doubles.err / results.rates.DTCRates.DoublesRate * 100.0; if (error > meas.AcquireState.meas_precision) { meas.AddWarningMessage("Measurement doubles error = " + error.ToString("F2"), 10126, mkey); } } } else if (meas.AcquireState.acquire_type == AcquireConvergence.TriplesPrecision) { if (results.rates.DTCRates.TriplesRate != 0.0) { double error = results.rates.DTCRates.Triples.err / results.rates.DTCRates.TriplesRate * 100.0; if (error > meas.AcquireState.meas_precision) { meas.AddWarningMessage("Measurement triples error = " + error.ToString("F2"), 10127, mkey); } } } if (meas.MeasOption == AssaySelector.MeasurementOption.rates) // Doug Requirement #2 { // for a rates only measurement, all done! meas.Logger.TraceEvent(NCCReporter.LogLevels.Info, 10180, "Rates Only measurement complete"); continue; } try { switch (meas.MeasOption) { case AssaySelector.MeasurementOption.background: // Doug Requirement #3 // a bkg is an average over a bunch of cycles with only the deadtime correction applied, // but note the variant for Truncated Mult background, where an additional calculation is made if (results.rates.DTCRates.DoublesRate > meas.Tests.bkgDoublesRateLimit) meas.AddWarningMessage("Background doubles rate " + results.rates.DTCRates.DoublesRate + " greater than " + meas.Tests.bkgDoublesRateLimit, 10141, mkey); if (results.rates.DTCRates.TriplesRate > meas.Tests.bkgTriplesRateLimit) meas.AddWarningMessage("Background triples rate " + results.rates.DTCRates.TriplesRate + " greater than " + meas.Tests.bkgTriplesRateLimit, 10142, mkey); // dev note: this is a background measurement per se, so we copy the results to the Background class and store the entire thing that way // NEXT: Need to account for Active bkg beginning here. if (Integ.GetCurrentAcquireParams().well_config == WellConfiguration.Active)// Is an active acquisition. { meas.Background.INCCActive.CopyFrom(results.rates.DeadtimeCorrectedRates); } else meas.Background.CopyFrom(results.rates); // maybe if (INCCAnalysisState.Methods.Has(AnalysisMethod.TruncatedMultiplicity)) if (meas.Background.TMBkgParams.ComputeTMBkg) // Trunc Mult Bkg step, calc_tm_rates, sets TM bkg rates on Measurement.Background INCCAnalysis.calc_tm_rates(mkey, results, meas, meas.Background.TMBkgParams, meas.Detector.Id.SRType); meas.Logger.TraceEvent(NCCReporter.LogLevels.Info, 10181, "Background measurement complete"); break; case AssaySelector.MeasurementOption.initial: INCCResults.results_init_src_rec results_init_src = (INCCResults.results_init_src_rec)results; meas.Logger.TraceEvent(NCCReporter.LogLevels.Info, 10182, "Calculating Initial source measurement results"); bool funhappy = INCCAnalysis.initial_source_meas(meas, mkey, RatesAdjustments.DeadtimeCorrected); if (!funhappy || !results_init_src.pass) { meas.AddWarningMessage("Initial source measurement failed", 10123, mkey); } // on fail, only the relevant results_init_src_rec is saved // on pass, the normalization parameters are modified with the results_init_src_rec results, and so both are udpated. break; case AssaySelector.MeasurementOption.normalization: meas.Logger.TraceEvent(NCCReporter.LogLevels.Info, 10183, "Calculating Normalization measurement results"); bool happyfun = INCCAnalysis.bias_test(meas, mkey, RatesAdjustments.DeadtimeCorrected); if (!happyfun) { meas.AddWarningMessage("Normalization test -- data quality is inadequate", 10124, mkey); } break; case AssaySelector.MeasurementOption.precision: meas.Logger.TraceEvent(NCCReporter.LogLevels.Info, 10184, "Calculating Precision measurement results"); bool charmyfun = INCCAnalysis.precision_test(meas, mkey, RatesAdjustments.DeadtimeCorrected); if (!charmyfun) { meas.AddWarningMessage("Precision test failed", 10125, mkey); } break; case AssaySelector.MeasurementOption.calibration: // from calc_res.cpp if (meas.INCCAnalysisState.Methods.CalibrationAnalysisSelected()) { meas.Logger.TraceEvent(NCCReporter.LogLevels.Info, 10185, "Calculating Calibration measurement results"); // dev note: since the analysis routines have similar signatures, design a class OK? if (meas.INCCAnalysisState.Methods.Has(AnalysisMethod.CalibrationCurve)) { meas.Logger.TraceEvent(NCCReporter.LogLevels.Info, 10191, "Calculating " + AnalysisMethod.CalibrationCurve.FullName() + " measurement results"); // get the current results_cal_curve_rec INCCMethodResults.results_cal_curve_rec ccres = (INCCMethodResults.results_cal_curve_rec) meas.INCCAnalysisResults.LookupMethodResults(mkey, meas.INCCAnalysisState.Methods.selector, AnalysisMethod.CalibrationCurve, true); INCCAnalysisParams.cal_curve_rec cal_curve = (INCCAnalysisParams.cal_curve_rec)meas.INCCAnalysisState.Methods.GetMethodParameters(AnalysisMethod.CalibrationCurve); ccres.methodParams = new INCCAnalysisParams.cal_curve_rec(cal_curve); double pu_mass = ccres.pu_mass.v; meas.Isotopics.UpdateDeclaredPuMass(meas.MeasDate, ref pu_mass, INCCAnalysis.INCCParity); ccres.pu_mass.v = pu_mass; ccres.pu_mass.err = 0.0; ccres.pu240e_mass.err = 0.0; double pu240e_mass = ccres.pu240e_mass.v; meas.Isotopics.calc_pu240e(pu_mass, out pu240e_mass, meas); ccres.pu240e_mass.v = pu240e_mass; } if (meas.INCCAnalysisState.Methods.Has(AnalysisMethod.KnownA)) { meas.Logger.TraceEvent(NCCReporter.LogLevels.Info, 10192, "Calculating " + AnalysisMethod.KnownA.FullName() + " calibration results"); INCCMethodResults.results_known_alpha_rec kares = INCCAnalysis.CalculateKnownAlpha(mkey, results.rates, meas, RatesAdjustments.DeadtimeCorrected); if (kares == null) { meas.AddErrorMessage("Known alpha analysis error", 10153, mkey); } else { kares.pu_mass.v = meas.AcquireState.mass; double pu_mass = kares.pu_mass.v; meas.Isotopics.UpdateDeclaredPuMass(meas.MeasDate, ref pu_mass, INCCAnalysis.INCCParity); kares.pu_mass.v = pu_mass; kares.pu_mass.err = 0.0; kares.pu240e_mass.err = 0.0; double pu240e_mass = kares.pu240e_mass.v; meas.Isotopics.calc_pu240e(pu_mass, out pu240e_mass, meas); kares.pu240e_mass.v = pu240e_mass; } } if (meas.INCCAnalysisState.Methods.Has(AnalysisMethod.Active)) { meas.Logger.TraceEvent(NCCReporter.LogLevels.Info, 10192, "Arranging " + AnalysisMethod.Active.FullName() + " calibration results"); INCCSelector sel = new INCCSelector(meas.INCCAnalysisState.Methods.selector); INCCAnalysisParams.active_rec act; INCCAnalysisParams.INCCMethodDescriptor surr = meas.INCCAnalysisState.Methods.GetMethodParameters(AnalysisMethod.Active); if (surr == null) { act = new INCCAnalysisParams.active_rec(); meas.INCCAnalysisState.Methods.AddMethod(AnalysisMethod.Active, act); } else { act = (INCCAnalysisParams.active_rec)surr; } INCCMethodResults.results_active_rec res; res = (INCCMethodResults.results_active_rec)meas.INCCAnalysisResults.LookupMethodResults(mkey, sel, AnalysisMethod.Active, true); // all this does is copy the declared mass over to the results, WTF res.u235_mass.v = meas.AcquireState.mass; } if (meas.INCCAnalysisState.Methods.Has(AnalysisMethod.AddASource)) { meas.Logger.TraceEvent(NCCReporter.LogLevels.Info, 10152, "Calculating " + AnalysisMethod.AddASource.FullName() + " calibration results"); INCCSelector sel = new INCCSelector(meas.INCCAnalysisState.Methods.selector); INCCAnalysisParams.add_a_source_rec aas; INCCMethodResults.results_add_a_source_rec acres; INCCAnalysisParams.INCCMethodDescriptor surr = meas.INCCAnalysisState.Methods.GetMethodParameters(AnalysisMethod.AddASource); if (surr == null) { aas = new INCCAnalysisParams.add_a_source_rec(); meas.INCCAnalysisState.Methods.AddMethod(AnalysisMethod.AddASource, aas); } else { aas = (INCCAnalysisParams.add_a_source_rec)surr; } acres = (INCCMethodResults.results_add_a_source_rec)meas.INCCAnalysisResults.LookupMethodResults(mkey, sel, AnalysisMethod.AddASource, true); acres.pu_mass.v = meas.AcquireState.mass; // update_declared_pu_mass double pu_mass = acres.pu_mass.v; meas.Isotopics.UpdateDeclaredPuMass(meas.MeasDate, ref pu_mass, INCCAnalysis.INCCParity); acres.pu_mass.v = pu_mass; acres.pu_mass.err = 0.0; acres.pu240e_mass.err = 0.0; double pu240e_mass = acres.pu240e_mass.v; meas.Isotopics.calc_pu240e(pu_mass, out pu240e_mass, meas); acres.pu240e_mass.v = pu240e_mass; } } else { meas.AddErrorMessage("No Calibration analysis methods selected", 10153, mkey); } break; case AssaySelector.MeasurementOption.verification: // see INCC calc_asy.cpp // dev note: check for item in the item table, make sure to place this item id on the MeasurementId.item property if (!string.IsNullOrEmpty(meas.AcquireState.item_id)) { meas.Logger.TraceEvent(NCCReporter.LogLevels.Info, 10194, "Using item id '{0}'", meas.AcquireState.item_id); } else meas.Logger.TraceEvent(NCCReporter.LogLevels.Verbose, 10194, "No item id"); if (meas.INCCAnalysisState.Methods.VerificationAnalysisSelected()) { meas.Logger.TraceEvent(NCCReporter.LogLevels.Info, 10186, "Calculating {0} measurement results", meas.MeasOption.PrintName()); meas.CalculateVerificationResults(mkey, results); } else { meas.AddErrorMessage("No analysis methods selected", 10156, mkey); } break; case AssaySelector.MeasurementOption.holdup: // NEXT: Hold-up held up, implement it #35 meas.Logger.TraceEvent(NCCReporter.LogLevels.Error, 10187, "Holdup analysis unsupported"); break; } } catch (Exception e) { meas.Logger.TraceException(e); } } }
public unsafe void BuildCalibration(INCCInitialDataCalibrationFile idcf, int num) { mlogger.TraceEvent(LogLevels.Verbose, 34200, "Building calibration content from {0} {1}", num, idcf.Path); bool overwrite = NC.App.AppContext.OverwriteImportedDefs; IEnumerator iter = idcf.DetectorMaterialMethodParameters.GetDetectorMaterialEnumerator(); while (iter.MoveNext()) { DetectorMaterialMethod mkey = ((KeyValuePair<DetectorMaterialMethod, object>)iter.Current).Key; mlogger.TraceEvent(LogLevels.Verbose, 34210, "Constructing calibration for {0} {1}", mkey.detector_id, mkey.item_type); INCCDB.Descriptor desc = new INCCDB.Descriptor(mkey.item_type, ""); if (!NC.App.DB.Materials.Has(desc) || overwrite) { NC.App.DB.Materials.Update(desc); } Detector det; // look in real detector list for entry with this basic id, if not found, punt or later try creating a new empty detector, it will be filled in later as processing proceeds det = NC.App.DB.Detectors.GetItByDetectorId(mkey.detector_id); if (det == null) { // old code punted if detector not found mlogger.TraceEvent(LogLevels.Warning, 34207, "Skipping detector {0}, pre-existing def not found", mkey.detector_id); // dev note: need flags to control this ehavior in a few more places continue; } IEnumerator miter2 = idcf.DetectorMaterialMethodParameters.GetMethodEnumerator(mkey.detector_id, mkey.item_type); if (miter2 == null) continue; INCCSelector sel = new INCCSelector(mkey.detector_id, mkey.item_type); AnalysisMethods am; bool found = NC.App.DB.DetectorMaterialAnalysisMethods.TryGetValue(sel, out am); if (!found || am == null) { am = new AnalysisMethods(mlogger); am.modified = true; NC.App.DB.DetectorMaterialAnalysisMethods.Add(sel, am); } while (miter2.MoveNext()) { // use ref here, not copy so updates update the ref? nope, it;s a map, need to remove and replace int cam = OldTypeToOldMethodId(miter2.Current); mlogger.TraceEvent(LogLevels.Verbose, 34211, "Converting {0} {1} method {2}", mkey.detector_id, mkey.item_type, OldToNewMethodId(cam).FullName()); // save the analysis method obtained here under the existing/new detector+material type pair switch (cam) { case INCC.METHOD_NONE: analysis_method_rec iamr = (analysis_method_rec)miter2.Current; // create entries in the am map if needed, copy other settings onto am proper am.Backup = OldToNewMethodId(iamr.backup_method); am.Normal = OldToNewMethodId(iamr.normal_method); am.choices[(int)AnalysisMethod.CalibrationCurve] = (iamr.cal_curve == 0 ? false : true); am.choices[(int)AnalysisMethod.Active] = (iamr.active == 0 ? false : true); am.choices[(int)AnalysisMethod.ActiveMultiplicity] = (iamr.active_mult == 0 ? false : true); am.choices[(int)AnalysisMethod.ActivePassive] = (iamr.active_passive == 0 ? false : true); am.choices[(int)AnalysisMethod.AddASource] = (iamr.add_a_source == 0 ? false : true); am.choices[(int)AnalysisMethod.Collar] = (iamr.collar == 0 ? false : true); am.choices[(int)AnalysisMethod.CuriumRatio] = (iamr.curium_ratio == 0 ? false : true); am.choices[(int)AnalysisMethod.KnownA] = (iamr.known_alpha == 0 ? false : true); am.choices[(int)AnalysisMethod.KnownM] = (iamr.known_m == 0 ? false : true); am.choices[(int)AnalysisMethod.Multiplicity] = (iamr.multiplicity == 0 ? false : true); am.choices[(int)AnalysisMethod.TruncatedMultiplicity] = (iamr.truncated_mult == 0 ? false : true); if (am.AnySelected()) am.choices[(int)AnalysisMethod.None] = am.choices[(int)AnalysisMethod.INCCNone] = false; break; case INCC.METHOD_CALCURVE: cal_curve_rec cal_curve = (cal_curve_rec)miter2.Current; INCCAnalysisParams.cal_curve_rec cc = new INCCAnalysisParams.cal_curve_rec(); cc.heavy_metal_corr_factor = cal_curve.cc_heavy_metal_corr_factor; cc.heavy_metal_reference = cal_curve.cc_heavy_metal_reference; cc.cev.lower_mass_limit = cal_curve.cc_lower_mass_limit; cc.cev.upper_mass_limit = cal_curve.cc_upper_mass_limit; cc.percent_u235 = cal_curve.cc_percent_u235; TransferUtils.Copy(ref cc.dcl_mass, cal_curve.cc_dcl_mass, INCC.MAX_NUM_CALIB_PTS); TransferUtils.Copy(ref cc.doubles, cal_curve.cc_doubles, INCC.MAX_NUM_CALIB_PTS); cc.cev.a = cal_curve.cc_a; cc.cev.b = cal_curve.cc_b; cc.cev.c = cal_curve.cc_c; cc.cev.d = cal_curve.cc_d; cc.cev.var_a = cal_curve.cc_var_a; cc.cev.var_b = cal_curve.cc_var_b; cc.cev.var_c = cal_curve.cc_var_c; cc.cev.var_d = cal_curve.cc_var_d; cc.cev.setcovar(Coeff.a,Coeff.b,cal_curve.cc_covar_ab); cc.cev._covar[0, 2] = cal_curve.cc_covar_ac; cc.cev._covar[0, 3] = cal_curve.cc_covar_ad; cc.cev._covar[1, 2] = cal_curve.cc_covar_bc; cc.cev._covar[1, 3] = cal_curve.cc_covar_bd; cc.cev._covar[2, 3] = cal_curve.cc_covar_cd; cc.cev.cal_curve_equation = (INCCAnalysisParams.CurveEquation)cal_curve.cal_curve_equation; cc.CalCurveType = (INCCAnalysisParams.CalCurveType)cal_curve.cc_cal_curve_type; cc.cev.sigma_x = cal_curve.cc_sigma_x; am.AddMethod(AnalysisMethod.CalibrationCurve, cc); break; case INCC.METHOD_AKNOWN: known_alpha_rec known_alpha = (known_alpha_rec)miter2.Current; INCCAnalysisParams.known_alpha_rec ka = new INCCAnalysisParams.known_alpha_rec(); ka.alpha_wt = known_alpha.ka_alpha_wt; TransferUtils.Copy(ref ka.dcl_mass, known_alpha.ka_dcl_mass, INCC.MAX_NUM_CALIB_PTS); TransferUtils.Copy(ref ka.doubles, known_alpha.ka_doubles, INCC.MAX_NUM_CALIB_PTS); ka.heavy_metal_corr_factor = known_alpha.ka_heavy_metal_corr_factor; ka.heavy_metal_reference = known_alpha.ka_heavy_metal_reference; ka.k = known_alpha.ka_k; ka.known_alpha_type = (INCCAnalysisParams.KnownAlphaVariant)known_alpha.ka_known_alpha_type; ka.lower_corr_factor_limit = known_alpha.ka_lower_corr_factor_limit; ka.upper_corr_factor_limit = known_alpha.ka_upper_corr_factor_limit; ka.rho_zero = known_alpha.ka_rho_zero; ka.ring_ratio.cal_curve_equation = (INCCAnalysisParams.CurveEquation)known_alpha.ka_ring_ratio_equation; ka.ring_ratio.a = known_alpha.ka_ring_ratio_a; ka.ring_ratio.b = known_alpha.ka_ring_ratio_b; ka.ring_ratio.c = known_alpha.ka_ring_ratio_c; ka.ring_ratio.d = known_alpha.ka_ring_ratio_d; ka.cev.a = known_alpha.ka_a; ka.cev.b = known_alpha.ka_b; ka.cev.var_a = known_alpha.ka_var_a; ka.cev.var_b = known_alpha.ka_var_b; ka.cev.sigma_x = known_alpha.ka_sigma_x; ka.cev._covar[(int)Coeff.a, (int)Coeff.b] = known_alpha.ka_covar_ab; ka.cev.lower_mass_limit = known_alpha.ka_lower_mass_limit; ka.cev.upper_mass_limit = known_alpha.ka_upper_mass_limit; am.AddMethod(AnalysisMethod.KnownA, ka); break; case INCC.METHOD_MKNOWN: known_m_rec known_m = (known_m_rec)miter2.Current; INCCAnalysisParams.known_m_rec km = new INCCAnalysisParams.known_m_rec(); km.sf_rate = known_m.km_sf_rate; km.vs1 = known_m.km_vs1; km.vs2 = known_m.km_vs2; km.vi1 = known_m.km_vi1; km.vi2 = known_m.km_vi2; km.b = known_m.km_b; km.c = known_m.km_c; km.lower_mass_limit = known_m.km_lower_mass_limit; km.upper_mass_limit = known_m.km_upper_mass_limit; am.AddMethod(AnalysisMethod.KnownM, km); break; case INCC.METHOD_MULT: multiplicity_rec multiplicity = (multiplicity_rec)miter2.Current; INCCAnalysisParams.multiplicity_rec m = new INCCAnalysisParams.multiplicity_rec(); m.solve_efficiency = (INCCAnalysisParams.MultChoice)multiplicity.mul_solve_efficiency; m.sf_rate = multiplicity.mul_sf_rate; m.vs1 = multiplicity.mul_vs1; m.vs2 = multiplicity.mul_vs2; m.vs3 = multiplicity.mul_vs3; m.vi1 = multiplicity.mul_vi1; m.vi2 = multiplicity.mul_vi2; m.vi3 = multiplicity.mul_vi3; m.a = multiplicity.mul_a; m.b = multiplicity.mul_b; m.c = multiplicity.mul_c; m.sigma_x = multiplicity.mul_sigma_x; m.alpha_weight = multiplicity.mul_alpha_weight; am.AddMethod(AnalysisMethod.Multiplicity, m); break; case INCC.DUAL_ENERGY_MULT_SAVE_RESTORE: de_mult_rec de_mult = (de_mult_rec)miter2.Current; INCCAnalysisParams.de_mult_rec de = new INCCAnalysisParams.de_mult_rec(); TransferUtils.Copy(ref de.detector_efficiency, de_mult.de_detector_efficiency, INCC.MAX_DUAL_ENERGY_ROWS); TransferUtils.Copy(ref de.inner_outer_ring_ratio, de_mult.de_inner_outer_ring_ratio, INCC.MAX_DUAL_ENERGY_ROWS); TransferUtils.Copy(ref de.neutron_energy, de_mult.de_neutron_energy, INCC.MAX_DUAL_ENERGY_ROWS); TransferUtils.Copy(ref de.relative_fission, de_mult.de_relative_fission, INCC.MAX_DUAL_ENERGY_ROWS); de.inner_ring_efficiency = de_mult.de_inner_ring_efficiency; de.outer_ring_efficiency = de_mult.de_outer_ring_efficiency; am.AddMethod(AnalysisMethod.DUAL_ENERGY_MULT_SAVE_RESTORE, de); break; case INCC.METHOD_TRUNCATED_MULT: truncated_mult_rec truncated_mult = (truncated_mult_rec)miter2.Current; INCCAnalysisParams.truncated_mult_rec tm = new INCCAnalysisParams.truncated_mult_rec(); tm.a = truncated_mult.tm_a; tm.b = truncated_mult.tm_b; tm.known_eff = (truncated_mult.tm_known_eff == 0 ? false : true); tm.solve_eff = (truncated_mult.tm_solve_eff == 0 ? false : true); am.AddMethod(AnalysisMethod.TruncatedMultiplicity, tm); break; case INCC.METHOD_CURIUM_RATIO: curium_ratio_rec curium_ratio = (curium_ratio_rec)miter2.Current; INCCAnalysisParams.curium_ratio_rec cr = new INCCAnalysisParams.curium_ratio_rec(); cr.curium_ratio_type = OldToNewCRVariants(curium_ratio.curium_ratio_type); cr.cev.a = curium_ratio.cr_a; cr.cev.b = curium_ratio.cr_b; cr.cev.c = curium_ratio.cr_c; cr.cev.d = curium_ratio.cr_d; cr.cev.var_a = curium_ratio.cr_var_a; cr.cev.var_b = curium_ratio.cr_var_b; cr.cev.var_c = curium_ratio.cr_var_c; cr.cev.var_d = curium_ratio.cr_var_d; cr.cev.setcovar(Coeff.a,Coeff.b,curium_ratio.cr_covar_ab); cr.cev._covar[0, 2] = curium_ratio.cr_covar_ac; cr.cev._covar[0, 3] = curium_ratio.cr_covar_ad; cr.cev._covar[1, 2] = curium_ratio.cr_covar_bc; cr.cev._covar[1, 3] = curium_ratio.cr_covar_bd; cr.cev._covar[2, 3] = curium_ratio.cr_covar_cd; cr.cev.cal_curve_equation = (INCCAnalysisParams.CurveEquation)curium_ratio.curium_ratio_equation; cr.cev.sigma_x = curium_ratio.cr_sigma_x; cr.cev.lower_mass_limit = curium_ratio.cr_lower_mass_limit; cr.cev.upper_mass_limit = curium_ratio.cr_upper_mass_limit; am.AddMethod(AnalysisMethod.CuriumRatio, cr); break; case INCC.METHOD_ADDASRC: add_a_source_rec add_a_source = (add_a_source_rec)miter2.Current; INCCAnalysisParams.add_a_source_rec aas = new INCCAnalysisParams.add_a_source_rec(); aas.cev.a = add_a_source.ad_a; aas.cev.b = add_a_source.ad_b; aas.cev.c = add_a_source.ad_c; aas.cev.d = add_a_source.ad_d; aas.cev.var_a = add_a_source.ad_var_a; aas.cev.var_b = add_a_source.ad_var_b; aas.cev.var_c = add_a_source.ad_var_c; aas.cev.var_d = add_a_source.ad_var_d; aas.cev.setcovar(Coeff.a,Coeff.b,add_a_source.ad_covar_ab); aas.cev._covar[0, 2] = add_a_source.ad_covar_ac; aas.cev._covar[0, 3] = add_a_source.ad_covar_ad; aas.cev._covar[1, 2] = add_a_source.ad_covar_bc; aas.cev._covar[1, 3] = add_a_source.ad_covar_bd; aas.cev._covar[2, 3] = add_a_source.ad_covar_cd; aas.cev.cal_curve_equation = (INCCAnalysisParams.CurveEquation)add_a_source.add_a_source_equation; aas.cev.sigma_x = add_a_source.ad_sigma_x; aas.cev.lower_mass_limit = add_a_source.ad_lower_mass_limit; aas.cev.upper_mass_limit = add_a_source.ad_upper_mass_limit; TransferUtils.Copy(ref aas.dcl_mass, add_a_source.ad_dcl_mass, INCC.MAX_NUM_CALIB_PTS); TransferUtils.Copy(ref aas.doubles, add_a_source.ad_doubles, INCC.MAX_NUM_CALIB_PTS); aas.cf.a = add_a_source.ad_cf_a; aas.cf.b = add_a_source.ad_cf_b; aas.cf.c = add_a_source.ad_cf_c; aas.cf.d = add_a_source.ad_cf_d; aas.dzero_avg = add_a_source.ad_dzero_avg; aas.num_runs = add_a_source.ad_num_runs; aas.tm_dbls_rate_upper_limit = add_a_source.ad_tm_dbls_rate_upper_limit; aas.tm_weighting_factor = add_a_source.ad_tm_weighting_factor; aas.use_truncated_mult = (add_a_source.ad_use_truncated_mult == 0 ? false : true); aas.dzero_ref_date = INCC.DateFrom(TransferUtils.str(add_a_source.ad_dzero_ref_date, INCC.DATE_TIME_LENGTH)); aas.position_dzero = TransferUtils.Copy(add_a_source.ad_position_dzero, INCC.MAX_ADDASRC_POSITIONS); am.AddMethod(AnalysisMethod.AddASource, aas); break; case INCC.METHOD_ACTIVE: active_rec active = (active_rec)miter2.Current; INCCAnalysisParams.active_rec ar = new INCCAnalysisParams.active_rec(); ar.cev.lower_mass_limit = active.act_lower_mass_limit; ar.cev.upper_mass_limit = active.act_upper_mass_limit; TransferUtils.Copy(ref ar.dcl_mass, active.act_dcl_mass, INCC.MAX_NUM_CALIB_PTS); TransferUtils.Copy(ref ar.doubles, active.act_doubles, INCC.MAX_NUM_CALIB_PTS); ar.cev.a = active.act_a; ar.cev.b = active.act_b; ar.cev.c = active.act_c; ar.cev.d = active.act_d; ar.cev.var_a = active.act_var_a; ar.cev.var_b = active.act_var_b; ar.cev.var_c = active.act_var_c; ar.cev.var_d = active.act_var_d; ar.cev.setcovar(Coeff.a,Coeff.b,active.act_covar_ab); ar.cev._covar[0, 2] = active.act_covar_ac; ar.cev._covar[0, 3] = active.act_covar_ad; ar.cev._covar[1, 2] = active.act_covar_bc; ar.cev._covar[1, 3] = active.act_covar_bd; ar.cev._covar[2, 3] = active.act_covar_cd; ar.cev.cal_curve_equation = (INCCAnalysisParams.CurveEquation)active.active_equation; ar.cev.sigma_x = active.act_sigma_x; am.AddMethod(AnalysisMethod.Active, ar); break; case INCC.METHOD_ACTPAS: active_passive_rec active_passive = (active_passive_rec)miter2.Current; INCCAnalysisParams.active_passive_rec apr = new INCCAnalysisParams.active_passive_rec(); apr.cev.lower_mass_limit = active_passive.ap_lower_mass_limit; apr.cev.upper_mass_limit = active_passive.ap_upper_mass_limit; apr.cev.a = active_passive.ap_a; apr.cev.b = active_passive.ap_b; apr.cev.c = active_passive.ap_c; apr.cev.d = active_passive.ap_d; apr.cev.var_a = active_passive.ap_var_a; apr.cev.var_b = active_passive.ap_var_b; apr.cev.var_c = active_passive.ap_var_c; apr.cev.var_d = active_passive.ap_var_d; apr.cev.setcovar(Coeff.a,Coeff.b,active_passive.ap_covar_ab); apr.cev._covar[0, 2] = active_passive.ap_covar_ac; apr.cev._covar[0, 3] = active_passive.ap_covar_ad; apr.cev._covar[1, 2] = active_passive.ap_covar_bc; apr.cev._covar[1, 3] = active_passive.ap_covar_bd; apr.cev._covar[2, 3] = active_passive.ap_covar_cd; apr.cev.cal_curve_equation = (INCCAnalysisParams.CurveEquation)active_passive.active_passive_equation; apr.cev.sigma_x = active_passive.ap_sigma_x; am.AddMethod(AnalysisMethod.ActivePassive, apr); break; case INCC.COLLAR_SAVE_RESTORE: mlogger.TraceEvent(LogLevels.Verbose, 34213, " Collar params entry for COLLAR_SAVE_RESTORE"); break; case INCC.COLLAR_DETECTOR_SAVE_RESTORE: mlogger.TraceEvent(LogLevels.Verbose, 34212, " Main entry for COLLAR_DETECTOR_SAVE_RESTORE"); break; case INCC.COLLAR_K5_SAVE_RESTORE: mlogger.TraceEvent(LogLevels.Verbose, 34214, " K5 entry for COLLAR_K5_SAVE_RESTORE"); collar_k5_rec collar_k5 = (collar_k5_rec)miter2.Current; INCCAnalysisParams.collar_combined_rec combined = CollarEntryProcesser(idcf, sel, collar_k5.collar_k5_mode); if (combined != null) am.AddMethod(AnalysisMethod.Collar, combined); break; case INCC.METHOD_ACTIVE_MULT: active_mult_rec active_mult = (active_mult_rec)miter2.Current; INCCAnalysisParams.active_mult_rec acm = new INCCAnalysisParams.active_mult_rec(); acm.vf1 = active_mult.am_vf1; acm.vf2 = active_mult.am_vf2; acm.vf3 = active_mult.am_vf3; acm.vt1 = active_mult.am_vt1; acm.vt2 = active_mult.am_vt2; acm.vt3 = active_mult.am_vt2; am.AddMethod(AnalysisMethod.ActiveMultiplicity, acm); break; case INCC.WMV_CALIB_TOKEN: mlogger.TraceEvent(LogLevels.Warning, 34247, "Skipping calib token"); // todo: weighted multiplicity not fully implemented throughout break; } } } }
/// <summary> /// Prepare measurement instance content for analysis /// Populate calibration and counting parameters maps /// Create general results and specific results dictionary map entries /// Set up stratum details /// </summary> /// <param name="meas">The partially initialized measurement instance</param> /// <param name="useCurCalibParams">Default behavior is to use active method and other calibration parameters; /// skipped if Reanalysis prepared the details from database measurement results /// </param> static public void FillInMeasurementDetails(Measurement meas, bool useCurCalibParams = true) { if (meas.Detector.ListMode) { // APluralityOfMultiplicityAnalyzers: see below // URGENT: see below //if (an INCC5 DB cycle read or DB Ver reanalysis then rebuild the analyzers from the associated saved LM results:) // object x = CentralizedState.App.DB.GetAnalyzersFromResults(meas.Detector, meas.MeasurementId); //else meas.AnalysisParams = CentralizedState.App.LMBD.CountingParameters(meas.Detector, applySRFromDetector: true); if (meas.MeasOption.IsListMode()) // pure List Mode, not INCC5 { // for a list-mode-only measurement with a multiplicity analyzer the detector SR params must match at least one of the multiplicity analyzer SR params ApplyVSRChangesToDefaultDetector(meas); } else // it is an INCC5 analysis driven with LM data { // prepare or identify an active CA entry with matching CA gatewidth and FA, and has the same SR params as the detector if (meas.AnalysisParams.PrepareMatchingVSR(meas.Detector.MultiplicityParams)) { CentralizedState.App.LMBD.UpdateCounters(meas.Detector.Id.DetectorName, meas.AnalysisParams); // added one, save it } } } else // construct param key source with the single mkey entry point { // prepare analyzer params from detector SR params meas.AnalysisParams = CentralizedState.App.LMBD.CountingParameters(meas.Detector, applySRFromDetector: false); if (!meas.AnalysisParams.Exists(w => { return((w is Multiplicity) && (w as Multiplicity).Equals(meas.Detector.MultiplicityParams)); })) { meas.AnalysisParams.Add(meas.Detector.MultiplicityParams); } } // get the current INCC5 analysis methods if (useCurCalibParams || meas.INCCAnalysisState == null) { meas.INCCAnalysisState = new INCCAnalysisState(); INCCSelector sel = new INCCSelector(meas.AcquireState.detector_id, meas.AcquireState.item_type); AnalysisMethods am; bool found = CentralizedState.App.DB.DetectorMaterialAnalysisMethods.TryGetValue(sel, out am); if (found) { am.selector = sel; // gotta do this so that the equality operator is not incorrect meas.INCCAnalysisState.Methods = am; } else { meas.INCCAnalysisState.Methods = new AnalysisMethods(sel); } } // else use what was there meas.InitializeContext(clearCounterResults: true); meas.PrepareINCCResults(); // stratum look up, finds existing stratum by name if (useCurCalibParams || meas.Stratum == null) { List <INCCDB.StratumDescriptor> sl = CentralizedState.App.DB.StrataList(); INCCDB.StratumDescriptor s = sl.Find(w => string.Compare(w.Desc.Name, meas.AcquireState.stratum_id.Name, true) == 0); if (s == null) { meas.Stratum = new Stratum(); } else { meas.Stratum = new Stratum(s.Stratum); } } INCCResults.results_rec xres = new INCCResults.results_rec(meas); meas.INCCAnalysisResults.TradResultsRec = xres; CentralizedState.App.Opstate.Measurement = meas; // put the measurement definition on the global state }
public unsafe bool BuildMeasurement(INCCTransferFile itf, int num) { bool overwrite = NC.App.AppContext.OverwriteImportedDefs; results_rec results = itf.results_rec_list[0]; meas_id id; TransferUtils.Copy(results.meas_date, 0, id.meas_date, 0, INCC.DATE_TIME_LENGTH); TransferUtils.Copy(results.meas_time, 0, id.meas_time, 0, INCC.DATE_TIME_LENGTH); TransferUtils.Copy(results.filename, 0, id.filename, 0, INCC.FILE_NAME_LENGTH); TransferUtils.Copy(results.results_detector_id, 0, id.results_detector_id, 0, INCC.MAX_DETECTOR_ID_LENGTH); DateTime dt = INCC.DateTimeFrom(TransferUtils.str(id.meas_date, INCC.DATE_TIME_LENGTH), TransferUtils.str(id.meas_time, INCC.DATE_TIME_LENGTH)); // do not use content from last BuildDetector call, instead look up the detector on the pre-existing list string detname = TransferUtils.str(id.results_detector_id, INCC.MAX_DETECTOR_ID_LENGTH); Detector det = NC.App.DB.Detectors.GetItByDetectorId(detname); if (det == null) { mlogger.TraceEvent(LogLevels.Error, 34087, "Unknown detector '{0}', not importing this measurement {1}", detname, dt.ToString("s")); return false; } meas = new Measurement((AssaySelector.MeasurementOption)results.meas_option, mlogger); // TODO: update detector details from this meas result, since there could be a difference meas.MeasurementId.MeasDateTime = dt; meas.MeasurementId.FileName = TransferUtils.str(id.filename, INCC.FILE_NAME_LENGTH); meas.Detectors.Add(det); // in practice this is a list with one element, e.g. meas.Detector TestParameters t = new TestParameters(); t.accSnglTestRateLimit = results.r_acc_sngl_test_rate_limit; t.accSnglTestPrecisionLimit = results.r_acc_sngl_test_precision_limit; t.accSnglTestOutlierLimit = results.r_acc_sngl_test_outlier_limit; t.outlierTestLimit = results.r_outlier_test_limit; t.bkgDoublesRateLimit = results.r_bkg_doubles_rate_limit; t.bkgTriplesRateLimit = results.r_bkg_triples_rate_limit; t.chiSquaredLimit = results.r_chisq_limit; t.maxNumFailures = results.r_max_num_failures; t.highVoltageTestLimit = results.r_high_voltage_test_limit; t.normalBackupAssayTestLimit = results.r_normal_backup_assay_test_lim; t.maxCyclesForOutlierTest = (uint)results.r_max_runs_for_outlier_test; t.checksum = (results.r_checksum_test == 0.0 ? false : true); t.accidentalsMethod = INCCAccidentalsMethod((int)results.results_accidentals_method); meas.Tests.Copy(t); NormParameters n = NC.App.DB.NormParameters.Get(detname); meas.Norm.Copy(n); BackgroundParameters b = NC.App.DB.BackgroundParameters.Get(detname); meas.Background.Copy(b); // DB write for these occurs at end of processing here // Isotopics handled in this block if (itf.isotopics_table.Count > 0) { string isoname = TransferUtils.str(results.item_isotopics_id, INCC.MAX_ISOTOPICS_ID_LENGTH); NCCTransfer.isotopics_rec isotopics = itf.isotopics_table[0]; //bool first = true; // forgot why the code does this, to put the default in the map? // foreach (LMTransfer.isotopics_rec ir in itf.istopics_table) // { AnalysisDefs.Isotopics iso; // if (first) iso = meas.Isotopics; // else // iso = new Isotopics(); // first = false; iso.am_date = INCC.DateFrom(TransferUtils.str(isotopics.am_date, INCC.DATE_TIME_LENGTH)); iso.pu_date = INCC.DateFrom(TransferUtils.str(isotopics.pu_date, INCC.DATE_TIME_LENGTH)); iso.id = TransferUtils.str(isotopics.isotopics_id, INCC.MAX_ISOTOPICS_ID_LENGTH); AnalysisDefs.Isotopics.SourceCode checksc = AnalysisDefs.Isotopics.SourceCode.OD; string check = TransferUtils.str(isotopics.isotopics_source_code, INCC.ISO_SOURCE_CODE_LENGTH); bool okparse = Enum.TryParse(check, true, out checksc); iso.source_code = checksc; iso.SetValueError(Isotope.am241, isotopics.am241, isotopics.am241_err); iso.SetValueError(Isotope.pu238, isotopics.pu238, isotopics.pu238_err); iso.SetValueError(Isotope.pu239, isotopics.pu239, isotopics.pu239_err); iso.SetValueError(Isotope.pu240, isotopics.pu240, isotopics.pu240_err); iso.SetValueError(Isotope.pu241, isotopics.pu241, isotopics.pu241_err); iso.SetValueError(Isotope.pu242, isotopics.pu242, isotopics.pu242_err); if (!NC.App.DB.Isotopics.Has(iso.id)) { NC.App.DB.Isotopics.GetList().Add(iso); mlogger.TraceEvent(LogLevels.Info, 34021, "Identified new isotopics {0}", iso.id); } else { if (overwrite) { NC.App.DB.Isotopics.Replace(iso); mlogger.TraceEvent(LogLevels.Warning, 34022, "Replaced existing isotopics {0}", iso.id); } else { mlogger.TraceEvent(LogLevels.Warning, 34022, "Not replacing existing isotopics {0}", iso.id); } } iso.modified = true; } AcquireParameters acq = meas.AcquireState; acq.detector_id = det.Id.DetectorId; acq.meas_detector_id = string.Copy(det.Id.DetectorId); // probably incorrect usage, but differnce is ambiguous in INCC5 acq.item_type = TransferUtils.str(results.results_item_type, INCC.MAX_ITEM_TYPE_LENGTH); acq.qc_tests = TransferUtils.ByteBool(results.results_qc_tests); acq.user_id = TransferUtils.str(results.user_id, INCC.CHAR_FIELD_LENGTH); acq.num_runs = results.total_number_runs; if (results.number_good_runs > 0) acq.run_count_time = results.total_good_count_time / results.number_good_runs; else acq.run_count_time = results.total_good_count_time; // should be 0.0 by default for this special case acq.MeasDateTime = meas.MeasurementId.MeasDateTime; acq.error_calc_method = INCCErrorCalculationTechnique(results.error_calc_method); acq.campaign_id = TransferUtils.str(results.results_campaign_id, INCC.MAX_CAMPAIGN_ID_LENGTH); if (string.IsNullOrEmpty(acq.campaign_id)) acq.campaign_id = TransferUtils.str(results.results_inspection_number, INCC.MAX_CAMPAIGN_ID_LENGTH); acq.comment = TransferUtils.str(results.comment, INCC.MAX_COMMENT_LENGTH);//"Original file name " + meas.MeasurementId.FileName; string ending_comment_str = TransferUtils.str(results.ending_comment, INCC.MAX_COMMENT_LENGTH); acq.ending_comment = !string.IsNullOrEmpty(acq.ending_comment_str); acq.data_src = (ConstructedSource)results.data_source; acq.well_config = (WellConfiguration)results.well_config; acq.print = TransferUtils.ByteBool(results.results_print); mlogger.TraceEvent(LogLevels.Verbose, 34000, "Building {0} measurement {1} '{2},{3}' from {2}", meas.MeasOption.PrintName(), num, acq.detector_id, acq.item_type, itf.Path); if (itf.facility_table.Count > 0) meas.AcquireState.facility = new INCCDB.Descriptor(string.Copy(itf.facility_table[0].id), string.Copy(itf.facility_table[0].desc)); if (itf.mba_table.Count > 0) meas.AcquireState.mba = new INCCDB.Descriptor(string.Copy(itf.mba_table[0].id), string.Copy(itf.mba_table[0].desc)); if (itf.stratum_id_names_rec_table.Count > 0) meas.AcquireState.stratum_id = new INCCDB.Descriptor(string.Copy(itf.stratum_id_names_rec_table[0].id), string.Copy(itf.stratum_id_names_rec_table[0].desc)); // stratum values meas.Stratum = new Stratum(); meas.Stratum.bias_uncertainty = results.bias_uncertainty; meas.Stratum.random_uncertainty = results.random_uncertainty; meas.Stratum.relative_std_dev = results.relative_std_dev; meas.Stratum.systematic_uncertainty = results.systematic_uncertainty; INCCDB.Descriptor mtdesc = new INCCDB.Descriptor(string.Copy(acq.item_type), string.Empty); if (!NC.App.DB.Materials.Has(mtdesc) || overwrite) { NC.App.DB.Materials.Update(mtdesc); } // prepare norm parms, should be done with a prior pass with the detector file, then this code looks it up in the collection set at this point in the processing meas.Norm.currNormalizationConstant.v = results.normalization_constant; meas.Norm.currNormalizationConstant.err = results.normalization_constant_err; foreach (DescriptorPair dp in itf.facility_table) { INCCDB.Descriptor idesc = new INCCDB.Descriptor(string.Copy(dp.id), string.Copy(dp.desc)); if (!NC.App.DB.Facilities.Has(idesc) || overwrite) { idesc.modified = true; NC.App.DB.Facilities.Update(idesc); } } foreach (DescriptorPair dp in itf.mba_table) { INCCDB.Descriptor idesc = new INCCDB.Descriptor(string.Copy(dp.id), string.Copy(dp.desc)); if (!NC.App.DB.MBAs.Has(idesc) || overwrite) { idesc.modified = true; NC.App.DB.MBAs.Update(idesc); } } foreach (DescriptorPair dp in itf.stratum_id_names_rec_table) { INCCDB.Descriptor idesc = new INCCDB.Descriptor(string.Copy(dp.id), string.Copy(dp.desc)); if (meas.Stratum != null) { idesc.modified = true; NC.App.DB.UpdateStratum(idesc, meas.Stratum); // creates it NC.App.DB.AssociateStratum(det, idesc, meas.Stratum); // associates it with the detector } } if (itf.item_id_table.Count > 0) // devnote: there should be only one item entry { ItemId item = new ItemId(); item.declaredMass = results.declared_mass; item.declaredUMass = results.declared_u_mass; item.length = results.length; item.IOCode = TransferUtils.str(results.io_code, INCC.IO_CODE_LENGTH); item.inventoryChangeCode = TransferUtils.str(results.inventory_change_code, INCC.INVENTORY_CHG_LENGTH); item.isotopics = TransferUtils.str(results.item_isotopics_id, INCC.MAX_ISOTOPICS_ID_LENGTH); item.stratum = TransferUtils.str(results.stratum_id, INCC.MAX_STRATUM_ID_LENGTH); item.item = TransferUtils.str(results.item_id, INCC.MAX_ITEM_ID_LENGTH); item.material = TransferUtils.str(results.results_item_type, INCC.MAX_ITEM_TYPE_LENGTH); //copy measurement dates to item item.pu_date = new DateTime(meas.Isotopics.pu_date.Ticks); item.am_date = new DateTime(meas.Isotopics.am_date.Ticks); item.modified = true; List<ItemId> list = NC.App.DB.ItemIds.GetList(); bool flump = list.Exists(i => { return string.Compare(item.item, i.item, true) == 0; }); if (flump && overwrite) { list.Remove(item); list.Add(item); } else list.Add(item); // fill in the acquire record from the item id acq.ApplyItemId(item); meas.MeasurementId.Item = new ItemId(item); } meas.INCCAnalysisState = new INCCAnalysisState(); INCCSelector sel = new INCCSelector(acq.detector_id, acq.item_type); AnalysisMethods am; bool found = NC.App.DB.DetectorMaterialAnalysisMethods.TryGetValue(sel, out am); if (found) { meas.INCCAnalysisState.Methods = am; meas.INCCAnalysisState.Methods.selector = sel; } else { mlogger.TraceEvent(LogLevels.Error, 34063, "No analysis methods for {0}, (calibration information is missing), creating placeholders", sel.ToString()); // devnote: can get missing paramters from the meas results for calib and verif below, so need to visit this condition after results processing below (newres.methodParams!) and reconstruct the calib parameters. meas.INCCAnalysisState.Methods = new AnalysisMethods(mlogger); meas.INCCAnalysisState.Methods.selector = sel; } // prepare analyzer params from sr params above meas.AnalysisParams = new AnalysisDefs.CountingAnalysisParameters(); meas.AnalysisParams.Add(det.MultiplicityParams); mlogger.TraceEvent(LogLevels.Verbose, 34030, "Transferring the {0} cycles", itf.run_rec_list.Count); meas.InitializeContext(); meas.PrepareINCCResults(); // prepares INCCResults objects ulong MaxBins = 0; foreach (run_rec r in itf.run_rec_list) { ulong x= AddToCycleList(r, det); if (x > MaxBins) MaxBins = x; } for (int cf = 1; (itf.CFrun_rec_list != null) && (cf < itf.CFrun_rec_list.Length); cf++) { foreach (run_rec r in itf.CFrun_rec_list[cf]) { AddToCycleList(r, det, cf); } } // summarize the result in the result, if you know what I mean MultiplicityCountingRes mcr = (MultiplicityCountingRes)meas.CountingAnalysisResults[det.MultiplicityParams]; for (int i = 0; i < 9; i++) mcr.covariance_matrix[i] = results.covariance_matrix[i]; mcr.DeadtimeCorrectedRates.Singles.err = results.singles_err; mcr.DeadtimeCorrectedRates.Doubles.err = results.doubles_err; mcr.DeadtimeCorrectedRates.Triples.err = results.triples_err; mcr.DeadtimeCorrectedRates.Singles.v = results.singles; mcr.DeadtimeCorrectedRates.Doubles.v = results.doubles; mcr.DeadtimeCorrectedRates.Triples.v = results.triples; mcr.Scaler1Rate.v = results.scaler1; mcr.Scaler2Rate.v = results.scaler2; mcr.Scaler1Rate.err = results.scaler1_err; mcr.Scaler2Rate.err = results.scaler2_err; mcr.Scaler1.v = results.scaler1; mcr.Scaler2.v = results.scaler2; mcr.Scaler1.err = results.scaler1_err; mcr.Scaler2.err = results.scaler2_err; mcr.ASum = results.acc_sum; mcr.RASum = results.reals_plus_acc_sum; mcr.S1Sum = results.scaler1_sum; mcr.S2Sum = results.scaler2_sum; mcr.mass = results.declared_mass; mcr.FA = det.MultiplicityParams.FA; mcr.RAMult = TransferUtils.multarrayxfer(results.mult_reals_plus_acc_sum, INCC.MULTI_ARRAY_SIZE); mcr.NormedAMult = TransferUtils.multarrayxfer(results.mult_acc_sum, INCC.MULTI_ARRAY_SIZE); mcr.MaxBins = (ulong)Math.Max(mcr.RAMult.Length, mcr.NormedAMult.Length); mcr.MinBins = (ulong)Math.Min(mcr.RAMult.Length, mcr.NormedAMult.Length); mcr.RawDoublesRate.v = results.uncorrected_doubles; mcr.RawDoublesRate.err = results.uncorrected_doubles_err; mcr.singles_multi = results.singles_multi; mcr.doubles_multi = results.doubles_multi; mcr.triples_multi = results.triples_multi; INCCResult result; MeasOptionSelector mos = new MeasOptionSelector(meas.MeasOption, det.MultiplicityParams); result = meas.INCCAnalysisState.Lookup(mos); result.DeadtimeCorrectedRates.Singles.err = results.singles_err; result.DeadtimeCorrectedRates.Doubles.err = results.doubles_err; result.DeadtimeCorrectedRates.Triples.err = results.triples_err; result.DeadtimeCorrectedRates.Singles.v = results.singles; result.DeadtimeCorrectedRates.Doubles.v = results.doubles; result.DeadtimeCorrectedRates.Triples.v = results.triples; result.rates.RawRates.Scaler1s.v = results.scaler1; result.rates.RawRates.Scaler2s.v = results.scaler2; result.rates.RawRates.Scaler1s.err = results.scaler1_err; result.rates.RawRates.Scaler2s.err = results.scaler2_err; result.S1Sum = results.scaler1_sum; result.S2Sum = results.scaler2_sum; result.ASum = results.acc_sum; result.RASum = results.reals_plus_acc_sum; result.RAMult = TransferUtils.multarrayxfer(results.mult_reals_plus_acc_sum, INCC.MULTI_ARRAY_SIZE); result.NormedAMult = TransferUtils.multarrayxfer(results.mult_acc_sum, INCC.MULTI_ARRAY_SIZE); result.MaxBins = (ulong)Math.Max(result.RAMult.Length, result.NormedAMult.Length); result.MinBins = (ulong)Math.Min(result.RAMult.Length, result.NormedAMult.Length); mcr.RawDoublesRate.v = results.uncorrected_doubles; mcr.RawDoublesRate.err = results.uncorrected_doubles_err; result.singles_multi = results.singles_multi; result.doubles_multi = results.doubles_multi; result.triples_multi = results.triples_multi; // hack expansion of Normed mult array to same length as Acc mult array on each cycle to accomodate TheoreticalOutlier calc array length bug ExpandMaxBins(MaxBins, meas.Cycles, det.MultiplicityParams); Bloat(MaxBins, mcr); List<MeasurementMsg> msgs = meas.GetMessageList(det.MultiplicityParams); // move the error messages for (int i = 0; i < INCC.NUM_ERROR_MSG_CODES; i++) { int index = i * INCC.ERR_MSG_LENGTH; string e = TransferUtils.str(results.error_msg_codes + index, INCC.ERR_MSG_LENGTH); if (e.Length > 0) meas.AddMessage(msgs, LogLevels.Error, 911, e, meas.MeasurementId.MeasDateTime); } // move the warning messages for (int i = 0; i < INCC.NUM_WARNING_MSG_CODES; i++) { int index = i * INCC.ERR_MSG_LENGTH; string w = TransferUtils.str(results.warning_msg_codes + index, INCC.ERR_MSG_LENGTH); if (w.Length > 0) meas.AddMessage(msgs, LogLevels.Warning, 411, w, meas.MeasurementId.MeasDateTime); } #region results transfer INCCMethodResults imr; bool got = meas.INCCAnalysisResults.TryGetINCCResults(det.MultiplicityParams, out imr); // only ever this single mkey for INCC5-style transfer import, (thankfully) if (got) imr.primaryMethod = OldToNewMethodId(results.primary_analysis_method); // check these results against the meas.MeasOption expectation => seems to always be 1 - 1 with (opt, sr) -> results, and subresults only for verif and calib choice // rates -> none, // bkg -> bkg, norm -> bias, init src -> init src, prec -> prec, // calib -> calib, 1 or more INCC methods on the methods submap // verif -> 1 or more INCC methods on the methods submap foreach (iresultsbase r in itf.method_results_list) { if (r is results_init_src_rec) { mlogger.TraceEvent(LogLevels.Verbose, 34041, ("Transferring initial source results")); results_init_src_rec oldres = (results_init_src_rec)r; INCCResults.results_init_src_rec newres = (INCCResults.results_init_src_rec) meas.INCCAnalysisState.Lookup(new MeasOptionSelector(meas.MeasOption, det.MultiplicityParams), typeof(INCCResults.results_init_src_rec)); newres.mode = OldToNewBiasTestId(oldres.init_src_mode); newres.pass = TransferUtils.PassCheck(oldres.init_src_pass_fail); newres.init_src_id = TransferUtils.str(oldres.init_src_id, INCC.SOURCE_ID_LENGTH); } else if (r is results_bias_rec) { mlogger.TraceEvent(LogLevels.Verbose, 34042, ("Transferring normalization results")); results_bias_rec oldres = (results_bias_rec)r; INCCResults.results_bias_rec newres = (INCCResults.results_bias_rec)meas.INCCAnalysisState.Lookup(new MeasOptionSelector(meas.MeasOption, det.MultiplicityParams), typeof(INCCResults.results_bias_rec)); newres.pass = TransferUtils.PassCheck(oldres.bias_pass_fail); newres.biasDblsRateExpect.v = oldres.bias_dbls_rate_expect; newres.biasDblsRateExpectMeas.v = oldres.bias_dbls_rate_expect_meas; newres.biasSnglsRateExpect.v = oldres.bias_sngls_rate_expect; newres.biasSnglsRateExpectMeas.v = oldres.bias_sngls_rate_expect_meas; newres.biasDblsRateExpect.err = oldres.bias_dbls_rate_expect_err; newres.biasDblsRateExpectMeas.err = oldres.bias_dbls_rate_expect_meas_err; newres.biasSnglsRateExpect.err = oldres.bias_sngls_rate_expect_err; newres.biasSnglsRateExpectMeas.err = oldres.bias_sngls_rate_expect_meas_err; newres.newNormConstant.v = oldres.new_norm_constant; newres.newNormConstant.err = oldres.new_norm_constant_err; newres.measPrecision = oldres.meas_precision; newres.requiredMeasSeconds = oldres.required_meas_seconds; newres.requiredPrecision = oldres.required_precision; newres.mode = OldToNewBiasTestId(oldres.results_bias_mode); newres.sourceId = TransferUtils.str(oldres.bias_source_id, INCC.SOURCE_ID_LENGTH); // NEXT: for init src and bias, results norm values transferred to meas.norm } else if (r is results_precision_rec) { mlogger.TraceEvent(LogLevels.Verbose, 34043, ("Transferring precision results")); results_precision_rec oldres = (results_precision_rec)r; INCCResults.results_precision_rec newres = (INCCResults.results_precision_rec)meas.INCCAnalysisState.Lookup(new MeasOptionSelector(meas.MeasOption, det.MultiplicityParams), typeof(INCCResults.results_precision_rec)); newres.chiSqLowerLimit = oldres.chi_sq_lower_limit; newres.chiSqUpperLimit = oldres.chi_sq_upper_limit; newres.precChiSq = oldres.prec_chi_sq; newres.precSampleVar = oldres.prec_sample_var; newres.precTheoreticalVar = oldres.prec_theoretical_var; newres.pass = TransferUtils.PassCheck(oldres.prec_pass_fail); } else { if (r is results_cal_curve_rec) { // need to look up in existing map and see if it is there and then create and load it if not mlogger.TraceEvent(LogLevels.Verbose, 34050, ("Transferring method results for " + r.GetType().ToString())); results_cal_curve_rec oldres = (results_cal_curve_rec)r; INCCMethodResults.results_cal_curve_rec newres = (INCCMethodResults.results_cal_curve_rec)meas.INCCAnalysisResults.LookupMethodResults(det.MultiplicityParams, meas.INCCAnalysisState.Methods.selector, AnalysisMethod.CalibrationCurve, true); newres.pu240e_mass = new Tuple(oldres.cc_pu240e_mass, oldres.cc_pu240e_mass_err); newres.pu_mass = new Tuple(oldres.cc_pu_mass, oldres.cc_pu_mass_err); newres.dcl_pu240e_mass = oldres.cc_dcl_pu240e_mass; newres.dcl_pu_mass = oldres.cc_dcl_pu_mass; newres.dcl_minus_asy_pu_mass = new Tuple(oldres.cc_dcl_minus_asy_pu_mass, oldres.cc_dcl_minus_asy_pu_mass_err); newres.dcl_minus_asy_pu_mass_pct = oldres.cc_dcl_minus_asy_pu_mass_pct; newres.pass = TransferUtils.PassCheck(oldres.cc_pass_fail); newres.dcl_u_mass = oldres.cc_dcl_u_mass; newres.length = oldres.cc_length; newres.heavy_metal_content = oldres.cc_heavy_metal_content; newres.heavy_metal_correction = oldres.cc_heavy_metal_correction; newres.heavy_metal_corr_singles = new Tuple(oldres.cc_heavy_metal_corr_singles, oldres.cc_heavy_metal_corr_singles_err); newres.heavy_metal_corr_doubles = new Tuple(oldres.cc_heavy_metal_corr_doubles, oldres.cc_heavy_metal_corr_doubles_err); newres.methodParams.heavy_metal_corr_factor = oldres.cc_heavy_metal_corr_factor_res; newres.methodParams.heavy_metal_reference = oldres.cc_heavy_metal_reference_res; // newres.methodParams.cev.lower_mass_limit = oldres.cc_lower_mass_limit_res; // newres.methodParams.cev.upper_mass_limit = oldres.cc_upper_mass_limit_res; newres.methodParams.percent_u235 = oldres.cc_percent_u235_res; newres.methodParams.cev.a = oldres.cc_a_res; newres.methodParams.cev.b = oldres.cc_b_res; newres.methodParams.cev.c = oldres.cc_c_res; newres.methodParams.cev.d = oldres.cc_d_res; newres.methodParams.cev.var_a = oldres.cc_var_a_res; newres.methodParams.cev.var_b = oldres.cc_var_b_res; newres.methodParams.cev.var_c = oldres.cc_var_c_res; newres.methodParams.cev.var_d = oldres.cc_var_d_res; newres.methodParams.cev.setcovar(Coeff.a,Coeff.b,oldres.cc_covar_ab_res); newres.methodParams.cev._covar[0, 2] = oldres.cc_covar_ac_res; newres.methodParams.cev._covar[0, 3] = oldres.cc_covar_ad_res; newres.methodParams.cev._covar[1, 2] = oldres.cc_covar_bc_res; newres.methodParams.cev._covar[1, 3] = oldres.cc_covar_bd_res; newres.methodParams.cev._covar[2, 3] = oldres.cc_covar_cd_res; newres.methodParams.cev.cal_curve_equation = (INCCAnalysisParams.CurveEquation)oldres.cc_cal_curve_equation; newres.methodParams.CalCurveType = (INCCAnalysisParams.CalCurveType)oldres.cc_cal_curve_type_res; newres.methodParams.cev.sigma_x = oldres.cc_sigma_x_res; } else if (r is results_known_alpha_rec) { // need to look up in existing map and see if it is there and then create and load it if not mlogger.TraceEvent(LogLevels.Verbose, 34051, ("Transferring method results for " + r.GetType().ToString())); results_known_alpha_rec oldres = (results_known_alpha_rec)r; INCCMethodResults.results_known_alpha_rec newres = (INCCMethodResults.results_known_alpha_rec)meas.INCCAnalysisResults.LookupMethodResults(det.MultiplicityParams, meas.INCCAnalysisState.Methods.selector, AnalysisMethod.KnownA, true); newres.corr_doubles.v = oldres.ka_corr_doubles; newres.corr_doubles.err = oldres.ka_corr_doubles_err; newres.mult = oldres.ka_mult; newres.alphaK = oldres.ka_alpha; newres.mult_corr_doubles = new Tuple(oldres.ka_mult_corr_doubles, oldres.ka_mult_corr_doubles_err); newres.pu240e_mass = new Tuple(oldres.ka_pu240e_mass, oldres.ka_pu240e_mass_err); newres.pu_mass = new Tuple(oldres.ka_pu_mass, oldres.ka_pu_mass_err); newres.dcl_pu240e_mass = oldres.ka_dcl_pu240e_mass; newres.dcl_pu_mass = oldres.ka_dcl_pu_mass; newres.dcl_minus_asy_pu_mass = new Tuple(oldres.ka_dcl_minus_asy_pu_mass, oldres.ka_dcl_minus_asy_pu_mass_err); newres.dcl_minus_asy_pu_mass_pct = oldres.ka_dcl_minus_asy_pu_mass_pct; newres.pass = TransferUtils.PassCheck(oldres.ka_pass_fail); newres.dcl_u_mass = oldres.ka_dcl_u_mass; newres.length = oldres.ka_length; newres.heavy_metal_content = oldres.ka_heavy_metal_content; newres.heavy_metal_correction = oldres.ka_heavy_metal_correction; newres.corr_singles = new Tuple(oldres.ka_corr_singles, oldres.ka_corr_singles_err); newres.corr_doubles = new Tuple(oldres.ka_corr_doubles, oldres.ka_corr_doubles_err); newres.corr_factor = oldres.ka_corr_factor; newres.dry_alpha_or_mult_dbls = oldres.ka_dry_alpha_or_mult_dbls; newres.upper_corr_factor_limit = oldres.ka_upper_corr_factor_limit_res; newres.lower_corr_factor_limit = oldres.ka_lower_corr_factor_limit_res; newres.methodParams = new INCCAnalysisParams.known_alpha_rec(); newres.methodParams.alpha_wt = oldres.ka_alpha_wt_res; newres.methodParams.heavy_metal_corr_factor = oldres.ka_heavy_metal_corr_factor_res; newres.methodParams.heavy_metal_reference = oldres.ka_heavy_metal_reference_res; newres.methodParams.k = oldres.ka_k_res; newres.methodParams.known_alpha_type = (INCCAnalysisParams.KnownAlphaVariant)oldres.ka_known_alpha_type_res; newres.methodParams.lower_corr_factor_limit = oldres.ka_lower_corr_factor_limit_res; newres.methodParams.upper_corr_factor_limit = oldres.ka_upper_corr_factor_limit_res; newres.methodParams.rho_zero = oldres.ka_rho_zero_res; newres.methodParams.ring_ratio.cal_curve_equation = (INCCAnalysisParams.CurveEquation)oldres.ka_ring_ratio_equation_res; newres.methodParams.ring_ratio.a = oldres.ka_ring_ratio_a_res; newres.methodParams.ring_ratio.b = oldres.ka_ring_ratio_b_res; newres.methodParams.ring_ratio.c = oldres.ka_ring_ratio_c_res; newres.methodParams.ring_ratio.d = oldres.ka_ring_ratio_d_res; newres.methodParams.cev.a = oldres.ka_a_res; newres.methodParams.cev.b = oldres.ka_b_res; newres.methodParams.cev.var_a = oldres.ka_var_a_res; newres.methodParams.cev.var_b= oldres.ka_var_b_res; newres.methodParams.cev.sigma_x = oldres.ka_sigma_x_res; newres.methodParams.cev.setcovar(Coeff.a, Coeff.b, oldres.ka_covar_ab_res); newres.methodParams.cev.lower_mass_limit = oldres.ka_lower_corr_factor_limit_res; newres.methodParams.cev.upper_mass_limit = oldres.ka_upper_corr_factor_limit_res; } else if (r is results_multiplicity_rec) { mlogger.TraceEvent(LogLevels.Verbose, 34052, ("Transferring method results for " + r.GetType().ToString())); results_multiplicity_rec oldres = (results_multiplicity_rec)r; INCCMethodResults.results_multiplicity_rec newres = (INCCMethodResults.results_multiplicity_rec)meas.INCCAnalysisResults.LookupMethodResults(det.MultiplicityParams, meas.INCCAnalysisState.Methods.selector, AnalysisMethod.Multiplicity, true); newres.solve_efficiency_choice = (INCCAnalysisParams.MultChoice)oldres.mul_solve_efficiency_res; newres.pass = TransferUtils.PassCheck(oldres.mul_pass_fail); newres.efficiencyComputed.v = oldres.mul_efficiency; newres.efficiencyComputed.err = oldres.mul_efficiency_err; newres.mult.v = oldres.mul_mult; newres.mult.err = oldres.mul_mult_err; newres.alphaK.v = oldres.mul_alpha; newres.alphaK.err = oldres.mul_alpha_err; newres.corr_factor.v = oldres.mul_corr_factor; newres.corr_factor.err = oldres.mul_corr_factor_err; newres.pu240e_mass.v = oldres.mul_pu240e_mass; newres.pu240e_mass.err = oldres.mul_pu240e_mass_err; newres.pu_mass.v = oldres.mul_pu_mass; newres.pu_mass.err = oldres.mul_pu_mass_err; newres.dcl_minus_asy_pu_mass.v = oldres.mul_dcl_minus_asy_pu_mass; newres.dcl_minus_asy_pu_mass.err = oldres.mul_dcl_minus_asy_pu_mass_err; newres.dcl_pu240e_mass = oldres.mul_dcl_pu240e_mass; newres.dcl_pu_mass = oldres.mul_dcl_pu_mass; newres.dcl_minus_asy_pu_mass_pct = oldres.mul_dcl_minus_asy_pu_mass_pct; newres.methodParams = new INCCAnalysisParams.multiplicity_rec(); newres.methodParams.sf_rate = oldres.mul_sf_rate_res; newres.methodParams.vs1 = oldres.mul_vs1_res; newres.methodParams.vs2 = oldres.mul_vs2_res; newres.methodParams.vs3 = oldres.mul_vs3_res; newres.methodParams.vi1 = oldres.mul_vi1_res; newres.methodParams.vi2 = oldres.mul_vi2_res; newres.methodParams.vi3 = oldres.mul_vi3_res; newres.methodParams.a = oldres.mul_a_res; newres.methodParams.b = oldres.mul_b_res; newres.methodParams.c = oldres.mul_b_res; newres.methodParams.sigma_x = oldres.mul_sigma_x_res; newres.methodParams.alpha_weight = oldres.mul_alpha_weight_res; newres.methodParams.multEffCorFactor = oldres.mul_corr_factor; } else if (r is results_truncated_mult_rec) { mlogger.TraceEvent(LogLevels.Verbose, 34053, ("Transferring method results for " + r.GetType().ToString())); results_truncated_mult_rec oldres = (results_truncated_mult_rec)r; INCCMethodResults.results_truncated_mult_rec newres = (INCCMethodResults.results_truncated_mult_rec)meas.INCCAnalysisResults.LookupMethodResults(det.MultiplicityParams, meas.INCCAnalysisState.Methods.selector, AnalysisMethod.TruncatedMultiplicity, true); newres.k.pass = TransferUtils.PassCheck(oldres.tm_k_pass_fail); newres.bkg.Singles.v = oldres.tm_bkg_singles; newres.bkg.Singles.err = oldres.tm_bkg_singles_err; newres.bkg.Zeros.v = oldres.tm_bkg_zeros; newres.bkg.Zeros.err = oldres.tm_bkg_zeros_err; newres.bkg.Ones.v = oldres.tm_bkg_ones; newres.bkg.Ones.err = oldres.tm_bkg_ones_err; newres.bkg.Twos.v = oldres.tm_bkg_twos; newres.bkg.Twos.err = oldres.tm_bkg_twos_err; newres.net.Singles.v = oldres.tm_net_singles; newres.net.Singles.err = oldres.tm_net_singles_err; newres.net.Zeros.v = oldres.tm_net_zeros; newres.net.Zeros.err = oldres.tm_net_zeros_err; newres.net.Ones.v = oldres.tm_net_ones; newres.net.Ones.err = oldres.tm_net_ones_err; newres.net.Twos.v = oldres.tm_net_twos; newres.net.Twos.err = oldres.tm_net_twos_err; newres.k.alpha.v = oldres.tm_k_alpha; newres.k.alpha.err = oldres.tm_k_alpha_err; newres.k.pu_mass.v = oldres.tm_k_pu_mass; newres.k.pu_mass.err = oldres.tm_k_pu_mass_err; newres.k.pu240e_mass.v = oldres.tm_k_pu240e_mass; newres.k.pu240e_mass.err = oldres.tm_k_pu240e_mass_err; newres.k.dcl_minus_asy_pu_mass.v = oldres.tm_k_dcl_minus_asy_pu_mass; newres.k.dcl_minus_asy_pu_mass.err = oldres.tm_k_dcl_minus_asy_pu_mass_err; newres.s.alpha.v = oldres.tm_s_alpha; newres.s.alpha.err = oldres.tm_s_alpha_err; newres.s.pu_mass.v = oldres.tm_s_pu_mass; newres.s.pu_mass.err = oldres.tm_s_pu_mass_err; newres.s.pu240e_mass.v = oldres.tm_s_pu240e_mass; newres.s.pu240e_mass.err = oldres.tm_s_pu240e_mass_err; newres.s.dcl_minus_asy_pu_mass.v = oldres.tm_s_dcl_minus_asy_pu_mass; newres.s.dcl_minus_asy_pu_mass.err = oldres.tm_s_dcl_minus_asy_pu_mass_err; newres.methodParams.a = oldres.tm_a_res; newres.methodParams.b = oldres.tm_b_res; newres.methodParams.known_eff = (oldres.tm_known_eff_res == 0 ? false : true); newres.methodParams.solve_eff = (oldres.tm_solve_eff_res == 0 ? false : true); } else if (r is results_known_m_rec) { // dev note: untested mlogger.TraceEvent(LogLevels.Verbose, 34054, ("Transferring method results for " + r.GetType().ToString())); results_known_m_rec oldres = (results_known_m_rec)r; INCCMethodResults.results_known_m_rec newres = (INCCMethodResults.results_known_m_rec)meas.INCCAnalysisResults.LookupMethodResults(det.MultiplicityParams, meas.INCCAnalysisState.Methods.selector, AnalysisMethod.KnownM, true); newres.pu_mass = new Tuple(oldres.km_pu_mass, oldres.km_pu_mass_err); newres.pu240e_mass = new Tuple(oldres.km_pu240e_mass, oldres.km_pu240e_mass); newres.alpha = oldres.km_alpha; newres.mult = oldres.km_mult; newres.dcl_minus_asy_pu_mass = new Tuple(oldres.km_dcl_minus_asy_pu_mass, oldres.km_dcl_minus_asy_pu_mass_err); newres.pu239e_mass = oldres.km_pu240e_mass; newres.dcl_pu240e_mass = oldres.km_dcl_pu240e_mass; newres.dcl_pu_mass = oldres.km_dcl_pu_mass; newres.dcl_minus_asy_pu_mass_pct = oldres.km_dcl_minus_asy_pu_mass_pct; newres.pass = TransferUtils.PassCheck(oldres.km_pass_fail); newres.methodParams.b = oldres.km_b_res; newres.methodParams.c = oldres.km_c_res; newres.methodParams.sf_rate = oldres.km_sf_rate_res; newres.methodParams.sigma_x = oldres.km_sigma_x_res; newres.methodParams.vs1 = oldres.km_vs1_res; newres.methodParams.vi1 = oldres.km_vi1_res; newres.methodParams.vs2 = oldres.km_vs2_res; newres.methodParams.vi2 = oldres.km_vi2_res; } else if (r is results_add_a_source_rec) { // dev note: untested mlogger.TraceEvent(LogLevels.Verbose, 34055, ("Transferring method results for " + r.GetType().ToString())); results_add_a_source_rec oldres = (results_add_a_source_rec)r; INCCMethodResults.results_add_a_source_rec newres = (INCCMethodResults.results_add_a_source_rec)meas.INCCAnalysisResults.LookupMethodResults(det.MultiplicityParams, meas.INCCAnalysisState.Methods.selector, AnalysisMethod.KnownM, true); newres.pu_mass = new Tuple(oldres.ad_pu_mass, oldres.ad_pu_mass_err); newres.pu240e_mass = new Tuple(oldres.ad_pu240e_mass, oldres.ad_pu240e_mass); newres.dcl_minus_asy_pu_mass = new Tuple(oldres.ad_dcl_minus_asy_pu_mass, oldres.ad_dcl_minus_asy_pu_mass_err); newres.dcl_pu240e_mass = oldres.ad_dcl_pu240e_mass; newres.dcl_pu_mass = oldres.ad_dcl_pu_mass; newres.dcl_minus_asy_pu_mass_pct = oldres.ad_dcl_minus_asy_pu_mass_pct; newres.pass = TransferUtils.PassCheck(oldres.ad_pass_fail); newres.dzero_cf252_doubles = oldres.ad_dzero_cf252_doubles; newres.sample_avg_cf252_doubles.v = oldres.ad_sample_avg_cf252_doubles; newres.sample_avg_cf252_doubles.err = oldres.ad_sample_avg_cf252_doubles_err; newres.corr_doubles.v = oldres.ad_corr_doubles; newres.corr_doubles.err = oldres.ad_corr_doubles_err; newres.delta.v = oldres.ad_delta; newres.delta.err = oldres.ad_delta_err; newres.corr_factor.v = oldres.ad_corr_factor; newres.corr_factor.err = oldres.ad_corr_factor_err; newres.sample_cf252_ratio = TransferUtils.Copy(oldres.ad_sample_cf252_ratio, INCC.MAX_ADDASRC_POSITIONS); newres.sample_cf252_doubles = Tuple.MakeArray( vals: TransferUtils.Copy(oldres.ad_sample_cf252_doubles, INCC.MAX_ADDASRC_POSITIONS), errs: TransferUtils.Copy(oldres.ad_sample_cf252_doubles_err, INCC.MAX_ADDASRC_POSITIONS)); newres.tm_doubles_bkg.v = oldres.ad_tm_doubles_bkg; newres.tm_uncorr_doubles.v = oldres.ad_tm_uncorr_doubles; newres.tm_corr_doubles.v = oldres.ad_corr_doubles; newres.tm_doubles_bkg.err = oldres.ad_tm_doubles_bkg_err; newres.tm_uncorr_doubles.err = oldres.ad_tm_uncorr_doubles_err; newres.tm_corr_doubles.err = oldres.ad_corr_doubles_err; newres.methodParams.cev.a = oldres.ad_a_res; newres.methodParams.cev.b = oldres.ad_b_res; newres.methodParams.cev.c = oldres.ad_c_res; newres.methodParams.cev.d = oldres.ad_d_res; newres.methodParams.cev.var_a = oldres.ad_var_a_res; newres.methodParams.cev.var_b = oldres.ad_var_b_res; newres.methodParams.cev.var_c = oldres.ad_var_c_res; newres.methodParams.cev.var_d = oldres.ad_var_d_res; newres.methodParams.cev.setcovar(Coeff.a, Coeff.b, oldres.ad_covar_ab_res); newres.methodParams.cev._covar[0, 2] = oldres.ad_covar_ac_res; newres.methodParams.cev._covar[0, 3] = oldres.ad_covar_ad_res; newres.methodParams.cev._covar[1, 2] = oldres.ad_covar_bc_res; newres.methodParams.cev._covar[1, 3] = oldres.ad_covar_bd_res; newres.methodParams.cev._covar[2, 3] = oldres.ad_covar_cd_res; newres.methodParams.cev.cal_curve_equation = (INCCAnalysisParams.CurveEquation)oldres.ad_add_a_source_equation; newres.methodParams.cev.sigma_x = oldres.ad_sigma_x_res; newres.methodParams.cf.a = oldres.ad_cf_a_res; newres.methodParams.cf.b = oldres.ad_cf_b_res; newres.methodParams.cf.c = oldres.ad_cf_c_res; newres.methodParams.cf.d = oldres.ad_cf_d_res; newres.methodParams.dzero_avg = oldres.ad_dzero_avg_res; newres.methodParams.num_runs = oldres.ad_num_runs_res; newres.methodParams.tm_dbls_rate_upper_limit = oldres.ad_tm_dbls_rate_upper_limit_res; newres.methodParams.tm_weighting_factor = oldres.ad_tm_weighting_factor_res; newres.methodParams.use_truncated_mult = (oldres.ad_use_truncated_mult_res == 0 ? false : true); newres.methodParams.dzero_ref_date = INCC.DateFrom(TransferUtils.str(oldres.ad_dzero_ref_date_res, INCC.DATE_TIME_LENGTH)); newres.methodParams.position_dzero = TransferUtils.Copy(oldres.ad_position_dzero_res, INCC.MAX_ADDASRC_POSITIONS); // devnote: the original methodParams dcl_mass, doubles, min, max not preserved in INCC5 aas result rec } else if (r is results_curium_ratio_rec) { // dev note: untested mlogger.TraceEvent(LogLevels.Verbose, 34056, ("Transferring method results for " + r.GetType().ToString())); results_curium_ratio_rec oldres = (results_curium_ratio_rec)r; INCCMethodResults.results_curium_ratio_rec newres = (INCCMethodResults.results_curium_ratio_rec) meas.INCCAnalysisResults.LookupMethodResults(det.MultiplicityParams, meas.INCCAnalysisState.Methods.selector, AnalysisMethod.CuriumRatio, true); newres.pu.pu240e_mass = new Tuple(oldres.cr_pu240e_mass, oldres.cr_pu240e_mass_err); newres.pu.mass = new Tuple(oldres.cr_pu_mass, oldres.cr_pu_mass_err); newres.pu.dcl_mass = oldres.cr_dcl_pu_mass; newres.pu.dcl_minus_asy_mass = new Tuple(oldres.cr_dcl_minus_asy_pu_mass, oldres.cr_dcl_minus_asy_pu_mass_err); newres.pu.dcl_minus_asy_mass_pct = oldres.cr_dcl_minus_asy_pu_mass_pct; newres.pu.dcl_minus_asy_pu_mass = new Tuple(oldres.cr_dcl_minus_asy_pu_mass, oldres.cr_dcl_minus_asy_pu_mass_err); newres.pu.dcl_minus_asy_pu_mass_pct = oldres.cr_dcl_minus_asy_pu_mass_pct; newres.pu.pass = TransferUtils.PassCheck(oldres.cr_pu_pass_fail); newres.u.mass = new Tuple(oldres.cr_u_mass, oldres.cr_u_mass_err); newres.u.dcl_mass = oldres.cr_dcl_u_mass_res; newres.u.dcl_minus_asy_mass = new Tuple(oldres.cr_dcl_minus_asy_u_mass, oldres.cr_dcl_minus_asy_u_mass_err); newres.u.dcl_minus_asy_mass_pct = oldres.cr_dcl_minus_asy_u_mass_pct; newres.u.pass = TransferUtils.PassCheck(oldres.cr_u_pass_fail); newres.u235.mass = new Tuple(oldres.cr_u235_mass, oldres.cr_u235_mass_err); newres.u235.dcl_mass = oldres.cr_dcl_u235_mass_res; newres.u235.dcl_minus_asy_mass = new Tuple(oldres.cr_dcl_minus_asy_u235_mass, oldres.cr_dcl_minus_asy_u235_mass_err); newres.u235.dcl_minus_asy_mass_pct = oldres.cr_dcl_minus_asy_u235_mass_pct; newres.cm_mass = new Tuple(oldres.cr_cm_mass, oldres.cr_cm_mass_err); newres.methodParams2.cm_pu_ratio = new Tuple(oldres.cr_cm_pu_ratio, oldres.cr_cm_pu_ratio_err); newres.cm_pu_ratio_decay_corr = new Tuple(oldres.cr_cm_pu_ratio_decay_corr, oldres.cr_cm_pu_ratio_decay_corr_err); newres.methodParams2.cm_pu_ratio_date = INCC.DateFrom(TransferUtils.str(oldres.cr_cm_pu_ratio_date, INCC.DATE_TIME_LENGTH)); newres.cm_u_ratio_decay_corr = new Tuple(oldres.cr_cm_u_ratio_decay_corr, oldres.cr_cm_u_ratio_decay_corr_err); newres.methodParams2.cm_u_ratio_date = INCC.DateFrom(TransferUtils.str(oldres.cr_cm_pu_ratio_date, INCC.DATE_TIME_LENGTH)); newres.methodParams2.pu_half_life = oldres.cr_pu_half_life; newres.methodParams2.cm_id_label = TransferUtils.str(oldres.cr_cm_id_label, INCC.MAX_ITEM_ID_LENGTH); newres.methodParams2.cm_id = TransferUtils.str(oldres.cr_cm_id, INCC.MAX_ITEM_ID_LENGTH); newres.methodParams2.cm_input_batch_id = TransferUtils.str(oldres.cr_cm_input_batch_id, INCC.MAX_ITEM_ID_LENGTH); newres.methodParams.cev.a = oldres.cr_a_res; newres.methodParams.cev.b = oldres.cr_b_res; newres.methodParams.cev.c = oldres.cr_c_res; newres.methodParams.cev.d = oldres.cr_d_res; newres.methodParams.cev.var_a = oldres.cr_var_a_res; newres.methodParams.cev.var_b = oldres.cr_var_b_res; newres.methodParams.cev.var_c = oldres.cr_var_c_res; newres.methodParams.cev.var_d = oldres.cr_var_d_res; newres.methodParams.cev.setcovar(Coeff.a,Coeff.b,oldres.cr_covar_ab_res); newres.methodParams.cev._covar[0, 2] = oldres.cr_covar_ac_res; newres.methodParams.cev._covar[0, 3] = oldres.cr_covar_ad_res; newres.methodParams.cev._covar[1, 2] = oldres.cr_covar_bc_res; newres.methodParams.cev._covar[1, 3] = oldres.cr_covar_bd_res; newres.methodParams.cev._covar[2, 3] = oldres.cr_covar_cd_res; newres.methodParams.cev.cal_curve_equation = (INCCAnalysisParams.CurveEquation)oldres.cr_curium_ratio_equation; newres.methodParams.cev.sigma_x = oldres.cr_sigma_x_res; newres.methodParams.curium_ratio_type = OldToNewCRVariants(oldres.curium_ratio_type_res); } else if (r is results_active_passive_rec) // NEXT: confusion with combined, it's the same as Active internally? expand and study { mlogger.TraceEvent(LogLevels.Verbose, 34057, ("Transferring method results for " + r.GetType().ToString())); results_active_passive_rec oldres = (results_active_passive_rec)r; INCCMethodResults.results_active_passive_rec newres = (INCCMethodResults.results_active_passive_rec)meas.INCCAnalysisResults.LookupMethodResults(det.MultiplicityParams, meas.INCCAnalysisState.Methods.selector, AnalysisMethod.ActivePassive, true); newres.pass = TransferUtils.PassCheck(oldres.ap_pass_fail); newres.k.v = oldres.ap_k; newres.k.err = oldres.ap_k_err; newres.k0.v = oldres.ap_k0; newres.k1.v = oldres.ap_k1; newres.k1.err = oldres.ap_k1_err; newres.u235_mass.v = oldres.ap_u235_mass; newres.u235_mass.err = oldres.ap_u235_mass_err; newres.dcl_minus_asy_u235_mass.v = oldres.ap_dcl_minus_asy_u235_mass; newres.dcl_minus_asy_u235_mass.err = oldres.ap_dcl_minus_asy_u235_mass_err; newres.dcl_u235_mass = oldres.ap_dcl_u235_mass; newres.dcl_minus_asy_u235_mass_pct = oldres.ap_dcl_minus_asy_u235_mass_pct; newres.methodParams = new INCCAnalysisParams.active_passive_rec(); newres.methodParams.cev.a = oldres.ap_a_res; newres.methodParams.cev.b = oldres.ap_b_res; newres.methodParams.cev.c = oldres.ap_c_res; newres.methodParams.cev.d = oldres.ap_d_res; newres.methodParams.cev.var_a = oldres.ap_var_a_res; newres.methodParams.cev.var_b = oldres.ap_var_b_res; newres.methodParams.cev.var_c = oldres.ap_var_c_res; newres.methodParams.cev.var_d = oldres.ap_var_d_res; newres.methodParams.cev.setcovar(Coeff.a, Coeff.b, oldres.ap_covar_ab_res); newres.methodParams.cev._covar[0, 2] = oldres.ap_covar_ac_res; newres.methodParams.cev._covar[0, 3] = oldres.ap_covar_ad_res; newres.methodParams.cev._covar[1, 2] = oldres.ap_covar_bc_res; newres.methodParams.cev._covar[1, 3] = oldres.ap_covar_bd_res; newres.methodParams.cev._covar[2, 3] = oldres.ap_covar_cd_res; newres.methodParams.cev.cal_curve_equation = (INCCAnalysisParams.CurveEquation)oldres.ap_active_passive_equation; newres.methodParams.cev.sigma_x = oldres.ap_sigma_x_res; newres.delta_doubles.v = oldres.ap_delta_doubles; newres.delta_doubles.err = oldres.ap_delta_doubles_err; } else if (r is results_active_rec) { mlogger.TraceEvent(LogLevels.Verbose, 34058, ("Transferring method results for " + r.GetType().ToString())); results_active_rec oldres = (results_active_rec)r; INCCMethodResults.results_active_rec newres = (INCCMethodResults.results_active_rec)meas.INCCAnalysisResults.LookupMethodResults(det.MultiplicityParams, meas.INCCAnalysisState.Methods.selector, AnalysisMethod.Active, true); newres.pass = TransferUtils.PassCheck(oldres.act_pass_fail); newres.k.v = oldres.act_k; newres.k.err = oldres.act_k_err; newres.k0.v = oldres.act_k0; newres.k1.v = oldres.act_k1; newres.k1.err = oldres.act_k1_err; newres.u235_mass.v = oldres.act_u235_mass; newres.u235_mass.err = oldres.act_u235_mass_err; newres.dcl_minus_asy_u235_mass.v = oldres.act_dcl_minus_asy_u235_mass; newres.dcl_minus_asy_u235_mass.err = oldres.act_dcl_minus_asy_u235_mass_err; newres.dcl_u235_mass = oldres.act_dcl_u235_mass; newres.dcl_minus_asy_u235_mass_pct = oldres.act_dcl_minus_asy_u235_mass_pct; newres.methodParams = new INCCAnalysisParams.active_rec(); newres.methodParams.cev.a = oldres.act_a_res; newres.methodParams.cev.b = oldres.act_b_res; newres.methodParams.cev.c = oldres.act_c_res; newres.methodParams.cev.d = oldres.act_d_res; newres.methodParams.cev.var_a = oldres.act_var_a_res; newres.methodParams.cev.var_b = oldres.act_var_b_res; newres.methodParams.cev.var_c = oldres.act_var_c_res; newres.methodParams.cev.var_d = oldres.act_var_d_res; newres.methodParams.cev.setcovar(Coeff.a,Coeff.b,oldres.act_covar_ab_res); newres.methodParams.cev._covar[0, 2] = oldres.act_covar_ac_res; newres.methodParams.cev._covar[0, 3] = oldres.act_covar_ad_res; newres.methodParams.cev._covar[1, 2] = oldres.act_covar_bc_res; newres.methodParams.cev._covar[1, 3] = oldres.act_covar_bd_res; newres.methodParams.cev._covar[2, 3] = oldres.act_covar_cd_res; newres.methodParams.cev.cal_curve_equation = (INCCAnalysisParams.CurveEquation)oldres.act_active_equation; newres.methodParams.cev.sigma_x = oldres.act_sigma_x_res; } else if (r is results_active_mult_rec) { mlogger.TraceEvent(LogLevels.Verbose, 34059, ("Transferring method results for " + r.GetType().ToString())); results_active_mult_rec oldres = (results_active_mult_rec)r; INCCMethodResults.results_active_mult_rec newres = (INCCMethodResults.results_active_mult_rec)meas.INCCAnalysisResults.LookupMethodResults(det.MultiplicityParams, meas.INCCAnalysisState.Methods.selector, AnalysisMethod.ActiveMultiplicity, true); newres.methodParams = new INCCAnalysisParams.active_mult_rec(); newres.methodParams.vf1 = oldres.am_vf1_res; newres.methodParams.vf2 = oldres.am_vf2_res; newres.methodParams.vf3 = oldres.am_vf3_res; newres.methodParams.vt1 = oldres.am_vt1_res; newres.methodParams.vt2 = oldres.am_vt2_res; newres.methodParams.vt3 = oldres.am_vt2_res; newres.mult.v = oldres.am_mult; newres.mult.err = oldres.am_mult_err; } else if (r is results_collar_rec) { mlogger.TraceEvent(LogLevels.Verbose, 34060, ("Transferring method results for " + r.GetType().ToString())); results_collar_rec oldres = (results_collar_rec)r; INCCMethodResults.results_collar_rec newres = (INCCMethodResults.results_collar_rec)meas.INCCAnalysisResults.LookupMethodResults(det.MultiplicityParams, meas.INCCAnalysisState.Methods.selector, AnalysisMethod.Collar, true); newres.u235_mass.v = oldres.col_u235_mass; newres.u235_mass.err = oldres.col_u235_mass_err; newres.percent_u235 = oldres.col_percent_u235; newres.total_u_mass = oldres.col_total_u_mass; newres.k0.v = oldres.col_k0; newres.k0.err = oldres.col_k0_err; newres.k1.v = oldres.col_k1; newres.k1.err = oldres.col_k1_err; newres.k2.v = oldres.col_k2; newres.k2.err = oldres.col_k2_err; newres.k3.v = oldres.col_k3; newres.k3.err = oldres.col_k3_err; newres.k4.v = oldres.col_k4; newres.k4.err = oldres.col_k4_err; newres.k5.v = oldres.col_k5; newres.k5.err = oldres.col_k5_err; newres.source_id = TransferUtils.str(oldres.col_source_id, INCC.SOURCE_ID_LENGTH); newres.total_corr_fact.v = oldres.col_total_corr_fact; newres.total_corr_fact.err = oldres.col_total_corr_fact_err; newres.corr_doubles.v = oldres.col_corr_doubles; newres.corr_doubles.err = oldres.col_corr_doubles_err; newres.dcl_length.v = oldres.col_dcl_length; newres.dcl_length.err = oldres.col_dcl_length_err; newres.dcl_total_u235.v = oldres.col_dcl_total_u235; newres.dcl_total_u235.err = oldres.col_dcl_total_u235_err; newres.dcl_total_u238.v = oldres.col_dcl_total_u238; newres.dcl_total_u238.err = oldres.col_dcl_total_u238_err; newres.dcl_total_rods = oldres.col_dcl_total_rods; newres.dcl_total_poison_rods = oldres.col_dcl_total_poison_rods; newres.dcl_poison_percent.v = oldres.col_dcl_poison_percent; newres.dcl_poison_percent.err = oldres.col_dcl_poison_percent_err; newres.dcl_minus_asy_u235_mass_pct = oldres.col_dcl_minus_asy_u235_mass_pct; newres.dcl_minus_asy_u235_mass.v = oldres.col_dcl_minus_asy_u235_mass; newres.dcl_minus_asy_u235_mass.err = oldres.col_dcl_minus_asy_u235_mass_err; newres.methodParamsC.cev.a = oldres.col_a_res; newres.methodParamsC.cev.b = oldres.col_b_res; newres.methodParamsC.cev.c = oldres.col_c_res; newres.methodParamsC.cev.d = oldres.col_d_res; newres.methodParamsC.cev.var_a = oldres.col_var_a_res; newres.methodParamsC.cev.var_b = oldres.col_var_b_res; newres.methodParamsC.cev.var_c = oldres.col_var_c_res; newres.methodParamsC.cev.var_d = oldres.col_var_d_res; newres.methodParamsC.cev.setcovar(Coeff.a,Coeff.b,oldres.col_covar_ab_res); newres.methodParamsC.cev._covar[0, 2] = oldres.col_covar_ac_res; newres.methodParamsC.cev._covar[0, 3] = oldres.col_covar_ad_res; newres.methodParamsC.cev._covar[1, 2] = oldres.col_covar_bc_res; newres.methodParamsC.cev._covar[1, 3] = oldres.col_covar_bd_res; newres.methodParamsC.cev._covar[2, 3] = oldres.col_covar_cd_res; newres.methodParamsC.cev.cal_curve_equation = (INCCAnalysisParams.CurveEquation)oldres.col_collar_equation; newres.methodParamsC.cev.sigma_x = oldres.col_sigma_x_res; newres.methodParamsC.poison_absorption_fact[0] = oldres.col_poison_absorption_fact_res; newres.methodParamsC.poison_rod_a[0] = new Tuple(oldres.col_poison_rod_a_res, oldres.col_poison_rod_a_err_res); newres.methodParamsC.poison_rod_b[0] = new Tuple(oldres.col_poison_rod_b_res, oldres.col_poison_rod_b_err_res); newres.methodParamsC.poison_rod_c[0] = new Tuple(oldres.col_poison_rod_c_res, oldres.col_poison_rod_c_err_res); newres.methodParamsC.collar_mode = (oldres.col_collar_mode == 0 ? false : true); newres.methodParamsC.number_calib_rods = (int)oldres.col_number_calib_rods_res; newres.methodParamsC.poison_rod_type[0] = TransferUtils.str(oldres.col_poison_rod_type_res, INCC.MAX_ROD_TYPE_LENGTH); newres.methodParamsC.u_mass_corr_fact_a.v = oldres.col_u_mass_corr_fact_a_res; newres.methodParamsC.u_mass_corr_fact_a.err = oldres.col_u_mass_corr_fact_a_err_res; newres.methodParamsC.u_mass_corr_fact_b.v = oldres.col_u_mass_corr_fact_b_res; newres.methodParamsC.u_mass_corr_fact_b.err = oldres.col_u_mass_corr_fact_b_err_res; newres.methodParamsC.sample_corr_fact.v = oldres.col_sample_corr_fact_res; newres.methodParamsC.sample_corr_fact.err = oldres.col_sample_corr_fact_err_res; newres.methodParamsDetector.collar_mode = (oldres.col_collar_mode == 0 ? false : true); newres.methodParamsDetector.reference_date = INCC.DateFrom(TransferUtils.str(oldres.col_reference_date_res, INCC.DATE_TIME_LENGTH)); newres.methodParamsDetector.relative_doubles_rate = oldres.col_relative_doubles_rate_res; newres.methodParamsK5.k5_mode = (oldres.col_collar_mode == 0 ? false : true); newres.methodParamsK5.k5_item_type = TransferUtils.str(oldres.col_collar_item_type, INCC.MAX_ITEM_TYPE_LENGTH); newres.methodParamsK5.k5 = Copy(oldres.collar_k5_res, oldres.collar_k5_err_res, INCC.MAX_COLLAR_K5_PARAMETERS); newres.methodParamsK5.k5_checkbox = TransferUtils.Copy(oldres.collar_k5_checkbox_res, INCC.MAX_COLLAR_K5_PARAMETERS); for (int i = 0; i < INCC.MAX_COLLAR_K5_PARAMETERS; i++) { int index = i * INCC.MAX_K5_LABEL_LENGTH; newres.methodParamsK5.k5_label[i] = TransferUtils.str(oldres.collar_k5_label_res + index, INCC.MAX_K5_LABEL_LENGTH); } CollarItemId cid = new CollarItemId(TransferUtils.str(results.item_id, INCC.MAX_ITEM_ID_LENGTH)); cid.length = new Tuple(newres.dcl_length); cid.total_u235 = new Tuple(newres.dcl_total_u235); cid.total_u238 = new Tuple(newres.dcl_total_u238); cid.total_rods = newres.dcl_total_rods; cid.total_poison_rods = newres.dcl_total_poison_rods; cid.poison_percent = new Tuple(newres.dcl_poison_percent); cid.rod_type = newres.methodParamsC.poison_rod_type[0]; cid.modified = true; List<CollarItemId> list = NC.App.DB.CollarItemIds.GetList(); bool glump = list.Exists(i => { return string.Compare(cid.item_id, i.item_id, true) == 0; }); if (glump && overwrite) { list.Remove(cid); list.Add(cid); } else list.Add(cid); } else if (r is results_de_mult_rec) { mlogger.TraceEvent(LogLevels.Verbose, 34061, ("Transferring method results for " + r.GetType().ToString())); results_de_mult_rec oldres = (results_de_mult_rec)r; INCCMethodResults.results_de_mult_rec newres = (INCCMethodResults.results_de_mult_rec)meas.INCCAnalysisResults.LookupMethodResults(det.MultiplicityParams, meas.INCCAnalysisState.Methods.selector, AnalysisMethod.DUAL_ENERGY_MULT_SAVE_RESTORE, true); newres.meas_ring_ratio = oldres.de_meas_ring_ratio; newres.energy_corr_factor = oldres.de_energy_corr_factor; newres.interpolated_neutron_energy = oldres.de_interpolated_neutron_energy; newres.methodParams.detector_efficiency = TransferUtils.Copy(oldres.de_detector_efficiency_res, INCC.MAX_DUAL_ENERGY_ROWS); newres.methodParams.inner_outer_ring_ratio = TransferUtils.Copy(oldres.de_inner_outer_ring_ratio_res, INCC.MAX_DUAL_ENERGY_ROWS); newres.methodParams.neutron_energy = TransferUtils.Copy(oldres.de_neutron_energy_res, INCC.MAX_DUAL_ENERGY_ROWS); newres.methodParams.relative_fission = TransferUtils.Copy(oldres.de_relative_fission_res, INCC.MAX_DUAL_ENERGY_ROWS); newres.methodParams.inner_ring_efficiency = oldres.de_inner_ring_efficiency_res; newres.methodParams.outer_ring_efficiency = oldres.de_outer_ring_efficiency_res; } else if (r is results_tm_bkg_rec) { mlogger.TraceEvent(LogLevels.Warning, 34062, ("Transferring method results for " + r.GetType().ToString())); results_tm_bkg_rec oldres = (results_tm_bkg_rec)r; // todo: tm bkg handling design incomplete, these values are attached to bkg measurements when the truncated flag is enabled INCCMethodResults.results_tm_bkg_rec newres = (INCCMethodResults.results_tm_bkg_rec)meas.INCCAnalysisResults.LookupMethodResults(det.MultiplicityParams, meas.INCCAnalysisState.Methods.selector, AnalysisMethod.None, true); newres.methodParams.Singles.v = oldres.results_tm_singles_bkg; newres.methodParams.Singles.err = oldres.results_tm_singles_bkg_err; newres.methodParams.Zeros.v = oldres.results_tm_zeros_bkg; newres.methodParams.Zeros.err = oldres.results_tm_zeros_bkg_err; newres.methodParams.Ones.v = oldres.results_tm_ones_bkg; newres.methodParams.Ones.err = oldres.results_tm_ones_bkg_err; newres.methodParams.Twos.v = oldres.results_tm_twos_bkg; newres.methodParams.Twos.err = oldres.results_tm_twos_bkg_err; } else { mlogger.TraceEvent(LogLevels.Warning, 34040, ("todo: Transferring method results for " + r.GetType().ToString())); // todo: complete the list } } } #endregion results transfer // dev note: here is where the detector tree creation and replacement with restore_replace_detector_structs occurs in the original code // todo: based on overwrite flag, replace det-dependent classes, the analysis_methods: (none-map) and each (det,mat) -> calib from results class instances #region Meas&Results AnalysisDefs.holdup_config_rec hc = new AnalysisDefs.holdup_config_rec(); hc.glovebox_id = TransferUtils.str(results.results_glovebox_id, INCC.MAX_GLOVEBOX_ID_LENGTH); hc.num_columns = results.results_num_columns; hc.num_rows = results.results_num_rows; hc.distance = results.results_distance; meas.AcquireState.glovebox_id = hc.glovebox_id; // this is a good place to create the general results_rec INCCResults.results_rec xres = new INCCResults.results_rec(meas); meas.INCCAnalysisResults.TradResultsRec = xres; // oddball entries in need of preservation xres.total_good_count_time = results.total_good_count_time; xres.total_number_runs = results.total_number_runs; xres.primary = imr.primaryMethod; xres.net_drum_weight = results.net_drum_weight; xres.completed = (results.completed != 0 ? true : false); xres.db_version = results.db_version; xres.hc = hc; xres.original_meas_date = INCC.DateFrom(TransferUtils.str(results.original_meas_date, INCC.DATE_TIME_LENGTH)); // NEXT: copy move passive and active meas id's here long mid = meas.Persist(); // save the warning and error messages from the results here, these rode on the results rec in INCC5 NC.App.DB.AddAnalysisMessages(msgs, mid); // Store off Params NC.App.DB.UpdateDetector(det); NC.App.DB.NormParameters.Set(det, meas.Norm); // might have been saved in earlier step already NC.App.DB.BackgroundParameters.Set(det, meas.Background); INCCDB.AcquireSelector acqsel = new INCCDB.AcquireSelector(det, acq.item_type, acq.MeasDateTime); if (overwrite) { NC.App.DB.ReplaceAcquireParams(acqsel, acq); } else NC.App.DB.AddAcquireParams(acqsel, acq); // gotta add it to the global map, then push it to the DB if (meas.Tests != null) // added only if not found on the list NC.App.DB.TestParameters.Set(meas.Tests); NC.App.DB.Isotopics.SetList(); // new style de 'mouser'! //NC.App.DB.CompositeIsotopics.SetList();// next:NYI NC.App.DB.ItemIds.SetList(); // This writes any new items ids to the DB NC.App.DB.CollarItemIds.SetList(); // so does this //Loop over measurement cycles NC.App.DB.AddCycles(meas.Cycles, det.MultiplicityParams, mid); //Store off Params // todo: complete table design and creation/update here, still have issues with collar and curium ratio results // get results based on meas option, (Calib and Verif have method results, others do not), update into DB here IEnumerator iter = meas.INCCAnalysisResults.GetMeasSelectorResultsEnumerator(); while (iter.MoveNext()) // only one result indexer is present when doing an INCC5 transfer { MeasOptionSelector moskey = (MeasOptionSelector)iter.Current; INCCResult ir = meas.INCCAnalysisResults[moskey]; // ir contains the measurement option-specific results: empty for rates and holdup, and also empty for calib and verif, the method-focused analyses, // but values are present for initial, normalization, precision, and should be present for background for the tm bkg results switch (meas.MeasOption) { case AssaySelector.MeasurementOption.background: if (meas.Background.TMBkgParams.ComputeTMBkg) mlogger.TraceEvent(LogLevels.Warning, 82010, "Background truncated multiplicity"); // todo: present the tm bkg results on m.Background break; case AssaySelector.MeasurementOption.initial: case AssaySelector.MeasurementOption.normalization: case AssaySelector.MeasurementOption.precision: { ElementList els = ir.ToDBElementList(); ParamsRelatedBackToMeasurement ar = new ParamsRelatedBackToMeasurement(ir.Table); long resid = ar.Create(mid, els); mlogger.TraceEvent(LogLevels.Verbose, 34103, string.Format("Preserving {0} as {1}", ir.Table, resid)); } break; case AssaySelector.MeasurementOption.verification: case AssaySelector.MeasurementOption.calibration: { INCCMethodResults imrs; bool have = meas.INCCAnalysisResults.TryGetINCCResults(moskey.MultiplicityParams, out imrs); if (have) // should be true for verification and calibration { if (imrs.ContainsKey(meas.INCCAnalysisState.Methods.selector)) { // we've got a distinct detector id and material type on the methods, so that is the indexer here Dictionary<AnalysisMethod, INCCMethodResult> amimr = imrs[meas.INCCAnalysisState.Methods.selector]; // now get an enumerator over the map of method results Dictionary<AnalysisMethod, INCCMethodResult>.Enumerator ai = amimr.GetEnumerator(); while (ai.MoveNext()) { if (ai.Current.Key.IsNone()) continue; INCCMethodResult _imr = ai.Current.Value; // insert this into the DB under the current meas key try { ElementList els = _imr.ToDBElementList(); // also sets table property, gotta do it first ParamsRelatedBackToMeasurement ar = new ParamsRelatedBackToMeasurement(_imr.Table); long resid = ar.Create(mid, els); do { long resmid = ar.CreateMethod(resid, mid, _imr.methodParams.ToDBElementList()); mlogger.TraceEvent(LogLevels.Verbose, 34101, string.Format("Preserving {0} as {1},{2}", _imr.Table, resmid, resid)); } while (_imr.methodParams.Pump > 0); } catch (Exception e) { mlogger.TraceEvent(LogLevels.Warning, 34102, "Results processing error {0} {1}", _imr.ToString(), e.Message); } } } else mlogger.TraceEvent(LogLevels.Error, 34102, "Results missing for {0}", meas.INCCAnalysisState.Methods.selector.ToString()); } } break; case AssaySelector.MeasurementOption.rates: case AssaySelector.MeasurementOption.holdup: case AssaySelector.MeasurementOption.unspecified: default: // nothing new to present with these break; } } #endregion Meas&Results // todo: handle well config setting with bkg here; return true; }
/// <summary> /// Finalize measurement instance content for analysis /// Populate calibration parameters maps /// </summary> /// <param name="meas">The partially initialized measurement instance</param> /// <param name="useCurCalibParams">Default behavior is to use active method and other calibration parameters; /// skipped if Reanalysis prepared the details from database measurement results /// </param> static public void FillInReanalysisRemainingDetails(Measurement meas, bool useCurCalibParams = true) { // get the current INCC5 analysis methods if (useCurCalibParams || meas.INCCAnalysisState == null) { meas.INCCAnalysisState = new INCCAnalysisState(); INCCSelector sel = new INCCSelector(meas.AcquireState.detector_id, meas.AcquireState.item_type); AnalysisMethods am; bool found = CentralizedState.App.DB.DetectorMaterialAnalysisMethods.TryGetValue(sel, out am); if (found) { am.selector = sel; // gotta do this so that the equality operator is not incorrect meas.INCCAnalysisState.Methods = am; } else { meas.INCCAnalysisState.Methods = new AnalysisMethods(sel); } } // else use what was there meas.InitializeContext(clearCounterResults: false); meas.PrepareINCCResults(); System.Collections.IEnumerator iter = meas.CountingAnalysisResults.GetATypedParameterEnumerator(typeof(Multiplicity)); while (iter.MoveNext()) { Multiplicity mkey = (Multiplicity)iter.Current; try { MultiplicityCountingRes mcr = (MultiplicityCountingRes)meas.CountingAnalysisResults[mkey]; if (mcr.AB.Unset) { LMRawAnalysis.SDTMultiplicityCalculator.SetAlphaBeta(mkey, mcr); // works only if MaxBins is set } MeasOptionSelector mos = new MeasOptionSelector(meas.MeasOption, mkey); INCCResult result = meas.INCCAnalysisState.Lookup(mos); result.CopyFrom(mcr); } catch (Exception) { //logger.TraceEvent(LogLevels.Error, 4027, "PrepareINCCResults error: " + ex.Message); } } // stratum look up, finds existing stratum by name if (useCurCalibParams || meas.Stratum == null) { List <INCCDB.StratumDescriptor> sl = CentralizedState.App.DB.StrataList(); INCCDB.StratumDescriptor s = sl.Find(w => string.Compare(w.Desc.Name, meas.AcquireState.stratum_id.Name, true) == 0); if (s == null) { meas.Stratum = new Stratum(); } else { meas.Stratum = new Stratum(s.Stratum); } } INCCResults.results_rec xres = new INCCResults.results_rec(meas); meas.INCCAnalysisResults.TradResultsRec = xres; CentralizedState.App.Opstate.Measurement = meas; // put the measurement definition on the global state }
/// <summary> /// Prepare measurement instance content for analysis /// Populate calibration and counting parameters maps /// Create general results and specific results dictionary map entries /// Set up stratum details /// </summary> /// <param name="meas">The partially initialized measurement instance</param> /// <param name="useCurCalibParams">Default behavior is to use active method and other calibration parameters; /// skipped if Reanalysis prepared the details from database measurement results /// </param> public static void FillInMeasurementDetails(Measurement meas, bool useCurCalibParams = true) { if (meas.Detector.ListMode) { // APluralityOfMultiplicityAnalyzers: see below // URGENT: see below //if (an INCC5 DB cycle read or DB Ver reanalysis then rebuild the analyzers from the associated saved LM results:) // object x = CentralizedState.App.DB.GetAnalyzersFromResults(meas.Detector, meas.MeasurementId); //else meas.AnalysisParams = CentralizedState.App.LMBD.CountingParameters(meas.Detector, applySRFromDetector: true); if (meas.MeasOption.IsListMode()) // pure List Mode, not INCC5 { // for a list-mode-only measurement with a multiplicity analyzer the detector SR params must match at least one of the multiplicity analyzer SR params ApplyVSRChangesToDefaultDetector(meas); } else // it is an INCC5 analysis driven with LM data { // prepare or identify an active CA entry with matching CA gatewidth and FA, and has the same SR params as the detector if (meas.AnalysisParams.PrepareMatchingVSR(meas.Detector.MultiplicityParams)) CentralizedState.App.LMBD.UpdateCounters(meas.Detector.Id.DetectorName, meas.AnalysisParams); // added one, save it } } else // construct param key source with the single mkey entry point { // prepare analyzer params from detector SR params meas.AnalysisParams = CentralizedState.App.LMBD.CountingParameters(meas.Detector, applySRFromDetector: false); if (!meas.AnalysisParams.Exists(w => { return (w is Multiplicity) && (w as Multiplicity).Equals(meas.Detector.MultiplicityParams); })) meas.AnalysisParams.Add(meas.Detector.MultiplicityParams); } // get the current INCC5 analysis methods if (useCurCalibParams || meas.INCCAnalysisState == null) { meas.INCCAnalysisState = new INCCAnalysisState(); INCCSelector sel = new INCCSelector(meas.AcquireState.detector_id, meas.AcquireState.item_type); AnalysisMethods am; bool found = CentralizedState.App.DB.DetectorMaterialAnalysisMethods.TryGetValue(sel, out am); if (found) { am.selector = sel; // gotta do this so that the equality operator is not incorrect meas.INCCAnalysisState.Methods = am; } else meas.INCCAnalysisState.Methods = new AnalysisMethods(sel); } // else use what was there meas.InitializeContext(clearCounterResults:true); meas.PrepareINCCResults(); // stratum look up, finds existing stratum by name if (useCurCalibParams || meas.Stratum == null) { List<INCCDB.StratumDescriptor> sl = CentralizedState.App.DB.StrataList(); INCCDB.StratumDescriptor s = sl.Find(w => string.Compare(w.Desc.Name, meas.AcquireState.stratum_id.Name, true) == 0); if (s == null) meas.Stratum = new Stratum(); else meas.Stratum = new Stratum(s.Stratum); } INCCResults.results_rec xres = new INCCResults.results_rec(meas); meas.INCCAnalysisResults.TradResultsRec = xres; CentralizedState.App.Opstate.Measurement = meas; // put the measurement definition on the global state }
INCCAnalysisParams.collar_combined_rec CollarEntryProcesser(INCCInitialDataCalibrationFile idcf, INCCSelector sel, byte mode) { DetectorMaterialMethod m1 = new DetectorMaterialMethod(sel.material, sel.detectorid, INCC.COLLAR_DETECTOR_SAVE_RESTORE); m1.extra = mode; DetectorMaterialMethod m2 = new DetectorMaterialMethod(sel.material, sel.detectorid, INCC.COLLAR_SAVE_RESTORE); m2.extra = mode; DetectorMaterialMethod m3 = new DetectorMaterialMethod(sel.material, sel.detectorid, INCC.COLLAR_K5_SAVE_RESTORE); m3.extra = mode; KeyValuePair<DetectorMaterialMethod, object> k1, k2, k3; bool ok = idcf.DetectorMaterialMethodParameters.GetPair(m1, out k1); if (!ok) { mlogger.TraceEvent(LogLevels.Verbose, 30811, "No collar detector values for " + m1.ToString()); ok = idcf.DetectorMaterialMethodParameters.GetPair(m2, out k2); if (ok) { // k5 and collar but no det entry, find the closest match det entry and make a fake one and use it List<KeyValuePair<DetectorMaterialMethod, object>> l = idcf.DetectorMaterialMethodParameters.GetDetectorsWithEntries; if (l.Count > 0) { object o = l[0].Value; collar_detector_rec rec = MakeAFake((collar_detector_rec)o, sel.detectorid, sel.material); DetectorMaterialMethod mf1 = new DetectorMaterialMethod(sel.material, sel.detectorid, INCC.COLLAR_DETECTOR_SAVE_RESTORE); mf1.extra = mode; k1 = new KeyValuePair<DetectorMaterialMethod, object>(mf1, rec); } else return null; } else { mlogger.TraceEvent(LogLevels.Verbose, 30812, "No collar values for " + m2.ToString()); return null; } } else { ok = idcf.DetectorMaterialMethodParameters.GetPair(m2, out k2); if (!ok) { mlogger.TraceEvent(LogLevels.Verbose, 30812, "No collar values for " + m2.ToString()); return null; } } ok = idcf.DetectorMaterialMethodParameters.GetPair(m3, out k3); if (!ok) { mlogger.TraceEvent(LogLevels.Verbose, 30813, "No k5 values for " + m3.ToString()); return null; } collar_rec collar; collar_detector_rec collar_detector; collar_k5_rec collar_k5; if (k1.Key.extra == -1) return null; collar_detector = (collar_detector_rec)k1.Value; if (k2.Key.extra == -1) return null; collar = (collar_rec)k2.Value; if (k3.Key.extra == -1) return null; collar_k5 = (collar_k5_rec)k3.Value; // got the three INCCAnalysisParams.collar_combined_rec combined = new INCCAnalysisParams.collar_combined_rec(); ushort bonk = 0; CollarDet(combined, collar_detector, bonk); bonk = 1; CollarParm(combined, collar, bonk); bonk = 2; CollarK5(combined, collar_k5, bonk); bonk = 3; k1.Key.extra = -1; k2.Key.extra = -1; k3.Key.extra = -1; return combined; }
public static AnalysisMethods GetMethodSelections(string det, string mat) { INCCSelector sel = new INCCSelector(det, mat); AnalysisMethods lam; bool found = CentralizedState.App.DB.DetectorMaterialAnalysisMethods.TryGetValue(sel, out lam); return lam; }
internal static unsafe active_mult_rec MoveAM(INCCSelector se, INCCAnalysisParams.INCCMethodDescriptor md) { INCCAnalysisParams.active_mult_rec imr = (INCCAnalysisParams.active_mult_rec)md; active_mult_rec m = new active_mult_rec(); byte[] b = new byte[INCC.MAX_DETECTOR_ID_LENGTH]; char[] a = se.detectorid.ToCharArray(0, Math.Min(se.detectorid.Length, INCC.MAX_DETECTOR_ID_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.active_mult_detector_id); b = new byte[INCC.MAX_ITEM_TYPE_LENGTH]; a = se.material.ToCharArray(0, Math.Min(se.material.Length, INCC.MAX_ITEM_TYPE_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, m.active_mult_item_type); m.am_vf1 = imr.vf1; m.am_vf2 = imr.vf2; m.am_vf3 = imr.vf3; m.am_vt1 = imr.vt1; m.am_vt2 = imr.vt2; m.am_vt3 = imr.vt3; return m; }
internal static unsafe analysis_method_rec MoveAMR(INCCSelector se) { analysis_method_rec amr = new analysis_method_rec(); byte[] b = new byte[INCC.MAX_DETECTOR_ID_LENGTH]; char[] a = se.detectorid.ToCharArray(0, Math.Min(se.detectorid.Length, INCC.MAX_DETECTOR_ID_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, amr.analysis_method_detector_id); b = new byte[INCC.MAX_ITEM_TYPE_LENGTH]; a = se.material.ToCharArray(0, Math.Min(se.material.Length, INCC.MAX_ITEM_TYPE_LENGTH)); Encoding.ASCII.GetBytes(a, 0, a.Length, b, 0); TransferUtils.Copy(b, amr.item_type); AnalysisMethods ams = NC.App.DB.DetectorMaterialAnalysisMethods[se]; amr.backup_method = (byte)NewTypeToOldMethodId(ams.Backup); amr.normal_method = (byte)NewTypeToOldMethodId(ams.Normal); amr.cal_curve = (byte)(ams.choices[(int)AnalysisMethod.CalibrationCurve] ? 1 : 0); amr.active = (byte)(ams.choices[(int)AnalysisMethod.Active] ? 1 : 0); amr.active_mult = (byte)(ams.choices[(int)AnalysisMethod.ActiveMultiplicity] ? 1 : 0); amr.active_passive = (byte)(ams.choices[(int)AnalysisMethod.ActivePassive] ? 1 : 0); amr.add_a_source = (byte)(ams.choices[(int)AnalysisMethod.AddASource] ? 1 : 0); amr.collar = (byte)(ams.choices[(int)AnalysisMethod.Collar] ? 1 : 0); amr.curium_ratio = (byte)(ams.choices[(int)AnalysisMethod.CuriumRatio] ? 1 : 0); amr.known_alpha = (byte)(ams.choices[(int)AnalysisMethod.KnownA] ? 1 : 0); amr.known_m = (byte)(ams.choices[(int)AnalysisMethod.KnownM] ? 1 : 0); amr.multiplicity = (byte)(ams.choices[(int)AnalysisMethod.Multiplicity] ? 1 : 0); amr.truncated_mult = (byte)(ams.choices[(int)AnalysisMethod.TruncatedMultiplicity] ? 1 : 0); return amr; }
/// <summary> /// Construct a full measurement state and set it on the internal lameness /// </summary> /// <param name="acq">Acquire Parameters</param> /// <param name="det">Detector</param> /// <param name="mo">MeasurementOption</param> public static void BuildMeasurement(AcquireParameters acq, Detector det, AssaySelector.MeasurementOption mo) { // gather it all together MeasurementTuple mt = new MeasurementTuple(new DetectorList(det), CentralizedState.App.DB.TestParameters.Get(), GetCurrentNormParams(det), GetCurrentBackgroundParams(det), GetAcquireIsotopics(acq), acq, GetCurrentHVCalibrationParams(det)); det.Id.source = acq.data_src; // set the detector overall data source value here // create the context holder for the measurement. Everything is rooted here ... Measurement meas = new Measurement(mt, mo, CentralizedState.App.Logger(LMLoggers.AppSection.Data)); if (det.ListMode) { // dev note: design flaw exposed by this mess here, when LM has > 1 SVR, there is no way to associate > 1 SVRs with a single detector/SR/Mult/Conn pairing // It should be the other way around, the Mult params for each LMMultiplicity analyzer override the single entry on the sr_parms_rec when each analyis is performed. meas.AnalysisParams = CentralizedState.App.LMBD.CountingParameters(det, applySRFromDetector:true); if (mo == AssaySelector.MeasurementOption.unspecified) // pure List Mode, not INCC5 { // for a list-mode-only measurement with a multiplicity analyzer the detector SR params must match at least one of the multiplicity analyzer SR params ApplyVSRChangesToDefaultDetector(meas); } else // it is an INCC5 analysis driven with LM data { // check to see if detector settings are copied into an active CA entry if (!meas.AnalysisParams.Exists(w => { return (w is Multiplicity) && (w as Multiplicity).Equals(det.MultiplicityParams) && w.Active; })) meas.AnalysisParams.Add(det.MultiplicityParams); } } else { // prepare analyzer params from detector SR params meas.AnalysisParams = CentralizedState.App.LMBD.CountingParameters(det, applySRFromDetector:false); if (!meas.AnalysisParams.Exists(w => { return (w is Multiplicity) && (w as Multiplicity).Equals(det.MultiplicityParams); })) meas.AnalysisParams.Add(det.MultiplicityParams); } // get the INCC5 analysis methods meas.INCCAnalysisState = new INCCAnalysisState(); INCCSelector sel = new INCCSelector(acq.detector_id, acq.item_type); AnalysisMethods am; bool found = CentralizedState.App.DB.DetectorMaterialAnalysisMethods.TryGetValue(sel, out am); if (found) { am.selector = sel; // gotta do this so that the equality operator is not incorrect meas.INCCAnalysisState.Methods = am; } else meas.INCCAnalysisState.Methods = new AnalysisMethods(sel); meas.InitializeContext(); meas.PrepareINCCResults(); // next: stratum not set List<INCCDB.StratumDescriptor> sl = CentralizedState.App.DB.StrataList(); INCCDB.StratumDescriptor s = sl.Find(w => w.Desc.CompareTo(acq.stratum_id) == 0); if (s == null) meas.Stratum = new Stratum(); else meas.Stratum = new Stratum(s.Stratum); INCCResults.results_rec xres = new INCCResults.results_rec(meas); meas.INCCAnalysisResults.TradResultsRec = xres; CentralizedState.App.Opstate.Measurement = meas; // put the measurement definition on the global state // ready for insertion of methods and processing start }