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rtomiyasu |
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/* |
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* The MIT License |
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Conograph (powder auto-indexing program) |
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Copyright (c) <2012> <Ryoko Oishi-Tomiyasu, KEK> |
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Permission is hereby granted, free of charge, to any person obtaining a copy |
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of this software and associated documentation files (the "Software"), to deal |
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in the Software without restriction, including without limitation the rights |
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to use, copy, modify, merge, publish, distribute, sublicense, and/or sell |
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copies of the Software, and to permit persons to whom the Software is |
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furnished to do so, subject to the following conditions: |
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The above copyright notice and this permission notice shall be included in |
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all copies or substantial portions of the Software. |
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THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR |
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IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, |
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FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE |
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AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER |
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LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, |
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OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN |
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THE SOFTWARE. |
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* |
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*/ |
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#ifndef LatticeFigureOfMeritToDisplay_HH_ |
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#define LatticeFigureOfMeritToDisplay_HH_ |
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#include <map> |
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#include "LatticeFigureOfMeritZeroShift.hh" |
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#include "../utility_data_structure/range.hh" |
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rtomiyasu |
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#include "../qc/reflection_conditions.hh" |
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rtomiyasu |
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// Class for outputting information about a lattice in IGOR file. |
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class LatticeFigureOfMeritToDisplay |
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{ |
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private: |
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LatticeFigureOfMeritZeroShift m_latfom; |
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vector<QData> m_qdata; |
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vector< multimap<Double, vector<HKL_Q>::const_iterator> > m_associated_hkl_tray; |
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vector<HKL_Q> m_cal_hkl_tray; |
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// The size of the following arrays equals zero or m_figures_of_merit.m_num_ref_figure_of_merit. |
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vector< VecDat3<Int4> > m_hkl_to_fit; |
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vector<bool> m_fix_or_fit_flag; // 0:fix, 1:fit. |
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rtomiyasu |
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// If this is negative value, only the reflection conditions derived from the Bravais type are considered. |
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Int4 m_type_of_reflection_conditions; |
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rtomiyasu |
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// for GUI |
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bool m_showsTicks; |
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public: |
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rtomiyasu |
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void putPeakPosToFit(const ControlParam& cdata, Vec_DP& cal_q_tray, Vec_DP& cal_pos_tray) const; |
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void putStandardMillerIndicesToFit(vector< VecDat3<Int4> >& hkl_to_fit, |
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vector<bool>& fix_or_fit_flag) const; |
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LatticeFigureOfMeritToDisplay(); |
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~LatticeFigureOfMeritToDisplay(){}; |
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rtomiyasu |
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inline const eBravaisType& enumBravaisType() const { return m_latfom.enumBravaisType(); }; |
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rtomiyasu |
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inline const LatticeFigureOfMeritZeroShift& putLatticeFigureOfMerit() const { return m_latfom; }; |
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inline const vector<HKL_Q>& putCalMillerIndices() const { return m_cal_hkl_tray; }; |
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inline const vector< multimap<Double, vector<HKL_Q>::const_iterator> >& putAssociatedMillerIndices() const { return m_associated_hkl_tray; }; |
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// axis1: axis of the argument lattice constants for Monoclinic(C) or Orthorhombic(C). |
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// axis2: axis of the argument lattice constants for Rhombohedral. |
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rtomiyasu |
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inline ZErrorMessage setLatticeConstantsDegree(const eBravaisType& ecys, |
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rtomiyasu |
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const eABCaxis& axis1, |
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const eRHaxis& axis2, |
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const VecDat3<Double>& length_axis, |
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const VecDat3<Double>& angle_axis) { return m_latfom.setLatticeConstantsDegree(BravaisType(ecys, axis1, axis2), length_axis, angle_axis); }; |
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inline ZErrorMessage setPeakShiftParamDegree(const ePeakShiftFunctionType& type, |
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const Double& wave_length, |
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const vector<ZParawError>& peak_shift_param_deg, // The errors are not used in this method. |
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const PeakPosData& pdata); |
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inline void reduceLatticeConstants(); |
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inline void putOptimizedLatticeConstantsDegree(const eABCaxis& axis1, |
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const eRHaxis& axis2, |
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VecDat3<Double>& length_axis, |
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VecDat3<Double>& angle_axis) { m_latfom.putOptimizedLatticeConstantsDegree(axis1, axis2, length_axis, angle_axis); }; |
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// axis1: axis of the argument lattice constants for Monoclinic(C) or Orthorhombic(C). |
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// axis2: axis of the argument lattice constants for Rhombohedral. |
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inline void putReducedLatticeConstantsDegree(const eABCaxis& axis1, |
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const eRHaxis& axis2, |
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VecDat3<Double>& length_axis, |
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VecDat3<Double>& angle_axis) { m_latfom.putReducedLatticeConstantsDegree(axis1, axis2, length_axis, angle_axis); }; |
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rtomiyasu |
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inline const Double& putWaveLength() const { return m_latfom.putWaveLength(); }; |
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rtomiyasu |
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inline const ePeakShiftFunctionType& putPeakShiftFunctionType() const { return m_latfom.putPeakShiftFunctionType(); }; |
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inline vector<ZParawError> putPeakShiftParamDegree() const { return m_latfom.putPeakShiftParamDegree(); }; |
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inline const vector<QData>& putQDataModifiedWithNewPeakShiftParam() const { return m_qdata; }; |
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rtomiyasu |
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inline void setDeWolffFigureOfMerit(const Int4& num_ref_figure_of_merit){ m_latfom.setDeWolffFigureOfMerit(num_ref_figure_of_merit, m_type_of_reflection_conditions, m_qdata); }; |
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rtomiyasu |
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inline void setFigureOfMerit(const Int4& num_ref_figure_of_merit){ m_latfom.setFigureOfMerit(num_ref_figure_of_merit, m_qdata); }; |
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rtomiyasu |
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void setTypeOfSystematicAbsences(const Int4& arg); |
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inline string putShortStringTypeOfSystematicAbsences() const |
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{ |
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return putInformationOnReflectionConditions(this->putLatticeFigureOfMerit().putBravaisType(), m_type_of_reflection_conditions).putShortStringType(); |
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}; |
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inline const string& putStringTypeOfSystematicAbsences() const |
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{ |
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return putInformationOnReflectionConditions(this->putLatticeFigureOfMerit().putBravaisType(), m_type_of_reflection_conditions).putStringType(); |
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}; |
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inline const string& putStringReflectionConditions() const |
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{ |
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return putInformationOnReflectionConditions(this->putLatticeFigureOfMerit().putBravaisType(), m_type_of_reflection_conditions).putStringConditions(); |
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}; |
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inline const DataReflectionConditions& putDataOnReflectionConditions() const |
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{ |
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return putInformationOnReflectionConditions(this->putLatticeFigureOfMerit().putBravaisType(), m_type_of_reflection_conditions); |
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}; |
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rtomiyasu |
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// Resets m_associated_hkl_tray and q-values in m_cal_hkl_tray. |
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void resetQValuesInRange(const Int4& num_fit_data); |
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rtomiyasu |
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// Resets m_associated_hkl_tray and m_cal_hkl_tray. |
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void resetMillerIndicesInRange(const Int4& num_fit_data); |
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// Resets m_hkl_to_fit and m_fix_or_fit_flag. |
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void resetMillerIndicesToFit() { putStandardMillerIndicesToFit(m_hkl_to_fit, m_fix_or_fit_flag); }; |
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inline ZErrorMessage setFittingIDs(const vector<bool>& arg); |
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inline const vector<bool>& putFittingIDs() const { return m_fix_or_fit_flag; }; |
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inline ZErrorMessage setMillerIndicesToFit(const vector< VecDat3<Int4> >& arg); |
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inline const vector< VecDat3<Int4> >& putMillerIndicesToFit() const { return m_hkl_to_fit; }; |
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// Return peak positions for this lattice candidate. |
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void putCalculatedPeakPosInRange(const ControlParam& cdata, Vec_DP& cal_pos_tray) const; |
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// Returned value |
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// > 1 : Optimization has succeeded at least twice. (The members m_hkl_to_fit and m_fix_or_fit_flag are changed.) |
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// > 0 : Optimization has succeeded. (Lattice constants are changed.) |
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// 0 : Optimization has failed. |
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Int4 fitLatticeParameter(const PeakPosData& pdata, const vector<etype_ID>& fitflag, |
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const Int4& Max_ITNUM, |
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const Double& limiter); |
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// Output indexing results. |
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void printIndexingResult(const ControlParam& cdata, |
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const PeakPosData& pdata, |
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const Int4& label_start0, |
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ostream* os) const; |
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// For GUI. |
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const vector<bool> &getref_m_fix_or_fit_flag() const {return m_fix_or_fit_flag;} |
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vector<bool> &getref_m_fix_or_fit_flag() {return m_fix_or_fit_flag;} |
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const vector<VecDat3<Int4> > &getref_m_hkl_to_fit() const {return m_hkl_to_fit;} |
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vector<VecDat3<Int4> > &getref_m_hkl_to_fit() {return m_hkl_to_fit;} |
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rtomiyasu |
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const LatticeFigureOfMeritZeroShift &getref_m_latfom() const {return m_latfom;} |
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LatticeFigureOfMeritZeroShift &getref_m_latfom() {return m_latfom;} |
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const vector<QData> &getref_m_qdata() const {return m_qdata;} |
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vector<QData> &getref_m_qdata() {return m_qdata;} |
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const vector< multimap<Double, vector<HKL_Q>::const_iterator> > &getref_m_associated_hkl_tray() const {return m_associated_hkl_tray;} |
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vector< multimap<Double, vector<HKL_Q>::const_iterator> > &getref_m_associated_hkl_tray() {return m_associated_hkl_tray;} |
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const vector<HKL_Q> &getref_m_cal_hkl_tray() const {return m_cal_hkl_tray;} |
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vector<HKL_Q> &getref_m_cal_hkl_tray() {return m_cal_hkl_tray;} |
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const bool &getref_m_showsTicks() const {return m_showsTicks;} |
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bool &getref_m_showsTicks() {return m_showsTicks;} |
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rtomiyasu |
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}; |
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inline ZErrorMessage LatticeFigureOfMeritToDisplay::setFittingIDs(const vector<bool>& arg) |
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{ |
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if( arg.size() != m_associated_hkl_tray.size() ) |
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{ |
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return ZErrorMessage(ZErrorArgmentSize, __FILE__, __LINE__, __FUNCTION__); |
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} |
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m_fix_or_fit_flag = arg; |
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return ZErrorMessage(); |
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} |
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inline ZErrorMessage LatticeFigureOfMeritToDisplay::setMillerIndicesToFit(const vector< VecDat3<Int4> >& arg) |
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{ |
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if( arg.size() != m_associated_hkl_tray.size() ) |
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{ |
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return ZErrorMessage(ZErrorArgmentSize, __FILE__, __LINE__, __FUNCTION__); |
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} |
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m_hkl_to_fit = arg; |
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return ZErrorMessage(); |
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}; |
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inline ZErrorMessage LatticeFigureOfMeritToDisplay::setPeakShiftParamDegree( |
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const ePeakShiftFunctionType& type, |
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const Double& wave_length, |
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const vector<ZParawError>& peak_shift_param_deg, |
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const PeakPosData& pdata) |
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{ |
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static const Double RadDeg = PI() / 180.0; |
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vector<ZParawError> peak_shift_param_rad = peak_shift_param_deg; |
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for(vector<ZParawError>::iterator it=peak_shift_param_rad.begin(); it<peak_shift_param_rad.end(); it++) |
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{ |
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*it *= RadDeg; |
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} |
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return m_latfom.setPeakShiftParamRadian(VCData::putPeakQData(), type, wave_length, peak_shift_param_rad, pdata, |
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VCData::putPeakQData().size(), m_qdata); |
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}; |
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rtomiyasu |
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inline VecDat3<Int4> product_hkl(const VecDat3<Int4>& lhs, const NRMat<Int4>& rhs) |
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{ |
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assert( rhs.nrows() >= 3 && rhs.ncols() == 3 ); |
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VecDat3<Int4> ans; |
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ans[0] = lhs[0]*rhs[0][0] + lhs[1]*rhs[1][0] + lhs[2]*rhs[2][0]; |
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ans[1] = lhs[0]*rhs[0][1] + lhs[1]*rhs[1][1] + lhs[2]*rhs[2][1]; |
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ans[2] = lhs[0]*rhs[0][2] + lhs[1]*rhs[1][2] + lhs[2]*rhs[2][2]; |
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return ans; |
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} |
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rtomiyasu |
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inline void LatticeFigureOfMeritToDisplay::reduceLatticeConstants() |
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{ |
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NRMat<Int4> trans_mat; |
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rtomiyasu |
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// trans_mat * m_latfom.m_S_optimized.first(new) * transpose(trans_mat) = m_latfom.m_S_optimized.first(old). |
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rtomiyasu |
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m_latfom.reduceLatticeConstants(trans_mat); |
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for(vector<HKL_Q>::iterator it=m_cal_hkl_tray.begin(); it<m_cal_hkl_tray.end(); it++) |
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{ |
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rtomiyasu |
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it->setHKL( product_hkl(it->HKL(), trans_mat) ); |
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rtomiyasu |
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} |
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for(vector< VecDat3<Int4> >::iterator it=m_hkl_to_fit.begin(); it<m_hkl_to_fit.end(); it++) |
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{ |
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*it = product_hkl(*it, trans_mat); |
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} |
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}; |
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rtomiyasu |
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inline bool cmpDeWolff(const LatticeFigureOfMeritToDisplay& lhs, const LatticeFigureOfMeritToDisplay& rhs) |
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{ |
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return lhs.putLatticeFigureOfMerit().putFiguresOfMerit().putFigureOfMeritWolff() |
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> rhs.putLatticeFigureOfMerit().putFiguresOfMerit().putFigureOfMeritWolff(); |
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} |
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rtomiyasu |
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#endif /*LatticeFigureOfMeritToDisplay_HH_*/ |