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Comparing trunk/src/brains/Snapshot.hpp (file contents):
Revision 1390 by gezelter, Wed Nov 25 20:02:06 2009 UTC vs.
Revision 2022 by gezelter, Fri Sep 26 22:22:28 2014 UTC

# Line 35 | Line 35
35   *                                                                      
36   * [1]  Meineke, et al., J. Comp. Chem. 26, 252-271 (2005).            
37   * [2]  Fennell & Gezelter, J. Chem. Phys. 124, 234104 (2006).          
38 < * [3]  Sun, Lin & Gezelter, J. Chem. Phys. 128, 24107 (2008).          
39 < * [4]  Vardeman & Gezelter, in progress (2009).                        
38 > * [3]  Sun, Lin & Gezelter, J. Chem. Phys. 128, 234107 (2008).          
39 > * [4]  Kuang & Gezelter,  J. Chem. Phys. 133, 164101 (2010).
40 > * [5]  Vardeman, Stocker & Gezelter, J. Chem. Theory Comput. 7, 834 (2011).
41   */
42    
42 /**
43 * @file Snapshot.hpp
44 * @author tlin
45 * @date 10/20/2004
46 * @time 23:56am
47 * @version 1.0
48 */
49  
43   #ifndef BRAINS_SNAPSHOT_HPP
44   #define BRAINS_SNAPSHOT_HPP
45  
46   #include <vector>
47  
48   #include "brains/DataStorage.hpp"
49 + #include "nonbonded/NonBondedInteraction.hpp"
50   #include "brains/Stats.hpp"
57 #include "UseTheForce/DarkSide/simulation_interface.h"
51  
52 <
52 > using namespace std;
53   namespace OpenMD{
54  
55    /**
56 <   * @class Snapshot Snapshot.hpp "brains/Snapshot.hpp"
57 <   * @brief Snapshot class is a repository class for storing dynamic data during
65 <   *  Simulation
66 <   * Every snapshot class will contain one DataStorage  for atoms and one DataStorage
67 <   *  for rigid bodies.
56 >   * FrameData is a structure for holding system-wide dynamic data
57 >   * about the simulation.
58     */
59 <  class Snapshot {
60 <  public:
61 <            
62 <    Snapshot(int nAtoms, int nRigidbodies) : atomData(nAtoms),
63 <                                             rigidbodyData(nRigidbodies),
64 <                                             currentTime_(0),
65 <                                             orthoTolerance_(1e-6),
66 <                                             orthoRhombic_(0),
67 <                                             chi_(0.0),
68 <                                             integralOfChiDt_(0.0),
69 <                                             eta_(0.0), id_(-1),
70 <                                             hasCOM_(false), hasVolume_(false), volume_(0.0) {
59 >  
60 >  struct FrameData {
61 >    int id;                       /**< identification number of the snapshot */
62 >    RealType currentTime;         /**< current time */
63 >    Mat3x3d  hmat;                /**< axes of the periodic box in matrix form */
64 >    Mat3x3d  invHmat;             /**< the inverse of the Hmat matrix */
65 >    Mat3x3d  bBox;                /**< axes of a bounding box in matrix form */
66 >    Mat3x3d  invBbox;             /**< the inverse of the bounding box */
67 >    bool     orthoRhombic;        /**< is this an orthorhombic periodic box? */
68 >    RealType totalEnergy;         /**< total energy of this frame */
69 >    RealType translationalKinetic; /**< translational kinetic energy of this frame */
70 >    RealType rotationalKinetic;   /**< rotational kinetic energy of this frame */
71 >    RealType kineticEnergy;       /**< kinetic energy of this frame */
72 >    RealType potentialEnergy;     /**< potential energy of this frame */
73 >    RealType shortRangePotential; /**< short-range contributions to the potential*/
74 >    RealType longRangePotential;  /**< long-range contributions to the potential */
75 >    RealType reciprocalPotential; /**< reciprocal-space contributions to the potential */
76 >    RealType bondPotential;       /**< bonded contribution to the potential */
77 >    RealType bendPotential;       /**< angle-bending contribution to the potential */
78 >    RealType torsionPotential;    /**< dihedral (torsion angle) contribution to the potential */
79 >    RealType inversionPotential;  /**< inversion (planarity) contribution to the potential */
80 >    potVec   lrPotentials;        /**< breakdown of long-range potentials by family */
81 >    potVec   excludedPotentials;  /**< breakdown of excluded potentials by family */
82 >    RealType restraintPotential;  /**< potential energy of restraints */
83 >    RealType rawPotential;        /**< unrestrained potential energy (when restraints are applied) */
84 >    RealType xyArea;              /**< XY area of this frame */
85 >    RealType volume;              /**< total volume of this frame */
86 >    RealType pressure;            /**< pressure of this frame */
87 >    RealType temperature;         /**< temperature of this frame */
88 >    pair<RealType, RealType> thermostat;    /**< thermostat variables */
89 >    RealType electronicTemperature; /**< temperature of the electronic degrees of freedom */
90 >    pair<RealType, RealType> electronicThermostat; /**< thermostat variables for electronic degrees of freedom */
91 >    Mat3x3d  barostat;            /**< barostat matrix */
92 >    Vector3d COM;                 /**< location of system center of mass */
93 >    Vector3d COMvel;              /**< system center of mass velocity */
94 >    Vector3d COMw;                /**< system center of mass angular velocity */
95 >    Mat3x3d  inertiaTensor;       /**< inertia tensor for entire system */
96 >    RealType gyrationalVolume;    /**< gyrational volume for entire system */
97 >    RealType hullVolume;          /**< hull volume for entire system */
98 >    Mat3x3d  stressTensor;        /**< stress tensor */
99 >    Mat3x3d  pressureTensor;      /**< pressure tensor */
100 >    Vector3d systemDipole;        /**< total system dipole moment */
101 >    Mat3x3d  systemQuadrupole;    /**< total system quadrupole moment */
102 >    Vector3d conductiveHeatFlux;  /**< heat flux vector (conductive only) */
103 >    Vector3d convectiveHeatFlux;  /**< heat flux vector (convective only) */
104 >    RealType conservedQuantity;   /**< anything conserved by the integrator */
105 >  };
106  
82    }
107  
108 <    Snapshot(int nAtoms, int nRigidbodies, int storageLayout)
109 <      : atomData(nAtoms, storageLayout),
110 <        rigidbodyData(nRigidbodies, storageLayout),
111 <        currentTime_(0), orthoTolerance_(1e-6), orthoRhombic_(0), chi_(0.0),
112 <        integralOfChiDt_(0.0), eta_(0.0), id_(-1), hasCOM_(false), hasVolume_(false),volume_(0.0)  {
108 >  /**
109 >   * @class Snapshot
110 >   * @brief The Snapshot class is a repository storing dynamic data during a
111 >   * Simulation.  Every Snapshot contains FrameData (for global information)
112 >   * as well as DataStorage (one for Atoms, one for RigidBodies, and one for
113 >   * CutoffGroups).
114 >   */
115 >  class Snapshot {
116  
117 <      }
118 <            
117 >  public:            
118 >    Snapshot(int nAtoms, int nRigidbodies, int nCutoffGroups);
119 >    Snapshot(int nAtoms, int nRigidbodies, int nCutoffGroups, int storageLayout);    
120      /** Returns the id of this Snapshot */
121 <    int getID() {
94 <      return id_;
95 <    }
96 <
121 >    int      getID();
122      /** Sets the id of this Snapshot */
123 <    void setID(int id) {
99 <      id_ = id;
100 <    }
123 >    void     setID(int id);
124  
125 <    int getSize() {
126 <      return atomData.getSize() + rigidbodyData.getSize();
104 <    }
125 >    /** sets the state of the computed properties to false */
126 >    void     clearDerivedProperties();
127  
128 +    int      getSize();
129      /** Returns the number of atoms */
130 <    int getNumberOfAtoms() {
108 <      return atomData.getSize();
109 <    }
110 <
130 >    int      getNumberOfAtoms();
131      /** Returns the number of rigid bodies */
132 <    int getNumberOfRigidBodies() {
133 <      return rigidbodyData.getSize();
134 <    }
132 >    int      getNumberOfRigidBodies();
133 >    /** Returns the number of rigid bodies */
134 >    int      getNumberOfCutoffGroups();
135 >    /** Returns the number of bytes in a FrameData structure */
136 >    static int getFrameDataSize();
137  
138      /** Returns the H-Matrix */
139 <    Mat3x3d getHmat() {
118 <      return hmat_;
119 <    }
120 <
139 >    Mat3x3d  getHmat();
140      /** Sets the H-Matrix */
141 <    void setHmat(const Mat3x3d& m);
141 >    void     setHmat(const Mat3x3d& m);
142 >    /** Returns the inverse H-Matrix */
143 >    Mat3x3d  getInvHmat();
144 >
145 >    /** Returns the Bounding Box */
146 >    Mat3x3d  getBoundingBox();
147 >    /** Sets the Bounding Box */
148 >    void     setBoundingBox(const Mat3x3d& m);
149 >    /** Returns the inverse Bounding Box*/
150 >    Mat3x3d  getInvBoundingBox();
151              
152 <    RealType getVolume() {
153 <      if (hasVolume_){
154 <        return volume_;
127 <      }else{
128 <        return hmat_.determinant();
129 <      }
130 <    }
152 >    RealType getVolume();
153 >    RealType getXYarea();
154 >    void     setVolume(const RealType vol);
155  
156 <    void setVolume(RealType volume){
157 <      hasVolume_=true;
134 <      volume_ = volume;
135 <    }
156 >    /** Wrapping the vector according to periodic boundary condition*/
157 >    void     wrapVector(Vector3d& v);
158  
159 <    /** Returns the inverse H-Matrix */
160 <    Mat3x3d getInvHmat() {
139 <      return invHmat_;
140 <    }
159 >    /** Scaling a vector to multiples of the periodic box */
160 >    Vector3d scaleVector(Vector3d &v);
161  
162 <    /** Wrapping the vector according to periodic boundary condition*/
163 <    void wrapVector(Vector3d& v);
162 >    void     setCOM(const Vector3d &com);
163 >    void     setCOMvel(const Vector3d &comVel);
164 >    void     setCOMw(const Vector3d &comw);
165 >
166      Vector3d getCOM();
167      Vector3d getCOMvel();
168      Vector3d getCOMw();
169              
170 <    RealType getTime() {
171 <      return currentTime_;
172 <    }
151 <
152 <    void increaseTime(RealType dt) {
153 <      setTime(getTime() + dt);
154 <    }
170 >    RealType getTime();
171 >    void     increaseTime(const RealType dt);
172 >    void     setTime(const RealType time);
173  
174 <    void setTime(RealType time) {
175 <      currentTime_ =time;
176 <      //time at statData is redundant
177 <      statData[Stats::TIME] = currentTime_;
178 <    }
174 >    void     setBondPotential(const RealType bp);
175 >    void     setBendPotential(const RealType bp);
176 >    void     setTorsionPotential(const RealType tp);
177 >    void     setInversionPotential(const RealType ip);
178 >    RealType getBondPotential();
179 >    RealType getBendPotential();
180 >    RealType getTorsionPotential();
181 >    RealType getInversionPotential();
182  
183 <    RealType getChi() {
163 <      return chi_;
164 <    }
183 >    RealType getShortRangePotential();
184  
185 <    void setChi(RealType chi) {
186 <      chi_ = chi;
187 <    }
185 >    void     setLongRangePotential(const potVec lrPot);
186 >    RealType getLongRangePotential();
187 >    potVec   getLongRangePotentials();
188  
189 <    RealType getIntegralOfChiDt() {
190 <      return integralOfChiDt_;
191 <    }
189 >    void     setReciprocalPotential(const RealType rp);
190 >    RealType getReciprocalPotential();
191 >    
192 >    void     setExcludedPotentials(const potVec exPot);
193 >    potVec   getExcludedPotentials();
194 >  
195 >    void     setRestraintPotential(const RealType rp);
196 >    RealType getRestraintPotential();
197  
198 <    void setIntegralOfChiDt(RealType integralOfChiDt) {
199 <      integralOfChiDt_ = integralOfChiDt;
176 <    }
177 <            
198 >    void     setRawPotential(const RealType rp);
199 >    RealType getRawPotential();
200  
201 <    void setOrthoTolerance(RealType orthoTolerance) {
202 <      orthoTolerance_ = orthoTolerance;
203 <    }
201 >    RealType getPotentialEnergy();
202 >    RealType getKineticEnergy();
203 >    RealType getTranslationalKineticEnergy();
204 >    RealType getRotationalKineticEnergy();
205 >    void     setKineticEnergy(const RealType ke);
206 >    void     setTranslationalKineticEnergy(const RealType tke);
207 >    void     setRotationalKineticEnergy(const RealType rke);
208 >    RealType getTotalEnergy();
209 >    void     setTotalEnergy(const RealType te);
210 >    RealType getConservedQuantity();
211 >    void     setConservedQuantity(const RealType cq);
212 >    RealType getTemperature();
213 >    void     setTemperature(const RealType temp);
214 >    RealType getElectronicTemperature();
215 >    void     setElectronicTemperature(const RealType eTemp);
216 >    RealType getPressure();
217 >    void     setPressure(const RealType pressure);
218  
219 <    Mat3x3d getEta() {
220 <      return eta_;
185 <    }
219 >    Mat3x3d  getPressureTensor();
220 >    void     setPressureTensor(const Mat3x3d& pressureTensor);
221  
222 <    void setEta(const Mat3x3d& eta) {
223 <      eta_ = eta;
189 <    }
222 >    Mat3x3d  getStressTensor();
223 >    void     setStressTensor(const Mat3x3d& stressTensor);
224  
225 <    bool hasCOM() {
226 <      return hasCOM_;
193 <    }
225 >    Vector3d getConductiveHeatFlux();
226 >    void     setConductiveHeatFlux(const Vector3d& chf);
227  
228 <    void setCOMprops(const Vector3d& COM, const Vector3d& COMvel, const Vector3d& COMw) {
229 <      COM_ = COM;
230 <      COMvel_ = COMvel;
231 <      COMw_ = COMw;
232 <      hasCOM_ = true;
233 <    }
234 <                  
228 >    Vector3d getConvectiveHeatFlux();
229 >    void     setConvectiveHeatFlux(const Vector3d& chf);
230 >
231 >    Vector3d getHeatFlux();
232 >    
233 >    Vector3d getSystemDipole();
234 >    void     setSystemDipole(const Vector3d& bd);
235 >
236 >    Mat3x3d  getSystemQuadrupole();
237 >    void     setSystemQuadrupole(const Mat3x3d& bq);
238 >
239 >    pair<RealType, RealType> getThermostat();
240 >    void setThermostat(const pair<RealType, RealType>& thermostat);
241 >
242 >    pair<RealType, RealType> getElectronicThermostat();
243 >    void setElectronicThermostat(const pair<RealType, RealType>& eThermostat);
244 >            
245 >    Mat3x3d  getBarostat();
246 >    void     setBarostat(const Mat3x3d& barostat);
247 >
248 >    Mat3x3d  getInertiaTensor();
249 >    void     setInertiaTensor(const Mat3x3d& inertiaTensor);
250 >
251 >    RealType getGyrationalVolume();
252 >    void     setGyrationalVolume(const RealType gv);
253 >
254 >    RealType getHullVolume();
255 >    void     setHullVolume(const RealType hv);
256 >    
257 >    void     setOrthoTolerance(RealType orthoTolerance);
258 >
259      DataStorage atomData;
260      DataStorage rigidbodyData;
261 <    Stats statData;
262 <            
206 <  private:
207 <    RealType currentTime_;
261 >    DataStorage cgData;
262 >    FrameData   frameData;
263  
264 <    Mat3x3d hmat_;
265 <    Mat3x3d invHmat_;
266 <    RealType orthoTolerance_;
267 <    int orthoRhombic_;
268 <    RealType volume_;
264 >    bool hasTotalEnergy;        
265 >    bool hasTranslationalKineticEnergy;    
266 >    bool hasRotationalKineticEnergy;    
267 >    bool hasKineticEnergy;    
268 >    bool hasShortRangePotential;
269 >    bool hasLongRangePotential;
270 >    bool hasPotentialEnergy;    
271 >    bool hasXYarea;
272 >    bool hasVolume;        
273 >    bool hasPressure;      
274 >    bool hasTemperature;    
275 >    bool hasElectronicTemperature;
276 >    bool hasCOM;            
277 >    bool hasCOMvel;
278 >    bool hasCOMw;
279 >    bool hasPressureTensor;    
280 >    bool hasSystemDipole;
281 >    bool hasSystemQuadrupole;
282 >    bool hasConvectiveHeatFlux;
283 >    bool hasInertiaTensor;
284 >    bool hasGyrationalVolume;
285 >    bool hasHullVolume;
286 >    bool hasConservedQuantity;
287 >    bool hasBoundingBox;
288  
289 <    RealType chi_;
290 <    RealType integralOfChiDt_;
291 <    Mat3x3d eta_;
218 <    Vector3d COM_;
219 <    Vector3d COMvel_;
220 <    Vector3d COMw_;
221 <    int id_; /**< identification number of the snapshot */
222 <    bool hasCOM_;
223 <    bool hasVolume_;
224 <            
289 >  private:
290 >    RealType orthoTolerance_;
291 >    
292    };
293  
294    typedef DataStorage (Snapshot::*DataStoragePointer);

Comparing trunk/src/brains/Snapshot.hpp (property svn:keywords):
Revision 1390 by gezelter, Wed Nov 25 20:02:06 2009 UTC vs.
Revision 2022 by gezelter, Fri Sep 26 22:22:28 2014 UTC

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