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Revision 906 by tim, Fri Mar 17 23:20:35 2006 UTC vs.
Revision 1782 by gezelter, Wed Aug 22 02:28:28 2012 UTC

# Line 6 | Line 6
6   * redistribute this software in source and binary code form, provided
7   * that the following conditions are met:
8   *
9 < * 1. Acknowledgement of the program authors must be made in any
10 < *    publication of scientific results based in part on use of the
11 < *    program.  An acceptable form of acknowledgement is citation of
12 < *    the article in which the program was described (Matthew
13 < *    A. Meineke, Charles F. Vardeman II, Teng Lin, Christopher
14 < *    J. Fennell and J. Daniel Gezelter, "OOPSE: An Object-Oriented
15 < *    Parallel Simulation Engine for Molecular Dynamics,"
16 < *    J. Comput. Chem. 26, pp. 252-271 (2005))
17 < *
18 < * 2. Redistributions of source code must retain the above copyright
9 > * 1. Redistributions of source code must retain the above copyright
10   *    notice, this list of conditions and the following disclaimer.
11   *
12 < * 3. Redistributions in binary form must reproduce the above copyright
12 > * 2. Redistributions in binary form must reproduce the above copyright
13   *    notice, this list of conditions and the following disclaimer in the
14   *    documentation and/or other materials provided with the
15   *    distribution.
# Line 37 | Line 28
28   * arising out of the use of or inability to use software, even if the
29   * University of Notre Dame has been advised of the possibility of
30   * such damages.
31 + *
32 + * SUPPORT OPEN SCIENCE!  If you use OpenMD or its source code in your
33 + * research, please cite the appropriate papers when you publish your
34 + * work.  Good starting points are:
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]  Kuang & Gezelter,  J. Chem. Phys. 133, 164101 (2010).
40 + * [5]  Vardeman, Stocker & Gezelter, J. Chem. Theory Comput. 7, 834 (2011).
41   */
42  
43   #include "applications/hydrodynamics/ApproximationModel.hpp"
44   #include "math/LU.hpp"
45   #include "math/DynamicRectMatrix.hpp"
46   #include "math/SquareMatrix3.hpp"
47 < #include "utils/OOPSEConstant.hpp"
48 < #include "applications/hydrodynamics/Spheric.hpp"
49 < #include "applications/hydrodynamics/Ellipsoid.hpp"
47 > #include "utils/PhysicalConstants.hpp"
48 > #include "hydrodynamics/Sphere.hpp"
49 > #include "hydrodynamics/Ellipsoid.hpp"
50   #include "applications/hydrodynamics/CompositeShape.hpp"
51   #include "math/LU.hpp"
52 < namespace oopse {
52 > #include "utils/simError.h"
53 > namespace OpenMD {
54   /**
55   * Reference:
56   * Beatriz Carrasco and Jose Gracia de la Torre, Hydrodynamic Properties of Rigid Particles:
# Line 56 | Line 58 | namespace oopse {
58   * Biophysical Journal, 75(6), 3044, 1999
59   */
60  
61 < ApproximationModel::ApproximationModel(StuntDouble* sd, SimInfo* info): HydrodynamicsModel(sd, info){
62 < /*
63 <    DynamicProperty::const_iterator iter;
64 <
63 <    iter = extraParams.find("Viscosity");
64 <    if (iter != extraParams.end()) {
65 <        boost::any param = iter->second;
66 <        viscosity = boost::any_cast<double>(param);
67 <    }else {
68 <        std::cout << "ApproximationModel Error\n" ;
69 <    }
70 <
71 <    iter = extraParams.find("Temperature");
72 <    if (iter != extraParams.end()) {
73 <        boost::any param = iter->second;
74 <        temperature = boost::any_cast<double>(param);
75 <    }else {
76 <        std::cout << "ApproximationModel Error\n" ;
77 <    }    
78 < */
79 < }
80 <
81 < bool ApproximationModel::calcHydroProps(Spheric* spheric, double viscosity, double temperature) {
82 <    return internalCalcHydroProps(static_cast<Shape*>(spheric), viscosity, temperature);
83 < }
84 <
85 < bool ApproximationModel::calcHydroProps(Ellipsoid* ellipsoid, double viscosity, double temperature) {
86 <    return internalCalcHydroProps(static_cast<Shape*>(ellipsoid), viscosity, temperature);
87 < }
88 < bool ApproximationModel::calcHydroProps(CompositeShape* compositeShape, double viscosity, double temperature) {
89 <    return internalCalcHydroProps(static_cast<Shape*>(compositeShape), viscosity, temperature);
90 < }
91 <
92 <
93 < bool ApproximationModel::internalCalcHydroProps(Shape* shape, double viscosity, double temperature) {
61 >  ApproximationModel::ApproximationModel(StuntDouble* sd, SimInfo* info): HydrodynamicsModel(sd, info){    
62 >  }
63 >  
64 >  void ApproximationModel::init() {
65      if (!createBeads(beads_)) {
66 <        std::cout << "can not create beads" << std::endl;
67 <        return false;
66 >      sprintf(painCave.errMsg, "ApproximationModel::init() : Can not create beads\n");
67 >      painCave.isFatal = 1;
68 >      simError();        
69      }
70 <
70 >    
71 >  }
72 >  
73 >  bool ApproximationModel::calcHydroProps(Shape* shape, RealType viscosity, RealType temperature) {
74 >    
75      bool ret = true;
76 <    HydroProps cr;
77 <    HydroProps cd;
76 >    HydroProp* cr = new HydroProp();
77 >    HydroProp* cd = new HydroProp();
78      calcHydroPropsAtCR(beads_, viscosity, temperature, cr);
79      calcHydroPropsAtCD(beads_, viscosity, temperature, cd);
80      setCR(cr);
81      setCD(cd);
106    
82      return true;    
83 < }
84 <
85 < bool ApproximationModel::calcHydroPropsAtCR(std::vector<BeadParam>& beads, double viscosity, double temperature, HydroProps& cr) {
86 <
87 <    int nbeads = beads.size();
88 <    DynamicRectMatrix<double> B(3*nbeads, 3*nbeads);
89 <    DynamicRectMatrix<double> C(3*nbeads, 3*nbeads);
83 >  }
84 >  
85 >  bool ApproximationModel::calcHydroPropsAtCR(std::vector<BeadParam>& beads, RealType viscosity, RealType temperature, HydroProp* cr) {
86 >    
87 >    unsigned int nbeads = beads.size();
88 >    DynamicRectMatrix<RealType> B(3*nbeads, 3*nbeads);
89 >    DynamicRectMatrix<RealType> C(3*nbeads, 3*nbeads);
90      Mat3x3d I;
91      I(0, 0) = 1.0;
92      I(1, 1) = 1.0;
93      I(2, 2) = 1.0;
94      
95      for (std::size_t i = 0; i < nbeads; ++i) {
96 <        for (std::size_t j = 0; j < nbeads; ++j) {
97 <            Mat3x3d Tij;
96 >      for (std::size_t j = 0; j < nbeads; ++j) {
97 >        Mat3x3d Tij;
98              if (i != j ) {
99 <                Vector3d Rij = beads[i].pos - beads[j].pos;
100 <                double rij = Rij.length();
101 <                double rij2 = rij * rij;
102 <                double sumSigma2OverRij2 = ((beads[i].radius*beads[i].radius) + (beads[i].radius*beads[i].radius)) / rij2;                
103 <                Mat3x3d tmpMat;
104 <                tmpMat = outProduct(Rij, Rij) / rij2;
105 <                double constant = 8.0 * NumericConstant::PI * viscosity * rij;
106 <                Tij = ((1.0 + sumSigma2OverRij2/3.0) * I + (1.0 - sumSigma2OverRij2) * tmpMat ) / constant;
99 >              Vector3d Rij = beads[i].pos - beads[j].pos;
100 >              RealType rij = Rij.length();
101 >              RealType rij2 = rij * rij;
102 >              RealType sumSigma2OverRij2 = ((beads[i].radius*beads[i].radius) + (beads[j].radius*beads[j].radius)) / rij2;                
103 >              Mat3x3d tmpMat;
104 >              tmpMat = outProduct(Rij, Rij) / rij2;
105 >              RealType constant = 8.0 * NumericConstant::PI * viscosity * rij;
106 >              RealType tmp1 = 1.0 + sumSigma2OverRij2/3.0;
107 >              RealType tmp2 = 1.0 - sumSigma2OverRij2;
108 >              Tij = (tmp1 * I + tmp2 * tmpMat ) / constant;
109              }else {
110 <                double constant = 1.0 / (6.0 * NumericConstant::PI * viscosity * beads[i].radius);
111 <                Tij(0, 0) = constant;
112 <                Tij(1, 1) = constant;
113 <                Tij(2, 2) = constant;
110 >              RealType constant = 1.0 / (6.0 * NumericConstant::PI * viscosity * beads[i].radius);
111 >              Tij(0, 0) = constant;
112 >              Tij(1, 1) = constant;
113 >              Tij(2, 2) = constant;
114              }
115              B.setSubMatrix(i*3, j*3, Tij);
116 <        }
116 >      }
117      }
118 <
118 >    
119      //invert B Matrix
120      invertMatrix(B, C);
121 <
121 >    
122      //prepare U Matrix relative to arbitrary origin O(0.0, 0.0, 0.0)
123      std::vector<Mat3x3d> U;
124 <    for (int i = 0; i < nbeads; ++i) {
125 <        Mat3x3d currU;
126 <        currU.setupSkewMat(beads[i].pos);
127 <        U.push_back(currU);
124 >    for (unsigned int i = 0; i < nbeads; ++i) {
125 >      Mat3x3d currU;
126 >      currU.setupSkewMat(beads[i].pos);
127 >      U.push_back(currU);
128      }
129      
130      //calculate Xi matrix at arbitrary origin O
131      Mat3x3d Xiott;
132      Mat3x3d Xiorr;
133      Mat3x3d Xiotr;
134 <
134 >    
135      //calculate the total volume
136 <
137 <    double volume = 0.0;
136 >    
137 >    RealType volume = 0.0;
138      for (std::vector<BeadParam>::iterator iter = beads.begin(); iter != beads.end(); ++iter) {
139 <        volume += 4.0/3.0 * NumericConstant::PI * pow((*iter).radius,3);
139 >      volume += 4.0/3.0 * NumericConstant::PI * pow((*iter).radius,3);
140      }
141 <        
141 >    
142      for (std::size_t i = 0; i < nbeads; ++i) {
143 <        for (std::size_t j = 0; j < nbeads; ++j) {
144 <            Mat3x3d Cij;
145 <            C.getSubMatrix(i*3, j*3, Cij);
146 <            
147 <            Xiott += Cij;
148 <            Xiotr += U[i] * Cij;
149 <            Xiorr += -U[i] * Cij * U[j] + (6 * viscosity * volume) * I;            
150 <        }
143 >      for (std::size_t j = 0; j < nbeads; ++j) {
144 >        Mat3x3d Cij;
145 >        C.getSubMatrix(i*3, j*3, Cij);
146 >        
147 >        Xiott += Cij;
148 >        Xiotr += U[i] * Cij;
149 >        // uncorrected here.  Volume correction is added after we assemble Xiorr
150 >        Xiorr += -U[i] * Cij * U[j];
151 >      }
152      }
153  
154 <    const double convertConstant = 6.023; //convert poise.angstrom to amu/fs
155 <    Xiott *= convertConstant;
178 <    Xiotr *= convertConstant;
179 <    Xiorr *= convertConstant;
154 >    // add the volume correction
155 >    Xiorr += (RealType(6.0) * viscosity * volume) * I;    
156      
157 <
157 >    Xiott *= PhysicalConstants::viscoConvert;
158 >    Xiotr *= PhysicalConstants::viscoConvert;
159 >    Xiorr *= PhysicalConstants::viscoConvert;
160      
161      Mat3x3d tmp;
162      Mat3x3d tmpInv;
# Line 209 | Line 187 | bool ApproximationModel::calcHydroPropsAtCR(std::vecto
187      Xirrr = Xiorr - Uor * Xiott * Uor + Xiotr * Uor - Uor * Xiotr.transpose();
188      
189  
190 <    SquareMatrix<double,6> Xir6x6;
191 <    SquareMatrix<double,6> Dr6x6;
190 >    SquareMatrix<RealType,6> Xir6x6;
191 >    SquareMatrix<RealType,6> Dr6x6;
192  
193      Xir6x6.setSubMatrix(0, 0, Xirtt);
194      Xir6x6.setSubMatrix(0, 3, Xirtr.transpose());
# Line 226 | Line 204 | bool ApproximationModel::calcHydroPropsAtCR(std::vecto
204      Dr6x6.getSubMatrix(0, 3, Drrt);
205      Dr6x6.getSubMatrix(3, 0, Drtr);
206      Dr6x6.getSubMatrix(3, 3, Drrr);
207 <    double kt = OOPSEConstant::kB * temperature ;
207 >    RealType kt = PhysicalConstants::kb * temperature ; // in kcal mol^-1
208      Drtt *= kt;
209      Drrt *= kt;
210      Drtr *= kt;
211      Drrr *= kt;
212 <    Xirtt *= OOPSEConstant::kb * temperature;
213 <    Xirtr *= OOPSEConstant::kb * temperature;
214 <    Xirrr *= OOPSEConstant::kb * temperature;
212 >    //Xirtt *= PhysicalConstants::kb * temperature;
213 >    //Xirtr *= PhysicalConstants::kb * temperature;
214 >    //Xirrr *= PhysicalConstants::kb * temperature;
215      
216 +    Mat6x6d Xi, D;
217  
218 <    cr.center = ror;
219 <    cr.Xi.setSubMatrix(0, 0, Xirtt);
220 <    cr.Xi.setSubMatrix(0, 3, Xirtr);
221 <    cr.Xi.setSubMatrix(3, 0, Xirtr);
222 <    cr.Xi.setSubMatrix(3, 3, Xirrr);
223 <    cr.D.setSubMatrix(0, 0, Drtt);
224 <    cr.D.setSubMatrix(0, 3, Drrt);
225 <    cr.D.setSubMatrix(3, 0, Drtr);
226 <    cr.D.setSubMatrix(3, 3, Drrr);    
218 >    cr->setCOR(ror);
219 >
220 >    Xi.setSubMatrix(0, 0, Xirtt);
221 >    Xi.setSubMatrix(0, 3, Xirtr);
222 >    Xi.setSubMatrix(3, 0, Xirtr);
223 >    Xi.setSubMatrix(3, 3, Xirrr);
224 >
225 >    cr->setXi(Xi);
226 >
227 >    D.setSubMatrix(0, 0, Drtt);
228 >    D.setSubMatrix(0, 3, Drrt);
229 >    D.setSubMatrix(3, 0, Drtr);
230 >    D.setSubMatrix(3, 3, Drrr);    
231 >
232 >    cr->setD(D);
233      
234      std::cout << "-----------------------------------------\n";
235      std::cout << "center of resistance :" << std::endl;
# Line 269 | Line 254 | bool ApproximationModel::calcHydroPropsAtCR(std::vecto
254  
255      return true;
256   }
257 <
258 < bool ApproximationModel::calcHydroPropsAtCD(std::vector<BeadParam>& beads, double viscosity, double temperature, HydroProps& cr) {
259 <
260 <    int nbeads = beads.size();
261 <    DynamicRectMatrix<double> B(3*nbeads, 3*nbeads);
262 <    DynamicRectMatrix<double> C(3*nbeads, 3*nbeads);
257 >  
258 >  bool ApproximationModel::calcHydroPropsAtCD(std::vector<BeadParam>& beads, RealType viscosity, RealType temperature, HydroProp* cd) {
259 >    
260 >    unsigned int nbeads = beads.size();
261 >    DynamicRectMatrix<RealType> B(3*nbeads, 3*nbeads);
262 >    DynamicRectMatrix<RealType> C(3*nbeads, 3*nbeads);
263      Mat3x3d I;
264      I(0, 0) = 1.0;
265      I(1, 1) = 1.0;
266      I(2, 2) = 1.0;
267      
268      for (std::size_t i = 0; i < nbeads; ++i) {
269 <        for (std::size_t j = 0; j < nbeads; ++j) {
270 <            Mat3x3d Tij;
271 <            if (i != j ) {
272 <                Vector3d Rij = beads[i].pos - beads[j].pos;
273 <                double rij = Rij.length();
274 <                double rij2 = rij * rij;
275 <                double sumSigma2OverRij2 = ((beads[i].radius*beads[i].radius) + (beads[i].radius*beads[i].radius)) / rij2;                
276 <                Mat3x3d tmpMat;
277 <                tmpMat = outProduct(Rij, Rij) / rij2;
278 <                double constant = 8.0 * NumericConstant::PI * viscosity * rij;
279 <                Tij = ((1.0 + sumSigma2OverRij2/3.0) * I + (1.0 - sumSigma2OverRij2) * tmpMat ) / constant;
280 <            }else {
281 <                double constant = 1.0 / (6.0 * NumericConstant::PI * viscosity * beads[i].radius);
282 <                Tij(0, 0) = constant;
283 <                Tij(1, 1) = constant;
284 <                Tij(2, 2) = constant;
285 <            }
286 <            B.setSubMatrix(i*3, j*3, Tij);
269 >      for (std::size_t j = 0; j < nbeads; ++j) {
270 >        Mat3x3d Tij;
271 >        if (i != j ) {
272 >          Vector3d Rij = beads[i].pos - beads[j].pos;
273 >          RealType rij = Rij.length();
274 >          RealType rij2 = rij * rij;
275 >          RealType sumSigma2OverRij2 = ((beads[i].radius*beads[i].radius) + (beads[j].radius*beads[j].radius)) / rij2;                
276 >          Mat3x3d tmpMat;
277 >          tmpMat = outProduct(Rij, Rij) / rij2;
278 >          RealType constant = 8.0 * NumericConstant::PI * viscosity * rij;
279 >          RealType tmp1 = 1.0 + sumSigma2OverRij2/3.0;
280 >          RealType tmp2 = 1.0 - sumSigma2OverRij2;
281 >          Tij = (tmp1 * I + tmp2 * tmpMat ) / constant;
282 >        }else {
283 >          RealType constant = 1.0 / (6.0 * NumericConstant::PI * viscosity * beads[i].radius);
284 >          Tij(0, 0) = constant;
285 >          Tij(1, 1) = constant;
286 >          Tij(2, 2) = constant;
287          }
288 +        B.setSubMatrix(i*3, j*3, Tij);
289 +      }
290      }
291 <
291 >    
292      //invert B Matrix
293      invertMatrix(B, C);
294 <
294 >    
295      //prepare U Matrix relative to arbitrary origin O(0.0, 0.0, 0.0)
296      std::vector<Mat3x3d> U;
297 <    for (int i = 0; i < nbeads; ++i) {
298 <        Mat3x3d currU;
299 <        currU.setupSkewMat(beads[i].pos);
300 <        U.push_back(currU);
297 >    for (unsigned int i = 0; i < nbeads; ++i) {
298 >      Mat3x3d currU;
299 >      currU.setupSkewMat(beads[i].pos);
300 >      U.push_back(currU);
301      }
302      
303      //calculate Xi matrix at arbitrary origin O
# Line 320 | Line 307 | bool ApproximationModel::calcHydroPropsAtCD(std::vecto
307  
308      //calculate the total volume
309  
310 <    double volume = 0.0;
310 >    RealType volume = 0.0;
311      for (std::vector<BeadParam>::iterator iter = beads.begin(); iter != beads.end(); ++iter) {
312 <        volume += 4.0/3.0 * NumericConstant::PI * pow((*iter).radius,3);
312 >      volume += 4.0/3.0 * NumericConstant::PI * pow((*iter).radius,3);
313      }
314 <        
314 >    
315      for (std::size_t i = 0; i < nbeads; ++i) {
316 <        for (std::size_t j = 0; j < nbeads; ++j) {
317 <            Mat3x3d Cij;
318 <            C.getSubMatrix(i*3, j*3, Cij);
316 >      for (std::size_t j = 0; j < nbeads; ++j) {
317 >        Mat3x3d Cij;
318 >        C.getSubMatrix(i*3, j*3, Cij);
319              
320 <            Xitt += Cij;
321 <            Xitr += U[i] * Cij;
322 <            Xirr += -U[i] * Cij * U[j] + (6 * viscosity * volume) * I;            
323 <        }
320 >        Xitt += Cij;
321 >        Xitr += U[i] * Cij;
322 >        // uncorrected here.  Volume correction is added after we assemble Xiorr
323 >        Xirr += -U[i] * Cij * U[j];
324 >      }
325      }
326 <
327 <    const double convertConstant = 6.023; //convert poise.angstrom to amu/fs
328 <    Xitt *= convertConstant;
329 <    Xitr *= convertConstant;
330 <    Xirr *= convertConstant;
331 <
332 <    double kt = OOPSEConstant::kB * temperature;
333 <
326 >    // add the volume correction here:
327 >    Xirr += (RealType(6.0) * viscosity * volume) * I;    
328 >    
329 >    Xitt *= PhysicalConstants::viscoConvert;
330 >    Xitr *= PhysicalConstants::viscoConvert;
331 >    Xirr *= PhysicalConstants::viscoConvert;
332 >    
333 >    RealType kt = PhysicalConstants::kb * temperature; // in kcal mol^-1
334 >    
335      Mat3x3d Dott; //translational diffusion tensor at arbitrary origin O
336      Mat3x3d Dorr; //rotational diffusion tensor at arbitrary origin O
337      Mat3x3d Dotr; //translation-rotation couplingl diffusion tensor at arbitrary origin O
338 <
338 >    
339      const static Mat3x3d zeroMat(0.0);
340      
341      Mat3x3d XittInv(0.0);
# Line 400 | Line 389 | bool ApproximationModel::calcHydroPropsAtCD(std::vecto
389      Ddrr = Dorr;
390      Ddtr = Dotr + Dorr * Uod;
391  
392 <    SquareMatrix<double, 6> Dd;
392 >    SquareMatrix<RealType, 6> Dd;
393      Dd.setSubMatrix(0, 0, Ddtt);
394      Dd.setSubMatrix(0, 3, Ddtr.transpose());
395      Dd.setSubMatrix(3, 0, Ddtr);
396      Dd.setSubMatrix(3, 3, Ddrr);    
397 <    SquareMatrix<double, 6> Xid;
397 >    SquareMatrix<RealType, 6> Xid;
398      Ddtt *= kt;
399      Ddtr *=kt;
400      Ddrr *= kt;
# Line 414 | Line 403 | bool ApproximationModel::calcHydroPropsAtCD(std::vecto
403  
404  
405      //Xidtt in units of kcal*fs*mol^-1*Ang^-2
406 <    //Xid /= OOPSEConstant::energyConvert;
407 <    Xid *= OOPSEConstant::kb * temperature;
406 >    //Xid /= PhysicalConstants::energyConvert;
407 >    Xid *= PhysicalConstants::kb * temperature;
408  
409 <    cr.center = rod;
421 <    cr.D.setSubMatrix(0, 0, Ddtt);
422 <    cr.D.setSubMatrix(0, 3, Ddtr);
423 <    cr.D.setSubMatrix(3, 0, Ddtr);
424 <    cr.D.setSubMatrix(3, 3, Ddrr);
425 <    cr.Xi = Xid;
409 >    Mat6x6d Xi, D;
410  
411 +    cd->setCOR(rod);
412 +
413 +    cd->setXi(Xid);
414 +
415 +    D.setSubMatrix(0, 0, Ddtt);
416 +    D.setSubMatrix(0, 3, Ddtr);
417 +    D.setSubMatrix(3, 0, Ddtr);
418 +    D.setSubMatrix(3, 3, Ddrr);
419 +
420 +    cd->setD(D);
421 +
422      std::cout << "viscosity = " << viscosity << std::endl;
423      std::cout << "temperature = " << temperature << std::endl;
424      std::cout << "center of diffusion :" << std::endl;
425      std::cout << rod << std::endl;
426      std::cout << "diffusion tensor at center of diffusion " << std::endl;
427 <    std::cout << "translation(A^2/fs) :" << std::endl;
427 >    std::cout << "translation(A^2 / fs) :" << std::endl;
428      std::cout << Ddtt << std::endl;
429 <    std::cout << "translation-rotation(A^3/fs):" << std::endl;
429 >    std::cout << "translation-rotation(A / fs):" << std::endl;
430      std::cout << Ddtr << std::endl;
431 <    std::cout << "rotation(A^4/fs):" << std::endl;
431 >    std::cout << "rotation(fs^-1):" << std::endl;
432      std::cout << Ddrr << std::endl;
433  
434      std::cout << "resistance tensor at center of diffusion " << std::endl;
# Line 449 | Line 444 | bool ApproximationModel::calcHydroPropsAtCD(std::vecto
444      Xid.getSubMatrix(3, 3, Xidrr);
445  
446      std::cout << Xidtt << std::endl;
447 <    std::cout << "rotation-translation (kcal*fs*mol^-1*Ang^-3):" << std::endl;
447 >    std::cout << "rotation-translation (kcal*fs*mol^-1*Ang^-1):" << std::endl;
448      std::cout << Xidrt << std::endl;
449 <    std::cout << "translation-rotation(kcal*fs*mol^-1*Ang^-3):" << std::endl;
449 >    std::cout << "translation-rotation(kcal*fs*mol^-1*Ang^-1):" << std::endl;
450      std::cout << Xidtr << std::endl;
451 <    std::cout << "rotation(kcal*fs*mol^-1*Ang^-4):" << std::endl;
451 >    std::cout << "rotation(kcal*fs*mol^-1):" << std::endl;
452      std::cout << Xidrr << std::endl;
453  
454      return true;
455 <      
456 < }
455 >    
456 >  }
457  
458 < /*
464 < void ApproximationModel::writeBeads(std::ostream& os) {
458 >  void ApproximationModel::writeBeads(std::ostream& os) {
459      std::vector<BeadParam>::iterator iter;
460      os << beads_.size() << std::endl;
461      os << "Generated by Hydro" << std::endl;
462      for (iter = beads_.begin(); iter != beads_.end(); ++iter) {
463 <        os << iter->atomName << "\t" << iter->pos[0] << "\t" << iter->pos[1] << "\t" << iter->pos[2] << std::endl;
463 >      os << iter->atomName << "\t" << iter->pos[0] << "\t" << iter->pos[1] << "\t" << iter->pos[2] << std::endl;
464      }
465 <
465 >    
466 >  }    
467   }
473 */
474
475
476 }

Comparing trunk/src/applications/hydrodynamics/ApproximationModel.cpp (property svn:keywords):
Revision 906 by tim, Fri Mar 17 23:20:35 2006 UTC vs.
Revision 1782 by gezelter, Wed Aug 22 02:28:28 2012 UTC

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