//HashSet<Atom> _dbgatoms = (HDebug.IsDebuggerAttached ? new HashSet<Atom>() : null);
public Atoms(Universe univ)
{
this.univ = univ;
}
public static void Main
(string[] args
, string[] hesstypes
, double[] threszeroblks
)
{
string cachebase = @"K:\cache\CoarseGraining-20150111\proteins-177\";
string lockbase = cachebase + @"lock\"; if (HDirectory.Exists(lockbase) == false)
{
HDirectory.CreateDirectory(lockbase);
}
Dictionary <string, List <Tuple <double, double, double[]> > > data = new Dictionary <string, List <Tuple <double, double, double[]> > >();
foreach (string pdbid in pdbids)
{
if (locks.ContainsKey(pdbid) == false)
{
var filelock = HFile.LockFile(lockbase + pdbid);
if (filelock == null)
{
System.Console.WriteLine("{0} is locked", pdbid);
continue;
}
locks.Add(pdbid, filelock);
}
string pathbase = cachebase + pdbid + @"\";
// load univ
var pdb0 = Pdb.FromFile(pathbase + "xry-struc.pdb");
var xyz0 = Tinker.Xyz.FromFile(pathbase + "xry-struc.xyz", false);
var xyz1 = Tinker.Xyz.FromFile(pathbase + "min-struc-charmm22.xyz", false);
var prm = Tinker.Prm.FromFile(cachebase + "charmm22.prm");
if (HFile.Exists(pathbase + "min-struc-charmm22-screened.xyz") == false)
{
var newton = Tinker.Run.Newton
(xyz1, prm, tempbase
, null // copytemp
, "A 0.0001" // param
, null // atomsToFix
, false
, "CUTOFF 9", "TAPER"
);
newton.minxyz.ToFile(pathbase + "min-struc-charmm22-screened.xyz", false);
}
var xyz2 = Tinker.Xyz.FromFile(pathbase + "min-struc-charmm22-screened.xyz", false);
Universe univ = Universe.BuilderTinker.Build(xyz1, prm, pdb0, xyz0, 0.001);
Universe univ_scrn = Universe.BuilderTinker.Build(xyz2, prm, pdb0, xyz0, 0.001);
if (HDebug.IsDebuggerAttached)
{
var grad = Tinker.Run.Testgrad(xyz1, prm, tempbase);
var forc = grad.anlyts.GetForces(xyz1.atoms);
var mforc = forc.Dist().Max();
HDebug.Assert(mforc < 0.1);
grad = Tinker.Run.Testgrad(xyz2, prm, tempbase, new string[] { "CUTOFF 9", "TAPER" }
, optOutSource: null
);
forc = grad.anlyts.GetForces(xyz1.atoms);
mforc = forc.Dist().Max();
HDebug.Assert(mforc < 0.1);
}
System.Console.Write(pdbid + " : ");
foreach (string hesstype in hesstypes)
{
foreach (double threszeroblk in threszeroblks)
{
double GetHessCoarseResiIter_thres_zeroblk = threszeroblk;
Tuple <double, double, double[]> corr_wovlp_ovlps = GetQuality(pathbase, univ, univ_scrn, hesstype, GetHessCoarseResiIter_thres_zeroblk);
if (corr_wovlp_ovlps == null)
{
System.Console.Write(hesstype + "(Unknown exception ), ");
continue;
}
System.Console.Write(hesstype + "(");
System.Console.Write("thod " + threszeroblk + " : ");
System.Console.Write("corr {0,6:0.0000}, ", corr_wovlp_ovlps.Item1);
System.Console.Write("wovlp {0,6:0.0000} : ", corr_wovlp_ovlps.Item2);
System.Console.Write("{0}), ", corr_wovlp_ovlps.Item3.HToStringSeparated("{0,4:0.00}", ","));
string datakey = hesstype + "-" + threszeroblk;
if (data.ContainsKey(datakey) == false)
{
data.Add(datakey, new List <Tuple <double, double, double[]> >());
}
data[datakey].Add(corr_wovlp_ovlps);
}
}
System.Console.WriteLine();
}
System.Console.WriteLine("=================================================================================================");
System.Console.Write("avg : ");
foreach (string hesstype in hesstypes)
{
foreach (double threszeroblk in threszeroblks)
{
string datakey = hesstype + "-" + threszeroblk;
List <Tuple <double, double, double[]> > datai = data[datakey];
double[] lst_corr = datai.HListItem1().ToArray();
double[] lst_wovlp = datai.HListItem2().ToArray();
double[][] lst_ovlps = datai.HListItem3().ToArray();
double corr = lst_corr.HRemoveAll(double.NaN).Average();
double wovlp = lst_wovlp.HRemoveAll(double.NaN).Average();
double[] ovlps = new double[10];
for (int i = 0; i < 10; i++)
{
double[] lst_ovlpsi = new double[lst_ovlps.Length];
for (int j = 0; j < lst_ovlps.Length; j++)
{
lst_ovlpsi[j] = lst_ovlps[j][i];
}
ovlps[i] = lst_ovlpsi.HRemoveAll(double.NaN).Average();
}
System.Console.Write(hesstype + "(");
System.Console.Write("thod " + threszeroblk + " : ");
System.Console.Write("corr {0,6:0.0000}, ", corr);
System.Console.Write("wovlp {0,6:0.0000} : ", wovlp);
System.Console.Write("{0}), ", ovlps.HToStringSeparated("{0,4:0.00}", ","));
}
}
System.Console.WriteLine();
System.Console.Write("min : ");
foreach (string hesstype in hesstypes)
{
foreach (double threszeroblk in threszeroblks)
{
string datakey = hesstype + "-" + threszeroblk;
List <Tuple <double, double, double[]> > datai = data[datakey];
double[] lst_corr = datai.HListItem1().ToArray();
double[] lst_wovlp = datai.HListItem2().ToArray();
double[][] lst_ovlps = datai.HListItem3().ToArray();
double corr = lst_corr.HRemoveAll(double.NaN).Min();
double wovlp = lst_wovlp.HRemoveAll(double.NaN).Min();
double[] ovlps = new double[10];
for (int i = 0; i < 10; i++)
{
double[] lst_ovlpsi = new double[lst_ovlps.Length];
for (int j = 0; j < lst_ovlps.Length; j++)
{
lst_ovlpsi[j] = lst_ovlps[j][i];
}
ovlps[i] = lst_ovlpsi.HRemoveAll(double.NaN).Min();
}
System.Console.Write(hesstype + "(");
System.Console.Write("thod " + threszeroblk + " : ");
System.Console.Write("corr {0,6:0.0000}, ", corr);
System.Console.Write("wovlp {0,6:0.0000} : ", wovlp);
System.Console.Write("{0}), ", ovlps.HToStringSeparated("{0,4:0.00}", ","));
}
}
System.Console.WriteLine();
System.Console.Write("#miss: ");
foreach (string hesstype in hesstypes)
{
foreach (double threszeroblk in threszeroblks)
{
string datakey = hesstype + "-" + threszeroblk;
List <Tuple <double, double, double[]> > datai = data[datakey];
double[] lst_corr = datai.HListItem1().ToArray();
double[] lst_wovlp = datai.HListItem2().ToArray();
double[][] lst_ovlps = datai.HListItem3().ToArray();
int cnt_corr = lst_corr.Length - lst_corr.HRemoveAll(double.NaN).Length;
int cnt_wovlp = lst_wovlp.Length - lst_wovlp.HRemoveAll(double.NaN).Length;
int[] cnt_ovlps = new int[10];
for (int i = 0; i < 10; i++)
{
double[] lst_ovlpsi = new double[lst_ovlps.Length];
for (int j = 0; j < lst_ovlps.Length; j++)
{
lst_ovlpsi[j] = lst_ovlps[j][i];
}
cnt_ovlps[i] = lst_ovlpsi.Length - lst_ovlpsi.HRemoveAll(double.NaN).Length;
}
System.Console.Write(hesstype + "(");
System.Console.Write("thod " + threszeroblk + " : ");
System.Console.Write("corr {0,6}, ", cnt_corr);
System.Console.Write("wovlp {0,6} : ", cnt_wovlp);
System.Console.Write("{0}), ", cnt_ovlps.HToStringSeparated("{0,4}", ","));
}
}
System.Console.WriteLine();
}
public static void SelfTest()
{
if (HDebug.Selftest() == false)
{
return;
}
string temppath = @"K:\temp\";
string tinkerpath_testgrad = "\"" + @"C:\Program Files\Tinker\bin-win64-8.2.1\testgrad.exe" + "\"";
string tinkerpath_testhess = "\"" + @"C:\Program Files\Tinker\bin-win64-8.2.1\testhess.exe" + "\"";
var xyz = Tinker.Xyz.FromLines(SelftestData.lines_1L2Y_xyz);
var prm = Tinker.Prm.FromLines(SelftestData.lines_charmm22_prm);
var univ = Universe.Build(xyz, prm);
var testhess = Tinker.Run.Testhess(tinkerpath_testhess, xyz, prm, temppath
, HessMatrixZeros: HessMatrixLayeredArray.ZerosHessMatrixLayeredArray
);
var testgrad = Tinker.Run.Testgrad(tinkerpath_testgrad, xyz, prm, temppath);
var hessinfo = Hess.HessInfo.FromTinker(xyz, prm, testhess.hess);
var hessforcinfo = HessForc.Coarse.HessForcInfo.From(hessinfo);
hessforcinfo.forc = testgrad.anlyts.GetForces(xyz.atoms);
var coarseinfo_debug = HessForc.Coarse.GetCoarseHessForc
(hessforcinfo
, coords: hessinfo.coords
, GetIdxKeepListRemv: GetIdxKeepListRemv
, ila: null
, thres_zeroblk: double.Epsilon
, options: new string[] { "Debug" }
);
var coarseinfo_simple = HessForc.Coarse.GetCoarseHessForc
(hessforcinfo
, coords: hessinfo.coords
, GetIdxKeepListRemv: GetIdxKeepListRemv
, ila: null
, thres_zeroblk: double.Epsilon
, options: new string[] { "SubSimple" }
);
double absmax_simple = (coarseinfo_debug.hess - coarseinfo_simple.hess).HAbsMax();
HDebug.Assert(Math.Abs(absmax_simple) < 0.00000001);
double absmax_simple_forc = (coarseinfo_debug.forc.ToVector() - coarseinfo_simple.forc.ToVector()).ToArray().MaxAbs();
HDebug.Assert(Math.Abs(absmax_simple_forc) < 0.00000001);
var coarseinfo_1iter = HessForc.Coarse.GetCoarseHessForc
(hessforcinfo
, coords: hessinfo.coords
, GetIdxKeepListRemv: GetIdxKeepListRemv
, ila: null
, thres_zeroblk: double.Epsilon
, options: new string[] { "OneIter" }
);
double absmax_1iter = (coarseinfo_debug.hess - coarseinfo_1iter.hess).HAbsMax();
HDebug.Assert(Math.Abs(absmax_1iter) < 0.00000001);
double absmax_1iter_forc = (coarseinfo_debug.forc.ToVector() - coarseinfo_1iter.forc.ToVector()).ToArray().MaxAbs();
HDebug.Assert(Math.Abs(absmax_1iter_forc) < 0.00000001);
var coarseinfo_iter = HessForc.Coarse.GetCoarseHessForc
(hessforcinfo
, coords: hessinfo.coords
, GetIdxKeepListRemv: GetIdxKeepListRemv
, ila: null
, thres_zeroblk: double.Epsilon
, options: null
);
double absmax_iter = (coarseinfo_debug.hess - coarseinfo_iter.hess).HAbsMax();
HDebug.Assert(Math.Abs(absmax_iter) < 0.00000001);
double absmax_iter_forc = (coarseinfo_debug.forc.ToVector() - coarseinfo_iter.forc.ToVector()).ToArray().MaxAbs();
HDebug.Assert(Math.Abs(absmax_iter_forc) < 0.00000001);
double tolerance = 1.0E-6; // 0.00001;
var coarseinfo_1iter_tolerant = HessForc.Coarse.GetCoarseHessForc
(hessforcinfo
, coords: hessinfo.coords
, GetIdxKeepListRemv: GetIdxKeepListRemv
, ila: null
, thres_zeroblk: tolerance
, options: new string[] { "OneIter" }
);
double absmax_1iter_tolerant = (coarseinfo_debug.hess - coarseinfo_1iter_tolerant.hess).HAbsMax();
HDebug.Assert(Math.Abs(absmax_1iter_tolerant) < tolerance * 10);
double absmax_1iter_tolerant_forc = (coarseinfo_debug.forc.ToVector() - coarseinfo_1iter_tolerant.forc.ToVector()).ToArray().MaxAbs();
HDebug.Assert(Math.Abs(absmax_1iter_tolerant_forc) < tolerance * 10);
var coarseinfo_iter_tolerant = HessForc.Coarse.GetCoarseHessForc
(hessforcinfo
, coords: hessinfo.coords
, GetIdxKeepListRemv: GetIdxKeepListRemv
, ila: null
, thres_zeroblk: tolerance
, options: null
);
double absmax_iter_tolerant = (coarseinfo_debug.hess - coarseinfo_iter_tolerant.hess).HAbsMax();
HDebug.Assert(Math.Abs(absmax_iter_tolerant) < tolerance * 10);
double absmax_iter_tolerant_forc = (coarseinfo_debug.forc.ToVector() - coarseinfo_iter_tolerant.forc.ToVector()).ToArray().MaxAbs();
HDebug.Assert(Math.Abs(absmax_iter_tolerant_forc) < tolerance * 10);
string tempfilepath = HFile.GetTempPath(temppath, "test_serialzation_CoarseHessForc.dat");
HSerialize.Serialize(tempfilepath, null, coarseinfo_iter_tolerant);
var coarseinfo_iter_tolerant2 = HSerialize.Deserialize <HessForcInfo>(tempfilepath, null);
double absmax_iter_tolerant_file = (coarseinfo_iter_tolerant.hess - coarseinfo_iter_tolerant.hess).HAbsMax();
HDebug.Assert(Math.Abs(absmax_iter_tolerant_file) == 0);
double absmax_iter_tolerant_file_forc = (coarseinfo_iter_tolerant.forc.ToVector() - coarseinfo_iter_tolerant.forc.ToVector()).ToArray().MaxAbs();
HDebug.Assert(Math.Abs(absmax_iter_tolerant_file_forc) == 0);
HFile.Delete(tempfilepath);
}
public static Quality GetQuality
(string pathcache
, Universe univ
, Func <Hess.HessInfo> GetHessInfo
, double GetHessCoarseResiIter_thres_zeroblk
)
{
double corr = double.NaN;
double wovlp = double.NaN;
double sparsityall = double.NaN;
double sparsityca = double.NaN;
double[] ovlps = new double[]
{
double.NaN, double.NaN, double.NaN, double.NaN, double.NaN,
double.NaN, double.NaN, double.NaN, double.NaN, double.NaN,
};
double[] eigvals = new double[]
{
double.NaN, double.NaN, double.NaN, double.NaN, double.NaN,
double.NaN, double.NaN, double.NaN, double.NaN, double.NaN,
};
try
{
Hess.HessInfo hessinfo = GetHessInfo();
double lsparsityall = 1 - hessinfo.hess.RatioUsedBlocks;
Mode[] camodes_orig;
{
int[] idxca = (hessinfo.atoms as Universe.Atom[]).ListPdbAtomName(true).HIdxEqual("CA");
HessMatrix cahess = Hess.GetHessCoarseBlkmat(hessinfo.hess, idxca, "inv");
Mode[] lcamodes = Hess.GetModesFromHess(cahess, la);
var camodes_nzero_zero = lcamodes.SeparateTolerants();
if (bool.Parse("false"))
{
camodes_nzero_zero = lcamodes.SeparateTolerantsByCountSigned(6);
} /// manually fix 3LKY, 4EDL
if (camodes_nzero_zero.Item2.Length != 6)
{
throw new HException("# zero-eigval != 6");
}
camodes_orig = camodes_nzero_zero.Item1;
}
GC.Collect();
Vector cabfactor_orig = camodes_orig.GetBFactor().ToArray();
double lsparsityca;
Mode[] camodes_iter;
Mode[] camodes;
{
var coords = univ.GetCoords();
var cahess = Hess.GetHessCoarseResiIter_BlockWise(hessinfo, coords, la, 18, 500, GetHessCoarseResiIter_thres_zeroblk);
lsparsityca = 1 - cahess.hess.RatioUsedBlocks;
camodes = Hess.GetModesFromHess(cahess.hess, la);
var camodes_nzero_zero = camodes.SeparateTolerantsByCountSigned(6);
if (camodes_nzero_zero.Item2.Length != 6)
{
throw new HException("# zero-eigval != 6");
}
camodes_iter = camodes_nzero_zero.Item1;
}
GC.Collect();
Vector cabfactor_iter = camodes_iter.GetBFactor().ToArray();
corr = HBioinfo.BFactor.Corr(cabfactor_orig, cabfactor_iter);
var lwovlp = HBioinfo.OverlapWeightedByEigval(camodes_orig, camodes_iter, la, false, "corresponding index");
wovlp = lwovlp.woverlap;
sparsityall = lsparsityall;
sparsityca = lsparsityca;
ovlps = new double[]
{
lwovlp.overlaps[0], lwovlp.overlaps[1], lwovlp.overlaps[2], lwovlp.overlaps[3], lwovlp.overlaps[4],
lwovlp.overlaps[5], lwovlp.overlaps[6], lwovlp.overlaps[7], lwovlp.overlaps[8], lwovlp.overlaps[9],
};
eigvals = new double[]
{
camodes[0].eigval, camodes[1].eigval, camodes[2].eigval, camodes[3].eigval, camodes[4].eigval,
camodes[5].eigval, camodes[6].eigval, camodes[7].eigval, camodes[8].eigval, camodes[9].eigval,
};
}
catch (Exception e)
{
if (e.Message != "# zero-eigval != 6")
{
throw;
}
}
return(new Quality
{
corr = corr,
wovlp = wovlp,
sparsity_all = sparsityall,
sparsity_ca = sparsityca,
ovlps = ovlps,
eigvals = eigvals,
});
}
public static Tuple <double, double, double[]> GetQuality
(string pathcache
, Universe univ
, Func <Hess.HessInfo> GetHessInfo
, double GetHessCoarseResiIter_thres_zeroblk
)
{
if (HFile.Exists(pathcache) == false)
{
double corr = double.NaN;
double wovlp = double.NaN;
double[] ovlps = new double[]
{
double.NaN, double.NaN, double.NaN, double.NaN, double.NaN,
double.NaN, double.NaN, double.NaN, double.NaN, double.NaN,
};
try
{
Hess.HessInfo hessinfo = GetHessInfo();
Mode[] camodes_orig;
{
int[] idxca = (hessinfo.atoms as Universe.Atom[]).ListPdbAtomName(true).HIdxEqual("CA");
Matrix cahess = Hess.GetHessCoarseBlkmat(hessinfo.hess, idxca, "inv");
Mode[] lcamodes = Hess.GetModesFromHess(cahess, la);
var camodes_nzero_zero = lcamodes.SeparateTolerants();
if (bool.Parse("false"))
{
camodes_nzero_zero = lcamodes.SeparateTolerantsByCountSigned(6);
} /// manually fix 3LKY, 4EDL
if (camodes_nzero_zero.Item2.Length != 6)
{
throw new HException("# zero-eigval != 6");
}
camodes_orig = camodes_nzero_zero.Item1;
}
GC.Collect();
Vector cabfactor_orig = camodes_orig.GetBFactor().ToArray();
Mode[] camodes_iter;
{
var cahess = Hess.GetHessCoarseResiIter_BlockWise(hessinfo, univ.GetCoords(), la, 18, 500, GetHessCoarseResiIter_thres_zeroblk);
Mode[] lcamodes = Hess.GetModesFromHess(cahess.hess, la);
var camodes_nzero_zero = lcamodes.SeparateTolerantsByCountSigned(6);
if (camodes_nzero_zero.Item2.Length != 6)
{
throw new HException("# zero-eigval != 6");
}
camodes_iter = camodes_nzero_zero.Item1;
}
GC.Collect();
Vector cabfactor_iter = camodes_iter.GetBFactor().ToArray();
corr = HBioinfo.BFactor.Corr(cabfactor_orig, cabfactor_iter);
var lwovlp = HBioinfo.OverlapWeightedByEigval(camodes_orig, camodes_iter, la, false, "corresponding index");
wovlp = lwovlp.woverlap;
ovlps = new double[]
{
lwovlp.overlaps[0], lwovlp.overlaps[1], lwovlp.overlaps[2], lwovlp.overlaps[3], lwovlp.overlaps[4],
lwovlp.overlaps[5], lwovlp.overlaps[6], lwovlp.overlaps[7], lwovlp.overlaps[8], lwovlp.overlaps[9],
};
}
catch (Exception e)
{
if (e.Message != "# zero-eigval != 6")
{
throw;
}
}
HSerialize.SerializeText(pathcache, new double[]
{ corr, wovlp,
ovlps[0], ovlps[1], ovlps[2], ovlps[3], ovlps[4],
ovlps[5], ovlps[6], ovlps[7], ovlps[8], ovlps[9], });
}
{
double[] buff;
HSerialize.DeserializeText(pathcache, out buff);
double corr = buff[0];
double wovlp = buff[1];
double[] ovlps = new double[] { buff[2], buff[3], buff[4], buff[5], buff[6]
, buff[7], buff[8], buff[9], buff[10], buff[11] };
if (double.IsNaN(corr))
{
HDebug.Assert(false);
}
return(new Tuple <double, double, double[]>(corr, wovlp, ovlps));
}
}
public static Universe Build(Pdb pdb, Gromacs.Top top, ITextLogger logger)
{
Universe univ = new Universe();
// atoms
List <Top.Atom> top_atoms = top.elements.SelectSourceExtTop().ListAtom().SelectMatchToPdb(pdb.atoms);
List <Top.Bond> top_bonds = top.elements.SelectSourceExtTop().ListType <Top.Bond>();
List <Top.Pair> top_pairs = top.elements.SelectSourceExtTop().ListType <Top.Pair>(); ///Debug.ToDo("handle pairtype <= nbnd 1-4");
List <Top.Angle> top_angles = top.elements.SelectSourceExtTop().ListType <Top.Angle>();
List <Top.Dihedral> top_dihedral = top.elements.SelectSourceExtTop().ListType <Top.Dihedral>();
List <Top.Atomtypes> top_atomtypes = top.elements.ListAtomtypes();
List <Top.Bondtypes> top_bondtypes = top.elements.ListType <Top.Bondtypes>();
List <Top.Angletypes> top_angletypes = top.elements.ListType <Top.Angletypes>();
List <Top.Dihedraltypes> top_dihedraltypes = top.elements.ListType <Top.Dihedraltypes>();
List <Top.Pairtypes> top_pairtypes = top.elements.ListType <Top.Pairtypes>(); ///Debug.ToDo("handle pairtype <= nbnd 1-4");
{
///Debug.ToDo("handle here");
List <Top.LineElement> elems = new List <Top.LineElement>(top.elements);
foreach (var elem in top_atoms)
{
HDebug.Verify(elems.Remove(elem));
}
foreach (var elem in top_bonds)
{
HDebug.Verify(elems.Remove(elem));
}
foreach (var elem in top_pairs)
{
HDebug.Verify(elems.Remove(elem));
}
foreach (var elem in top_angles)
{
HDebug.Verify(elems.Remove(elem));
}
foreach (var elem in top_dihedral)
{
HDebug.Verify(elems.Remove(elem));
}
foreach (var elem in top_atomtypes)
{
HDebug.Verify(elems.Remove(elem));
}
foreach (var elem in top_bondtypes)
{
HDebug.Verify(elems.Remove(elem));
}
foreach (var elem in top_angletypes)
{
HDebug.Verify(elems.Remove(elem));
}
foreach (var elem in top_dihedraltypes)
{
HDebug.Verify(elems.Remove(elem));
}
foreach (var elem in top_pairtypes)
{
HDebug.Verify(elems.Remove(elem));
}
List <Top.LineElement> srcitp = new List <Top.LineElement>();
List <Top.LineElement> srctop = new List <Top.LineElement>();
for (int i = 0; i < elems.Count; i++)
{
if ((elems[i].source as string).EndsWith(".itp"))
{
srcitp.Add(elems[i]); elems[i] = null; continue;
}
if ((elems[i].source as string).EndsWith(".top"))
{
srctop.Add(elems[i]); elems[i] = null; continue;
}
}
elems = elems.HRemoveAllNull().ToList();
HDebug.Assert(elems.Count == 0);
}
Atoms atoms = new Atoms(univ);
HDebug.Assert(pdb.atoms.Length == top_atoms.Count);
for (int i = 0; i < top_atoms.Count; i++)
{
//Debug.Assert(psf.atoms[i].AtomId == pdb.atoms[i].serial);
//string type0 = psf.atoms[i].AtomType;
//Atom atom = new Atom(psf.atoms[i], prm.FindNonbonded(type0, logger), pdb.atoms[i]);
//atom.Coord = pdb.atoms[i].coord;
//atoms.Add(atom);
Gromacs.Top.Atom atom = top_atoms[i];
HDebug.Assert(i + 1 == atom.cgnr);
HDebug.Assert(atom.cgnr == pdb.atoms[i].serial);
//Gromacs.Top.Atomtypes atomtype = top_atomtypes[atom.type];
List <Gromacs.Top.Atomtypes> atomtypes = FindTypes(top_atomtypes, atom.type);
HDebug.Assert(atomtypes.Count == 1);
Gromacs.Top.Atomtypes atomtype = atomtypes.Last();
//Debug.Assert(atom.charge == atomtype.charge);
//Debug.Assert(atom.mass == atomtype.mass );
Atom uatom = new Atom(atom.cgnr, atom.atom, atom.type, pdb.atoms[i].element.Trim()
, atom.resnr, atom.residu
, atom.charge, atom.mass
, atomtype.epsilon, atomtype.sigma
, double.NaN, double.NaN
, atom, atomtype
);
uatom.Coord = pdb.atoms[i].coord;
atoms.Add(uatom);
}
// bonds
Bonds bonds = new Bonds();
for (int i = 0; i < top_bonds.Count; i++)
{
int idx0 = top_bonds[i].ai - 1; Atom atom0 = atoms[idx0]; string type0 = atom0.AtomType;
int idx1 = top_bonds[i].aj - 1; Atom atom1 = atoms[idx1]; string type1 = atom1.AtomType;
List <Gromacs.Top.Bondtypes> bondtypes = FindTypes(top_bondtypes, type0, type1);
//Debug.Assert(bondtypes.Count == 1);
Gromacs.Top.Bondtypes bondtype = bondtypes.Last();
//Gromacs.Top.Bondtypes bondtype = top_bondtypes[Gromacs.Top.Bondtypes.GetStringKey(type0,type1)];
Bond bond = new Bond(atom0, atom1, bondtype.kb, bondtype.b0, bondtype);
bonds.Add(bond);
atom0.Bonds.Add(bond); atom0.Inter123.Add(atom1); atom0.Inter12.Add(atom1);
atom1.Bonds.Add(bond); atom1.Inter123.Add(atom0); atom1.Inter12.Add(atom0);
}
// angles
Angles angles = new Angles();
for (int i = 0; i < top_angles.Count; i++)
{
int idx0 = top_angles[i].ai - 1; Atom atom0 = atoms[idx0]; string type0 = atom0.AtomType;
int idx1 = top_angles[i].aj - 1; Atom atom1 = atoms[idx1]; string type1 = atom1.AtomType;
int idx2 = top_angles[i].ak - 1; Atom atom2 = atoms[idx2]; string type2 = atom2.AtomType;
List <Gromacs.Top.Angletypes> angletypes = FindTypes(top_angletypes, type0, type1, type2);
//Debug.Assert(angletypes.Count == 1);
Gromacs.Top.Angletypes angletype = angletypes.Last();
//Gromacs.Top.Angletypes angletype = top_angletypes[Gromacs.Top.Bondtypes.GetStringKey(type0, type1, type2)];
Angle angle = new Angle(atom0, atom1, atom2
, angletype.cth, angletype.th0, angletype.cub, angletype.ub0
, angletype
);
angles.Add(angle);
atom0.Angles.Add(angle); atom0.Inter123.Add(atom1); atom0.Inter123.Add(atom2);
atom1.Angles.Add(angle); atom1.Inter123.Add(atom2); atom1.Inter123.Add(atom0);
atom2.Angles.Add(angle); atom2.Inter123.Add(atom0); atom2.Inter123.Add(atom1);
}
// dihedrals
Dihedrals dihedrals = new Dihedrals();
Impropers impropers = new Impropers();
for (int i = 0; i < top_dihedral.Count; i++)
{
int idx0 = top_dihedral[i].ai - 1; Atom atom0 = atoms[idx0]; string type0 = atom0.AtomType;
int idx1 = top_dihedral[i].aj - 1; Atom atom1 = atoms[idx1]; string type1 = atom1.AtomType;
int idx2 = top_dihedral[i].ak - 1; Atom atom2 = atoms[idx2]; string type2 = atom2.AtomType;
int idx3 = top_dihedral[i].al - 1; Atom atom3 = atoms[idx3]; string type3 = atom3.AtomType;
int funct = top_dihedral[i].funct;
List <Gromacs.Top.Dihedraltypes> dihedraltypes = FindTypes(top_dihedraltypes, type0, type1, type2, type3);
{
List <Gromacs.Top.Dihedraltypes> ldihedraltypes = new List <Top.Dihedraltypes>(dihedraltypes);
// select funct matching to its query
for (int j = 0; j < ldihedraltypes.Count;)
{
if (ldihedraltypes[j].func == funct)
{
j++;
}
else
{
ldihedraltypes.RemoveAt(j);
}
}
// if there are no matching query but improper, select the improper
if ((ldihedraltypes.Count == 0) && (dihedraltypes[0].func == 2))
{
ldihedraltypes.Add(dihedraltypes[0]);
}
dihedraltypes = new List <Top.Dihedraltypes>(ldihedraltypes);
}
//{
// // if dihedral(func==9) and improper(func==2) are mixed
// // select only improper
// bool has_func_2 = false;
// for(int j=0; j<dihedraltypes.Count; j++)
// if(dihedraltypes[j].func == 2)
// has_func_2 = true;
// if(has_func_2)
// {
// for(int j=0; j<dihedraltypes.Count; )
// {
// if(dihedraltypes[j].func == 2)
// j++;
// else
// dihedraltypes.RemoveAt(j);
// }
// }
//}
if (dihedraltypes[0].func == 9)
{
// dihedral
for (int j = 1; j < dihedraltypes.Count; j++)
{
HDebug.Assert(dihedraltypes[0].func == dihedraltypes[j].func);
HDebug.Assert(dihedraltypes[0].i.Trim() == dihedraltypes[j].i.Trim());
HDebug.Assert(dihedraltypes[0].j.Trim() == dihedraltypes[j].j.Trim());
HDebug.Assert(dihedraltypes[0].k.Trim() == dihedraltypes[j].k.Trim());
HDebug.Assert(dihedraltypes[0].l.Trim() == dihedraltypes[j].l.Trim());
}
Gromacs.Top.Dihedraltypes dihedraltype = dihedraltypes.Last();
Dihedral dihedral = new Dihedral(atom0, atom1, atom2, atom3
, dihedraltype.cp, dihedraltype.mult, dihedraltype.phi0
, dihedraltype
);
dihedrals.Add(dihedral);
atom0.Dihedrals.Add(dihedral); //atom0.Inter123.Add(atom1); atom0.Inter123.Add(atom2); atom0.Inter123.Add(atom3);
atom1.Dihedrals.Add(dihedral); //atom1.Inter123.Add(atom2); atom1.Inter123.Add(atom3); atom1.Inter123.Add(atom0);
atom2.Dihedrals.Add(dihedral); //atom2.Inter123.Add(atom3); atom2.Inter123.Add(atom0); atom2.Inter123.Add(atom1);
atom3.Dihedrals.Add(dihedral); //atom3.Inter123.Add(atom0); atom3.Inter123.Add(atom1); atom3.Inter123.Add(atom2);
continue;
}
if (dihedraltypes[0].func == 2)
{
// improper
for (int j = 1; j < dihedraltypes.Count; j++)
{
HDebug.Assert(dihedraltypes[0].func == dihedraltypes[j].func);
HDebug.Assert(dihedraltypes[0].i.Trim() == dihedraltypes[j].i.Trim());
HDebug.Assert(dihedraltypes[0].j.Trim() == dihedraltypes[j].j.Trim());
HDebug.Assert(dihedraltypes[0].k.Trim() == dihedraltypes[j].k.Trim());
HDebug.Assert(dihedraltypes[0].l.Trim() == dihedraltypes[j].l.Trim());
}
Gromacs.Top.Dihedraltypes impropertype = dihedraltypes.Last();
Improper improper = new Improper(atom0, atom1, atom2, atom3
, impropertype.cp, impropertype.phi0
, impropertype
);
impropers.Add(improper);
atom0.Impropers.Add(improper); //atom0.Inter123.Add(atom1); atom0.Inter123.Add(atom2); atom0.Inter123.Add(atom3);
atom1.Impropers.Add(improper); //atom1.Inter123.Add(atom2); atom1.Inter123.Add(atom3); atom1.Inter123.Add(atom0);
atom2.Impropers.Add(improper); //atom2.Inter123.Add(atom3); atom2.Inter123.Add(atom0); atom2.Inter123.Add(atom1);
atom3.Impropers.Add(improper); //atom3.Inter123.Add(atom0); atom3.Inter123.Add(atom1); atom3.Inter123.Add(atom2);
continue;
}
HDebug.Assert(false);
//Debug.Assert(dihedraltypes.Count == 1);
//
//for(int j=0; j<dihedraltypes.Count; j++)
// if(dihedraltypes[j].func != 2)
// dihedraltype = dihedraltypes[j];
//Debug.Assert(dihedraltype != null);
//List<Gromacs.Top.Dihedraltypes> dihedraltypes = top_dihedraltypes[Gromacs.Top.Dihedraltypes.GetStringKey(type0, type1, type2, type3)];
}
// 1-4 interactions
for (int i = 0; i < atoms.Count; i++)
{
HashSet <Atom> Inter14 = new HashSet <Atom>();
BuildInter1toN(atoms[i], 4, Inter14); // find all atoms for 1-4 interaction
Inter14.Remove(atoms[i]); // remove self
foreach (Atom atom in atoms[i].Inter123)
{
Inter14.Remove(atom); // remove all 1-2, 1-3 interactions
}
atoms[i].Inter14 = Inter14;
}
Nonbonded14s nonbonded14s = new Nonbonded14s();
nonbonded14s.Build(atoms);
//// nonbondeds
//// do not make this list in advance, because it depends on the atom positions
//Nonbondeds nonbondeds = new Nonbondeds();
//nonbondeds.Build(atoms);
//Universe univ = new Universe();
univ.pdb = pdb;
univ.refs.Add("top", top);
univ.atoms = atoms;
univ.bonds = bonds;
univ.angles = angles;
univ.dihedrals = dihedrals;
univ.impropers = impropers;
//univ.nonbondeds = nonbondeds ; // do not make this list in advance, because it depends on the atom positions
univ.nonbonded14s = nonbonded14s;
HDebug.Assert(univ.Verify());
return(univ);
}
public static MatrixByArr[,] GetJ(Universe univ, Vector[] coords, List <RotableInfo> rotInfos, Func <MatrixByArr, MatrixByArr> fnInv3x3 = null)
{
if (fnInv3x3 == null)
{
fnInv3x3 = delegate(MatrixByArr A)
{
using (new Matlab.NamedLock("GetJ"))
{
return(LinAlg.Inv3x3(A));
}
}
}
;
MatrixByArr I = GetITa(univ.atoms.ToArray(), coords);
MatrixByArr invI = fnInv3x3(I);
Vector R = GetRa(univ.atoms.ToArray(), coords);
double M = GetMa(univ.atoms.ToArray());
Vector MR = GetMaRa(univ.atoms.ToArray(), coords);
MatrixByArr MRx = GetSSMatrix(MR);
MatrixByArr MRxt = MRx.Tr();
MatrixByArr III = I - (1.0 / M) * MRx * MRxt; // { MI - 1/M * [MR]x * [MR]x^t }
MatrixByArr invIII = fnInv3x3(III);
//Vector MMR = GetMaMaRa(univ.atoms.ToArray());
int n = univ.atoms.Count;
int m = rotInfos.Count;
MatrixByArr[,] J = new MatrixByArr[n, m];
for (int a = 0; a < m; a++)
{
RotableInfo rotInfo = rotInfos[a];
Vector Ra = GetRa(rotInfo.rotAtoms, coords);
double Ma = GetMa(rotInfo.rotAtoms);
Vector MaRa = GetMaRa(rotInfo.rotAtoms, coords);
MatrixByArr Ia = GetITa(rotInfo.rotAtoms, coords);
HDebug.Assert(rotInfo.rotAtoms.Contains(rotInfo.bondedAtom));
Vector sa = coords[rotInfo.bondedAtom.ID];
//Vector Sa = sa * rotInfos[a].rotAtoms.Length;
Vector ea;
{
HashSet <Atom> bondatoms = new HashSet <Atom>(rotInfo.bond.atoms);
bondatoms.Remove(rotInfo.bondedAtom);
HDebug.Assert(bondatoms.Count == 1);
HDebug.Assert(rotInfo.rotAtoms.Contains(bondatoms.First()) == false);
ea = (sa - coords[bondatoms.First().ID]).UnitVector();
}
Vector Aa;
{
Vector ea_Rasa = LinAlg.CrossProd3(ea, Ra - sa);
Vector IAa = -LinAlg.MV(Ia, ea) + LinAlg.CrossProd3(Ma * R - MaRa, ea_Rasa);
Aa = LinAlg.MV(invI, IAa);
}
{
//Vector ea_MaRa_Masa = Vector.CrossProd3(ea, MaRa-Ma*sa);
//Vector ea_sa = Vector.CrossProd3(ea, sa);
Vector IAa = new double[3];
IAa += -LinAlg.MV(Ia, ea);
IAa += LinAlg.CrossProd3(MaRa, LinAlg.CrossProd3(ea, sa));
IAa += LinAlg.CrossProd3(MR, LinAlg.CrossProd3(ea, MaRa - Ma * sa)) / M;
Aa = LinAlg.MV(invIII, IAa);
}
Vector ta = new double[3];
{
//Aa = new double[3]; // check "translational Eckart condition" only
//ta += (-1/M) * Vector.CrossProd3(Aa, MMR);
ta += (-1 / M) * LinAlg.CrossProd3(Aa, MR);
ta += (-1 / M) * LinAlg.CrossProd3(ea, MaRa - Ma * sa);
}
for (int i = 0; i < n; i++)
{
double mi = univ.atoms[i].Mass;
Vector ri = coords[univ.atoms[i].ID];
Vector Jia = new double[3];
//Jia += Vector.CrossProd3(Aa, ri*mi);
Jia += LinAlg.CrossProd3(Aa, ri);
Jia += ta;
J[i, a] = Jia.ToColMatrix();
}
foreach (Atom ira in rotInfo.rotAtoms)
{
int i = ira.ID;
Vector ri = coords[univ.atoms[i].ID];
Vector Jia = LinAlg.CrossProd3(ea, ri - sa);
J[i, a] += Jia.ToColMatrix();
}
//if(Debug.IsDebuggerAttached)
//{
// // check Eckart condition
// // http://en.wikipedia.org/wiki/Eckart_conditions
// //////////////////////////////////////////////////////////////////////
// // 1. translational Eckart condition
// // sum{i=1..n}{mi * Jia} = 0
// Vector mJ = EckartConditionTrans(univ, J, a);
// Debug.AssertTolerance(0.00000001, mJ);
// // 2. rotational Eckart condition
// // sum{i=1..n}{mi * r0i x Jia} = 0,
// // where 'x' is the cross product
// Vector mrJ = EckartConditionRotat(univ, coords, J, a);
// Debug.AssertTolerance(0.00000001, mrJ);
//}
}
return(J);
}
public unsafe static MatrixByArr GetJ(Universe univ, Vector[] coords, List <RotableInfo> rotInfos)
{
HDebug.Assert(rotInfos.ListMolecule().HUnion().Length == 1);
Dictionary <Universe.Molecule, Dictionary <string, object> > moleMRI = new Dictionary <Universe.Molecule, Dictionary <string, object> >();
int n = univ.atoms.Count;
int m = rotInfos.Count;
MatrixByArr J = new double[3 * n, m];
double[] _Ja = new double[3 * n];
for (int a = 0; a < m; a++)
{
var mole = rotInfos[a].mole;
if (moleMRI.ContainsKey(rotInfos[a].mole) == false)
{
double _M = 0;
Vector _R = new double[3];
Vector _MR = new double[3];
MatrixByArr _I = new double[3, 3];
GetMaRaMaraITa(mole.atoms.ToArray(), coords, ref _M, ref _R, ref _MR, ref _I);
MatrixByArr _invI = LinAlg.Inv3x3(_I);
MatrixByArr _MRx = GetSSMatrix(_MR);
MatrixByArr _MRxt = _MRx.Tr();
MatrixByArr _III = _I - (1.0 / _M) * _MRx * _MRxt; // { MI - 1/M * [MR]x * [MR]x^t }
MatrixByArr _invIII = LinAlg.Inv3x3(_III);
moleMRI.Add(mole, new Dictionary <string, object>());
moleMRI[mole].Add("invI", _invI);
moleMRI[mole].Add("invIII", _invIII);
moleMRI[mole].Add("MR", _MR);
moleMRI[mole].Add("R", _R);
moleMRI[mole].Add("M", _M);
}
MatrixByArr invI = moleMRI[mole]["invI"] as MatrixByArr;
MatrixByArr invIII = moleMRI[mole]["invIII"] as MatrixByArr;
Vector MR = moleMRI[mole]["MR"] as Vector;
Vector R = moleMRI[mole]["R"] as Vector;
double M = (double)(moleMRI[mole]["M"]);
RotableInfo rotInfo = rotInfos[a];
double Ma = 0;
Vector Ra = new double[3];
Vector MaRa = new double[3];
MatrixByArr Ia = new double[3, 3];
GetMaRaMaraITa(rotInfo.rotAtoms, coords, ref Ma, ref Ra, ref MaRa, ref Ia);
HDebug.Assert(rotInfo.rotAtoms.Contains(rotInfo.bondedAtom));
Vector sa = coords[rotInfo.bondedAtom.ID];
Vector ea;
{
Atom bondatom = null;
HDebug.Assert(rotInfo.bond.atoms.Length == 2);
if (rotInfo.bond.atoms[0] == rotInfo.bondedAtom)
{
bondatom = rotInfo.bond.atoms[1];
}
else
{
bondatom = rotInfo.bond.atoms[0];
}
HDebug.Assert(rotInfo.rotAtoms.Contains(bondatom) == false);
ea = (sa - coords[bondatom.ID]).UnitVector();
}
Vector Aa;
{
Vector ea_Rasa = LinAlg.CrossProd3(ea, Ra - sa);
Vector IAa = -LinAlg.MV(Ia, ea) + LinAlg.CrossProd3(Ma * R - MaRa, ea_Rasa);
Aa = LinAlg.MV(invI, IAa);
}
{
//Vector ea_MaRa_Masa = Vector.CrossProd3(ea, MaRa-Ma*sa);
//Vector ea_sa = Vector.CrossProd3(ea, sa);
Vector IAa = new double[3];
IAa += -LinAlg.MV(Ia, ea);
IAa += LinAlg.CrossProd3(MaRa, LinAlg.CrossProd3(ea, sa));
IAa += LinAlg.CrossProd3(MR, LinAlg.CrossProd3(ea, MaRa - Ma * sa)) / M;
Aa = LinAlg.MV(invIII, IAa);
}
Vector ta = new double[3];
{
//Aa = new double[3]; // check "translational Eckart condition" only
//ta += (-1/M) * Vector.CrossProd3(Aa, MMR);
ta += (-1 / M) * LinAlg.CrossProd3(Aa, MR);
ta += (-1 / M) * LinAlg.CrossProd3(ea, MaRa - Ma * sa);
}
fixed(double *Ja = _Ja)
{
//for(int i=0; i<n; i++)
foreach (Atom iaa in mole.atoms)
{
int i = iaa.ID;
double mi = univ.atoms[i].Mass;
Vector ri = coords[univ.atoms[i].ID];
Vector Jia = new double[3];
//Jia += Vector.CrossProd3(Aa, ri*mi);
Jia += LinAlg.CrossProd3(Aa, ri);
Jia += ta;
//J[i, a] = Jia.ToColMatrix();
Ja[i * 3 + 0] = Jia[0];
Ja[i * 3 + 2] = Jia[2];
Ja[i * 3 + 1] = Jia[1];
}
foreach (Atom ira in rotInfo.rotAtoms)
{
int i = ira.ID;
Vector ri = coords[univ.atoms[i].ID];
Vector Jia = LinAlg.CrossProd3(ea, ri - sa);
//J[i, a] += Jia.ToColMatrix();
Ja[i * 3 + 0] += Jia[0];
Ja[i * 3 + 1] += Jia[1];
Ja[i * 3 + 2] += Jia[2];
}
//for(int i=0; i<n; i++)
foreach (Atom iaa in mole.atoms)
{
int i = iaa.ID;
J[i * 3 + 0, a] = Ja[i * 3 + 0];
J[i * 3 + 1, a] = Ja[i * 3 + 1];
J[i * 3 + 2, a] = Ja[i * 3 + 2];
}
}
if (HDebug.IsDebuggerAttached)
{
// check Eckart condition
// http://en.wikipedia.org/wiki/Eckart_conditions
//////////////////////////////////////////////////////////////////////
// 1. translational Eckart condition
// sum{i=1..n}{mi * Jia} = 0
Vector mJ = new double[3];
//for(int i=0; i<n; i++)
foreach (Atom iaa in mole.atoms)
{
int i = iaa.ID;
double mi = univ.atoms[i].Mass;
//Vector Jia = J[i, a].ToVector();
Vector Jia = new double[3] {
J[i * 3 + 0, a], J[i * 3 + 1, a], J[i * 3 + 2, a]
};
mJ += mi * Jia;
}
HDebug.AssertTolerance(0.00000001, mJ);
//////////////////////////////////////////////////////////////////////
// 1. rotational Eckart condition
// sum{i=1..n}{mi * r0i x Jia} = 0,
// where 'x' is the cross product
Vector mrJ = new double[3];
//for(int i=0; i<n; i++)
foreach (Atom iaa in mole.atoms)
{
int i = iaa.ID;
double mi = univ.atoms[i].Mass;
Vector ri = coords[univ.atoms[i].ID];
//Vector Jia = J[i, a].ToVector();
Vector Jia = new double[3] {
J[i * 3 + 0, a], J[i * 3 + 1, a], J[i * 3 + 2, a]
};
mrJ += mi * LinAlg.CrossProd3(ri, Jia);
}
HDebug.AssertTolerance(0.0000001, mrJ);
}
}
return(J);
}
public MinimizeTNMImpl(Universe univ)
{
this.univ = univ;
}
public void logTrajectory(Universe univ, long iter, Vectors coords)
{
}
public void Isolate(Universe univ)
{
foreach (Bond bond in new List <Bond>(Bonds))
{
foreach (Atom atom in bond.atoms)
{
if (atom != this)
{
HDebug.Verify(atom.Bonds.Remove(bond));
}
}
HDebug.Verify(Bonds.Remove(bond)); HDebug.Verify(univ.bonds.Remove(bond));
}
foreach (Angle angle in new List <Angle>(Angles))
{
foreach (Atom atom in angle.atoms)
{
if (atom != this)
{
HDebug.Verify(atom.Angles.Remove(angle));
}
}
HDebug.Verify(Angles.Remove(angle)); HDebug.Verify(univ.angles.Remove(angle));
}
foreach (Dihedral dihedral in new List <Dihedral>(Dihedrals))
{
foreach (Atom atom in dihedral.atoms)
{
if (atom != this)
{
HDebug.Verify(atom.Dihedrals.Remove(dihedral));
}
}
HDebug.Verify(Dihedrals.Remove(dihedral)); HDebug.Verify(univ.dihedrals.Remove(dihedral));
}
foreach (Improper improper in new List <Improper>(Impropers))
{
foreach (Atom atom in improper.atoms)
{
if (atom != this)
{
HDebug.Verify(atom.Impropers.Remove(improper));
}
}
HDebug.Verify(Impropers.Remove(improper)); HDebug.Verify(univ.impropers.Remove(improper));
}
foreach (Nonbonded14 nonbonded14 in new List <Nonbonded14>(Nonbonded14s))
{
foreach (Atom atom in nonbonded14.atoms)
{
if (atom != this)
{
HDebug.Verify(atom.Nonbonded14s.Remove(nonbonded14));
}
}
HDebug.Verify(Nonbonded14s.Remove(nonbonded14)); HDebug.Verify(univ.nonbonded14s.Remove(nonbonded14));
}
//public List<Nonbonded> Nonbondeds = new List<Nonbonded>();
foreach (Atom atom in new List <Atom>(Inter12))
{
HDebug.Assert(atom != this); HDebug.Verify(atom.Inter12.Remove(this)); HDebug.Verify(Inter12.Remove(atom));
}
foreach (Atom atom in new List <Atom>(Inter123))
{
HDebug.Assert(atom != this); HDebug.Verify(atom.Inter123.Remove(this)); HDebug.Verify(Inter123.Remove(atom));
}
foreach (Atom atom in new List <Atom>(Inter14))
{
HDebug.Assert(atom != this); HDebug.Verify(atom.Inter14.Remove(this)); HDebug.Verify(Inter14.Remove(atom));
}
}
public static MixHessInfo GetHessMixEAnm(Universe univ, IList <Vector> coords, ILinAlg la, IList <ResInfo> lstResAllAtom
, bool bAllowAllToCoarse, bool bOnlyCoarseConnBackbone
, Tuple <double, double> anmSprcstCutoffAll // all-all
, Tuple <double, double> anmSprcstCutoffMix // all/buffer-coarse
, Tuple <double, double> anmSprcstCutoffCoarse // coarse-coarse
, out string errmsg
, bool bGetIntmInfo, string strBkbnReso
)
{
double anmSprcstAll = anmSprcstCutoffAll.Item1;
double anmSprcstMix = anmSprcstCutoffMix.Item1;
double anmSprcstCoarse = anmSprcstCutoffCoarse.Item1;
double anmCutoffAll = anmSprcstCutoffAll.Item2;
double anmCutoffMix = anmSprcstCutoffMix.Item2;
double anmCutoffCoarse = anmSprcstCutoffCoarse.Item2;
HDebug.Assert(anmCutoffAll >= 0);
HDebug.Assert(anmCutoffCoarse >= 0);
MixModel.FnGetHess GetHess = delegate(Universe luniv, IList <Vector> lcoords, int[] idxAll, int[] idxBuffer, int[] idxCoarse, int[] idxBackbone)
{
int size = coords.Count;
HashSet <int> setIdxAll = idxAll.HToHashSet();
HashSet <int> setIdxBuffer = idxBuffer.HToHashSet();
HashSet <int> setIdxCoarse = idxCoarse.HToHashSet();
HashSet <int> setIdxBackbone = idxBackbone.HToHashSet();
Matrix anmKij = Matrix.Zeros(size, size);
for (int c = 0; c < size; c++)
{
if (lcoords[c] == null)
{
continue;
}
int typec = 0;
if (setIdxAll.Contains(c))
{
HDebug.Assert(typec == 0); typec = 1;
}
if (setIdxBuffer.Contains(c))
{
HDebug.Assert(typec == 0); typec = 2;
}
if (setIdxCoarse.Contains(c))
{
HDebug.Assert(typec == 0); typec = 3;
}
HDebug.Assert(typec != 0);
for (int r = c + 1; r < size; r++)
{
if (lcoords[r] == null)
{
continue;
}
int typer = 0;
if (setIdxAll.Contains(r))
{
HDebug.Assert(typer == 0); typer = 1;
}
if (setIdxBuffer.Contains(r))
{
HDebug.Assert(typer == 0); typer = 2;
}
if (setIdxCoarse.Contains(r))
{
HDebug.Assert(typer == 0); typer = 3;
}
HDebug.Assert(typer != 0);
double sprcst;
double cutoff;
int type0 = Math.Min(typec, typer);
int type1 = Math.Max(typec, typer);
int type01 = type0 * 10 + type1;
switch (type01)
{
case 11: sprcst = anmSprcstAll; cutoff = anmCutoffAll; break; // All - All
case 12: sprcst = anmSprcstAll; cutoff = anmCutoffAll; break; // All - Buffer
case 22: sprcst = anmSprcstAll; cutoff = anmCutoffAll; break; // Buffer - Buffer
case 33: sprcst = anmSprcstCoarse; cutoff = anmCutoffCoarse; break; // Coarse - Coarse
case 23: sprcst = anmSprcstMix; cutoff = anmCutoffMix; break; // Buffer - Coarse
case 13: // All - Buffer
if (bAllowAllToCoarse == false)
{
continue;
}
sprcst = anmSprcstMix;
cutoff = anmCutoffMix;
break;
default: throw new Exception();
}
HDebug.Assert(bOnlyCoarseConnBackbone == false); // "true" makes the result bad
if (bOnlyCoarseConnBackbone)
{
bool c_bkbn = setIdxBackbone.Contains(c);
bool r_bkbn = setIdxBackbone.Contains(r);
if (c_bkbn && r_bkbn)
{
// special treatment that in-between backbones use only coarse grained onnections.
sprcst = anmSprcstCoarse;
cutoff = anmCutoffCoarse;
}
else if ((type01 == 11) || (type01 == 12) || (type01 == 22))
{
// do nothing. use the above setting.
}
else
{
// all-to-coarse
HDebug.AssertOr(type01 == 13, type01 == 23);
if (type01 == 33)
{
HDebug.Assert(type01 != 33); // should be treated by (c_bkbn && r_bkbn)
throw new Exception("HDebug.Assert(type01 != 33)");
}
continue;
}
}
double cutoff2 = cutoff * cutoff;
double dist2 = (coords[c] - coords[r]).Dist2;
if (dist2 <= cutoff2)
{
anmKij[c, r] = sprcst;
anmKij[r, c] = sprcst;
}
}
}
var hessinfo = Hess.GetHessEAnm(luniv, lcoords, anmKij);
return(hessinfo);
};
return(MixModel.GetHessMixModel(univ, coords, la, lstResAllAtom, GetHess, out errmsg, bGetIntmInfo, strBkbnReso));
}
public static MixHessInfo GetHessMixModel(Universe univ, IList <Vector> coords, ILinAlg la
, IList <ResInfo> lstResAllAtom, FnGetHess GetHess, out string errmsg
, bool bGetIntmInfo, string strBkbnReso
)
{
FnGetHess lGetHess = delegate(Universe luniv, IList <Vector> lcoords, int[] lidxAll, int[] lidxBuffer, int[] lidxCoarse, int[] idxBackbone)
{
// double check if all three indices are disjoint
HDebug.Assert(lidxAll.HUnion().Length == lidxAll.Length);
HDebug.Assert(lidxBuffer.HUnion().Length == lidxBuffer.Length);
HDebug.Assert(lidxCoarse.HUnion().Length == lidxCoarse.Length);
HDebug.Assert(lidxAll.HListCommonT(lidxBuffer).Count == 0);
HDebug.Assert(lidxBuffer.HListCommonT(lidxCoarse).Count == 0);
HDebug.Assert(lidxCoarse.HListCommonT(lidxAll).Count == 0);
if (HDebug.IsDebuggerAttached)
{
foreach (int idx in lidxAll)
{
HDebug.Assert(lcoords[idx] != null);
}
foreach (int idx in lidxBuffer)
{
HDebug.Assert(lcoords[idx] != null);
}
foreach (int idx in lidxCoarse)
{
HDebug.Assert(lcoords[idx] != null);
}
}
var hessinfo = GetHess(luniv, lcoords, lidxAll, lidxBuffer, lidxCoarse, idxBackbone);
return(hessinfo);
};
bool bVerifySteps = false; // HDebug.IsDebuggerAttached;
Vector bfactorFull = null;
if (bVerifySteps && HDebug.IsDebuggerAttached)
{
int[] idxAll = HEnum.HEnumCount(coords.Count).ToArray();
var hessinfo = lGetHess(univ, coords, idxAll, new int[0], new int[0], new int[0]);
var modes = hessinfo.GetModesMassReduced();
var modesPosZero = modes.SeparateTolerants();
HDebug.Assert(modesPosZero.Item2.Length == 6);
bfactorFull = modesPosZero.Item1.GetBFactor().ToArray();
}
IList <Pdb.Atom> pdbatoms = univ.atoms.ListPdbAtoms();
ResInfo[] resinfos = pdbatoms.ListResInfo(true);
int[] idxCa; // idxs of Ca atoms
int[] idxBkbn; // idxs of backbone atoms
int[] idxSele; // idxs of all atoms of lstResAllAtom (selected)
int[] idxCntk; // idxs of all atoms contacting idxSele
{
string[] nameBkbn;
switch (strBkbnReso)
{
case "NCaC": nameBkbn = new string[] { "N", "CA", "C" }; break;
case "NCaC-O": nameBkbn = new string[] { "N", "CA", "C", "O" }; break;
case "NCaC-OHn": nameBkbn = new string[] { "N", "CA", "C", "O", "HN" }; break;
case "NCaC-O-Ha": nameBkbn = new string[] { "N", "CA", "C", "O", "HA" }; break;
case "NCaC-OHn-HaCb": nameBkbn = new string[] { "N", "CA", "C", "O", "HN", "HA", "CB" }; break;
default: throw new NotImplementedException();
}
idxCa = univ.atoms.ListPdbAtoms().IdxByName(true, "CA");
//idxBkbn = univ.atoms.ListPdbAtoms().IdxByName(true, "N", "CA", "C", "O", "HA");
idxBkbn = univ.atoms.ListPdbAtoms().IdxByName(true, nameBkbn);
idxSele = resinfos.HIdxEqual(ResInfo.Equals, lstResAllAtom.ToArray());
Vector[] coordSele = coords.HSelectByIndex(idxSele);
int[] idxCtof = coords.HIdxWithinCutoff(4.5, coordSele);
ResInfo[] resCtof = resinfos.HSelectByIndex(idxCtof);
resCtof = resCtof.HUnion(); // remove redundant residues
resCtof = resCtof.HRemoveAll(lstResAllAtom.ToArray()).ToArray(); // remove active site residues
idxCntk = resinfos.HIdxEqual(ResInfo.Equals, resCtof);
bool plot = false;
if (plot)
#region verify by plotting
{
Pdb.ToFile(@"C:\temp\mix.pdb", pdbatoms, coords);
Pymol.Py.CgoOld.WriteBlank(@"C:\temp\mix.py", false);
Pymol.Py.CgoOld.WriteSphere(@"C:\temp\mix.py", "Ca", coords.HSelectByIndex(idxCa).HRemoveAllNull(), 0.3);
Pymol.Py.CgoOld.WriteSphere(@"C:\temp\mix.py", "backbone", coords.HSelectByIndex(idxBkbn).HRemoveAllNull(), 0.3);
Pymol.Py.CgoOld.WriteSphere(@"C:\temp\mix.py", "active", coordSele.HRemoveAllNull()
, 0.3
, red: 1, green: 0, blue: 0);
Pymol.Py.CgoOld.WriteSphere(@"C:\temp\mix.py", "connect", coords.HSelectByIndex(idxCntk).HRemoveAllNull()
, 0.3
, red: 0, green: 0, blue: 1);
HFile.WriteAllLines(@"C:\temp\mix.pml", new string[]
{
"load mix.pdb",
"run mix.py",
"reset",
});
}
#endregion
}
//idxBkbn = HEnum.HSequence(coords.Count).ToArray();
int[] idxFull = idxSele.HUnionWith(idxCntk).HUnionWith(idxBkbn);
Vector[] coordsFull = coords.HCopyIdx(idxFull, null);
var hessinfoFull = lGetHess(univ, coordsFull
, idxAll: idxSele
, idxBuffer: idxCntk.HRemoveAll(idxSele)
, idxCoarse: idxBkbn.HRemoveAll(idxSele).HRemoveAll(idxCntk)
, idxBackbone: idxBkbn
);
HDebug.Assert(hessinfoFull.hess.IsComputable() == false);
//{
// var modes = hessinfoFull.GetModesMassReduced(false, la);
// var modesPosZero = modes.SeparateTolerants();
// Vector bf = modesPosZero.Item1.GetBFactor().ToArray();
// Vector nma = ext as Vector;
// double corr = BFactor.Corr(bf, nma);
//}
var hessinfoSub = hessinfoFull.GetSubHessInfo(idxFull);
HDebug.Assert(hessinfoSub.hess.IsComputable() == true);
if (HDebug.IsDebuggerAttached)
{
Mode[] lmodes = hessinfoSub.GetModesMassReduced();
if (lmodes.SeparateTolerants().Item2.Length != 6)
{
HDebug.Assert(false);
//throw new Exception();
}
}
if (bVerifySteps && HDebug.IsDebuggerAttached)
{
var modes = hessinfoSub.GetModesMassReduced();
var modesPosZero = modes.SeparateTolerants();
Vector bf0 = modesPosZero.Item1.GetBFactor().ToArray();
Vector bf = new double[coords.Count]; bf.SetValue(double.NaN);
for (int i = 0; i < idxFull.Length; i++)
{
bf[idxFull[i]] = bf0[i];
}
int[] idxCax = idxCa.HRemoveAll(idxSele).HRemoveAll(idxCntk);
double corr = HBioinfo.BFactor.Corr(bf, bfactorFull, idxFull);
double corrCa = HBioinfo.BFactor.Corr(bf, bfactorFull, idxCa);
double corrCax = HBioinfo.BFactor.Corr(bf, bfactorFull, idxCax);
double corrBkbn = HBioinfo.BFactor.Corr(bf, bfactorFull, idxBkbn);
double corrSele = HBioinfo.BFactor.Corr(bf, bfactorFull, idxSele);
double corrCntk = HBioinfo.BFactor.Corr(bf, bfactorFull, idxCntk);
}
int[] idxMix;
{
Universe.Atom[] mixAtoms = hessinfoSub.atoms.HToType <object, Universe.Atom>();
Pdb.Atom[] mixPdbAtoms = mixAtoms.ListPdbAtoms();
ResInfo[] mixResinfos = mixPdbAtoms.ListResInfo(true);
int[] mixIdxCa = mixPdbAtoms.IdxByName(true, "CA");
int[] mixIdxSele = mixResinfos.HIdxEqual(ResInfo.Equals, lstResAllAtom.ToArray());
idxMix = mixIdxCa.HUnionWith(mixIdxSele).HSort();
}
HessMatrix hessMix = Hess.GetHessCoarseBlkmat(hessinfoSub.hess, idxMix, la);
if (hessMix.IsComputable() == false)
{
// hessSub (=hessinfoSub.hess) is computable, but hessMix become in-computable.
// This happens when 1. hessSub=[A,B;C,D] has more then 6 zero eigenvalues,
// 2. the D matrix become singular,
// 3. inv(D) is incomputable
// 4. "A - B inv(D) C" becomes incomputable.
errmsg = "hess(Sele,Cntk,Bkbn)->hess(Sele,Ca) becomes incomputable";
return(null);
}
MixHessInfo hessinfoMix = new MixHessInfo
{
hess = hessMix,
mass = hessinfoSub.mass.ToArray().HSelectByIndex(idxMix),
atoms = hessinfoSub.atoms.ToArray().HSelectByIndex(idxMix),
coords = hessinfoSub.coords.ToArray().HSelectByIndex(idxMix),
numZeroEigval = 6,
};
if (bGetIntmInfo)
{
hessinfoMix.intmHessinfoAllMidBkbn = hessinfoSub;
hessinfoMix.intmAtomCa = univ.atoms.ToArray().HSelectByIndex(idxCa);
hessinfoMix.intmAtomAll = univ.atoms.ToArray().HSelectByIndex(idxSele);
hessinfoMix.intmAtomMid = univ.atoms.ToArray().HSelectByIndex(idxCntk);
hessinfoMix.intmAtomBkbn = univ.atoms.ToArray().HSelectByIndex(idxBkbn);
}
if (HDebug.IsDebuggerAttached)
{
Mode[] lmodes = hessinfoMix.GetModesMassReduced();
if (lmodes.SeparateTolerants().Item2.Length != 6)
{
throw new Exception();
}
}
if (bVerifySteps && HDebug.IsDebuggerAttached)
{
var modes = hessinfoMix.GetModesMassReduced();
var modesPosZero = modes.SeparateTolerants();
Vector bf0 = modesPosZero.Item1.GetBFactor().ToArray();
Vector bf = new double[coords.Count]; bf.SetValue(double.NaN);
for (int i = 0; i < idxMix.Length; i++)
{
bf[idxFull[idxMix[i]]] = bf0[i];
}
int[] idxCax = idxCa.HRemoveAll(idxSele).HRemoveAll(idxCntk);
double corr = HBioinfo.BFactor.Corr(bf, bfactorFull, true);
double corrCa = HBioinfo.BFactor.Corr(bf, bfactorFull, idxCa);
double corrCax = HBioinfo.BFactor.Corr(bf, bfactorFull, idxCax);
double corrBkbn = HBioinfo.BFactor.Corr(bf, bfactorFull, idxBkbn);
double corrSele = HBioinfo.BFactor.Corr(bf, bfactorFull, idxSele);
double corrCntk = HBioinfo.BFactor.Corr(bf, bfactorFull, idxCntk);
}
errmsg = null;
return(hessinfoMix);
}
public static Universe Build(Namd.Psf psf, Namd.Prm prm, Pdb pdb, bool?ignore_neg_occupancy, ITextLogger logger)
{
Universe univ = new Universe();
// atoms
Atoms atoms = new Atoms(univ);
Dictionary <int, Atom> id_atom = new Dictionary <int, Atom>();
Pdb.Atom[] pdb_atoms = pdb.atoms;
HDebug.Assert(psf.atoms.Length == pdb_atoms.Length);
for (int i = 0; i < psf.atoms.Length; i++)
{
HDebug.Assert(pdb_atoms[i].try_serial == null || psf.atoms[i].AtomId == pdb_atoms[i].serial); // when num atoms in pdb is too large (>99999), it is marked as *****
string type0 = psf.atoms[i].AtomType;
Atom atom = new Atom(psf.atoms[i], prm.FindNonbonded(type0, logger), pdb_atoms[i]);
atom.Coord = pdb_atoms[i].coord;
{
if (ignore_neg_occupancy == null)
{
if (pdb_atoms[i].occupancy < 0)
{
throw new HException("unhandled negative occupancy during building universe");
}
}
else
{
if (ignore_neg_occupancy.Value && pdb_atoms[i].occupancy < 0)
{
continue;
}
}
}
atoms.Add(atom);
id_atom.Add(psf.atoms[i].AtomId, atom);
}
// bonds
Bonds bonds = new Bonds();
for (int i = 0; i < psf.bonds.GetLength(0); i++)
{
int id0 = psf.bonds[i, 0]; if (id_atom.ContainsKey(id0) == false)
{
continue;
}
Atom atom0 = id_atom[id0]; string type0 = atom0.AtomType;
int id1 = psf.bonds[i, 1]; if (id_atom.ContainsKey(id1) == false)
{
continue;
}
Atom atom1 = id_atom[id1]; string type1 = atom1.AtomType;
Bond bond = new Bond(atom0, atom1, prm.FindBond(type0, type1, logger));
bonds.Add(bond);
atom0.Bonds.Add(bond); atom0.Inter123.Add(atom1); atom0.Inter12.Add(atom1);
atom1.Bonds.Add(bond); atom1.Inter123.Add(atom0); atom1.Inter12.Add(atom0);
}
// angles
Angles angles = new Angles();
for (int i = 0; i < psf.angles.GetLength(0); i++)
{
int id0 = psf.angles[i, 0]; if (id_atom.ContainsKey(id0) == false)
{
continue;
}
Atom atom0 = id_atom[id0]; string type0 = atom0.AtomType;
int id1 = psf.angles[i, 1]; if (id_atom.ContainsKey(id1) == false)
{
continue;
}
Atom atom1 = id_atom[id1]; string type1 = atom1.AtomType;
int id2 = psf.angles[i, 2]; if (id_atom.ContainsKey(id2) == false)
{
continue;
}
Atom atom2 = id_atom[id2]; string type2 = atom2.AtomType;
var prm_angle = prm.FindAngle(type0, type1, type2, logger);
if (prm_angle == null)
{
HDebug.Assert(false);
logger.Log(string.Format
("try to add non-existing angle (({0}, prm {1})-({2}, prm {3})-({4}, prm {5})) in prm"
, atom0, type0, atom1, type1, atom2, type2
));
continue;
}
Angle angle = new Angle(atom0, atom1, atom2, prm_angle);
angles.Add(angle);
atom0.Angles.Add(angle); atom0.Inter123.Add(atom1); atom0.Inter123.Add(atom2);
atom1.Angles.Add(angle); atom1.Inter123.Add(atom2); atom1.Inter123.Add(atom0);
atom2.Angles.Add(angle); atom2.Inter123.Add(atom0); atom2.Inter123.Add(atom1);
}
// dihedrals
Dihedrals dihedrals = new Dihedrals();
for (int i = 0; i < psf.dihedrals.GetLength(0); i++)
{
int id0 = psf.dihedrals[i, 0]; if (id_atom.ContainsKey(id0) == false)
{
continue;
}
Atom atom0 = id_atom[id0]; string type0 = atom0.AtomType;
int id1 = psf.dihedrals[i, 1]; if (id_atom.ContainsKey(id1) == false)
{
continue;
}
Atom atom1 = id_atom[id1]; string type1 = atom1.AtomType;
int id2 = psf.dihedrals[i, 2]; if (id_atom.ContainsKey(id2) == false)
{
continue;
}
Atom atom2 = id_atom[id2]; string type2 = atom2.AtomType;
int id3 = psf.dihedrals[i, 3]; if (id_atom.ContainsKey(id3) == false)
{
continue;
}
Atom atom3 = id_atom[id3]; string type3 = atom3.AtomType;
var prm_dihedrals = prm.FindDihedral(type0, type1, type2, type3, logger);
if (prm_dihedrals.Length == 0)
{
HDebug.Assert(false);
logger.Log(string.Format
("try to add non-existing dihedral (({0}, prm {1})-({2}, prm {3})-({4}, prm {5})-({6}, prm {7})) in prm"
, atom0, type0, atom1, type1, atom2, type2, atom3, type3
));
continue;
}
foreach (var prm_dihedral in prm_dihedrals)
{
Dihedral dihedral;
if (atom0.ID < atom3.ID)
{
dihedral = new Dihedral(atom0, atom1, atom2, atom3, prm_dihedral);
}
else
{
dihedral = new Dihedral(atom3, atom2, atom1, atom0, prm_dihedral);
}
dihedrals.Add(dihedral);
atom0.Dihedrals.Add(dihedral); //atom0.Inter123.Add(atom1); atom0.Inter123.Add(atom2); atom0.Inter123.Add(atom3);
atom1.Dihedrals.Add(dihedral); //atom1.Inter123.Add(atom2); atom1.Inter123.Add(atom3); atom1.Inter123.Add(atom0);
atom2.Dihedrals.Add(dihedral); //atom2.Inter123.Add(atom3); atom2.Inter123.Add(atom0); atom2.Inter123.Add(atom1);
atom3.Dihedrals.Add(dihedral); //atom3.Inter123.Add(atom0); atom3.Inter123.Add(atom1); atom3.Inter123.Add(atom2);
}
}
// impropers
Impropers impropers = new Impropers();
for (int i = 0; i < psf.impropers.GetLength(0); i++)
{
int id0 = psf.impropers[i, 0]; if (id_atom.ContainsKey(id0) == false)
{
continue;
}
Atom atom0 = id_atom[id0]; string type0 = atom0.AtomType;
int id1 = psf.impropers[i, 1]; if (id_atom.ContainsKey(id1) == false)
{
continue;
}
Atom atom1 = id_atom[id1]; string type1 = atom1.AtomType;
int id2 = psf.impropers[i, 2]; if (id_atom.ContainsKey(id2) == false)
{
continue;
}
Atom atom2 = id_atom[id2]; string type2 = atom2.AtomType;
int id3 = psf.impropers[i, 3]; if (id_atom.ContainsKey(id3) == false)
{
continue;
}
Atom atom3 = id_atom[id3]; string type3 = atom3.AtomType;
Improper improper = new Improper(atom0, atom1, atom2, atom3, prm.FindImproper(type0, type1, type2, type3, logger));
impropers.Add(improper);
atom0.Impropers.Add(improper); //atom0.Inter123.Add(atom1); atom0.Inter123.Add(atom2); atom0.Inter123.Add(atom3);
atom1.Impropers.Add(improper); //atom1.Inter123.Add(atom2); atom1.Inter123.Add(atom3); atom1.Inter123.Add(atom0);
atom2.Impropers.Add(improper); //atom2.Inter123.Add(atom3); atom2.Inter123.Add(atom0); atom2.Inter123.Add(atom1);
atom3.Impropers.Add(improper); //atom3.Inter123.Add(atom0); atom3.Inter123.Add(atom1); atom3.Inter123.Add(atom2);
}
// 1-4 interactions
for (int i = 0; i < atoms.Count; i++)
{
HashSet <Atom> Inter14 = new HashSet <Atom>();
BuildInter1toN(atoms[i], 4, Inter14); // find all atoms for 1-4 interaction
Inter14.Remove(atoms[i]); // remove self
foreach (Atom atom in atoms[i].Inter123)
{
Inter14.Remove(atom); // remove all 1-2, 1-3 interactions
}
atoms[i].Inter14 = Inter14;
}
Nonbonded14s nonbonded14s = new Nonbonded14s();
nonbonded14s.Build(atoms);
//// nonbondeds
//// do not make this list in advance, because it depends on the atom positions
//Nonbondeds nonbondeds = new Nonbondeds();
//nonbondeds.Build(atoms);
//Universe univ = new Universe();
univ.pdb = pdb;
univ.refs.Add("psf", psf);
univ.refs.Add("prm", prm);
univ.atoms = atoms;
univ.bonds = bonds;
univ.angles = angles;
univ.dihedrals = dihedrals;
univ.impropers = impropers;
//univ.nonbondeds = nonbondeds ; // do not make this list in advance, because it depends on the atom positions
univ.nonbonded14s = nonbonded14s;
HDebug.Assert(univ.Verify());
return(univ);
}
