public static void removeAtomAndConnectedElectronContainers(IChemModel chemModel, IAtom atom)
{
ICrystal crystal = chemModel.Crystal;
if (crystal != null)
{
if (crystal.contains(atom))
{
crystal.removeAtomAndConnectedElectronContainers(atom);
}
return;
}
ISetOfMolecules moleculeSet = chemModel.SetOfMolecules;
if (moleculeSet != null)
{
SetOfMoleculesManipulator.removeAtomAndConnectedElectronContainers(moleculeSet, atom);
}
ISetOfReactions reactionSet = chemModel.SetOfReactions;
if (reactionSet != null)
{
SetOfReactionsManipulator.removeAtomAndConnectedElectronContainers(reactionSet, atom);
}
}
public override void TestClone()
{
ICrystal crystal = (ICrystal)NewChemObject();
object clone = crystal.Clone();
Assert.IsTrue(clone is ICrystal);
}
public override void TestAdd_IAtomContainer()
{
ICrystal crystal = (ICrystal)NewChemObject();
IAtomContainer acetone = crystal.Builder.NewAtomContainer();
IAtom c1 = crystal.Builder.NewAtom("C");
IAtom c2 = crystal.Builder.NewAtom("C");
IAtom o = crystal.Builder.NewAtom("O");
IAtom c3 = crystal.Builder.NewAtom("C");
acetone.Atoms.Add(c1);
acetone.Atoms.Add(c2);
acetone.Atoms.Add(c3);
acetone.Atoms.Add(o);
IBond b1 = crystal.Builder.NewBond(c1, c2, BondOrder.Single);
IBond b2 = crystal.Builder.NewBond(c1, o, BondOrder.Double);
IBond b3 = crystal.Builder.NewBond(c1, c3, BondOrder.Single);
acetone.Bonds.Add(b1);
acetone.Bonds.Add(b2);
acetone.Bonds.Add(b3);
crystal.Add(acetone);
Assert.AreEqual(4, crystal.Atoms.Count);
Assert.AreEqual(3, crystal.Bonds.Count);
}
public static void removeElectronContainer(IChemModel chemModel, IElectronContainer electrons)
{
ICrystal crystal = chemModel.Crystal;
if (crystal != null)
{
if (crystal.contains(electrons))
{
crystal.removeElectronContainer(electrons);
}
return;
}
ISetOfMolecules moleculeSet = chemModel.SetOfMolecules;
if (moleculeSet != null)
{
SetOfMoleculesManipulator.removeElectronContainer(moleculeSet, electrons);
}
ISetOfReactions reactionSet = chemModel.SetOfReactions;
if (reactionSet != null)
{
SetOfReactionsManipulator.removeElectronContainer(reactionSet, electrons);
}
}
public void TestNewCrystal_IAtomContainer()
{
IChemObjectBuilder builder = RootObject.Builder;
ICrystal crystal = builder.NewCrystal(builder.NewAtomContainer());
Assert.IsNotNull(crystal);
}
private static string F_ANGLE_FORMAT(double angle) => angle.ToString("F3", NumberFormatInfo.InvariantInfo).PadLeft(7); //"%3.3f";
public void WriteCrystal(ICrystal crystal)
{
try
{
WriteHeader();
Vector3 a = crystal.A;
Vector3 b = crystal.B;
Vector3 c = crystal.C;
double[] ucParams = CrystalGeometryTools.CartesianToNotional(a, b, c);
writer.Write("CRYST1 " + F_LENGTH_FORMAT(ucParams[0]));
writer.Write(F_LENGTH_FORMAT(ucParams[1]));
writer.Write(F_LENGTH_FORMAT(ucParams[2]));
writer.Write(F_ANGLE_FORMAT(ucParams[3]));
writer.Write(F_ANGLE_FORMAT(ucParams[4]));
writer.Write('\n');
// before saving the atoms, we need to create cartesian coordinates
foreach (var atom in crystal.Atoms)
{
// Debug.WriteLine($"PDBWriter: atom -> {atom}");
// if it got 3D coordinates, use that. If not, try fractional coordinates
if (atom.Point3D == null && atom.FractionalPoint3D != null)
{
Vector3 frac = atom.FractionalPoint3D.Value;
Vector3 cart = CrystalGeometryTools.FractionalToCartesian(a, b, c, frac);
atom.Point3D = cart;
}
}
WriteMolecule(crystal.Builder.NewAtomContainer(crystal));
}
catch (IOException exception)
{
throw new CDKException("Error while writing file: " + exception.Message, exception);
}
}
public void TestNewCrystal()
{
IChemObjectBuilder builder = RootObject.Builder;
ICrystal crystal = builder.NewCrystal();
Assert.IsNotNull(crystal);
}
public void TestSetCrystal_ICrystal()
{
IChemModel chemModel = (IChemModel)NewChemObject();
ICrystal crystal = chemModel.Builder.NewCrystal();
chemModel.Crystal = crystal;
Assert.AreEqual(crystal, chemModel.Crystal);
}
public ValidationReport ValidateChemModel(IChemModel subject)
{
Trace.TraceInformation($"Validating {nameof(IChemModel)}");
var report = new ValidationReport();
// apply validators
foreach (var test in validators.Values)
{
report.Add(test.ValidateChemModel(subject));
}
// traverse into super class
report.Add(ValidateChemObject(subject));
// traverse into hierarchy
ICrystal crystal = subject.Crystal;
if (crystal != null)
{
report.Add(ValidateCrystal(crystal));
}
IReactionSet reactionSet = subject.ReactionSet;
if (reactionSet != null)
{
report.Add(ValidateReactionSet(reactionSet));
}
var moleculeSet = subject.MoleculeSet;
if (moleculeSet != null)
{
report.Add(ValidateMoleculeSet(moleculeSet));
}
return(report);
}
/// <summary>
/// Remove an ElectronContainer from all AtomContainers
/// inside an IChemModel.
/// </summary>
/// <param name="chemModel">The IChemModel object.</param>
/// <param name="electrons">The ElectronContainer to remove.</param>
public static void RemoveElectronContainer(IChemModel chemModel, IElectronContainer electrons)
{
ICrystal crystal = chemModel.Crystal;
if (crystal != null)
{
if (crystal.Contains(electrons))
{
crystal.Remove(electrons);
}
return;
}
IChemObjectSet <IAtomContainer> moleculeSet = chemModel.MoleculeSet;
if (moleculeSet != null)
{
MoleculeSetManipulator.RemoveElectronContainer(moleculeSet, electrons);
}
IReactionSet reactionSet = chemModel.ReactionSet;
if (reactionSet != null)
{
ReactionSetManipulator.RemoveElectronContainer(reactionSet, electrons);
}
}
/// <summary>
/// Remove an Atom and the connected ElectronContainers from all AtomContainers
/// inside an IChemModel.
/// </summary>
/// <param name="chemModel">The IChemModel object.</param>
/// <param name="atom">The Atom object to remove.</param>
public static void RemoveAtomAndConnectedElectronContainers(IChemModel chemModel, IAtom atom)
{
ICrystal crystal = chemModel.Crystal;
if (crystal != null)
{
if (crystal.Contains(atom))
{
crystal.RemoveAtom(atom);
}
return;
}
IChemObjectSet <IAtomContainer> moleculeSet = chemModel.MoleculeSet;
if (moleculeSet != null)
{
MoleculeSetManipulator.RemoveAtomAndConnectedElectronContainers(moleculeSet, atom);
}
IReactionSet reactionSet = chemModel.ReactionSet;
if (reactionSet != null)
{
ReactionSetManipulator.RemoveAtomAndConnectedElectronContainers(reactionSet, atom);
}
}
public override void TestAddAtom_IAtom()
{
ICrystal crystal = (ICrystal)NewChemObject();
IAtom c1 = crystal.Builder.NewAtom("C");
crystal.Atoms.Add(c1);
Assert.AreEqual(1, crystal.Atoms.Count);
}
public virtual void TestSetZ_Integer()
{
ICrystal crystal = (ICrystal)NewChemObject();
int z = 2;
crystal.Z = z;
Assert.AreEqual(z, crystal.Z.Value);
}
public virtual void TestSetSpaceGroup_String()
{
ICrystal crystal = (ICrystal)NewChemObject();
string spacegroup = "P 2_1 2_1 2_1";
crystal.SpaceGroup = spacegroup;
Assert.AreEqual(spacegroup, crystal.SpaceGroup);
}
public virtual void TestSetZeroAxes()
{
ICrystal crystal = (ICrystal)NewChemObject();
crystal.A = new Vector3(1, 2, 3);
Vector3 a = crystal.A;
Assert.IsNotNull(a);
}
public virtual void TestGetB()
{
ICrystal crystal = (ICrystal)NewChemObject();
crystal.B = new Vector3(1, 2, 3);
Vector3 a = crystal.B;
Assert.IsNotNull(a);
}
public void Cod1100784AtomCount()
{
var ins = ResourceLoader.GetAsStream(GetType(), "1100784.cif");
CIFReader cifReader = new CIFReader(ins);
var chemFile = cifReader.Read(new ChemFile());
ICrystal crystal = chemFile[0][0].Crystal;
Assert.AreEqual(72, crystal.Atoms.Count);
cifReader.Close();
}
public override void TestToString()
{
ICrystal crystal = (ICrystal)NewChemObject();
string description = crystal.ToString();
for (int i = 0; i < description.Length; i++)
{
Assert.IsTrue(description[i] != '\n');
Assert.IsTrue(description[i] != '\r');
}
}
public virtual void TestSetC_Vector3d()
{
ICrystal crystal = (ICrystal)NewChemObject();
crystal.C = new Vector3(1, 2, 3);
Vector3 c = crystal.C;
Assert.AreEqual(1.0, c.X, 0.001);
Assert.AreEqual(2.0, c.Y, 0.001);
Assert.AreEqual(3.0, c.Z, 0.001);
}
/// <summary>
/// Read the ShelX from input. Each ShelX document is expected to contain one crystal structure.
/// </summary>
/// <param name="file"></param>
/// <returns>a ChemFile with the coordinates, charges, vectors, etc.</returns>
private IChemFile ReadChemFile(IChemFile file)
{
IChemSequence seq = file.Builder.NewChemSequence();
IChemModel model = file.Builder.NewChemModel();
ICrystal crystal = ReadCrystal(file.Builder.NewCrystal());
model.Crystal = crystal;
seq.Add(model);
file.Add(seq);
return(file);
}
public virtual void TestSetA_Vector3d()
{
ICrystal crystal = (ICrystal)NewChemObject();
crystal.A = new Vector3(1, 2, 3);
Vector3 a = crystal.A;
Assert.AreEqual(1.0, a.X, 0.001);
Assert.AreEqual(2.0, a.Y, 0.001);
Assert.AreEqual(3.0, a.Z, 0.001);
}
public virtual void TestSetB_Vector3d()
{
ICrystal crystal = (ICrystal)NewChemObject();
crystal.B = new Vector3(1, 2, 3);
Vector3 b = crystal.B;
Assert.AreEqual(1.0, b.X, 0.001);
Assert.AreEqual(2.0, b.Y, 0.001);
Assert.AreEqual(3.0, b.Z, 0.001);
}
public void Cod1100784CellLengths()
{
var ins = ResourceLoader.GetAsStream(GetType(), "1100784.cif");
CIFReader cifReader = new CIFReader(ins);
var chemFile = cifReader.Read(new ChemFile());
ICrystal crystal = chemFile[0][0].Crystal;
Assert.IsTrue(Math.Abs(crystal.A.Length() - 10.9754) < 1E-5);
Assert.IsTrue(Math.Abs(crystal.B.Length() - 11.4045) < 1E-5);
Assert.IsTrue(Math.Abs(crystal.C.Length() - 12.9314) < 1E-5);
cifReader.Close();
}
public void TestIsEmpty_Crystal()
{
var model = (IChemModel)NewChemObject();
IChemObjectBuilder builder = model.Builder;
ICrystal crystal = builder.NewCrystal();
model.Crystal = crystal;
Assert.IsTrue(model.IsEmpty());
crystal.Atoms.Add(builder.NewAtom("C"));
Assert.IsFalse(model.IsEmpty());
model.Crystal = null;
Assert.IsTrue(model.IsEmpty());
}
public virtual void TestClone_Axes()
{
ICrystal crystal1 = (ICrystal)NewChemObject();
Vector3 axes = new Vector3(1, 2, 3);
crystal1.A = axes;
ICrystal crystal2 = (ICrystal)crystal1.Clone();
// test cloning of axes
var cpy = crystal1.A; cpy.X = 5; crystal1.A = cpy; // NCDK's Vector3 is value type.
Assert.AreEqual(1.0, crystal2.A.X, 0.001);
}
/// <summary>
/// Writes a single frame to the Writer.
/// </summary>
/// <remarks>
/// Format:
/// <list type="table">
/// <listheader>
/// <term>line</term>
/// <term>data</term>
/// </listheader>
/// <term><item>1</item><item>spacegroup</item></term>
/// <term><item>2,3,4</item><item>cell parameter: a</item></term>
/// <term><item>5,6,7</item><item>b</item></term>
/// <term><item>8,9,10</item><item>c</item></term>
/// <term><item>11</item><item>number of atoms</item></term>
/// <term><item>12</item><item>number of asym. units</item></term>
/// <term><item>13-16</item><item>atomtype: charge, atomcoord x, y, z</item></term>
/// <term><item>17-20</item><item>idem second atom</item></term>
/// <term><item>21-24</item><item>idem third atom etc</item></term>
/// </list>
/// </remarks>
/// <param name="crystal">the Crystal to serialize</param>
private void WriteCrystal(ICrystal crystal)
{
string sg = crystal.SpaceGroup;
if (string.Equals("P 2_1 2_1 2_1", sg, StringComparison.Ordinal))
{
Writeln("P 21 21 21 (1)");
}
else
{
Writeln("P 1 (1)");
}
// output unit cell axes
WriteVector3d(crystal.A);
WriteVector3d(crystal.B);
WriteVector3d(crystal.C);
// output number of atoms
int noatoms = crystal.Atoms.Count;
Write(noatoms.ToString(NumberFormatInfo.InvariantInfo));
Writeln("");
// output number of asym. units (Z)
if (string.Equals(sg, "P1", StringComparison.Ordinal))
{
Writeln("1");
}
else
{
// duno
Writeln("1");
}
// output atoms
for (int i = 0; i < noatoms; i++)
{
// output atom sumbol
var atom = crystal.Atoms[i];
Write(atom.Symbol);
Write(":");
// output atom charge
Writeln(atom.Charge.ToString());
// output coordinates
Writeln(atom.Point3D.Value.X.ToString(NumberFormatInfo.InvariantInfo));
Writeln(atom.Point3D.Value.Y.ToString(NumberFormatInfo.InvariantInfo));
Writeln(atom.Point3D.Value.Z.ToString(NumberFormatInfo.InvariantInfo));
}
}
/// <summary> Writes a single frame to the Writer.
///
/// <p>Format:
/// <pre>
/// line data
/// ------- --------------------------
/// 1 spacegroup
/// 2,3,4 cell parameter: a
/// 5,6,7 b
/// 8,9,10 c
/// 11 number of atoms
/// 12 number of asym. units
/// 13-16 atomtype: charge, atomcoord x, y, z
/// 17-20 idem second atom
/// 21-24 idem third atom etc
/// </pre>
///
/// </summary>
/// <param name="crystal">the Crystal to serialize
/// </param>
//UPGRADE_NOTE: Access modifiers of method 'write' were changed to 'public'. "ms-help://MS.VSCC.v80/dv_commoner/local/redirect.htm?index='!DefaultContextWindowIndex'&keyword='jlca1204'"
public void write(ICrystal crystal)
{
System.String sg = crystal.SpaceGroup;
if ("P 2_1 2_1 2_1".Equals(sg))
{
write("P 21 21 21 (1)\n");
}
else
{
write("P 1 (1)\n");
}
// output unit cell axes
writeVector3d(crystal.A);
writeVector3d(crystal.B);
writeVector3d(crystal.C);
// output number of atoms
int noatoms = crystal.AtomCount;
write(((System.Int32)noatoms).ToString());
write("\n");
// output number of asym. units (Z)
if (sg.Equals("P1"))
{
write("1\n");
}
else
{
// duno
write("1\n");
}
// output atoms
for (int i = 0; i < noatoms; i++)
{
// output atom sumbol
IAtom atom = crystal.getAtomAt(i);
write(atom.Symbol);
write(":");
// output atom charge
write(((double)atom.getCharge()).ToString() + "\n");
// output coordinates
write(((double)atom.X3d).ToString() + "\n");
write(((double)atom.Y3d).ToString() + "\n");
write(((double)atom.Z3d).ToString() + "\n");
}
}
public ValidationReport ValidateCrystal(ICrystal subject)
{
Trace.TraceInformation($"Validating {nameof(ICrystal)}");
var report = new ValidationReport();
// apply validators
foreach (var test in validators.Values)
{
report.Add(test.ValidateCrystal(subject));
}
// traverse into super class
report.Add(ValidateAtomContainer(subject));
// traverse into hierarchy
return(report);
}
/// <summary>
/// Creates Cartesian coordinates for all Atoms in the Crystal.
/// </summary>
public static void FractionalToCartesian(ICrystal crystal)
{
Vector3 aAxis = crystal.A;
Vector3 bAxis = crystal.B;
Vector3 cAxis = crystal.C;
foreach (var atom in crystal.Atoms)
{
Vector3?fracPoint = atom.FractionalPoint3D;
if (fracPoint != null)
{
atom.Point3D = FractionalToCartesian(aAxis, bAxis, cAxis, fracPoint.Value);
}
}
}
/// <summary> Creates cartesian coordinates for all Atoms in the Crystal.</summary>
public static void fractionalToCartesian(ICrystal crystal)
{
IAtom[] atoms = crystal.Atoms;
Vector3d aAxis = crystal.A;
Vector3d bAxis = crystal.B;
Vector3d cAxis = crystal.C;
for (int i = 0; i < atoms.Length; i++)
{
Point3d fracPoint = atoms[i].getFractionalPoint3d();
if (fracPoint != null)
{
atoms[i].setPoint3d(fractionalToCartesian(aAxis, bAxis, cAxis, fracPoint));
}
}
}
public virtual void createIDs(ICrystal crystal)
{
createIDs((IAtomContainer)crystal);
}
/// <summary> Creates cartesian coordinates for all Atoms in the Crystal.</summary>
public static void fractionalToCartesian(ICrystal crystal)
{
IAtom[] atoms = crystal.Atoms;
Vector3d aAxis = crystal.A;
Vector3d bAxis = crystal.B;
Vector3d cAxis = crystal.C;
for (int i = 0; i < atoms.Length; i++)
{
Point3d fracPoint = atoms[i].getFractionalPoint3d();
if (fracPoint != null)
{
atoms[i].setPoint3d(fractionalToCartesian(aAxis, bAxis, cAxis, fracPoint));
}
}
}
/// <summary> Read the ShelX from input. Each ShelX document is expected to contain
/// one crystal structure.
///
/// </summary>
/// <returns> a ChemFile with the coordinates, charges, vectors, etc.
/// </returns>
private IChemFile readChemFile(IChemFile file)
{
IChemSequence seq = file.Builder.newChemSequence();
IChemModel model = file.Builder.newChemModel();
crystal = file.Builder.newCrystal();
System.String line = input.ReadLine();
bool end_found = false;
while (input.Peek() != -1 && line != null && !end_found)
{
if (line.StartsWith("#"))
{
//logger.warn("Skipping comment: " + line);
// skip comment lines
}
else if (line.Length == 0)
{
//logger.debug("Skipping empty line");
// skip empty lines
}
else if (!(line.StartsWith("_") || line.StartsWith("loop_")))
{
//logger.warn("Skipping unrecognized line: " + line);
// skip line
}
else
{
/* determine CIF command */
System.String command = "";
int spaceIndex = line.IndexOf(" ");
if (spaceIndex != -1)
{
// everything upto space is command
try
{
command = new System.Text.StringBuilder(line.Substring(0, (spaceIndex) - (0))).ToString();
}
catch (System.ArgumentOutOfRangeException sioobe)
{
// disregard this line
break;
}
}
else
{
// complete line is command
command = line;
}
//logger.debug("command: " + command);
if (command.StartsWith("_cell"))
{
processCellParameter(command, line);
}
else if (command.Equals("loop_"))
{
processLoopBlock();
}
else if (command.Equals("_symmetry_space_group_name_H-M"))
{
System.String value_Renamed = line.Substring(29).Trim();
crystal.SpaceGroup = value_Renamed;
}
else
{
// skip command
//logger.warn("Skipping command: " + command);
line = input.ReadLine();
if (line.StartsWith(";"))
{
//logger.debug("Skipping block content");
line = input.ReadLine().Trim();
while (!line.Equals(";"))
{
line = input.ReadLine().Trim();
//logger.debug("Skipping block line: " + line);
}
line = input.ReadLine();
}
}
}
line = input.ReadLine();
}
//logger.info("Adding crystal to file with #atoms: " + crystal.AtomCount);
model.Crystal = crystal;
seq.addChemModel(model);
file.addChemSequence(seq);
return file;
}