Clazz.declarePackage ("JM"); Clazz.load (["JU.V3"], "JM.AtomCollection", ["java.lang.Float", "java.util.Arrays", "$.Hashtable", "JU.A4", "$.AU", "$.BS", "$.Lst", "$.M3", "$.Measure", "$.P3", "$.PT", "J.api.Interface", "$.JmolModulationSet", "J.atomdata.RadiusData", "J.c.PAL", "$.VDW", "JM.Group", "JS.T", "JU.BSUtil", "$.Elements", "$.Escape", "$.Logger", "$.Parser", "$.Vibration"], function () { c$ = Clazz.decorateAsClass (function () { this.vwr = null; this.g3d = null; this.bioModelset = null; this.at = null; this.ac = 0; this.trajectory = null; this.pointGroup = null; this.labeler = null; this.maxBondingRadius = 1.4E-45; this.maxVanderwaalsRadius = 1.4E-45; this.hasBfactorRange = false; this.bfactor100Lo = 0; this.bfactor100Hi = 0; this.haveBSVisible = false; this.haveBSClickable = false; this.bsSurface = null; this.nSurfaceAtoms = 0; this.surfaceDistanceMax = 0; this.averageAtomPoint = null; this.haveChirality = false; this.bspf = null; this.preserveState = true; this.canSkipLoad = true; this.haveStraightness = false; this.bsHidden = null; this.bsVisible = null; this.bsClickable = null; this.bsModulated = null; this.atomTensorList = null; this.atomTensors = null; this.surfaceDistance100s = null; this.tainted = null; this.atomNames = null; this.atomTypes = null; this.atomSerials = null; this.atomResnos = null; this.atomSeqIDs = null; this.dssrData = null; this.vibrations = null; this.occupancies = null; this.bfactor100s = null; this.partialCharges = null; this.bondingRadii = null; this.hydrophobicities = null; this.bsPartialCharges = null; this.aaRet = null; if (!Clazz.isClassDefined ("JM.AtomCollection.AtomSorter")) { JM.AtomCollection.$AtomCollection$AtomSorter$ (); } this.atomCapacity = 0; Clazz.instantialize (this, arguments); }, JM, "AtomCollection"); Clazz.defineMethod (c$, "setupAC", function () { this.bsHidden = new JU.BS (); this.bsVisible = new JU.BS (); this.bsClickable = new JU.BS (); if (JM.AtomCollection.userSettableValues == null) JM.AtomCollection.userSettableValues = ("atomName atomType coord element formalCharge hydrophobicity ionic occupancy partialCharge temperature valence vanderWaals vibrationVector atomNo seqID resNo chain").$plit (" "); }); Clazz.defineMethod (c$, "releaseModelSetAC", function () { this.at = null; this.vwr = null; this.g3d = null; this.bspf = null; this.surfaceDistance100s = null; this.bsSurface = null; this.tainted = null; this.atomNames = null; this.atomTypes = null; this.atomResnos = null; this.dssrData = null; this.atomSerials = null; this.atomSeqIDs = null; this.vibrations = null; this.occupancies = null; this.bfactor100s = null; this.resetPartialCharges (); this.bondingRadii = null; this.atomTensors = null; }); Clazz.defineMethod (c$, "mergeAtomArrays", function (mergeModelSet) { this.tainted = mergeModelSet.tainted; this.atomNames = mergeModelSet.atomNames; this.atomTypes = mergeModelSet.atomTypes; this.atomResnos = mergeModelSet.atomResnos; this.dssrData = mergeModelSet.dssrData; this.atomSerials = mergeModelSet.atomSerials; this.atomSeqIDs = mergeModelSet.atomSeqIDs; this.vibrations = mergeModelSet.vibrations; this.occupancies = mergeModelSet.occupancies; this.bfactor100s = mergeModelSet.bfactor100s; this.bondingRadii = mergeModelSet.bondingRadii; this.partialCharges = mergeModelSet.partialCharges; this.bsPartialCharges = mergeModelSet.bsPartialCharges; this.atomTensors = mergeModelSet.atomTensors; this.atomTensorList = mergeModelSet.atomTensorList; this.bsModulated = mergeModelSet.bsModulated; this.haveStraightness = false; this.surfaceDistance100s = null; }, "JM.AtomCollection"); Clazz.defineMethod (c$, "getAtomPointVector", function (bs) { var v = new JU.Lst (); var n = this.ac; if (bs != null) { for (var i = bs.nextSetBit (0); i >= 0 && i < n; i = bs.nextSetBit (i + 1)) { v.addLast (this.at[i]); } }return v; }, "JU.BS"); Clazz.defineMethod (c$, "modelSetHasVibrationVectors", function () { return (this.vibrations != null); }); Clazz.defineMethod (c$, "getAtomTypes", function () { return this.atomTypes; }); Clazz.defineMethod (c$, "getPartialCharges", function () { return this.partialCharges; }); Clazz.defineMethod (c$, "getBondingRadii", function () { return this.bondingRadii; }); Clazz.defineMethod (c$, "getBFactors", function () { return this.bfactor100s; }); Clazz.defineMethod (c$, "getHydrophobicity", function () { return this.hydrophobicities; }); Clazz.defineMethod (c$, "setBsHidden", function (bs) { this.bsHidden = bs; }, "JU.BS"); Clazz.defineMethod (c$, "isAtomHidden", function (iAtom) { return this.bsHidden.get (iAtom); }, "~N"); Clazz.defineMethod (c$, "getLabeler", function () { return (this.labeler == null ? this.labeler = J.api.Interface.getInterface ("JM.LabelToken", this.vwr, "ms") : this.labeler); }); Clazz.defineMethod (c$, "getAtomInfo", function (i, format, ptTemp) { return (format == null ? this.at[i].getInfo () : this.getLabeler ().formatLabel (this.vwr, this.at[i], format, ptTemp)); }, "~N,~S,JU.P3"); Clazz.defineMethod (c$, "getElementName", function (i) { return JU.Elements.elementNameFromNumber (this.at[i].getAtomicAndIsotopeNumber ()); }, "~N"); Clazz.defineMethod (c$, "getQuaternion", function (i, qtype) { return (i < 0 ? null : this.at[i].group.getQuaternion (qtype)); }, "~N,~S"); Clazz.defineMethod (c$, "getFirstAtomIndexFromAtomNumber", function (atomNumber, bsVisibleFrames) { for (var i = 0; i < this.ac; i++) { var atom = this.at[i]; if (atom.getAtomNumber () == atomNumber && bsVisibleFrames.get (atom.mi)) return i; } return -1; }, "~N,JU.BS"); Clazz.defineMethod (c$, "setFormalCharges", function (bs, formalCharge) { if (bs != null) { this.resetPartialCharges (); for (var i = bs.nextSetBit (0); i >= 0; i = bs.nextSetBit (i + 1)) { this.at[i].setFormalCharge (formalCharge); this.taintAtom (i, 4); } }}, "JU.BS,~N"); Clazz.defineMethod (c$, "getAtomicCharges", function () { var charges = Clazz.newFloatArray (this.ac, 0); for (var i = this.ac; --i >= 0; ) charges[i] = this.at[i].getElementNumber (); return charges; }); Clazz.defineMethod (c$, "getRadiusVdwJmol", function (atom) { return JU.Elements.getVanderwaalsMar (atom.getElementNumber (), J.c.VDW.JMOL) / 1000; }, "JM.Atom"); Clazz.defineMethod (c$, "getMaxVanderwaalsRadius", function () { if (this.maxVanderwaalsRadius == 1.4E-45) this.findMaxRadii (); return this.maxVanderwaalsRadius; }); Clazz.defineMethod (c$, "findMaxRadii", function () { var r; for (var i = this.ac; --i >= 0; ) { var atom = this.at[i]; if ((r = atom.getBondingRadius ()) > this.maxBondingRadius) this.maxBondingRadius = r; if ((r = atom.getVanderwaalsRadiusFloat (this.vwr, J.c.VDW.AUTO)) > this.maxVanderwaalsRadius) this.maxVanderwaalsRadius = r; } }); Clazz.defineMethod (c$, "clearBfactorRange", function () { this.hasBfactorRange = false; }); Clazz.defineMethod (c$, "calcBfactorRange", function (bs) { if (this.hasBfactorRange) return; this.bfactor100Lo = 2147483647; this.bfactor100Hi = -2147483648; if (bs == null) { for (var i = 0; i < this.ac; i++) this.setBf (i); } else { for (var i = bs.nextSetBit (0); i >= 0; i = bs.nextSetBit (i + 1)) this.setBf (i); }this.hasBfactorRange = true; }, "JU.BS"); Clazz.defineMethod (c$, "setBf", function (i) { var bf = this.at[i].getBfactor100 (); if (bf < this.bfactor100Lo) this.bfactor100Lo = bf; else if (bf > this.bfactor100Hi) this.bfactor100Hi = bf; }, "~N"); Clazz.defineMethod (c$, "getBfactor100Lo", function () { if (!this.hasBfactorRange) { if (this.vwr.g.rangeSelected) { this.calcBfactorRange (this.vwr.bsA ()); } else { this.calcBfactorRange (null); }}return this.bfactor100Lo; }); Clazz.defineMethod (c$, "getBfactor100Hi", function () { this.getBfactor100Lo (); return this.bfactor100Hi; }); Clazz.defineMethod (c$, "getSurfaceDistanceMax", function () { if (this.surfaceDistance100s == null) this.calcSurfaceDistances (); return this.surfaceDistanceMax; }); Clazz.defineMethod (c$, "calculateVolume", function (bs, vType) { var volume = 0; if (bs != null) for (var i = bs.nextSetBit (0); i >= 0; i = bs.nextSetBit (i + 1)) volume += this.at[i].getVolume (this.vwr, vType); return volume; }, "JU.BS,J.c.VDW"); Clazz.defineMethod (c$, "getSurfaceDistance100", function (atomIndex) { if (this.nSurfaceAtoms == 0) return -1; if (this.surfaceDistance100s == null) this.calcSurfaceDistances (); return this.surfaceDistance100s[atomIndex]; }, "~N"); Clazz.defineMethod (c$, "calcSurfaceDistances", function () { this.calculateSurface (null, -1); }); Clazz.defineMethod (c$, "calculateSurface", function (bsSelected, envelopeRadius) { if (envelopeRadius < 0) envelopeRadius = 3.0; var ec = (J.api.Interface.getOption ("geodesic.EnvelopeCalculation", this.vwr, "ms")).set (this.vwr, this.ac, null); ec.calculate ( new J.atomdata.RadiusData (null, envelopeRadius, J.atomdata.RadiusData.EnumType.ABSOLUTE, null), 3.4028235E38, bsSelected, JU.BSUtil.copyInvert (bsSelected, this.ac), false, false, false, true); var points = ec.getPoints (); this.surfaceDistanceMax = 0; this.bsSurface = ec.getBsSurfaceClone (); this.surfaceDistance100s = Clazz.newIntArray (this.ac, 0); this.nSurfaceAtoms = JU.BSUtil.cardinalityOf (this.bsSurface); if (this.nSurfaceAtoms == 0 || points == null || points.length == 0) return points; var radiusAdjust = (envelopeRadius == 3.4028235E38 ? 0 : envelopeRadius); for (var i = 0; i < this.ac; i++) { if (this.bsSurface.get (i)) { this.surfaceDistance100s[i] = 0; } else { var dMin = 3.4028235E38; var atom = this.at[i]; for (var j = points.length; --j >= 0; ) { var d = Math.abs (points[j].distance (atom) - radiusAdjust); if (d < 0 && JU.Logger.debugging) JU.Logger.debug ("draw d" + j + " " + JU.Escape.eP (points[j]) + " \"" + d + " ? " + atom.getInfo () + "\""); dMin = Math.min (d, dMin); } var d = this.surfaceDistance100s[i] = Clazz.doubleToInt (Math.floor (dMin * 100)); this.surfaceDistanceMax = Math.max (this.surfaceDistanceMax, d); }} return points; }, "JU.BS,~N"); Clazz.defineMethod (c$, "setAtomCoord2", function (bs, tokType, xyzValues) { var xyz = null; var values = null; var v = null; var type = 0; var nValues = 1; if (Clazz.instanceOf (xyzValues, JU.P3)) { xyz = xyzValues; } else if (Clazz.instanceOf (xyzValues, JU.Lst)) { v = xyzValues; if ((nValues = v.size ()) == 0) return; type = 1; } else if (JU.AU.isAP (xyzValues)) { values = xyzValues; if ((nValues = values.length) == 0) return; type = 2; } else { return; }var n = 0; if (bs != null) for (var i = bs.nextSetBit (0); i >= 0; i = bs.nextSetBit (i + 1)) { switch (type) { case 1: if (n >= nValues) return; xyz = v.get (n++); break; case 2: if (n >= nValues) return; xyz = values[n++]; break; } if (xyz != null) switch (tokType) { case 1145047050: this.setAtomCoord (i, xyz.x, xyz.y, xyz.z); break; case 1145047051: this.at[i].setFractionalCoordTo (xyz, true); this.taintAtom (i, 2); break; case 1145047053: this.at[i].setFractionalCoordTo (xyz, false); this.taintAtom (i, 2); break; case 1145047055: this.setAtomVibrationVector (i, xyz); break; } } }, "JU.BS,~N,~O"); Clazz.defineMethod (c$, "setAtomVibrationVector", function (atomIndex, vib) { this.setVibrationVector (atomIndex, vib); this.taintAtom (atomIndex, 12); }, "~N,JU.T3"); Clazz.defineMethod (c$, "setAtomCoord", function (atomIndex, x, y, z) { if (atomIndex < 0 || atomIndex >= this.ac) return; var a = this.at[atomIndex]; a.set (x, y, z); this.fixTrajectory (a); this.taintAtom (atomIndex, 2); }, "~N,~N,~N,~N"); Clazz.defineMethod (c$, "fixTrajectory", function (a) { if ((this).isTrajectory (a.mi)) this.trajectory.fixAtom (a); }, "JM.Atom"); Clazz.defineMethod (c$, "setAtomCoordRelative", function (atomIndex, x, y, z) { if (atomIndex < 0 || atomIndex >= this.ac) return; var a = this.at[atomIndex]; a.add3 (x, y, z); this.fixTrajectory (a); this.taintAtom (atomIndex, 2); }, "~N,~N,~N,~N"); Clazz.defineMethod (c$, "setAtomsCoordRelative", function (bs, x, y, z) { if (bs != null) for (var i = bs.nextSetBit (0); i >= 0; i = bs.nextSetBit (i + 1)) this.setAtomCoordRelative (i, x, y, z); }, "JU.BS,~N,~N,~N"); Clazz.defineMethod (c$, "setAPa", function (bs, tok, iValue, fValue, sValue, values, list) { var n = 0; if (values != null && values.length == 0 || bs == null) return; var isAll = (values != null && values.length == this.ac || list != null && list.length == this.ac); for (var i = bs.nextSetBit (0); i >= 0; i = bs.nextSetBit (i + 1)) { if (isAll) n = i; if (values != null) { if (n >= values.length) return; fValue = values[n++]; if (Float.isNaN (fValue)) continue; iValue = Clazz.floatToInt (fValue); } else if (list != null) { if (n >= list.length) return; sValue = list[n++]; }var atom = this.at[i]; switch (tok) { case 1086326786: this.setAtomName (i, sValue, true); break; case 1086326785: this.setAtomType (i, sValue); break; case 1086326788: this.setChainID (i, sValue); break; case 1094715393: this.setAtomNumber (i, iValue, true); break; case 1094713365: this.setAtomSeqID (i, iValue); break; case 1111492609: case 1111492629: this.setAtomCoord (i, fValue, atom.y, atom.z); break; case 1111492610: case 1111492630: this.setAtomCoord (i, atom.x, fValue, atom.z); break; case 1111492611: case 1111492631: this.setAtomCoord (i, atom.x, atom.y, fValue); break; case 1111492626: case 1111492627: case 1111492628: this.setVibrationVector2 (i, tok, fValue); break; case 1111492612: case 1111492613: case 1111492614: atom.setFractionalCoord (tok, fValue, true); this.taintAtom (i, 2); break; case 1111492615: case 1111492616: case 1111492617: atom.setFractionalCoord (tok, fValue, false); this.taintAtom (i, 2); break; case 1094715402: case 1086326789: this.setElement (atom, iValue, true); break; case 1631586315: this.resetPartialCharges (); atom.setFormalCharge (iValue); this.taintAtom (i, 4); break; case 1113589786: this.setHydrophobicity (i, fValue); break; case 1128269825: if (fValue < 2 && fValue > 0.01) fValue = 100 * fValue; this.setOccupancy (i, fValue, true); break; case 1111492619: this.setPartialCharge (i, fValue, true); break; case 1111492618: this.setBondingRadius (i, fValue); break; case 1111492620: this.setBFactor (i, fValue, true); break; case 1094715412: this.setAtomResno (i, iValue); break; case 1825200146: case 1287653388: this.vwr.shm.setAtomLabel (sValue, i); break; case 1665140738: case 1112152075: if (fValue < 0) fValue = 0; else if (fValue > 16) fValue = 16.1; atom.madAtom = (Clazz.floatToShort (fValue * 2000)); break; case 1113589787: this.vwr.slm.setSelectedAtom (atom.i, (fValue != 0)); break; case 1094715417: atom.setValence (iValue); this.taintAtom (i, 10); break; case 1648363544: if (atom.setRadius (fValue)) this.taintAtom (i, 11); else this.untaint (i, 11); break; default: JU.Logger.error ("unsettable atom property: " + JS.T.nameOf (tok)); return; } } switch (tok) { case 1113589787: this.vwr.slm.setSelectedAtom (-1, false); break; case 1665140738: case 1112152075: this.vwr.setShapeSize (0, 2147483647, bs); } }, "JU.BS,~N,~N,~N,~S,~A,~A"); Clazz.defineMethod (c$, "getVibCoord", function (atomIndex, c) { var ms = null; var v = null; switch (c) { case 'x': case 'y': case 'z': v = this.getVibration (atomIndex, false); break; default: ms = this.getModulation (atomIndex); if (ms != null) { v = ms.getVibration (false); if (v == null) v = ms; }} if (v == null && ms == null) return NaN; switch (c) { case 'x': case 'X': return v.x; case 'y': case 'Y': return v.y; case 'z': case 'Z': return v.z; case 'O': return (ms.getModulation ('O', null)).floatValue (); case '1': case '2': case '3': var t = ms.getModulation ('T', null); var x = (c == '1' ? t.x : c == '2' ? t.y : t.z); return (x - Math.floor (x)); default: return NaN; } }, "~N,~S"); Clazz.defineMethod (c$, "getVibration", function (atomIndex, forceNew) { var v = (this.vibrations == null ? null : this.vibrations[atomIndex]); return (Clazz.instanceOf (v, J.api.JmolModulationSet) ? (v).getVibration (forceNew) : v == null && forceNew ? new JU.Vibration () : v); }, "~N,~B"); Clazz.defineMethod (c$, "getModulation", function (iAtom) { var v = (this.vibrations == null ? null : this.vibrations[iAtom]); return (v != null && v.modDim > 0 ? v : null); }, "~N"); Clazz.defineMethod (c$, "setVibrationVector", function (atomIndex, vib) { if (Float.isNaN (vib.x) || Float.isNaN (vib.y) || Float.isNaN (vib.z)) return; if (this.vibrations == null || this.vibrations.length < atomIndex) this.vibrations = new Array (this.at.length); if (Clazz.instanceOf (vib, JU.Vibration)) { this.vibrations[atomIndex] = vib; } else { if (this.vibrations[atomIndex] == null) this.vibrations[atomIndex] = new JU.Vibration (); this.vibrations[atomIndex].setXYZ (vib); }this.at[atomIndex].setVibrationVector (); }, "~N,JU.T3"); Clazz.defineMethod (c$, "setVibrationVector2", function (atomIndex, tok, fValue) { var v = this.getVibration (atomIndex, true); if (v == null) return; switch (tok) { case 1111492626: v.x = fValue; break; case 1111492627: v.y = fValue; break; case 1111492628: v.z = fValue; break; } this.setAtomVibrationVector (atomIndex, v); }, "~N,~N,~N"); Clazz.defineMethod (c$, "setAtomName", function (atomIndex, name, doTaint) { if (doTaint && name.equals (this.at[atomIndex].getAtomName ())) return; var id = ((this).am[this.at[atomIndex].mi].isBioModel ? this.vwr.getJBR ().lookupSpecialAtomID (name) : 0); this.at[atomIndex].atomID = id; if (id <= 0) { if (this.atomNames == null) this.atomNames = new Array (this.at.length); this.atomNames[atomIndex] = name; }if (doTaint) this.taintAtom (atomIndex, 0); }, "~N,~S,~B"); Clazz.defineMethod (c$, "setAtomType", function (atomIndex, type) { if (type.equals (this.at[atomIndex].getAtomType ())) return; if (this.atomTypes == null) this.atomTypes = new Array (this.at.length); this.atomTypes[atomIndex] = type; return; }, "~N,~S"); Clazz.defineMethod (c$, "setChainID", function (atomIndex, id) { if (id.equals (this.at[atomIndex].getChainIDStr ())) return; var intid = this.at[atomIndex].getChainID (); var bs = this.getChainBits (intid); var c = this.at[atomIndex].group.chain; c.chainID = this.vwr.getChainID (id, true); for (var i = bs.nextSetBit (0); i >= 0; i = bs.nextSetBit (i + 1)) this.taintAtom (i, 16); }, "~N,~S"); Clazz.defineMethod (c$, "setAtomNumber", function (atomIndex, atomno, doTaint) { if (doTaint && atomno == this.at[atomIndex].getAtomNumber ()) return; if (this.atomSerials == null) this.atomSerials = Clazz.newIntArray (this.at.length, 0); this.atomSerials[atomIndex] = atomno; if (doTaint) this.taintAtom (atomIndex, 13); }, "~N,~N,~B"); Clazz.defineMethod (c$, "setElement", function (atom, atomicNumber, doTaint) { if (doTaint && atom.getElementNumber () == atomicNumber) return; atom.setAtomicAndIsotopeNumber (atomicNumber); atom.paletteID = J.c.PAL.CPK.id; atom.colixAtom = this.vwr.cm.getColixAtomPalette (atom, J.c.PAL.CPK.id); this.resetPartialCharges (); if (doTaint) this.taintAtom (atom.i, 3); }, "JM.Atom,~N,~B"); Clazz.defineMethod (c$, "resetPartialCharges", function () { this.partialCharges = null; this.bsPartialCharges = null; }); Clazz.defineMethod (c$, "setAtomResno", function (atomIndex, resno) { if (resno == this.at[atomIndex].getResno ()) return; this.at[atomIndex].group.setResno (resno); if (this.atomResnos == null) this.atomResnos = Clazz.newIntArray (this.at.length, 0); this.atomResnos[atomIndex] = resno; this.taintAtom (atomIndex, 15); }, "~N,~N"); Clazz.defineMethod (c$, "setAtomSeqID", function (atomIndex, seqID) { if (seqID == this.at[atomIndex].getSeqID ()) return; if (this.atomSeqIDs == null) this.atomSeqIDs = Clazz.newIntArray (this.at.length, 0); this.atomSeqIDs[atomIndex] = seqID; this.taintAtom (atomIndex, 14); }, "~N,~N"); Clazz.defineMethod (c$, "setOccupancy", function (atomIndex, occupancy, doTaint) { if (doTaint && occupancy == this.at[atomIndex].getOccupancy100 ()) return; if (this.occupancies == null) { if (occupancy == 100) return; this.occupancies = Clazz.newFloatArray (this.at.length, 0); for (var i = this.at.length; --i >= 0; ) this.occupancies[i] = 100; }this.occupancies[atomIndex] = occupancy; if (doTaint) this.taintAtom (atomIndex, 7); }, "~N,~N,~B"); Clazz.defineMethod (c$, "setPartialCharge", function (atomIndex, partialCharge, doTaint) { if (Float.isNaN (partialCharge)) return; if (this.partialCharges == null) { this.bsPartialCharges = new JU.BS (); if (partialCharge == 0) return; this.partialCharges = Clazz.newFloatArray (this.at.length, 0); }this.bsPartialCharges.set (atomIndex); this.partialCharges[atomIndex] = partialCharge; if (doTaint) this.taintAtom (atomIndex, 8); }, "~N,~N,~B"); Clazz.defineMethod (c$, "setBondingRadius", function (atomIndex, radius) { if (Float.isNaN (radius) || radius == this.at[atomIndex].getBondingRadius ()) return; if (this.bondingRadii == null) this.bondingRadii = Clazz.newFloatArray (this.at.length, 0); this.bondingRadii[atomIndex] = radius; this.taintAtom (atomIndex, 6); }, "~N,~N"); Clazz.defineMethod (c$, "setBFactor", function (atomIndex, bfactor, doTaint) { if (Float.isNaN (bfactor) || doTaint && bfactor == this.at[atomIndex].getBfactor100 ()) return; if (this.bfactor100s == null) { if (bfactor == 0) return; this.bfactor100s = Clazz.newShortArray (this.at.length, 0); }this.bfactor100s[atomIndex] = Clazz.doubleToShort ((bfactor < -327.68 ? -327.68 : bfactor > 327.67 ? 327.67 : bfactor) * 100 + (bfactor < 0 ? -0.5 : 0.5)); if (doTaint) this.taintAtom (atomIndex, 9); }, "~N,~N,~B"); Clazz.defineMethod (c$, "setHydrophobicity", function (atomIndex, value) { if (Float.isNaN (value) || value == this.at[atomIndex].getHydrophobicity ()) return; if (this.hydrophobicities == null) { this.hydrophobicities = Clazz.newFloatArray (this.at.length, 0); for (var i = 0; i < this.at.length; i++) this.hydrophobicities[i] = JU.Elements.getHydrophobicity (this.at[i].group.groupID); }this.hydrophobicities[atomIndex] = value; this.taintAtom (atomIndex, 5); }, "~N,~N"); Clazz.defineMethod (c$, "setAtomData", function (type, name, dataString, isDefault) { var fData = null; var bs = null; switch (type) { case 2: this.loadCoordinates (dataString, false, !isDefault); return; case 12: this.loadCoordinates (dataString, true, true); return; case 17: fData = Clazz.newFloatArray (this.ac, 0); bs = JU.BS.newN (this.ac); break; } var lines = JU.Parser.markLines (dataString, ';'); var n = 0; try { var nData = JU.PT.parseInt (dataString.substring (0, lines[0] - 1)); for (var i = 1; i <= nData; i++) { var tokens = JU.PT.getTokens (JU.PT.parseTrimmed (dataString.substring (lines[i], lines[i + 1] - 1))); var atomIndex = JU.PT.parseInt (tokens[0]) - 1; if (atomIndex < 0 || atomIndex >= this.ac) continue; var atom = this.at[atomIndex]; n++; var pt = tokens.length - 1; var x = JU.PT.parseFloat (tokens[pt]); switch (type) { case 17: fData[atomIndex] = x; bs.set (atomIndex); continue; case 0: this.setAtomName (atomIndex, tokens[pt], true); break; case 13: this.setAtomNumber (atomIndex, Clazz.floatToInt (x), true); break; case 15: this.setAtomResno (atomIndex, Clazz.floatToInt (x)); break; case 14: this.setAtomSeqID (atomIndex, Clazz.floatToInt (x)); break; case 1: this.setAtomType (atomIndex, tokens[pt]); break; case 16: this.setChainID (atomIndex, tokens[pt]); break; case 3: atom.setAtomicAndIsotopeNumber (Clazz.floatToInt (x)); atom.paletteID = J.c.PAL.CPK.id; atom.colixAtom = this.vwr.cm.getColixAtomPalette (atom, J.c.PAL.CPK.id); break; case 4: atom.setFormalCharge (Clazz.floatToInt (x)); break; case 5: this.setHydrophobicity (atomIndex, x); break; case 6: this.setBondingRadius (atomIndex, x); break; case 8: this.setPartialCharge (atomIndex, x, true); break; case 9: this.setBFactor (atomIndex, x, true); break; case 10: atom.setValence (Clazz.floatToInt (x)); break; case 11: atom.setRadius (x); break; } this.taintAtom (atomIndex, type); } if (type == 17 && n > 0) this.vwr.setData (name, Clazz.newArray (-1, [name, fData, bs, Integer.$valueOf (1)]), 0, 0, 0, 0, 0); } catch (e) { if (Clazz.exceptionOf (e, Exception)) { JU.Logger.error ("AtomCollection.loadData error: " + e); } else { throw e; } } }, "~N,~S,~S,~B"); Clazz.defineMethod (c$, "loadCoordinates", function (data, isVibrationVectors, doTaint) { var lines = JU.Parser.markLines (data, ';'); var v = (isVibrationVectors ? new JU.V3 () : null); try { var nData = JU.PT.parseInt (data.substring (0, lines[0] - 1)); for (var i = 1; i <= nData; i++) { var tokens = JU.PT.getTokens (JU.PT.parseTrimmed (data.substring (lines[i], lines[i + 1]))); var atomIndex = JU.PT.parseInt (tokens[0]) - 1; var x = (tokens[3].equalsIgnoreCase ("1.4E-45") ? 1.4e-45 : JU.PT.parseFloat (tokens[3])); var y = (tokens[4].equalsIgnoreCase ("1.4E-45") ? 1.4e-45 : JU.PT.parseFloat (tokens[4])); var z = JU.PT.parseFloat (tokens[5]); if (isVibrationVectors) { v.set (x, y, z); this.setAtomVibrationVector (atomIndex, v); } else { this.setAtomCoord (atomIndex, x, y, z); if (!doTaint) this.untaint (atomIndex, 2); }} } catch (e) { if (Clazz.exceptionOf (e, Exception)) { JU.Logger.error ("Frame.loadCoordinate error: " + e); } else { throw e; } } }, "~S,~B,~B"); Clazz.defineMethod (c$, "validateBspf", function (isValid) { if (this.bspf != null) this.bspf.isValid = isValid; this.averageAtomPoint = null; }, "~B"); Clazz.defineMethod (c$, "validateBspfForModel", function (modelIndex, isValid) { if (this.bspf != null) this.bspf.validateModel (modelIndex, isValid); }, "~N,~B"); Clazz.defineMethod (c$, "setPreserveState", function (TF) { this.preserveState = TF; }, "~B"); c$.getUserSettableType = Clazz.defineMethod (c$, "getUserSettableType", function (dataType) { var isExplicit = (dataType.indexOf ("property_") == 0); var check = (isExplicit ? dataType.substring (9) : dataType); for (var i = 0; i < 17; i++) if (JM.AtomCollection.userSettableValues[i].equalsIgnoreCase (check)) return i; return (isExplicit ? 17 : -1); }, "~S"); Clazz.defineMethod (c$, "getTaintedAtoms", function (type) { return this.tainted == null ? null : this.tainted[type]; }, "~N"); Clazz.defineMethod (c$, "taintAtoms", function (bsAtoms, type) { this.canSkipLoad = false; if (!this.preserveState) return; for (var i = bsAtoms.nextSetBit (0); i >= 0; i = bsAtoms.nextSetBit (i + 1)) this.taintAtom (i, type); }, "JU.BS,~N"); Clazz.defineMethod (c$, "taintAtom", function (atomIndex, type) { if (this.preserveState) { if (this.tainted == null) this.tainted = new Array (17); if (this.tainted[type] == null) this.tainted[type] = JU.BS.newN (this.ac); this.tainted[type].set (atomIndex); }if (type == 2) this.taintModelCoord (atomIndex); }, "~N,~N"); Clazz.defineMethod (c$, "taintModelCoord", function (atomIndex) { var m = (this).am[this.at[atomIndex].mi]; this.validateBspfForModel (m.trajectoryBaseIndex, false); if (m.isBioModel) m.resetDSSR (true); this.pointGroup = null; }, "~N"); Clazz.defineMethod (c$, "untaint", function (atomIndex, type) { if (!this.preserveState) return; if (this.tainted == null || this.tainted[type] == null) return; this.tainted[type].clear (atomIndex); }, "~N,~N"); Clazz.defineMethod (c$, "setTaintedAtoms", function (bs, type) { if (this.preserveState) { if (bs == null) { if (this.tainted == null) return; this.tainted[type] = null; return; }if (this.tainted == null) this.tainted = new Array (17); if (this.tainted[type] == null) this.tainted[type] = JU.BS.newN (this.ac); JU.BSUtil.copy2 (bs, this.tainted[type]); }if (type == 2) { var i = bs.nextSetBit (0); if (i >= 0) this.taintModelCoord (i); }}, "JU.BS,~N"); Clazz.defineMethod (c$, "unTaintAtoms", function (bs, type) { if (this.tainted == null || this.tainted[type] == null) return; for (var i = bs.nextSetBit (0); i >= 0; i = bs.nextSetBit (i + 1)) this.tainted[type].clear (i); if (this.tainted[type].nextSetBit (0) < 0) this.tainted[type] = null; }, "JU.BS,~N"); Clazz.defineMethod (c$, "findNearest2", function (x, y, closest, bsNot, min) { var champion = null; for (var i = this.ac; --i >= 0; ) { if (bsNot != null && bsNot.get (i)) continue; var contender = this.at[i]; if (contender.isClickable () && this.isCursorOnTopOf (contender, x, y, min, champion)) champion = contender; } closest[0] = champion; }, "~N,~N,~A,JU.BS,~N"); Clazz.defineMethod (c$, "isCursorOnTopOf", function (contender, x, y, radius, champion) { return contender.sZ > 1 && !this.g3d.isClippedZ (contender.sZ) && this.g3d.isInDisplayRange (contender.sX, contender.sY) && contender.isCursorOnTopOf (x, y, radius, champion); }, "JM.Atom,~N,~N,~N,JM.Atom"); Clazz.defineMethod (c$, "fillADa", function (atomData, mode) { atomData.xyz = atomData.atoms = this.at; atomData.ac = this.ac; atomData.atomicNumber = Clazz.newIntArray (this.ac, 0); var includeRadii = ((mode & 2) != 0); if (includeRadii) atomData.atomRadius = Clazz.newFloatArray (this.ac, 0); var isMultiModel = ((mode & 16) != 0); for (var i = 0; i < this.ac; i++) { var atom = this.at[i]; if (atom.isDeleted () || !isMultiModel && atomData.modelIndex >= 0 && atom.mi != atomData.firstModelIndex) { if (atomData.bsIgnored == null) atomData.bsIgnored = new JU.BS (); atomData.bsIgnored.set (i); continue; }atomData.atomicNumber[i] = atom.getElementNumber (); atomData.lastModelIndex = atom.mi; if (includeRadii) atomData.atomRadius[i] = this.getWorkingRadius (atom, atomData); } }, "J.atomdata.AtomData,~N"); Clazz.defineMethod (c$, "getWorkingRadius", function (atom, atomData) { var r = 0; var rd = atomData.radiusData; switch (rd.factorType) { case J.atomdata.RadiusData.EnumType.ABSOLUTE: r = rd.value; break; case J.atomdata.RadiusData.EnumType.FACTOR: case J.atomdata.RadiusData.EnumType.OFFSET: switch (rd.vdwType) { case J.c.VDW.BONDING: r = atom.getBondingRadius (); break; case J.c.VDW.ADPMAX: r = atom.getADPMinMax (true); break; case J.c.VDW.ADPMIN: r = atom.getADPMinMax (false); break; default: r = atom.getVanderwaalsRadiusFloat (this.vwr, atomData.radiusData.vdwType); } if (rd.factorType === J.atomdata.RadiusData.EnumType.FACTOR) r *= rd.value; else r += rd.value; } return r + rd.valueExtended; }, "JM.Atom,J.atomdata.AtomData"); Clazz.defineMethod (c$, "calculateHydrogens", function (bs, nTotal, doAll, justCarbon, vConnect) { var z = new JU.V3 (); var x = new JU.V3 (); var hAtoms = new Array (this.ac); var bsDeleted = this.vwr.slm.bsDeleted; var pt; var nH = 0; if (bs != null) for (var i = bs.nextSetBit (0); i >= 0; i = bs.nextSetBit (i + 1)) { if (bsDeleted != null && bsDeleted.get (i)) continue; var atom = this.at[i]; var atomicNumber = atom.getElementNumber (); if (justCarbon && atomicNumber != 6) continue; var dHX = (atomicNumber <= 6 ? 1.1 : atomicNumber <= 10 ? 1.0 : 1.3); switch (atomicNumber) { case 7: case 8: dHX = 1.0; break; case 6: } if (doAll && atom.getCovalentHydrogenCount () > 0) continue; var n = this.getMissingHydrogenCount (atom, false); if (n == 0) continue; var targetValence = this.aaRet[0]; var hybridization = this.aaRet[2]; var nBonds = this.aaRet[3]; if (nBonds == 0 && atom.isHetero ()) continue; hAtoms[i] = new Array (n); var hPt = 0; if (nBonds == 0) { switch (n) { case 4: z.set (0.635, 0.635, 0.635); pt = JU.P3.newP (z); pt.add (atom); hAtoms[i][hPt++] = pt; if (vConnect != null) vConnect.addLast (atom); case 3: z.set (-0.635, -0.635, 0.635); pt = JU.P3.newP (z); pt.add (atom); hAtoms[i][hPt++] = pt; if (vConnect != null) vConnect.addLast (atom); case 2: z.set (-0.635, 0.635, -0.635); pt = JU.P3.newP (z); pt.add (atom); hAtoms[i][hPt++] = pt; if (vConnect != null) vConnect.addLast (atom); case 1: z.set (0.635, -0.635, -0.635); pt = JU.P3.newP (z); pt.add (atom); hAtoms[i][hPt++] = pt; if (vConnect != null) vConnect.addLast (atom); } } else { switch (n) { default: break; case 3: this.getHybridizationAndAxes (i, atomicNumber, z, x, "sp3b", false, true); pt = new JU.P3 (); pt.scaleAdd2 (dHX, z, atom); hAtoms[i][hPt++] = pt; if (vConnect != null) vConnect.addLast (atom); this.getHybridizationAndAxes (i, atomicNumber, z, x, "sp3c", false, true); pt = new JU.P3 (); pt.scaleAdd2 (dHX, z, atom); hAtoms[i][hPt++] = pt; if (vConnect != null) vConnect.addLast (atom); this.getHybridizationAndAxes (i, atomicNumber, z, x, "sp3d", false, true); pt = new JU.P3 (); pt.scaleAdd2 (dHX, z, atom); hAtoms[i][hPt++] = pt; if (vConnect != null) vConnect.addLast (atom); break; case 2: var isEne = (hybridization == 2 || atomicNumber == 5 || nBonds == 1 && targetValence == 4 || atomicNumber == 7 && this.isAdjacentSp2 (atom)); this.getHybridizationAndAxes (i, atomicNumber, z, x, (isEne ? "sp2b" : targetValence == 3 ? "sp3c" : "lpa"), false, true); pt = JU.P3.newP (z); pt.scaleAdd2 (dHX, z, atom); hAtoms[i][hPt++] = pt; if (vConnect != null) vConnect.addLast (atom); this.getHybridizationAndAxes (i, atomicNumber, z, x, (isEne ? "sp2c" : targetValence == 3 ? "sp3d" : "lpb"), false, true); pt = JU.P3.newP (z); pt.scaleAdd2 (dHX, z, atom); hAtoms[i][hPt++] = pt; if (vConnect != null) vConnect.addLast (atom); break; case 1: switch (targetValence - nBonds) { case 1: if (atomicNumber == 8 && atom === atom.group.getCarbonylOxygenAtom ()) { hAtoms[i] = null; continue; }if (this.getHybridizationAndAxes (i, atomicNumber, z, x, (hybridization == 2 || atomicNumber == 5 || atomicNumber == 7 && (atom.group.getNitrogenAtom () === atom || this.isAdjacentSp2 (atom)) ? "sp2c" : "sp3d"), true, false) != null) { pt = JU.P3.newP (z); pt.scaleAdd2 (dHX, z, atom); hAtoms[i][hPt++] = pt; if (vConnect != null) vConnect.addLast (atom); } else { hAtoms[i] = new Array (0); }break; case 2: this.getHybridizationAndAxes (i, atomicNumber, z, x, (targetValence == 4 ? "sp2c" : "sp2b"), false, false); pt = JU.P3.newP (z); pt.scaleAdd2 (dHX, z, atom); hAtoms[i][hPt++] = pt; if (vConnect != null) vConnect.addLast (atom); break; case 3: this.getHybridizationAndAxes (i, atomicNumber, z, x, "spb", false, true); pt = JU.P3.newP (z); pt.scaleAdd2 (dHX, z, atom); hAtoms[i][hPt++] = pt; if (vConnect != null) vConnect.addLast (atom); break; } } }nH += hPt; } nTotal[0] = nH; return hAtoms; }, "JU.BS,~A,~B,~B,JU.Lst"); Clazz.defineMethod (c$, "isAdjacentSp2", function (atom) { var bonds = atom.bonds; for (var i = 0; i < bonds.length; i++) { var b2 = bonds[i].getOtherAtom (atom).bonds; for (var j = 0; j < b2.length; j++) switch (b2[j].order) { case 515: case 514: case 2: case 3: return true; } } return false; }, "JM.Atom"); Clazz.defineMethod (c$, "getMissingHydrogenCount", function (atom, allowNegative) { var targetCount = atom.getTargetValence (); if (targetCount < 0) return 0; var charge = atom.getFormalCharge (); var valence = atom.getValence (); var model = (this).am[atom.mi]; var s = (model.isBioModel && !model.isPdbWithMultipleBonds ? atom.group.getGroup3 () : null); if (this.aaRet == null) this.aaRet = Clazz.newIntArray (5, 0); this.aaRet[0] = targetCount; this.aaRet[1] = charge; this.aaRet[2] = 0; this.aaRet[3] = atom.getCovalentBondCount (); this.aaRet[4] = (s == null ? 0 : valence); if (s != null && charge == 0) { if (this.bioModelset.getAminoAcidValenceAndCharge (s, atom.getAtomName (), this.aaRet)) { targetCount = this.aaRet[0]; charge = this.aaRet[1]; }}if (charge != 0) { targetCount += (targetCount == 4 ? -Math.abs (charge) : charge); this.aaRet[0] = targetCount; }var n = targetCount - valence; return (n < 0 && !allowNegative ? 0 : n); }, "JM.Atom,~B"); Clazz.defineMethod (c$, "fixFormalCharges", function (bs) { var n = 0; for (var i = bs.nextSetBit (0); i >= 0; i = bs.nextSetBit (i + 1)) { var a = this.at[i]; var nH = this.getMissingHydrogenCount (a, true); if (nH != 0) { var c0 = a.getFormalCharge (); var c = c0 - nH; a.setFormalCharge (c); this.taintAtom (i, 4); if (JU.Logger.debugging) JU.Logger.debug ("atom " + a + " formal charge " + c0 + " -> " + c); n++; }} return n; }, "JU.BS"); Clazz.defineMethod (c$, "getHybridizationAndAxes", function (atomIndex, atomicNumber, z, x, lcaoTypeRaw, hybridizationCompatible, doAlignZ) { var lcaoType = (lcaoTypeRaw.length > 0 && lcaoTypeRaw.charAt (0) == '-' ? lcaoTypeRaw.substring (1) : lcaoTypeRaw); if (lcaoTypeRaw.indexOf ("d") >= 0 && !lcaoTypeRaw.endsWith ("sp3d")) return this.getHybridizationAndAxesD (atomIndex, z, x, lcaoType); var atom = this.at[atomIndex]; if (atomicNumber == 0) atomicNumber = atom.getElementNumber (); var attached = this.getAttached (atom, 4, hybridizationCompatible); var nAttached = attached.length; var pt = lcaoType.charCodeAt (lcaoType.length - 1) - 97; if (pt < 0 || pt > 6) pt = 0; z.set (0, 0, 0); x.set (0, 0, 0); var v = new Array (4); for (var i = 0; i < nAttached; i++) { v[i] = JU.V3.newVsub (atom, attached[i]); v[i].normalize (); z.add (v[i]); } if (nAttached > 0) x.setT (v[0]); var isPlanar = false; var vTemp = new JU.V3 (); if (nAttached >= 3) { if (x.angle (v[1]) < 2.984513) vTemp.cross (x, v[1]); else vTemp.cross (x, v[2]); vTemp.normalize (); var vTemp2 = new JU.V3 (); if (v[1].angle (v[2]) < 2.984513) vTemp2.cross (v[1], v[2]); else vTemp2.cross (x, v[2]); vTemp2.normalize (); isPlanar = (Math.abs (vTemp2.dot (vTemp)) >= 0.95); }var isSp3 = (lcaoType.indexOf ("sp3") == 0); var isSp2 = (!isSp3 && lcaoType.indexOf ("sp2") == 0); var isSp = (!isSp3 && !isSp2 && lcaoType.indexOf ("sp") == 0); var isP = (lcaoType.indexOf ("p") == 0); var isLp = (lcaoType.indexOf ("lp") == 0); var hybridization = null; if (hybridizationCompatible) { if (nAttached == 0) return null; if (isSp3) { if (pt > 3 || nAttached > 4) return null; } else if (isSp2) { if (pt > 2 || nAttached > 3) return null; } else if (isSp) { if (pt > 1 || nAttached > 2) return null; }switch (nAttached) { case 1: if (atomicNumber == 1 && !isSp3) return null; if (isSp3) { hybridization = "sp3"; break; }switch (attached[0].getCovalentBondCount ()) { case 1: if (attached[0].getValence () != 2) { hybridization = "sp"; break; }case 2: hybridization = (isSp ? "sp" : "sp2"); break; case 3: if (!isSp2 && !isP) return null; hybridization = "sp2"; break; } break; case 2: if (z.length () < 0.1) { if (lcaoType.indexOf ("2") >= 0 || lcaoType.indexOf ("3") >= 0) return null; hybridization = "sp"; break; }hybridization = (isSp3 ? "sp3" : "sp2"); if (lcaoType.indexOf ("sp") == 0) { break; }if (isLp) { hybridization = "lp"; break; }hybridization = lcaoType; break; default: if (isPlanar) { hybridization = "sp2"; } else { if (isLp && nAttached == 3) { hybridization = "lp"; break; }hybridization = "sp3"; }} if (hybridization == null) return null; if (lcaoType.indexOf ("p") == 0) { if (hybridization === "sp3") return null; } else if (lcaoType.indexOf (hybridization) < 0) { return null; }}if (pt < nAttached && !lcaoType.startsWith ("p") && !lcaoType.startsWith ("l")) { z.sub2 (attached[pt], atom); z.normalize (); return hybridization; }switch (nAttached) { case 0: if (lcaoType.equals ("sp3c") || lcaoType.equals ("sp2d") || lcaoType.equals ("lpa")) { z.set (-0.5, -0.7, 1); x.set (1, 0, 0); } else if (lcaoType.equals ("sp3b") || lcaoType.equals ("lpb")) { z.set (0.5, -0.7, -1.0); x.set (1, 0, 0); } else if (lcaoType.equals ("sp3a")) { z.set (0, 1, 0); x.set (1, 0, 0); } else { z.set (0, 0, 1); x.set (1, 0, 0); }break; case 1: vTemp.setT (JM.AtomCollection.vRef); x.cross (vTemp, z); if (isSp3) { for (var i = attached[0].getBondCount (); --i >= 0; ) { if (attached[0].bonds[i].isCovalent () && attached[0].getBondedAtomIndex (i) != atom.i) { x.sub2 (attached[0], attached[0].bonds[i].getOtherAtom (attached[0])); x.cross (z, x); if (x.length () == 0) continue; x.cross (x, z); break; }} x.normalize (); if (Float.isNaN (x.x)) { x.setT (JM.AtomCollection.vRef); x.cross (x, z); }vTemp.cross (z, x); vTemp.normalize (); z.normalize (); x.scaleAdd2 (2.828, x, z); if (pt != 3) { x.normalize (); new JU.M3 ().setAA (JU.A4.new4 (z.x, z.y, z.z, (pt == 2 ? 1 : -1) * 2.09439507)).rotate (x); }z.setT (x); x.cross (vTemp, z); break; }vTemp.cross (x, z); switch (attached[0].getCovalentBondCount ()) { case 1: if (attached[0].getValence () != 2) { break; }case 2: var isCumulated = false; var a0 = attached[0]; x.setT (z); vTemp.setT (JM.AtomCollection.vRef); while (a0 != null && a0.getCovalentBondCount () == 2) { var bonds = a0.bonds; var a = null; isCumulated = !isCumulated; for (var i = 0; i < bonds.length; i++) if (bonds[i].isCovalent ()) { a = bonds[i].getOtherAtom (a0); if (a !== atom) { vTemp.sub2 (a, a0); break; }} vTemp.cross (vTemp, x); if (vTemp.length () > 0.1 || a.getCovalentBondCount () != 2) break; atom = a0; a0 = a; } if (vTemp.length () > 0.1) { z.cross (vTemp, x); z.normalize (); if (pt == 1) z.scale (-1); z.scale (JM.AtomCollection.sqrt3_2); z.scaleAdd2 (0.5, x, z); if (isP) { vTemp.cross (z, x); z.setT (vTemp); vTemp.setT (x); }x.cross (vTemp, z); } else { z.setT (x); x.cross (JM.AtomCollection.vRef, x); }break; case 3: this.getHybridizationAndAxes (attached[0].i, 0, x, vTemp, "pz", false, doAlignZ); vTemp.setT (x); if (isSp2) { x.cross (x, z); if (pt == 1) x.scale (-1); x.scale (JM.AtomCollection.sqrt3_2); z.scaleAdd2 (0.5, z, x); } else { vTemp.setT (z); z.setT (x); }x.cross (vTemp, z); break; } break; case 2: if (z.length () < 0.1) { if (!lcaoType.equals ("pz")) { var a = attached[0]; var ok = (a.getCovalentBondCount () == 3); if (!ok) ok = ((a = attached[1]).getCovalentBondCount () == 3); if (ok) { this.getHybridizationAndAxes (a.i, 0, x, z, "pz", false, doAlignZ); if (lcaoType.equals ("px")) x.scale (-1); z.setT (v[0]); break; }vTemp.setT (JM.AtomCollection.vRef); z.cross (vTemp, x); vTemp.cross (z, x); }z.setT (x); x.cross (vTemp, z); break; }vTemp.cross (z, x); if (isSp2) { x.cross (z, vTemp); break; }if (isSp3 || isLp) { vTemp.normalize (); z.normalize (); if (!lcaoType.equals ("lp")) { if (pt == 0 || pt == 2) z.scaleAdd2 (-1.2, vTemp, z); else z.scaleAdd2 (1.2, vTemp, z); }x.cross (z, vTemp); break; }x.cross (z, vTemp); z.setT (vTemp); if (z.z < 0) { z.scale (-1); x.scale (-1); }break; default: if (isSp3) break; if (!isPlanar) { x.cross (z, x); break; }z.setT (vTemp); if (z.z < 0 && doAlignZ) { z.scale (-1); x.scale (-1); }} x.normalize (); z.normalize (); return hybridization; }, "~N,~N,JU.V3,JU.V3,~S,~B,~B"); Clazz.defineMethod (c$, "getHybridizationAndAxesD", function (atomIndex, z, x, lcaoType) { if (lcaoType.startsWith ("sp3d2")) lcaoType = "d2sp3" + (lcaoType.length == 5 ? "a" : lcaoType.substring (5)); if (lcaoType.startsWith ("sp3d")) lcaoType = "dsp3" + (lcaoType.length == 4 ? "a" : lcaoType.substring (4)); if (lcaoType.equals ("d2sp3") || lcaoType.equals ("dsp3")) lcaoType += "a"; var isTrigonal = lcaoType.startsWith ("dsp3"); var pt = lcaoType.charCodeAt (lcaoType.length - 1) - 97; if (z != null && (!isTrigonal && (pt > 5 || !lcaoType.startsWith ("d2sp3")) || isTrigonal && pt > 4)) return null; var atom = this.at[atomIndex]; var attached = this.getAttached (atom, 6, true); if (attached == null) return (z == null ? null : "?"); var nAttached = attached.length; if (nAttached < 3 && z != null) return null; var isLP = (pt >= nAttached); var nAngles = Clazz.doubleToInt (nAttached * (nAttached - 1) / 2); var angles = JU.AU.newInt2 (nAngles); var ntypes = Clazz.newIntArray (3, 0); var typePtrs = Clazz.newIntArray (3, nAngles, 0); var n = 0; var _90 = 0; var _120 = 1; var _180 = 2; var n120_atom0 = 0; for (var i = 0; i < nAttached - 1; i++) for (var j = i + 1; j < nAttached; j++) { var angle = JU.Measure.computeAngleABC (attached[i], atom, attached[j], true); var itype = (angle < 105 ? _90 : angle >= 150 ? _180 : _120); typePtrs[itype][ntypes[itype]] = n; ntypes[itype]++; angles[n++] = Clazz.newIntArray (-1, [i, j]); if (i == 0 && itype == _120) n120_atom0++; } n = ntypes[_90] * 100 + ntypes[_120] * 10 + ntypes[_180]; if (z == null) { switch (n) { default: return ""; case 0: return ""; case 1: return "linear"; case 100: case 10: return "bent"; case 111: case 201: return "T-shaped"; case 30: case 120: case 210: case 300: if (Math.abs (JU.Measure.computeTorsion (attached[0], atom, attached[1], attached[2], true)) > 162) return "trigonal planar"; return "trigonal pyramidal"; case 330: return (n120_atom0 % 2 == 1 ? "tetrahedral" : "uncapped trigonal pyramid"); case 60: case 150: case 240: return "tetrahedral"; case 402: return "square planar"; case 411: case 501: return "see-saw"; case 631: return "trigonal bipyramidal"; case 802: return "uncapped square pyramid"; case 1203: return "octahedral"; } }switch (n) { default: return null; case 201: break; case 210: case 330: case 411: case 631: if (!isTrigonal) return null; break; case 300: case 402: case 501: case 802: case 1203: if (isTrigonal) return null; break; } if (isLP) { var a; var bs; if (isTrigonal) { switch (ntypes[_120]) { case 0: z.sub2 (attached[angles[typePtrs[_90][0]][0]], atom); x.sub2 (attached[angles[typePtrs[_90][0]][1]], atom); z.cross (z, x); z.normalize (); if (pt == 4) z.scale (-1); bs = this.findNotAttached (nAttached, angles, typePtrs[_180], ntypes[_180]); var i = bs.nextSetBit (0); x.sub2 (attached[i], atom); x.normalize (); x.scale (0.5); z.scaleAdd2 (JM.AtomCollection.sqrt3_2, z, x); pt = -1; break; case 1: if (pt == 4) { a = angles[typePtrs[_120][0]]; z.add2 (attached[a[0]], attached[a[1]]); z.scaleAdd2 (-2, atom, z); pt = -1; } else { bs = this.findNotAttached (nAttached, angles, typePtrs[_120], ntypes[_120]); pt = bs.nextSetBit (0); }break; default: bs = this.findNotAttached (nAttached, angles, typePtrs[_120], ntypes[_120]); pt = bs.nextSetBit (0); } } else { var isPlanar = false; if (nAttached == 4) { switch (ntypes[_180]) { case 1: bs = this.findNotAttached (nAttached, angles, typePtrs[_180], ntypes[_180]); var i = bs.nextSetBit (0); if (pt == 4) pt = i; else pt = bs.nextSetBit (i + 1); break; default: isPlanar = true; } } else { bs = this.findNotAttached (nAttached, angles, typePtrs[_180], ntypes[_180]); var i = bs.nextSetBit (0); for (var j = nAttached; j < pt && i >= 0; j++) i = bs.nextSetBit (i + 1); if (i == -1) isPlanar = true; else pt = i; }if (isPlanar) { z.sub2 (attached[angles[typePtrs[_90][0]][0]], atom); x.sub2 (attached[angles[typePtrs[_90][0]][1]], atom); z.cross (z, x); if (pt == 4) z.scale (-1); pt = -1; }}}if (pt >= 0) z.sub2 (attached[pt], atom); if (isLP) z.scale (-1); z.normalize (); return (isTrigonal ? "dsp3" : "d2sp3"); }, "~N,JU.V3,JU.V3,~S"); Clazz.defineMethod (c$, "getAttached", function (atom, nMax, doSort) { var nAttached = atom.getCovalentBondCount (); if (nAttached > nMax) return null; var attached = new Array (nAttached); if (nAttached > 0) { var bonds = atom.bonds; var n = 0; for (var i = 0; i < bonds.length; i++) if (bonds[i].isCovalent ()) attached[n++] = bonds[i].getOtherAtom (atom); if (doSort) java.util.Arrays.sort (attached, Clazz.innerTypeInstance (JM.AtomCollection.AtomSorter, this, null)); }return attached; }, "JM.Atom,~N,~B"); Clazz.defineMethod (c$, "findNotAttached", function (nAttached, angles, ptrs, nPtrs) { var bs = JU.BS.newN (nAttached); bs.setBits (0, nAttached); for (var i = 0; i < nAttached; i++) for (var j = 0; j < nPtrs; j++) { var a = angles[ptrs[j]]; if (a[0] == i || a[1] == i) bs.clear (i); } return bs; }, "~N,~A,~A,~N"); Clazz.defineMethod (c$, "getAtomBitsMDa", function (tokType, specInfo, bs) { var iSpec = (Clazz.instanceOf (specInfo, Integer) ? (specInfo).intValue () : 0); switch (tokType) { case 1086326786: case 1086326785: var isType = (tokType == 1086326785); var names = "," + specInfo + ","; for (var i = this.ac; --i >= 0; ) { var s = (isType ? this.at[i].getAtomType () : this.at[i].getAtomName ()); if (names.indexOf ("," + s + ",") >= 0) bs.set (i); } return bs; case 1094715393: for (var i = this.ac; --i >= 0; ) if (this.at[i].getAtomNumber () == iSpec) bs.set (i); return bs; case 2097155: for (var i = this.ac; --i >= 0; ) if (this.at[i].getCovalentBondCount () > 0) bs.set (i); return bs; case 2097188: case 2097156: case 136314895: case 2097166: case 2097168: case 2097170: case 2097172: case 2097174: case 2097184: return ((this).haveBioModels ? (this).bioModelset.getAtomBitsBS (tokType, null, bs) : bs); case 1612709900: iSpec = 1; case 1094715402: for (var i = this.ac; --i >= 0; ) if (this.at[i].getElementNumber () == iSpec) bs.set (i); return bs; case 1612709894: for (var i = this.ac; --i >= 0; ) if (this.at[i].isHetero ()) bs.set (i); return bs; case 1073741824: return this.getIdentifierOrNull (specInfo); case 2097165: for (var i = this.ac; --i >= 0; ) if (this.at[i].isLeadAtom ()) bs.set (i); return bs; case 1094713362: case 1639976963: return ((this).haveBioModels ? (this).bioModelset.getAtomBitsBS (tokType, specInfo, bs) : bs); case 1094715412: for (var i = this.ac; --i >= 0; ) if (this.at[i].getResno () == iSpec) bs.set (i); return bs; case 1612709912: var hs = Clazz.newIntArray (2, 0); var a; for (var i = this.ac; --i >= 0; ) { var g = this.at[i].group.groupID; if (g >= 42 && g < 45) { bs.set (i); } else if ((a = this.at[i]).getElementNumber () == 8 && a.getCovalentBondCount () == 2) { var bonds = a.bonds; var n = 0; var b; for (var j = bonds.length; --j >= 0 && n < 3; ) if (bonds[j].isCovalent () && (b = bonds[j].getOtherAtom (a)).getElementNumber () == 1) hs[n++ % 2] = b.i; if (n == 2) { bs.set (hs[1]); bs.set (hs[0]); bs.set (i); }}} return bs; case 1073742355: var spec = specInfo; for (var i = this.ac; --i >= 0; ) if (this.isAltLoc (this.at[i].altloc, spec)) bs.set (i); return bs; case 1073742356: var atomSpec = (specInfo).toUpperCase (); if (atomSpec.indexOf ("\\?") >= 0) atomSpec = JU.PT.rep (atomSpec, "\\?", "\1"); var allowStar = atomSpec.startsWith ("?*"); if (allowStar) atomSpec = atomSpec.substring (1); for (var i = this.ac; --i >= 0; ) if (this.isAtomNameMatch (this.at[i], atomSpec, allowStar, allowStar)) bs.set (i); return bs; case 1073742357: return JU.BSUtil.copy (this.getChainBits (iSpec)); case 1073742360: return this.getSpecName (specInfo); case 1073742361: for (var i = this.ac; --i >= 0; ) if (this.at[i].group.groupID == iSpec) bs.set (i); return bs; case 1073742362: return JU.BSUtil.copy (this.getSeqcodeBits (iSpec, true)); case 5: for (var i = this.ac; --i >= 0; ) if (this.at[i].group.getInsCode () == iSpec) bs.set (i); return bs; case 1296041986: for (var i = this.ac; --i >= 0; ) if (this.at[i].getSymOp () == iSpec) bs.set (i); return bs; } var bsTemp; var bsInfo = specInfo; var i0 = bsInfo.nextSetBit (0); if (i0 < 0) return bs; switch (tokType) { case 1094717454: bsTemp = JU.BSUtil.copy (bsInfo); for (var i = i0; i >= 0; i = bsTemp.nextSetBit (i + 1)) { bs.or ((this).am[this.at[i].mi].bsAtoms); bsTemp.andNot (bs); } return bs; case 1086326788: bsTemp = JU.BSUtil.copy (bsInfo); for (var i = i0; i >= 0; i = bsTemp.nextSetBit (i + 1)) { this.at[i].group.chain.setAtomBits (bs); bsTemp.andNot (bs); } return bs; case 1086326789: bsTemp = new JU.BS (); for (var i = i0; i >= 0; i = bsInfo.nextSetBit (i + 1)) bsTemp.set (this.at[i].getElementNumber ()); for (var i = this.ac; --i >= 0; ) if (bsTemp.get (this.at[i].getElementNumber ())) bs.set (i); return bs; case 1086324742: bsTemp = JU.BSUtil.copy (bsInfo); for (var i = i0; i >= 0; i = bsTemp.nextSetBit (i + 1)) { this.at[i].group.setAtomBits (bs); bsTemp.andNot (bs); } return bs; case 1094713366: bsTemp = new JU.BS (); for (var i = i0; i >= 0; i = bsInfo.nextSetBit (i + 1)) bsTemp.set (this.at[i].atomSite); for (var i = this.ac; --i >= 0; ) if (bsTemp.get (this.at[i].atomSite)) bs.set (i); return bs; } JU.Logger.error ("MISSING getAtomBits entry for " + JS.T.nameOf (tokType)); return bs; }, "~N,~O,JU.BS"); Clazz.defineMethod (c$, "getChainBits", function (chainID) { var caseSensitive = this.vwr.getBoolean (603979822); if (chainID >= 0 && chainID < 300 && !caseSensitive) chainID = this.chainToUpper (chainID); var bs = new JU.BS (); var bsDone = JU.BS.newN (this.ac); var id; for (var i = bsDone.nextClearBit (0); i < this.ac; i = bsDone.nextClearBit (i + 1)) { var chain = this.at[i].group.chain; if (chainID == (id = chain.chainID) || !caseSensitive && id >= 0 && id < 300 && chainID == this.chainToUpper (id)) { chain.setAtomBits (bs); bsDone.or (bs); } else { chain.setAtomBits (bsDone); }} return bs; }, "~N"); Clazz.defineMethod (c$, "chainToUpper", function (chainID) { return (chainID >= 97 && chainID <= 122 ? chainID - 32 : chainID >= 256 && chainID < 300 ? chainID - 191 : chainID); }, "~N"); Clazz.defineMethod (c$, "isAltLoc", function (altloc, strPattern) { if (strPattern == null) return (altloc == '\0'); if (strPattern.length != 1) return false; var ch = strPattern.charAt (0); return (ch == '*' || ch == '?' && altloc != '\0' || altloc == ch); }, "~S,~S"); Clazz.defineMethod (c$, "getSeqcodeBits", function (seqcode, returnEmpty) { var bs = new JU.BS (); var seqNum = JM.Group.getSeqNumberFor (seqcode); var haveSeqNumber = (seqNum != 2147483647); var isEmpty = true; var insCode = JM.Group.getInsertionCodeChar (seqcode); switch (insCode) { case '?': for (var i = this.ac; --i >= 0; ) { var atomSeqcode = this.at[i].group.seqcode; if ((!haveSeqNumber || seqNum == JM.Group.getSeqNumberFor (atomSeqcode)) && JM.Group.getInsertionCodeFor (atomSeqcode) != 0) { bs.set (i); isEmpty = false; }} break; default: for (var i = this.ac; --i >= 0; ) { var atomSeqcode = this.at[i].group.seqcode; if (seqcode == atomSeqcode || !haveSeqNumber && seqcode == JM.Group.getInsertionCodeFor (atomSeqcode) || insCode == '*' && seqNum == JM.Group.getSeqNumberFor (atomSeqcode)) { bs.set (i); isEmpty = false; }} } return (!isEmpty || returnEmpty ? bs : null); }, "~N,~B"); Clazz.defineMethod (c$, "getIdentifierOrNull", function (identifier) { var bs = this.getSpecNameOrNull (identifier, false); if (identifier.indexOf ("\\?") >= 0) identifier = JU.PT.rep (identifier, "\\?", "\1"); return (bs != null || identifier.indexOf ("?") > 0 ? bs : identifier.indexOf ("*") > 0 ? this.getSpecNameOrNull (identifier, true) : (this).haveBioModels ? (this).bioModelset.getIdentifierOrNull (identifier) : null); }, "~S"); Clazz.defineMethod (c$, "getSpecName", function (name) { var bs = this.getSpecNameOrNull (name, false); if (bs != null) return bs; if (name.indexOf ("*") > 0) bs = this.getSpecNameOrNull (name, true); return (bs == null ? new JU.BS () : bs); }, "~S"); Clazz.defineMethod (c$, "getSpecNameOrNull", function (name, checkStar) { var bs = null; name = name.toUpperCase (); if (name.indexOf ("\\?") >= 0) name = JU.PT.rep (name, "\\?", "\1"); var allowInitialStar = name.startsWith ("?*"); if (allowInitialStar) name = name.substring (1); for (var i = this.ac; --i >= 0; ) { var g3 = this.at[i].getGroup3 (true); if (g3 != null && g3.length > 0) { if (JU.PT.isMatch (g3, name, checkStar, true)) { if (bs == null) bs = JU.BS.newN (i + 1); bs.set (i); while (--i >= 0 && this.at[i].getGroup3 (true).equals (g3)) bs.set (i); i++; }} else if (this.isAtomNameMatch (this.at[i], name, checkStar, allowInitialStar)) { if (bs == null) bs = JU.BS.newN (i + 1); bs.set (i); }} return bs; }, "~S,~B"); Clazz.defineMethod (c$, "isAtomNameMatch", function (atom, strPattern, checkStar, allowInitialStar) { return JU.PT.isMatch (atom.getAtomName ().toUpperCase (), strPattern, checkStar, allowInitialStar); }, "JM.Atom,~S,~B,~B"); Clazz.defineMethod (c$, "getAtomIndices", function (bs) { var n = 0; var indices = Clazz.newIntArray (this.ac, 0); for (var j = bs.nextSetBit (0); j >= 0 && j < this.ac; j = bs.nextSetBit (j + 1)) indices[j] = ++n; return indices; }, "JU.BS"); Clazz.defineMethod (c$, "getAtomsNearPlane", function (distance, plane) { var bsResult = new JU.BS (); for (var i = this.ac; --i >= 0; ) { var atom = this.at[i]; var d = JU.Measure.distanceToPlane (plane, atom); if (distance > 0 && d >= -0.1 && d <= distance || distance < 0 && d <= 0.1 && d >= distance || distance == 0 && Math.abs (d) < 0.01) bsResult.set (atom.i); } return bsResult; }, "~N,JU.P4"); Clazz.defineMethod (c$, "clearVisibleSets", function () { this.haveBSVisible = false; this.haveBSClickable = false; }); Clazz.defineMethod (c$, "getAtomsInFrame", function (bsAtoms) { this.clearVisibleSets (); bsAtoms.clearAll (); for (var i = this.ac; --i >= 0; ) if (this.at[i].isVisible (1)) bsAtoms.set (i); }, "JU.BS"); Clazz.defineMethod (c$, "getVisibleSet", function (forceNew) { if (forceNew) { this.vwr.setModelVisibility (); this.vwr.shm.finalizeAtoms (null, true); } else if (this.haveBSVisible) { return this.bsVisible; }this.bsVisible.clearAll (); for (var i = this.ac; --i >= 0; ) if (this.at[i].checkVisible ()) this.bsVisible.set (i); if (this.vwr.shm.bsSlabbedInternal != null) this.bsVisible.andNot (this.vwr.shm.bsSlabbedInternal); this.haveBSVisible = true; return this.bsVisible; }, "~B"); Clazz.defineMethod (c$, "getClickableSet", function (forceNew) { if (forceNew) this.vwr.setModelVisibility (); else if (this.haveBSClickable) return this.bsClickable; this.bsClickable.clearAll (); for (var i = this.ac; --i >= 0; ) if (this.at[i].isClickable ()) this.bsClickable.set (i); this.haveBSClickable = true; return this.bsClickable; }, "~B"); Clazz.defineMethod (c$, "isModulated", function (i) { return this.bsModulated != null && this.bsModulated.get (i); }, "~N"); Clazz.defineMethod (c$, "deleteModelAtoms", function (firstAtomIndex, nAtoms, bsAtoms) { this.at = JU.AU.deleteElements (this.at, firstAtomIndex, nAtoms); this.ac = this.at.length; for (var j = firstAtomIndex; j < this.ac; j++) { this.at[j].i = j; this.at[j].mi--; } if (this.bsModulated != null) JU.BSUtil.deleteBits (this.bsModulated, bsAtoms); this.deleteAtomTensors (bsAtoms); this.atomNames = JU.AU.deleteElements (this.atomNames, firstAtomIndex, nAtoms); this.atomTypes = JU.AU.deleteElements (this.atomTypes, firstAtomIndex, nAtoms); this.atomResnos = JU.AU.deleteElements (this.atomResnos, firstAtomIndex, nAtoms); this.atomSerials = JU.AU.deleteElements (this.atomSerials, firstAtomIndex, nAtoms); this.atomSeqIDs = JU.AU.deleteElements (this.atomSeqIDs, firstAtomIndex, nAtoms); this.dssrData = JU.AU.deleteElements (this.dssrData, firstAtomIndex, nAtoms); this.bfactor100s = JU.AU.deleteElements (this.bfactor100s, firstAtomIndex, nAtoms); this.hasBfactorRange = false; this.occupancies = JU.AU.deleteElements (this.occupancies, firstAtomIndex, nAtoms); this.resetPartialCharges (); this.atomTensorList = JU.AU.deleteElements (this.atomTensorList, firstAtomIndex, nAtoms); this.vibrations = JU.AU.deleteElements (this.vibrations, firstAtomIndex, nAtoms); this.nSurfaceAtoms = 0; this.bsSurface = null; this.surfaceDistance100s = null; if (this.tainted != null) for (var i = 0; i < 17; i++) JU.BSUtil.deleteBits (this.tainted[i], bsAtoms); }, "~N,~N,JU.BS"); Clazz.defineMethod (c$, "getAtomIdentityInfo", function (i, info, ptTemp) { info.put ("_ipt", Integer.$valueOf (i)); info.put ("atomIndex", Integer.$valueOf (i)); info.put ("atomno", Integer.$valueOf (this.at[i].getAtomNumber ())); info.put ("info", this.getAtomInfo (i, null, ptTemp)); info.put ("sym", this.at[i].getElementSymbol ()); }, "~N,java.util.Map,JU.P3"); Clazz.defineMethod (c$, "getAtomTensorList", function (i) { return (i < 0 || this.atomTensorList == null || i >= this.atomTensorList.length ? null : this.atomTensorList[i]); }, "~N"); Clazz.defineMethod (c$, "deleteAtomTensors", function (bsAtoms) { if (this.atomTensors == null) return; var toDelete = new JU.Lst (); for (var key, $key = this.atomTensors.keySet ().iterator (); $key.hasNext () && ((key = $key.next ()) || true);) { var list = this.atomTensors.get (key); for (var i = list.size (); --i >= 0; ) { var t = list.get (i); if (bsAtoms.get (t.atomIndex1) || t.atomIndex2 >= 0 && bsAtoms.get (t.atomIndex2)) list.removeItemAt (i); } if (list.size () == 0) toDelete.addLast (key); } for (var i = toDelete.size (); --i >= 0; ) this.atomTensors.remove (toDelete.get (i)); }, "JU.BS"); Clazz.defineMethod (c$, "setCapacity", function (nAtoms) { this.atomCapacity += nAtoms; }, "~N"); Clazz.defineMethod (c$, "setAtomTensors", function (atomIndex, list) { if (list == null || list.size () == 0) return; if (this.atomTensors == null) this.atomTensors = new java.util.Hashtable (); if (this.atomTensorList == null) this.atomTensorList = new Array (this.at.length); this.atomTensorList = JU.AU.ensureLength (this.atomTensorList, this.at.length); this.atomTensorList[atomIndex] = JM.AtomCollection.getTensorList (list); for (var i = list.size (); --i >= 0; ) { var t = list.get (i); t.atomIndex1 = atomIndex; t.atomIndex2 = -1; t.modelIndex = this.at[atomIndex].mi; this.addTensor (t, t.type); if (t.altType != null) this.addTensor (t, t.altType); } }, "~N,JU.Lst"); Clazz.defineMethod (c$, "addTensor", function (t, type) { type = type.toLowerCase (); var tensors = this.atomTensors.get (type); if (tensors == null) { this.atomTensors.put (type, tensors = new JU.Lst ()); tensors.ensureCapacity (this.atomCapacity); }tensors.addLast (t); }, "JU.Tensor,~S"); c$.getTensorList = Clazz.defineMethod (c$, "getTensorList", function (list) { var pt = -1; var haveTLS = false; var n = list.size (); for (var i = n; --i >= 0; ) { var t = list.get (i); if (t.forThermalEllipsoid) pt = i; else if (t.iType == 2) haveTLS = true; } var a = new Array ((pt >= 0 || !haveTLS ? 0 : 1) + n); if (pt >= 0) { a[0] = list.get (pt); if (list.size () == 1) return a; }if (haveTLS) { pt = 0; for (var i = n; --i >= 0; ) { var t = list.get (i); if (t.forThermalEllipsoid) continue; a[++pt] = t; } } else { for (var i = 0; i < n; i++) a[i] = list.get (i); }return a; }, "JU.Lst"); Clazz.defineMethod (c$, "getAtomTensor", function (i, type) { var tensors = this.getAtomTensorList (i); if (tensors != null && type != null) { type = type.toLowerCase (); for (var j = 0; j < tensors.length; j++) { var t = tensors[j]; if (t != null && (type.equals (t.type) || type.equals (t.altType))) return t; } }return null; }, "~N,~S"); Clazz.defineMethod (c$, "getAllAtomTensors", function (type) { if (this.atomTensors == null) return null; if (type != null) return this.atomTensors.get (type.toLowerCase ()); var list = new JU.Lst (); for (var e, $e = this.atomTensors.entrySet ().iterator (); $e.hasNext () && ((e = $e.next ()) || true);) list.addAll (e.getValue ()); return list; }, "~S"); Clazz.defineMethod (c$, "scaleVectorsToMax", function (max) { if (this.vibrations == null) return; var m = 0; var bsVib = JU.BS.newN (this.ac); for (var i = this.vibrations.length; --i >= 0; ) { var v = this.getVibration (i, false); if (v != null && (v.modDim == -1 || v.modDim == -2)) { m = Math.max (m, v.length ()); bsVib.set (i); }} if (m == max || m == 0) return; m = max / m; var ok = false; for (var i = bsVib.nextSetBit (0); i >= 0; i = bsVib.nextSetBit (i + 1)) { var v = this.getVibration (i, false); var mod = this.getModulation (i); if (mod == null) { if (m == 0) return; v.scale (m); } else { mod.scaleVibration (m); }if (!ok) { this.taintAtom (i, 12); ok = true; }} this.tainted[12].or (bsVib); }, "~N"); Clazz.defineMethod (c$, "getAtomsFromAtomNumberInFrame", function (atomNumber) { var bs = this.vwr.getFrameAtoms (); for (var i = bs.nextSetBit (0); i >= 0; i = bs.nextSetBit (i + 1)) if (this.at[i].getAtomNumber () != atomNumber) bs.clear (i); return bs; }, "~N"); Clazz.defineMethod (c$, "generateCrystalClass", function (atomIndex, pt) { var sym = (atomIndex < 0 || atomIndex >= this.ac ? null : this.at[atomIndex].getUnitCell ()); var isRandom = (pt != null && Float.isNaN (pt.x)); return (sym == null ? new JU.Lst () : sym.generateCrystalClass (isRandom ? null : pt != null ? pt : this.at[atomIndex])); }, "~N,JU.P3"); c$.$AtomCollection$AtomSorter$ = function () { Clazz.pu$h(self.c$); c$ = Clazz.decorateAsClass (function () { Clazz.prepareCallback (this, arguments); Clazz.instantialize (this, arguments); }, JM.AtomCollection, "AtomSorter", null, java.util.Comparator); Clazz.overrideMethod (c$, "compare", function (a, b) { return (a.i > b.i ? 1 : a.i < b.i ? -1 : 0); }, "JM.Atom,JM.Atom"); c$ = Clazz.p0p (); }; Clazz.defineStatics (c$, "almost180", 2.984513); c$.sqrt3_2 = c$.prototype.sqrt3_2 = (Math.sqrt (3) / 2); c$.vRef = c$.prototype.vRef = JU.V3.new3 (3.14159, 2.71828, 1.41421); Clazz.defineStatics (c$, "userSettableValues", null, "TAINT_ATOMNAME", 0, "TAINT_ATOMTYPE", 1, "TAINT_COORD", 2, "TAINT_ELEMENT", 3, "TAINT_FORMALCHARGE", 4, "TAINT_HYDROPHOBICITY", 5, "TAINT_BONDINGRADIUS", 6, "TAINT_OCCUPANCY", 7, "TAINT_PARTIALCHARGE", 8, "TAINT_TEMPERATURE", 9, "TAINT_VALENCE", 10, "TAINT_VANDERWAALS", 11, "TAINT_VIBRATION", 12, "TAINT_ATOMNO", 13, "TAINT_SEQID", 14, "TAINT_RESNO", 15, "TAINT_CHAIN", 16, "TAINT_MAX", 17); });