HandbookofComputationalChemistry JerzyLeszczynski(Ed.) Handbook of Computational Chemistry WithFiguresandTables 123 Editor JerzyLeszczynski DepartmentofChemistryandBiochemistry JacksonStateUniversity Jackson,MS39217 USA [email protected] ISBN978-94-007-0710-8 e-ISBN978-94-007-0711-5 DOI10.1007/978-94-007-0711-5 ISBNBundle978-94-007-0712-2 SpringerDordrechtHeidelbergLondonNewYork LibraryofCongressControlNumber:2011941760 ©SpringerScience+BusinessMediaB.V.2012 Nopartofthisworkmaybereproduced,storedinaretrievalsystem,ortransmittedinanyformorbyanymeans, electronic,mechanical,photocopying,microfilming,recordingorotherwise,withoutwrittenpermissionfromthe Publisher,withtheexceptionofanymaterialsuppliedspecificallyforthepurposeofbeingenteredandexecuted onacomputersystem,forexclusiveusebythepurchaserofthework. Printedonacid-freepaper SpringerispartofSpringerScience+BusinessMedia(www.springer.com) Preface Ithas beenanamazingexperience towitness andcomprehendtransformation of chemistry duringthetwentiethcentury.Sinceitsancientbeginnings,chemistryhasbeenconsideredto beanexperimentalscience.However,duringthelastyearsithasbeenadvancingthrough noticeablecontributionsofcomputationalmethods.Thistransformationhasitsrootsinboth theoreticalbreakthroughs(Heisenberg’sandSchrodinger’sfirstpapersonquantum mechanics) as well as developmentof the first computer – Electronic Numerical Integrator andComputer(ENIAC)buildinfortheUSADepartmentoftheArmy.However,ittook abouttwentyyearsaftercreationofENIACcomputerstodelivercomputationalchemistrytech- niques to scientific community. Such early methods being semi-empirical in nature rely on thenumberofparametersderivedfromexperiments.Thoughsuchanapproachunitesexper- imental chemistry origins with new theoretical approaches, in some cases it also produced artificial computational results. Further, it also lacks reliable parameters for some elements. Thenext,successfulchapterforcomputationalchemistrystartedintheswithapplications of non-empirical ab initio methods. The first ab initio computer code popular among non- theoreticians–GAUSSIAN–wasdevelopedinthesbyJohnAPople’sgroup.Itinitiated acomputationalchemistryrevolutionthatfiredupintheswhensupercomputersbecame accessibletothegeneralscientificcommunity.Alsoduringthisperiod,theDensityFunctional Theoryapproachesgainedaprominentpositionamongefficientcomputationalmethods.The vitalroleofcomputationalchemistryinmanyresearchareaswasconvincinglyacknowledgedin whenthechemicalandphysicalcommunitycelebratedtheNobelPrizethatwasawarded to two leading computational experts. Walter Kohn and John A. Pople were recognized by the Nobel Committee for their contributions to the developmentof efficient computational methodsforquantumchemistry. Over the years, different methodsof theoretical chemistry have been successfully trans- formedintousefultoolsthatcouldbeappliedindiverseareasofscientificandtechnological research.Owingtothefundamentalmethodologicaldevelopmentsandcontinuedimpressive progressincomputationaltechnologiesinthelastquarterofthetwentiethcentury,severalfast anduser-friendlyprogramshavebeendevelopedandmadeaccessibletoawidecommunityof scientists.Thesenearlyautomaticcomputercodesindicatehowmethodsoftheoreticalchem- istrycouldbeappliedasbothdiagnosticandpredictiveresearchtoolswhichsupportefforts andevenguidedirections oftraditional experimentalapproaches.Theuser-friendlyfeatures ofcommercialcodescombinedwithefficientvisualizationmethodsmakethemaccessibleto researcherswithpracticallyanyeducationalbackground.Generally,onlyalimitedknowledge andalittleformalexperienceintheoreticalchemistryarerequiredtousesuchprogramsandto obtainsomenumericaldata.Thismightcauseunexpectedoutcomes.Mostofthemethodsof theoretical(quantum)chemistryhavealimitedrangeofapplicationsandtheirusebyaninexpe- riencedamateurwhoperformscomputationalstudieswithoutunderstandingsuchconstraint mayleadtoseriousproblemsandspuriousresults.Moreover,duetotheavailabilityofavariety ofmethodsofdifferentquality,auserwithoutagoodbackgroundintheoreticalchemistrymay feellostgiventhechoicesfromusuallyrichmenusofavailableprograms. vi Preface Thethreevolume“HandbookofComputationalChemistry”isprimarilyintendedasaguide thatcanhelptonavigateamongdifferentcomputationalmethodscurrentlyinuse.Inorderto accomplishthisgoal,wecollectedchaptersthatprovidecompactdescriptionofthebasisof computationalchemistrytechniquesalongwithvastexamplesofapplicationsofthesemethods invariousareas.Thehandbookisdesignedforresearcherswhoarejustbeingintroducedto computationalmethods,aswellasforthosewhoaresearchingforthebestchoiceforsolution tospecificproblemsinvolvingtheoreticalapproaches. Thefirstvolumebrieflydescribesdifferentmethodsusedincomputationalchemistrywith- out going into exhaustive details of theory. Basic assumptions common to the majority of computational methodsbased on eitherquantum or statistical mechanics are outlined. Par- ticularattentionispaidtothelimitsoftheirapplicability.Importantly,thisvolumealsoestab- lishesdefinitionsofavarietyofacronymsandterminologyusedintheareaofcomputational chemistry. Sinceweassumedthatthereadersofthisbookareinterestedinapplicationsofcomputa- tionalmethods,abroadrangeofthemostimportantapplicationsofcomputationalchemistry isprovidedinthesecondsectionofthefirstvolume.Theapplicationsincludedescriptionsof standardchemicalcalculationsformodelmoleculesundervariousconditions.TheHandbook providesinformationonthepredictionofvariousmolecularpropertiesaswellasinvestigations ofchemicalreactions. Therearetwoclassesofspecies:biomoleculesandnanomaterialsthatareofavitalinterest notonlytochemistsbutalsotophysicists,biologists,andmaterialscientists.Twovolumesare devotedtoadescriptionofspecificcomputationalmethodsthataredesignedtoinvestigatesuch species.Numerousexamplesofapplicationsaswellasdescriptionsofspecificresearchproblems andtheirsolutionsforvarioustypesofbiomoleculesandnanoparticlesaregiveninthesecond andthirdvolumesoftheHandbook.Thereviewedtopicswillattracttheattentionofallthose whoarealreadyworkingorplanningtostartresearchinvolvingcomputationalapproaches. Theideaofthishandbookcrystallizedafternumerousdiscussionswithadearfriendandthe leadingPolishquantumchemistsAndrzejJ.Sadlej.Andrzejwasalsoactivelyinvolvedinselect- ingthepotentialcontributorsandeditingthebook.Unfortunately,hepassedawaybeforethe bookwaspublished.Thoughtheisnolongerwithus,hewillalwaysberemembered.Andrzej’s intellectualcontributionswillcontinuetoliveonandthisHandbook,whichisdedicatedtohim, isintendedasatributetohismemoryforfriends,colleaguesandstudentstorememberhim. TheEditors Editorial Board TheoryandMethodology AnnaKaczmarek-Ke˛dzieraandAndrzejJ.Sadlej ApplicationsofComputationalMethodstoModelSystems AnnaKaczmarek-Ke˛dzieraandAndrzejJ.Sadlej SolidStatesandNanomaterials ManthosG.PapadopoulosandHeribertReis Biomolecules ManojK.Shukla Table of Contents Preface........................................................................................................... v EditorialBoard................................................................................................ vii ListofContributors.......................................................................................... xiii Volume FromQuantumTheorytoComputationalChemistry.ABriefAccountof Developments........................................................................................... LucjanPiela ThePositionoftheClampedNucleiElectronicHamiltonianinQuantum Mechanics................................................................................................. BrianSutcliffe ⋅R.GuyWoolley RemarksonWaveFunctionTheoryandMethods............................................ DariuszKe˛dziera ⋅AnnaKaczmarek-Ke˛dziera DirectionsforUseofDensityFunctionalTheory:AShortInstructionManual forChemists.............................................................................................. HeikoJacobsen ⋅LuigiCavallo IntroductiontoResponseTheory.................................................................. ThomasBondoPedersen IntermolecularInteractions......................................................................... AlstonJ.Misquitta MolecularDynamicsSimulation:From“AbInitio”to“CoarseGrained”................ ChrisLorenz ⋅NikosL.Doltsinis StatisticalMechanicsofForce-InducedTransitionsofBiopolymers.................... SanjayKumar MolecularMechanics:MethodandApplications.............................................. ValeriPoltev MolecularStructureandVibrationalSpectra.................................................. JonBaker x TableofContents MolecularElectric,Magnetic,andOpticalProperties....................................... MichałJaszun´ski ⋅AntonioRizzo ⋅KennethRuud WeakIntermolecularInteractions:ASupermolecularApproach......................... MarkWaller ⋅StefanGrimme ChemicalReactions:ThermochemicalCalculations.......................................... JohnD.Watts CalculationofExcitedStates:MolecularPhotophysicsandPhotochemistryon Display..................................................................................................... LuisSerrano-Andre´s ⋅JuanJose´Serrano-Pe´rez SolventEffectsinQuantumChemistry........................................................... GeraldMonard ⋅Jean-LouisRivail AuxiliaryDensityFunctionalTheory:FromMoleculestoNanostructures............ PatriziaCalaminici ⋅Victor-DanielDomínguez-Soria ⋅RobertoFlores-Moreno ⋅GabrielUlises Gamboa-Martínez ⋅GeraldGeudtner ⋅AnnickGoursot ⋅DennisR.Salahub ⋅AndreasM.Ko¨ster GuidetoProgramsforNon-relativisticQuantumChemistryCalculations............ TaoZeng ⋅MariuszKlobukowski Volume FunctionalNanostructuresandNanocomposites–NumericalModeling ApproachandExperiment........................................................................... MalgorzataMakowska-Janusik ⋅Abdel-HadiKassiba StructuresandStabilityofFullerenes,Metallofullerenes,and TheirDerivatives........................................................................................ AlexeyA.Popov StructuresandElectricPropertiesofSemiconductorclusters............................ PanaghiotisKaramanis Structures,Energetics,andSpectroscopicFingerprintsof WaterClustersn=–............................................................................... SoohaengYoo ⋅SotirisS.Xantheas FundamentalStructural,Electronic,andChemicalPropertiesofCarbon Nanostructures:Graphene,Fullerenes,CarbonNanotubes,and TheirDerivatives........................................................................................ TandabanyC.Dinadayalane ⋅JerzyLeszczynski