商品簡介
A full understanding of modern chemistry is impossible without quantum theory. Since the advent of quantum mechanics in 1925, a number of chemical phenomena have been explained, such as electron transfer, excitation energy transfer, and other phenomena in photochemistry and photo-physics. Chemical bonds can now be accurately calculated with the help of a personal computer.
Addressing students of theoretical and quantum chemistry and their counterparts in physics, Chemical Physics: Electrons and Excitations introduces chemical physics as a gateway to fields such as photo physics, solid-state physics, and electrochemistry. Offering relevant background in theory and applications, it covers the foundations of quantum mechanics and molecular structure, as well as more specialized topics such as transfer reactions and photochemistry.
作者簡介
Sven Larsson is professor emeritus in Theoretical Chemistry at Chalmers University of Technology, Sweden. He has been teaching Physical Chemistry, Chemical Physics, and Quantum Chemistry for physicists and chemists for many years. His research has been directed to the theoretical description of problems in chemistry and biochemistry (photosynthesis, vision, and electron transfer), and solid state chemistry (conductivity and magnetism).
目次
Quantum TheoryIntroductionElectromagnetic RadiationElectronsTime-Independent Schrodinger EquationMathematical BackgroundVariation Principle: Linear ExpansionSpinMany-Electron TheoryAtomsAtomic UnitsHydrogen AtomEquation of Motion for Single ElectronsCorrelation and Multiplet TheoryAtoms in ChemistryMoleculesIntroductionChemical BondingPolyatomic MoleculesHueckel Model for Aromatic HydrocarbonsExcited StatesNuclear MotionIntroductionSeparation of Electronic and Nuclear CoordinatesClassical Molecular DynamicsQuantization of VibrationsVibrational SpectraVibrations in Electronic SpectraPES CrossingStatistical MechanicsIntroductionPartition Function and Thermodynamic PropertiesInternal Energy and Heat Capacity in Gas PhaseChemical ReactionsEquilibrium Statistical Mechanics Using EnsemblesNonequilibrium Statistical MechanicsIons in Crystals and in SolutionIntroductionIons in Aqueous SolutionCrystalsCrystal Field Theory for Transition Metal IonsLigand Field TheoryTime-dependent Quantum MechanicsIntroductionWave EquationTime Dependence as a PerturbationChemical KineticsIntroductionRate of Chemical ReactionsIntegrated Rate EquationsConsecutive ReactionsProton TransferIntroductionHydrogen BondingProton TransferElectron Transfer ReactionsIntroductionHomogeneous ET ReactionsElectrochemistryMarcus Parabolic Model for ETRate of ET ReactionsElectronic CouplingDisproportionationQuantized Nuclear MotionBiological Electron TransferIntroductionThe Living SystemElectron Carriers and Other Functional GroupsBiological Electron TransferPhotophysics and PhotochemistryIntroductionPhotophysicsMolecular PhotophysicsRate MeasurementsPhotochemistry: MechanismsPhotoinduced Electron TransferIntroductionCharge Transfer Transition in SpectraPolarization EnergyIntermolecular and Intramolecular PIETMolecular PhotovoltaicsExcitation Energy TransferIntroductionExcited States of BichromophoresTransition MomentsFluorescence Resonance Energy TransferPhotosynthesisIntroductionMolecules of PhotosynthesisAntenna SystemsBacterial Reaction CentersGreen Plant PhotosynthesisMetals and SemiconductorsIntroductionFree Electron Models and ConductivityTight-Binding ModelLocalization–DelocalizationSemiconductorsPhononsConductivity by Electron PairsIntroductionSuperconductivityCoupling and Correlation in Electron Pair TransferMV-3 Systems in the State Overlap RegionPair Conductivity in the Ground StateConductivity in Organic SystemsIntroductionOrganic SemiconductorsStacked, Conducting π SystemsConducting PolymersElectronic Structure of One-Dimensional CrystalsBibliographyAppendixIndex