《物理化學(xué)（下）》教學(xué)大綱

1、物理化學(xué)下 課程教學(xué)大綱課程代碼：09041043課程類(lèi)別：大類(lèi)基礎(chǔ)課程授課對(duì)象：強(qiáng)化班開(kāi)課學(xué)期：春季學(xué) 分：3 學(xué)分指定教材： Peter Atkins, Julio de Paula Eighth Edition Oxford University Press 2006一、教學(xué)目的：Physical chemistry is a demanding but richly rewarding subject. It underlies all chemistry, and is becoming increasingly important as the investigative and

2、computational aspects of chemistry become more sophisticated. This course will give you an introduction to the wide range of topics that constitute physical chemistry. This course focused on three parts of equilibrium, structure and change. It begins with the introduction of gases, thermodynamics, p

3、hase diagram, chemical equilibrium and electrochemistry. The second part includes the historical development of quantum theory, molecular structure and symmetry, spectroscopy and statistical thermodynamics. In the last part, the kinetics, processes at solid surface and dynamics of electron transfer

4、will be presented. This course will provide a fundamental grounding in thermodynamics, kinetics, quantum theory, spectroscopy, electrochemistry, surface chemistry and that can be applied to any field of chemistry. 物理化學(xué)是一門(mén)要求很高但非常有用的學(xué)科。是所有化學(xué)專(zhuān)業(yè)的主干基礎(chǔ)學(xué)科，并當(dāng)化學(xué)的研究以及計(jì)算方向變得更復(fù)雜時(shí)起著越來(lái)越重要的作用。課程介紹了組成物理化學(xué)的寬范圍的主題，主要

5、集中在平衡，結(jié)構(gòu)和變化三部分。本課程首先介紹氣體，熱力學(xué)，相圖，化學(xué)平衡以及電化學(xué)相關(guān)知識(shí)。第而部分主要包括量子理論的發(fā)展歷史，分子結(jié)構(gòu)及對(duì)稱(chēng)性，光譜學(xué)和統(tǒng)計(jì)熱力學(xué)。最后一部分主要介紹動(dòng)力學(xué)，固體表面結(jié)構(gòu)和電子轉(zhuǎn)移動(dòng)力學(xué)。總之通過(guò)該改課程的學(xué)習(xí)主要獲得有關(guān)熱力學(xué)，動(dòng)力學(xué)，量子理論，光譜學(xué)，電化學(xué)以及表面化學(xué)等基礎(chǔ)知識(shí)，并可應(yīng)用化學(xué)學(xué)科的所有分支領(lǐng)域。二、課程內(nèi)容Part 1 Equilibrium 10 Equilibrium electrochemistry The thermodynamic properties of ions in solution 10.1 Thermodynamic

6、 functions of formation 10.2 Ion activities Electrochemical cells 10.3 Half-reactions and electrodes 10.4 Varieties of cells 10.5 Standard potentials Applications of standard potentials 10.6 The electrochemical series 10.7 The measurement of pH and pKa 10.8 Thermodynamic functions Part 2 Structure 1

7、1 Quantum theory: introduction and principles The origins of quantum mechanics 11.1 The failures of classical physics 11.2 Wave-particle duality The dynamics of microscopic systems 11.3 The Schr6dinger equation 11.4 The Born interpretation of the wavefunction Quantum mechanical principles 11.5 The i

8、nformation in a wavefunction 11.6 The uncertainty principle 12 Quantum theory: techniques and applications Translational motion 12.1 A particle in a box 12.2 Motion in two and more dimensions 12.3 TunnellingVibrational motion 12.4 The energy levels 12.5 The wavefunctions Rotational motion 12.6 Rotat

9、ion in two dimensions: the particle on a ring 12.7 Rotation in three dimensions: the particle on a sphere 12.8 Spin Techniques of approximation 12.9 Time-independent perturbation theory 12.10 Time-dependent perturbation theory 13 Atomic structure and atomic spectra The structure and spectra of hydro

10、genic atoms 13.1 The structure of hydrogenic atoms 13.2 Atomic orbitals and their energies 13.3 Spectroscopic transitions and selection rules The structures of many-electron atoms 13.4 The orbital approximation 13.5 Self-consistent field orbitalsThe spectra of complex atoms 13.6 Quantum defects and

11、ionization limits 13.7 Singlet and triplet states 13.8 Spin-orbit coupling 13.9 Term symbols and selection rules 14 Molecular structure The Born-Oppenheimer approximation Valence-bond theory 14.1 The hydrogen molecule 14.2 Homonuclear diatomic molecules 14.3 Polyatomic molecules Molecular orbital th

12、eory 14.4 The hydrogen molecule-ion 14.5 The structures of diatomic molecules 14.6 Heteronuclear diatomic molecules Molecular orbitals for polyatomic systems 14.7 The Huckel approximation 14.8 Extended Huckel theory 14.9 Self-consistent field calculations 16 Spectroscopy 1: rotational and vibrationa

13、l spectra General features of spectroscopy 16.1 Experimental techniques 16.2 The intensities of spectral lines 16.3 Linewidths Pure rotation spectra 16.4 Moments of inertia 16.5 The rotational energy levels 10.6 Rotational transitions 16.7 Rotational Raman spectra 16.8 Nuclear statistics and rotatio

14、nal states The vibrations of diatomic molecules 16. 9 Molecular vibrations 16.10 Selection rules 16.11 Anharmonicity 16.12 Vibration-rotation spectra 16.13 Vibrational Raman spectra of diatomic molecules The vibrations of polyatomic molecules 16.14 Normal modes 16.15 Infrared absorption spectra of p

15、oly atomic molecules 16.16 Vibrational Raman spectra of poly atomic molecules 16.17 Symmetry aspects of molecular vibrations 17 Spectroscopy 2: electronic transitions The characteristics of electronic transitions 17.1 The electronic spectra of diatomic molecules 17.2 The electronic spectra of poly a

16、tomic molecules The fates of electronically excited states 17.3Fluorescence and phosphorescence 17.4 Dissociation and predissociation Lasers17.5 General principles of laser action 17.6 Practical lasers 17.7 Applications of lasers in chemistryPhotoelectron spectroscopy 17.8 The technique 17.9 Ultravi

17、olet photoelectron spectroscopy 17.10 X-ray photoelectron spectroscopy 18 Spectroscopy 3: magnetic resonance The effect of magnetic fields on electrons and nuclei 18.1 The energies of electrons in magnetic fields 18.2 The energies of nuclei in magnetic fields 18.3 Magnetic resonance spectroscopy Nuc

18、lear magnetic resonance 18.4 The NMR spectrometer 18.5 The chemical shift 18.6 The fine structure Pulse techniques in NMR 18.7 The magnetization vector 18.8 Linewidths and rate processes 18.9 Spin decoupling 18.10 The nuclear Overhauser effect18.11 Two-dimensional NMR 18.12 Solid-state NMR Electron

19、spin resonance 18.13 The ESR spectrometer 18.14 The g-value 18.15 Hyperfine structure 19 Statistical thermodynamics: the concepts The distribution of molecular states 19.1 Configurations and weights 19.2 The molecular partition function The internal energy and the entropy 19.3 The internal energy 19

20、.4 The statistical entropy The canonical partition function 19.5 The canonical ensemble 19.6 The thermodynamic information in the partition function19.7 Independent molecules 20 Statistical thermodynamics: the machinery Fundamental relations 20.1 The thermodynamic functions 20.2 The molecular partition function Using statistical thermodynamics 20.3 Mean energies 20.4 Heat capacities 20.5 Equations of state 20.6 Residual entropies 20.7 Equilibrium constants 三、各章課時(shí)分配表 章序號(hào)章內(nèi)容學(xué)時(shí)數(shù)10Equilibrium electrochemistry611Qu