物理有机化学

　　The end of the twentieth centory marks approximately one century of effort in attempting to understand the basis of chemical reactivity and the detailed pathways of reactions of organic compounds. The result can be viewed with some satisfaction in that broad principles have been established and the mechanisms of almost all reactions can now be said to be understood in modest detail. The subject has advanced in the eight years since the first edition was published. In particular， the availability of yet more powerful computers has permitted reaction pathways of processes such as Diels-Alder reactions to be mapped by computation with increasing accuracy and the properties of transition states and inaccessible molecules to be studied. Even a limited number of solvent molecules may be included in the computations which， whatever thc precision， has greatly enhanced understanding and increased confidence in results inferred from experimental measurements. Single electron transfer routes have revealed unexpected aspects of what were considered well-understood reactions such as nitration. Linear Free Energy Relationships， increasing in sophistication， continue to contribute powerfully to reactivity theory and the experimental measurement of electronic transmission. The theory and practise of chiral induction has come under increasing scrutiny following the economic importance of asymmetric synthesis while the involvement of metals in organic chemistry has reached the point which makes organometallic chemistry a subject of a size and complexity to warrant separate treatment and too great to be included within a book of this size.

暂缺《物理有机化学》作者简介

Foreword to first edition .
Foreword to second edition
Symbols and abbreviations
Mechanistic designations
1 Models of chemical bonding
　1.1 Covalency and molecular structure
　1.2 Approximate molecular orbital theory
　1.3 Properties of covalent bonds
　1.4 Intermolecular forces
　Problems
　References
2 Kinetics and tbermodynamics
　2.1 Enthalpy
　2.2 Entropy
　2.3 The Gibbs function， G
　2.4 Factors that contribute to entropy
　2.5 Chemical equilibrium
　2.6 Some useful thermodynamic relationships
　2.7 The application of thermodynamics to rate processes
　2.8 Properties of the transition state
2.9 The uses of activation parameters
2.10 The location of the transition state
Problems
References
3 Reagents and reaction mecbanisms
3.1 Polar and radical pathways
3.2 A classification of fundamental reaction types
3.3 Reaction mechanism
3.4 Electron supply and demand
3.5 Transition-state properties an structural change
Problems
References
4 Correlation of sturcture with reactivity
4.1 Electronic demansds
4.2 The Hammett equation
4.3 Substituent constants e
4.4 Theories of substituent effects
4.5 Interpretation of e-values
4.6 Reaction constans,p
4.7 Deviations from the Hammett equation
4.8 Dual-parameter correlations：the fowering of LFER
4.9 Molecular orbiatl considerations
4.10 Cross-interactin terms
Problems
References
5 Solvent effects
5.1 The structure of liquids
5.2 Solutions
5.3 Solvation
……
6 Acids and bases, electrophiles and nucleopbiles
7 Kinetic isotope effects
8 Steric and conformational properties
9 Homogeneous catalysis
10 Substitution reactions at carbon
11 Elimination reactions
12 Polar addition reactions
13 Intramolecular reactions
14 Pericyclic reactions
15 Reactions via free readicals
16 Organic photobemistry
Index