(特价书)高等有机化学--结构与机理(第五版)(英文影印版)

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自从1997年面世以来，《高等有机化学》作为学科首选教材的地位一直没有动摇过，广泛地覆盖了有机化合物的结构、反应活性及合成。她的第五版相对2001年出版的第四版进行了大幅度的修订，更新了学科发展的相关资料，内容组织更加清晰明朗，特别是计算化学部分。Part A从化合物结构和立体化学基础概念讲起，涉及有机化学反应热力学和动力学的方方面面。主要反应类型涵盖亲核取代反应、加成反应、碳负离子和羰基化学反应、芳环取代反应、周环反应、自由基反应和光化学反应。每章后附有习题精选及解答习题的推荐参考文献。
本书可供有机化学、药物化学和生物化学等专业的高年级本科生、研究生以及相关领域的科研人员参考。

Preface
Acknowledgment and Personal Statement
Introduction
Chapter 1. Chemical Bonding and Molecular Structure
Introduction
1.1. Description of Molecular Structure Using Valence Bond Concepts
1.1.1. Hybridization
1.1.2. The Origin of Electron-Electron Repulsion
1.1.3. Electronegativity and Polarity
1.1.4. Electronegativity Equalization
1.1.5. Differential Electronegativity of Carbon Atoms
1.1.6. Polarizability, Hardness, and Softness
1.1.7. Resonance and Conjugation
1.1.8. Hyperconjugation
1.1.9. Covalent and van der Waals Radii of Atoms
1.2. Molecular Orbital Theory and Methods
1.2.1. The Hiickel MO Method
1.2.2. Semiempirical MO Methods
1.2.3. Ab Initio Methods
1.2.4. Pictorial Representation of MOs for Molecules

　　This Fifth Edition marks the beginning of the fourth decade that Advanced Organic Chemistry has been available. As with the previous editions, the goal of this text is to allow students to build on the foundation of introductory organic chemistry and attain a level of knowledge and understanding that will permit them to comprehend much of the material that appears in the contemporary chemical literature. There have been major developments in organic chemistry in recent years, and these have had a major influence in shaping this new edition to make it. more useful to students, instructors,and other readers.
　　The expanding application of computational chemistry is reflected by amplified discussion of this area, especially density function theory (DFT) calculations in Chapter 1. Examples of computational studies are included in subsequent chapters that deal with specific structures, reactions and properties. Chapter 2 discusses the principles of both configuration and conformation, which were previously treated in two separate chapters. The current emphasis on enantioselectivity, including devel-opment of many enantioselective catalysts, prompted the expansion of the section on stereoselective reactions to include examples of enantioselective reactions. Chapter 3,which covers the application of thermodynamics and kinetics to organic chemistry,has been reorganized to place emphasis on structural effects on stability and reactivity.This chapter lays the groundwork for later chapters by considering stability effects on carbocations, carbanions, radicals, and carbonyl compounds.
　　Chapters 4 to 7 review the basic substitution, addition, and elimination mecha-nisms, as well as the fundamental chemistry of carbonyl compounds, including enols and enolates. A section on of the control of regiochemistry and stereo- chemistry of aldol reactions has been added to introduce the basic concepts of this important area. A more complete treatment, with emphasis on synthetic applications, is given in Chapter 2 of Part B.
　　Chapter 8 deals with aromaticity and Chapter 9 with aromatic substitution, empha-sizing electrophilic aromatic substitution. Chapter 10 deals with concerted pericyclic reactions, with the aromaticity of transition structures as a major theme. This part of the text should help students solidify their appreciation of aromatic stabilization as a fundamental concept in the chemistry of conjugated systems. Chapter 10 also considers the important area of stereoselectivity of concerted pericyclic reactions. Instructors may want to consider dealing with these three chapters directly after Chapter 3, and we believe that is feasible..
　　Chapters 11 and 12 deal, respectively, with free radicals and with photochemistry and, accordingly, with the chemistry of molecules with unpaired electrons. The latter chapter has been substantially updated to reflect the new level of understanding that has come from ultrafast spectroscopy and computational studies.
　　As in the previous editions, a significant amount of specific information is provided in tables and schemes. These data and examples serve to illustrate the issues that have been addressed in the text. Instructors who want to achieve a broad coverage,but without the level of detail found in the tables and schemes, may choose to advise students to focus on the main text. In most cases, the essential points are clear from the information and examples given in the text itself.
　　We have made an effort to reduce the duplication between Parts A and B. in general, the discussion of basic mechanisms in Part B has been reduced by cross-referencing the corresponding discussion in Part A. We have expanded the discussion of specific reactions in Part A, especially in the area of enantioselectivity and enantios-elective catalysts.
　　We have made more extensive use of abbreviations than in the earlier editions.In particular, EWG and ERG are used throughout both Parts A and B to designate electron-withdrawing and electron-releasing substituents, respectively. The intent is that the use of these terms will help students generalize the effect of certain substituents such as C=O, C≡N, NO2, and RSO2 as electron withdrawing and R (alkyl) and RO (alkoxy) as electron releasing. Correct use of this shorthand depends on a solid under-standing of the interplay between polar and resonance effects in overall substituent effects. This matter is discussed in detail in Chapter 3 and many common functional groups are classified.
　　Several areas have been treated as "Topics". Some of the Topics discuss areas that are still in a formative stage, such as the efforts to develop DFT parameters as quantitative reactivity indices. Others, such as the role of carbocations in gasoline production, have practical implications.
　　We have also abstracted information from several published computational studies to present three-dimensional images of reactants, intermediates, transition structures,and products. This material, including exercises, is available at the publishers web site,and students who want to see how the output of computations can be applied may want to study it. The visual images may help toward an appreciation of some of the subtle effects observed in enantioselective and other stereoselective reactions. As in previous editions, each chapter has a number of problems drawn from the literature. A new feature is solutions to these problems, which are also provided at the publisher's website at springer.com/carey-sundberg
　　Our goal is to present a broad and fairly detailed view of the core area of organic reactivity. We have approached this goal by extensive use of both the primary and review literature and the sources are referenced. Our hope is that the reader who works through these chapters, problems, topics, and computational studies either in an organized course or by self-study will be able to critically evaluate and use the current literature in organic chemistry in the range of fields in which is applied, including the pharmaceutical industry, agricultural chemicals, consumer products, petroleum chemistry, and biotechnology. The companion volume, Part B, deals extensively with organic synthesis and provides many more examples of specific reactions...
　　

　　The stabilization provided by various functional groups contributes to reducedBDEs for bonds to the stabilized radical center. Computational methods can be usedto assess these effects. The BDE can be calculated by comparing the total energy ofthe dissociated radicals with the reactant. Differences in bond dissociation energiesrelative to methane （ABDE） can be taken as a measure of the stabilizing effect of thesubstituent on the radical. Some computed ABDE values are given in Table 3.19 andcompared with experimental values. As an example of the substituent effect on BDEs,it can be seen that the primary C-H bonds in acetonitrile （12 kcal/mol） and acetone（11 kcal/mol） are significantly weaker than a primary C-H bond in methane. The datashow that both electron-releasing and electron-with&awing functional groups stabilizeradicals. The strong bond-weakening effect of amino substituents is noteworthy, bothin its size and the apparent underestimation of this effect by the computations. A recentreevaluation of the ABDE for amines arrived at a value of 13 + 1 kcal/mol, which isin better agreement with the calculations.102b