The crystallization of proteins and nucleic acids and/or their complexes has become more highly automated but is still often a trial and error based approach. In parallel, a number of X-ray diffraction based techniques have been developed which explain the physical reasons limiting the resulting crystallographic data and thus show how that data may be improved. Crystal growth is also pivotal in neutron crystallography, which establishes the hydrogen and hydration aspects. Thus this book is aimed at addressing the science behind obtaining the best and most complete structural data possible for biological macromolecules, so that the detailed structural biology and chemistry of these important molecules emerge. Crystal imperfections such as twinning and lattice disorders, as well as multiple crystal situations, and their possible remedies, are also described. The small crystal frontier in micro-crystal crystallography, crystallites in powders and finally down to the proposed single molecule structure determination of X-ray lasers are covered. Overall this interdisciplinary book will interest crystal growers, X-ray and neutron physicists and the biological crystallographers, including graduate students.

Physical Chemistry is a difficult and diversified subject. Based on a good long spell of university teaching, this book lays emphasis on the structure and continuity of the whole subject and tries to show the relation of its various parts to one another. Certain themes or, one might almost say, leitmotifs run through physical chemistry, and these have been used to unify the composition. The treatment is neither historical nor formally deductive, but at each stage the author tries to indicate the route by which an inquiring mind might most simply and naturally proceed in its attempt to understand that part of the nature of things included in physical chemistry.

Over the past few decades, experimental excited state chemistry has moved into the femtochemistry era, where time resolution is short enough to resolve nuclear dynamics. Recently, the time resolution has moved into the attosecond domain, where electronic motion can be resolved as well. Theoretical chemistry is becoming an essential partner in such experimental investigations; not only for the interpretation of the results, but also to suggest new experiments. This book provides an integrated approach. The three main facets of excited-state theoretical chemistry; namely, mechanism, which focuses on the shape of the potential surface along the reaction path, multi-state electronic structure methods, and non-adiabatic dynamics, have been brought together into one volume. Theoretical Chemistry for Electronic Excited States is aimed at both theorists and experimentalists, involved in theoretical chemistry, in electronic structure computations and in molecular dynamics. The book will provide both with the knowledge and understanding to discover ways to work together more closely through its unified approach.

This book provides an introduction to optical multidimensional coherent spectroscopy, a relatively new method of studying materials based on using ultrashort light pulses to perform spectroscopy. The technique has been developed and perfected over the last 25 years, resulting in multiple experimental approaches and applications to a broad array of systems ranging from atoms and molecules to solids and biological systems. Indeed, while this method is most often used by physical chemists, it is also relevant to materials of interest to physicists, which is the primary focus of this book. As well as an introduction to the method, the book also provides tutorials on the interpretation of the rather complex spectra that is broadly applicable across all subfields, and finishes with a survey of several emerging material systems and a discussion of future directions.

This innovative text offers basic understanding of the electronic structure of covalent and ionic solids, simple metals, transition metals and their compounds. It also explains how to calculate dielectric, conducting and bonding properties for each. With a useful "Solid State Table of the Elements."

The theory of intermolecular forces has advanced very greatly in recent years. It has become possible to carry out accurate calculations of intermolecular forces for molecules of useful size, and to apply the results to important practical applications such as understanding protein structure and function, and predicting the structures of molecular crystals. The Theory of Intermolecular Forces sets out the mathematical techniques that are needed to describe and calculate intermolecular interactions and to handle the more elaborate mathematical models. It describes the methods that are used to calculate them, including recent developments in the use of density functional theory and symmetry-adapted perturbation theory. The use of higher-rank multipole moments to describe electrostatic interactions is explained in both Cartesian and spherical tensor formalism, and methods that avoid the multipole expansion are also discussed. Modern ab initio perturbation theory methods for the calculation of intermolecular interactions are discussed in detail, and methods for calculating properties of molecular clusters and condensed matter for comparison with experiment are surveyed.

This book deals with a central topic at the interface of chemistry and physics - the understanding of how the transformation of matter takes place at the atomic level. Building on the laws of physics, the book focuses on the theoretical framework for predicting the outcome of chemical reactions. The style is highly systematic with attention to basic concepts and clarity of presentation. Molecular reaction dynamics is about the detailed atomic-level description of chemical reactions. Based on quantum mechanics and statistical mechanics or, as an approximation, classical mechanics, the dynamics of uni- and bi-molecular elementary reactions are described. The book features a detailed presentation of transition-state theory which plays an important role in practice, and a comprehensive discussion of basic theories of reaction dynamics in condensed phases. Examples and end-of-chapter problems are included in order to illustrate the theory and its connection to chemical problems.

Time-dependent density-functional theory (TDDFT) describes the quantum dynamics of interacting electronic many-body systems formally exactly and in a practical and efficient manner. TDDFT has become the leading method for calculating excitation energies and optical properties of large molecules, with accuracies that rival traditional wave-function based methods, but at a fraction of the computational cost. This book is the first graduate-level text on the concepts and applications of TDDFT, including many examples and exercises, and extensive coverage of the literature. The book begins with a self-contained review of ground-state DFT, followed by a detailed and pedagogical treatment of the formal framework of TDDFT. It is explained how excitation energies can be calculated from linear-response TDDFT. Among the more advanced topics are time-dependent current-density-functional theory, orbital functionals, and many-body theory. Many applications are discussed, including molecular excitations, ultrafast and strong-field phenomena, excitons in solids, van der Waals interactions, nanoscale transport, and molecular dynamics.

Acids and bases are ubiquitous in chemistry. Our understanding of them, however, is dominated by their behaviour in water. Transfer to non-aqueous solvents leads to profound changes in acid-base strengths and to the rates and equilibria of many processes: for example, synthetic reactions involving acids, bases and nucleophiles; isolation of pharmaceutical actives through salt formation; formation of zwitter- ions in amino acids; and chromatographic separation of substrates. This book seeks to enhance our understanding of acids and bases by reviewing and analysing their behaviour in non-aqueous solvents. The behaviour is related where possible to that in water, but correlations and contrasts between solvents are also presented. Fundamental background material is provided in the initial chapters: quantitative aspects of acid-base equilibria, including definitions and relationships between solution pH and species distribution; the influence of molecular structure on acid strengths; and acidity in aqueous solution. Solvent properties are reviewed, along with the magnitude of the interaction energies of solvent molecules with (especially) ions; the ability of solvents to participate in hydrogen bonding and to accept or donate electron pairs is seen to be crucial. Experimental methods for determining dissociation constants are described in detail. In the remaining chapters, dissociation constants of a wide range of acids in three distinct classes of solvents are discussed: protic solvents, such as alcohols, which are strong hydrogen-bond donors; basic, polar aprotic solvents, such as dimethylformamide; and low-basicity and low polarity solvents, such as acetonitrile and tetrahydrofuran. Dissociation constants of individual acids vary over more than 20 orders of magnitude among the solvents, and there is a strong differentiation between the response of neutral and charged acids to solvent change. Ion-pairing and hydrogen-bonding equilibria, such as between phenol and phenoxide ions, play an increasingly important role as the solvent polarity decreases, and their influence on acid-base equilibria and salt formation is described.

In the modern world of ever smaller devices and nanotechnology, electron crystallography emerges as the most important method capable of determining the structure of minute objects down to the size of individual atoms. Crystals of only a few millionths of a millimetre are studied. This is the first textbook explaining how this is done. Great attention is given to symmetry in crystals and how it manifests itself in electron microscopy and electron diffraction, and how this symmetry can be determined and taken advantage of in achieving improved electron microscopy images and solving crystal structures from electron diffraction patterns. Theory and practice are combined; experimental images, diffraction patterns, formulae and numerical data are discussed in parallel, giving the reader a complete understanding of what goes on inside the "black boxes" of computer programs. This up-to-date textbook contains the newest techniques in electron crystallography, including detailed descriptions and explanations of the recent remarkable successes in determining the very complex structures of zeolites and intermetallics. The controversial issue of whether there is phase information present in electron micrsocopy images or not is also resolved once and for all. The extensive appendices include computer labs which have been used at various courses at Stockholm University and international schools in electron crystallography, with applications to the textbook. Students can download image processing programs and follow these lab instructions to get a hands-on experience of electron crystallography.

Selected Works of Ya. B. Zeldovich is a two-volume collection of over 100 articles spanning half a century of work by the late Soviet scientist Yakov Borisovich Zeldovich. The breadth and depth of Zeldovich's work is staggering. Author of over twenty books and more than 500 scientific articles, he made fundamental contributions in chemical catalysis and kinetics, combustion and the hydrodynamics of explosive phenomena, nuclear chain reactions and nuclear energy, the physics of elementary particles, and the large-scale structure of the universe and cosmology. The importance of this collection lies not only in its documentary value as a collection of key scientific works by a man whose genius was characterized by the Soviet physicist Andrei Sakharov as "probably unique." Zeldovich himself considered his most valuable role to be that of a teacher, to convey to young scientists the how of science. The author of several excellent textbooks on topics ranging from elementary mathematics to advanced methods of mathematical physics, he saw this collection of works, enlarged from the original Russian edition, as a contribution to that end. Here one can see the scientific method at work--and all the enthusiasm, the breakthroughs, and the mistakes associated with real scientific endeavor. Commentaries by the author and the editors are included with each paper serving to enhance both the historical and the pedagogical value of this edition. Originally published in 1992. The Princeton Legacy Library uses the latest print-on-demand technology to again make available previously out-of-print books from the distinguished backlist of Princeton University Press. These editions preserve the original texts of these important books while presenting them in durable paperback and hardcover editions. The goal of the Princeton Legacy Library is to vastly increase access to the rich scholarly heritage found in the thousands of books published by Princeton University Press since its founding in 1905.

Over the past several decades, a This book deals with the characterisation of the structure, the structure determination and the study of the physical properties, especially dynamical and electronic properties of aperiodic crystals. The treatment is based on a description in a space with more dimensions than three, the so-called superspace. This allows us to generalise the standard crystallography and to look differently at the dynamics. The three main classes of aperiodic crystals, modulated phases, incommensurate composites and quasicrystals are treated from a unified point of view, which stresses similarities of the various systems. The book assumes as a prerequisite a knowledge of the fundamental techniques of crystallography and the theory of condensed matter, and covers the literature at the forefront of the field. Since the first edition of this book in 2007, the field of aperiodic crystals has developed considerably, with the discovery of new materials and new structures. Progress has been made in structure determination, in the interpretation and understanding of the structural characteristics and in the calculation of electrons and phonons. This new edition reflects these new developments, and it includes discussions of natural quasicrystals, incommensurate magnetic and multiferroic structures, photonic and mesoscopic quasicrystals. The second edition also includes a number of new exercises that give the reader an opportunityt to check their understanding of the material.

Since their development in the 1990s, it has been discovered that diluted nitrides have intriguing properties that are not only distinct from those of conventional semiconductor materials, but also are conducive to various applications in optoelectronics and photonics. The book examines these applications and presents a broad and in-depth look at the basic electronic and optical properties of diluted nitrides. The aim of Physics and Applications of Diluted Nitrides is to provide graduate students, researchers and engineers with a comprehensive overview of the present knowledge and future perspectives of diluted nitrides. Co-authored by a group of leading scientists in the field, this book brings the reader up to speed on the development and current state of diluted nitride applications, as well as the technologies to be developed in the near future.

Scattering theory provides a framework for understanding the scattering of waves and particles. This book presents a simple physical picture of diffractive nuclear scattering in terms of semi-classical trajectories, illustrated throughout with examples and case studies. Trajectories in a complex impact parameter plane are discussed, and it stresses the importance of the analytical properties of the phase shift function in this complex impact plane in the asymptotic limit. Several new rainbow phenomena are also discussed and illustrated. Written by Nobel Prize winner Roy J. Glauber, and Per Osland, an expert in the field of particle physics, the book illustrates the transition from quantum to classical scattering, and provides a valuable resource for researchers using scattering theory in nuclear, particle, atomic and molecular physics.

Preface; Ozonation of Hydrocarbons; Synthesis & Investigation Properties of Epoxy Containing Compounds & Composite Materials on their Basis; Biodegradable Binary & Ternary Blends of Cellulose & Ethyl Cellulose with Synthetic & Natural Polymers; Hydrosilylation Reactions of Polymethylhydrosiloxane with Acrylates & Methacrylates & Solid Polymer Electrolyte Membranes on their Basis; Biodetoxication of Aromatic Hydrocarbons in Aqueous Media; Modern Immunochemical & Biosensor Technologies for Analysis of Environmental Ecotoxicants; Poly (3-Hydroxybutyrate) with Ethylene-Propylene Copolymer Blends: Structure & Calorimetry Properties; Adaptogens Decrease the Generation of Reactive Oxygen Species by Mitochondria; Quantum-Chemical Calculation of Some Molecules Aromatic Olefines by the Method MNDO; Formation of Ozonides & their Stability in the Process of Unsaturated Polymers In Latex; Structures (Monomer & Dimer) of Sodium & Potassium 2-(N-Methylamide)-2-(3',5'-Di-Tert.Butyl-4-Hydroxybenzyl)-Malonates & Biological Properties; Reaction of Ozone with Some Oxygen-Containing Organic Compounds; Enhanced Oil Recovery Using Binary Mixture (BM) Reaction Products as an Alternative to Increasing Reservoir Water Content; Assessment of the Potential of Enhanced Oil Recovery from Reservoirs with High Water Content Using the Heat of Nitrate Oxidation Reactions & In Situ Hydrocarbon Oxidation; Blends of Poly(3-Hydroxybutyrate) with an Ethylene-Propylene Copolymer; Kinetics of Photoinitiated Copolymerization of Bifunctional (Meth)Acrylates till High Conversion: Numerical Verification of Kinetic Model of the Process; Degradation of Films Based on Mixtures of Vinyl Alcohol with Vinyl Acetate Copolymers & Polyhydroxybutyrate under UV-Radiation; Nanofibrous Polyhydroxybutyrate-Based Biomaterials; Influence of Aminoalkoxy- & Glycidoxyalkoxysilanes on Adhesion Characteristics of Ethylene Copolymers; The Study of Influence of Dihydroquercetin & Cyclodextrin Inclusion Complex with the New Dihydroquercetin Derivative on Ozone Oxidation of Fibrinogen; Challenges & Development Perspectives on Nanopatterned Implants Loaded with Drugs; The Structural Analysis of Nanocomposites Polymer/Organoclay Flame-Resistance; The Regularity of Cracks Formation on Vulcanized Elastomers under Ozone Action: Polyisoprene; The Evaluation of Efficiency of Deposition of Dispersed Particles in Inertial Dust Separator; Comparative Evaluation of Viability of Cells of Probiotic Strains by Luminescence Microscopy & Flow Cytometry; The Interrelation Structure & Thermodynamic Properties in the Five-Membered O- & N-Heterocyclic Compounds; Thermodynamic Properties & Structure of Heteroatom Derivatives of Indene; Development of Thermoplastic Vulcanizates Based on Isotactic Polypropylene & Ethylene-Propylene-Diene Elastomer; Conclusion; Index.

This classic monograph provided the first comprehensive account of the physics and chemistry of ice, and remains authoritative and relevant today. Informed by research from physicists, chemists, glaciologists, meteorologists, geophysicists, and molecular biologists, the book places emphasis on the basic physical properties of ice (electrical, optical, mechanical, and thermal), the modes of nucleation and growth of ice, and the interpretation of these phenomena in terms of molecular structure. Applied aspects of ice physics are also discussed. The book should serve both as a reference on ice physics for research workers and as a unified survey of the subject for those new to the field.

This book consists of over 422 problems and their acceptable answers on structural inorganic chemistry at the senior undergraduate and beginning graduate level. The central theme running through these questions is symmetry, bonding and structure: molecular or crystalline. A wide variety of topics are covered, including Electronic States and Configurations of Atoms and Molecules, Introductory Quantum Chemistry, Atomic Orbitals, Hybrid Orbitals, Molecular Symmetry, Molecular Geometry and Bonding, Crystal Field Theory, Molecular Orbital Theory, Vibrational Spectroscopy, Crystal Structure, Transition Metal Chemistry, Metal Clusters: Bonding and Reactivity, and Bioinorganic Chemistry. The questions collected here originate from the examination papers and take-home assignments arising from the teaching of courses in Chemical Bonding, Elementary Quantum Chemistry, Advanced Inorganic Chemistry, and X-Ray Crystallography by the book's two senior authors over the past five decades. The questions have been tested by generations of students taking these courses. The questions in this volume cover essentially all the topics in a typical course in structural inorganic chemistry. The text may be used as a supplement for a variety of inorganic chemistry courses at the senior undergraduate level. It also serves as a problem text to accompany the book Advanced Structural Inorganic Chemistry, co-authored by W.-K. Li, G.-D. Zhou, and T. C. W. Mak (Oxford University Press, 2008).

If the text you're using for general chemistry seems to lack sufficient mathematics and physics in its presentation of classical mechanics, molecular structure, and statistics, this complementary science series title may be just what you're looking for. Written for the advanced lower-division undergraduate chemistry course, "The Physical Basis of Chemistry, Second Edition," offers students an opportunity to understand and enrich the understanding of physical chemistry with some quantum mechanics, the Boltzmann distribution, and spectroscopy. Posed and answered are questions concerning everyday phenomena. Unlike other texts on this subject, however, Dr. Warren deals directly with the substance of the questions, avoiding the use of predigested material more appropriate for memorization exercises than for actual concrete learning. The only prerequisite is first-semester calculus or familiarity with one-variable derivatives. In this new edition, the entire text has been rewritten and keyed with an accompanying website, which contains instructive QuickTime movies on topics presented in the text to enhance student learning and participation.

The study of surfaces has experienced dramatic growth over the past decade. Now, the editors of the internationally celebrated series Advances in Chemical Physics have brought together in this self-contained, special topic volume contributions from leading researchers in the field treating some of the most crucial aspects of the experimental and theoretical study of surfaces. This work delves into such core issues as:
* Kinetics and dynamics of hydrogen adsorption on silicon surfaces.
* Potential energy surfaces of transition- metal-catalyzed chemical reactions.
* High-resolution helium atom scattering as a proof of surface vibrations.
* Ordering and phase transitions in adsorbed monolayers of diatomic molecules.
* The influence of dimensionality on static and dynamic properties of a system.
* New applications to fields as varied as catalysts and the passage of molecules through membranes.
This valuable resource provides important insights into the current state of knowledge about surface properties. Prigogine and Rice's latest work will stimulate the imagination and motivate the exploration of other aspects of this fascinating subject.

The use of quantum chemistry for the quantitative prediction of molecular properties has long been frustrated by the technical difficulty of carrying out the needed computations. In the last decade there have been substantial advances in the formalism and computer hardware needed to carry out accurate calculations of molecular properties efficiently. These advances have been sufficient to make quantum chemical calculations a reliable tool for the quantitative interpretation of chemical phenomena and a guide to laboratory experiments. However, the success of these recent developments in computational quantum chemistry is not well known outside the community of practitioners. In order to make the larger community of chemical physicists aware of the current state of the subject, this self-contained volume of Advances in Chemical Physics surveys a number of the recent accomplishments in computational quantum chemistry.
This stand-alone work presents the cutting edge of research in computational quantum mechanics. Supplemented with more than 150 illustrations, it provides evaluations of a broad range of methods, including:
* Quantum Monte Carlo methods in chemistry
* Monte Carlo methods for real-time path integration
* The Redfield equation in condensed-phase quantum dynamics
* Path-integral centroid methods in quantum statistical mechanics and dynamics
* Multiconfigurational perturbation theory-applications in electronic spectroscopy
* Electronic structure calculations for molecules containing transition metals
* And more
Contributors to New Methods in Computational Quantum Mechanics
KERSTIN ANDERSSON, Department of Theoretical Chemistry, Chemical Center, Sweden
DAVID M. CEPERLEY, National Center for Supercomputing Applications and Department of Physics, University of Illinois at Urbana-Champaign, Illinois
MICHAEL A. COLLINS, Research School of Chemistry, Australian National University, Canberra, Australia
REINHOLD EGGER, Fakult't f?r Physik, Universit't Freiburg, Freiburg, Germany
ANTHONY K. FELTS, Department of Chemistry, Columbia University, New York
RICHARD A. FRIESNER, Department of Chemistry, Columbia University, New York
MARKUS P. F?LSCHER, Department of Theoretical Chemistry, Chemical Center, Sweden
K. M. HO, Ames Laboratory and Department of Physics, Iowa State University, Ames, Iowa
C. H. MAK, Department of Chemistry, University of Southern California, Los Angeles, California
PER-?KE Malmqvist, Department of Theoretical Chemistry, Chemical Center, Sweden
MANUELA MERCH?n, Departamento de Qu?mica F?sica, Universitat de Val?ncia, Spain
LUBOS MITAS, National Center for Supercomputing Applications and Materials Research Laboratory, University of Illinois at Urbana-Champaign, Illinois
STEFANO OSS, Dipartimento di Fisica, Universit? di Trento and Istituto Nazionale di Fisica della Materia, Unit? di Trento, Italy
KRISTINE PIERLOOT, Department of Chemistry, University of Leuven, Belgium
W. THOMAS POLLARD, Department of Chemistry, Columbia University, New York
BJ?RN O. ROOS, Department of Theoretical Chemistry, Chemical Center, Sweden
LUIS SERRANO-ANDR?S, Department of Theoretical Chemistry, Chemical Center, Sweden
PER E. M. SIEGBAHN, Department of Physics, University of Stockholm, Stockholm, Sweden
WALTER THIEL, Institut f?r Organische Chemie, Universit't Z?rich, Z?rich, Switzerland
GREGORY A. VOTH, Department of Chemistry, University of Pennsylvania, Pennsylvania
C. Z. Wang, Ames Laboratory and Department of Physics, Iowa State University, Ames, Iowa

Advances in Chemical Physics, Volume 127 covers recent advances at the cutting edge of research relative to chemical physics. The series, Advances in Chemical Physics, provides a forum for critical, authoritative evaluations of advances in every area of the discipline.

Chemical Modeling equips the reader with the knowledge to understand the behaviour of solids, gases and liquids in terms of the basic properties of their atoms, molecules, and polymer chains. In particular the interactions between these fundamental building blocks and the intermolecular and intramolecular potentials are examined. Carefully structured, the book starts by the discussion of classical, quantum and statistical mechanics which then leads on to a discussion of modeling techniques applied to solids, gases and liquids. The subject is brought to life through many real life examples and practical illustrations. Features

• Classical mechanics and quantum mechanics are both introduced from a basic level
• Explains the relationships between microscopic and macroscopic quantities
• Gives an up-to-date treatment of a variety of chemical modeling techniques
• Avoids unnecessary mathematical rigour
• Carefully structured into ‘bite-sized’ chapters

A comprehensive and up-to-date text in the field of electron scattering and ionization, covering fundamentals, experimental background, quantum scattering theories and applications. Electron impact ionization of atoms and molecules in ground/metastable states is discussed comprehensively. The text covers electron scattering phenomena for diatomic and common molecules, polyatomic molecules and radicals including hydro-carbons, fluoro-carbons and other larger molecules together with relevant radical species in detail. Applications of electron impact ionization and excitation in gaseous or plasma and condensed matter is discussed in a separate chapter. Recent advances in the field of electron molecule scattering and ionization for polyatomic molecules is covered extensively.