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A foundation for quantitative perspectives and a framework for interpreting experimental observations. Researchers in the life sciences who are unaware of the origins of the fundamental concepts and theoretical constructs in ligand-receptor energetics may fail to recognize the hidden assumptions and premises in their interpretations of observed phenomena. This book offers a detailed exposition of these fundamentals and of the treatment of multiple equilibria in successive steps of the binding of ligands to receptors. It also describes the calculations and meanings of energetic quantities for ligand-receptor complexes. Ligand-Receptor Energetics is the only book on this topic that is both accessible to beginners and extremely useful for experienced investigators. It features numerous specific examples; tables of literature results; extensive, up-to-date thermodynamic data; graphical representations of ligand bonding concepts; and four helpful appendices. Topics covered include: * Affinities -from site, stoichiometric, and ghost-site perspectives * Facts and fantasies from graphical analyses * Numerical evaluation of stoichiometric binding constants * Affinity profiles * Thermodynamic perspectives * Forces of interaction * Molecular scenarios. This valuable supplementary text for students in all areas of the basic life sciences is also an excellent professional reference for researchers in biochemistry, molecular biology, physiology, biophysics, microbiology, neurobiology, immunology, pharmacology, endocrinology, and toxicology.

A foundation for quantitative perspectives and a framework for interpreting experimental observations. Researchers in the life sciences who are unaware of the origins of the fundamental concepts and theoretical constructs in ligand-receptor energetics may fail to recognize the hidden assumptions and premises in their interpretations of observed phenomena. This book offers a detailed exposition of these fundamentals and of the treatment of multiple equilibria in successive steps of the binding of ligands to receptors. It also describes the calculations and meanings of energetic quantities for ligand-receptor complexes. Ligand-Receptor Energetics is the only book on this topic that is both accessible to beginners and extremely useful for experienced investigators. It features numerous specific examples; tables of literature results; extensive, up-to-date thermodynamic data; graphical representations of ligand bonding concepts; and four helpful appendices. Topics covered include: * Affinities -from site, stoichiometric, and ghost-site perspectives * Facts and fantasies from graphical analyses * Numerical evaluation of stoichiometric binding constants * Affinity profiles * Thermodynamic perspectives * Forces of interaction * Molecular scenarios. This valuable supplementary text for students in all areas of the basic life sciences is also an excellent professional reference for researchers in biochemistry, molecular biology, physiology, biophysics, microbiology, neurobiology, immunology, pharmacology, endocrinology, and toxicology.

In this book, originally published in 1983, a synthesis of old and new notions straddling the disciplines of physics and chemistry is described; and this provides a means of exploiting ligan-field properties of transition-metal and lathanide complexes leading to a quantified chemical insight into the individual metal-ligand interactions in these molecular species. Electronic spectroscopy and the ESR technique are well documented, but there has long been a need for a thorough description of magnetochemistry. A major section of this book therefore provides a details account of the physics and chemistry of paramagnetism. The second main section is concerned with those aspects of ligand-field theory that are required to construct the working composite defining ligand-field analysis. Though the book is intended for the research chemist, the subject matter and level of some of the material is suitable for both advanced undergraduate and postgraduate chemists and solid-state physicists.

538p blue cloth, excellent condition, first edition, subject index, very good

1962 McGraw Hill Press hardcover, solid binding, mild edge wear, some underlining. Fast Shipping - Safe and Secure Bubble Mailer!

Catalytic asymmetric synthesis has been one of the most active research areas in chemistry (Nobel Prize in 2001). The development of efficient chiral catalysts plays a crucial role in asymmetric catalysis. Although many chiral ligands/catalysts have been developed in the past decades, the most efficient catalysts are derived from a few core structures, called "privileged chiral catalysts". This ultimate "must have" and long awaited reference for every chemist working in the field of asymmetric catalysis starts with the core structure of the catalysts, explaining why a certain ligand or catalyst is so successful. It describes in detail the history, the basic structural characteristics, and the applications of these "privileged catalysts". This novel presentation provides readers with a much deeper insight into the topic and makes it a must-have for organic chemists, catalytic chemists, chemists working with/on organometallics, chemists in industry, and libraries. From the contents: * BINAP * Bisphosphacycles - From DuPhos and BPE to a Diverse Set of Broadly Applied Ligands * Josiphos Ligands: From Discovery to Technical Applications * Chiral Spiro Ligands * Chiral Bisoxazoline Ligands * PHOX Ligands * Chiral Salen Complexes * BINOL * TADDOLate Ligands * Cinchona Alkaloids * Proline Derivatives

This book is a practical guide to the preparation and use of immobilized affinity ligands for purification, catalysis, and analysis. Special emphasis is given to immunochemical techniques including antibody isolation, preparation of antibody fragments using immobilized enzymes, and immunoaffinity chromatography. The book provides easy-to-follow, well-tested protocols to allow the uninitiated to use these techniques to the maximum advantage with minimum hassle. In addition, it shows researchers how to save money by making their own optimized affinity supports.Matrix activation: Ligand immobilization, Binding and elution of target molecules, Enzyme catalysis on solid supports, Analytical affinity chromatography, Isolation/purification of antibodies, Preparation of antibody fragments, Immunoaffinity chromatography, Immobilization of nucleic acids, Use of immobilized ligands for removal of trace contaminantsPractical advice on choosing: Matrices, Spacers, Methods of activation and couplingBackground information and insights on: Affinity interactions, The ease and power of affinity chromatography, Attaching molecules to insoluble supports, Matrices currently in use, Over 20 methods of activation, Spacers, Extensive References

This book is a practical guide to the preparation and use of immobilized affinity ligands for purification, catalysis, and analysis. Special emphasis is given to immunochemical techniques including antibody isolation, preparation of antibody fragments using immobilized enzymes, and immunoaffinity chromatography. The book provides easy-to-follow, well-tested protocols to allow the uninitiated to use these techniques to the maximum advantage with minimum hassle. In addition, it shows researchers how to save money by making their own optimized affinity supports.Matrix activation: Ligand immobilization, Binding and elution of target molecules, Enzyme catalysis on solid supports, Analytical affinity chromatography, Isolation/purification of antibodies, Preparation of antibody fragments, Immunoaffinity chromatography, Immobilization of nucleic acids, Use of immobilized ligands for removal of trace contaminantsPractical advice on choosing: Matrices, Spacers, Methods of activation and couplingBackground information and insights on: Affinity interactions, The ease and power of affinity chromatography, Attaching molecules to insoluble supports, Matrices currently in use, Over 20 methods of activation, Spacers, Extensive References

This authoritative and comprehensive volume presents a perspective in the molecular and cellular diversity of membrane ion channels. Written in an accessible format, it depicts the structure and function of each of the known classes of ion channels. Each chapter provides amino acid sequences, including data base accession numbers; views of secondary, tertiary and quaternary channel structure; and evolutionary relationships among channels.

To appreciate the chemistry and physical properties of complexes of the transition series, an understanding of metal-ligand interactions applied to complexes of the d-block is needed. Metal Ligand Bonding aims to provide this through an accessible, detailed, non-mathematical approach. Initial chapters detail the crystal-field model, using it to describe the use of magnetic measurements to distinguish complexes with different electronic configurations and geometries. Subsequent chapters look at the molecular orbital theory of transition metal complexes using a pictorial approach. Bonding in octahedral complexes is explored and electronic spectra and magnetic properties are given extensive coverage. The material addressed in this book forms the foundation of undergraduate lecture courses on d-block chemistry and facilitates learning through various key features, including: full colour diagrams; in-text questions with answers; revision exercises and clearly defined learning outcomes to encourage a reflective approach to study; an associated website; and experimental data and observations from everyday life. A basic knowledge of atomic and molecular orbitals as applied to main group elements is assumed.

xx 436p original dark green cloth with gilt lettering to front, light library markings from the Laboratory of Molecular Biology (LMB) in Cambridge, corners a little rubbed, tact clean and binding tight, uncommon title, very good indeed

New Book. Shipped from UK. Established seller since 2000.

Unread book in perfect condition.

Over the past fifteen years the Commission on Equilibrium Data of the Analytical Division of the Inter­ national Union of Pure and Applied Chemistry has been sponsoring a noncritical compilation of metal complex formation constants and related equilibrium constants. This work was extensive in scope and resulted in the publication of two large volumes of Stability Constants by the Chemical Society (London). The first volume, edited by L. G. Sillen (for inorganic ligands) and by A. E. Martell (for organic ligands), was published in 1964 and covered the literature through 1962. The second volume, subtitled Supplement No. 1, edited by L. G. Sillen and E. Hogfeldt (for inorganic ligands) and by A. E. Martell and R. M. Smith (for organic ligands), was published in 1971 and covered the literature up to 1969. These two large compilations attempted to cover all papers in the field related to metal complex equilibria (heats, entropies, and free energies). Since it was the policy of the Commission during that period to avoid decisions concerning the quality and reliability of the published work, the compilation would frequently contain from ten to twenty values for a single equilibrium constant. In many cases the values would differ by one or even two orders of magnitude, thus frustrating readers who wanted to use the data without doing the extensive literature study necessary to determine the correct value of the constant in question.

In less than 20 years N-heterocyclic carbenes (NHCs) have become well-established ancillary ligands for the preparation of transition metal-based catalysts. This is mainly due to the fact that NHCs tend to bind strongly to metal centres, avoiding the need of excess ligand in catalytic reactions. Also, NHC‒metal complexes are often insensitive to air and moisture, and have proven remarkably resistant to oxidation. This book showcases the wide variety of applications of NHCs in different chemistry fields beyond being simple phosphine mimics. This second edition has been updated throughout, and now includes a new chapter on NHC‒main group element complexes. It covers the synthesis of NHC ligands and their corresponding metal complexes, as well as their bonding and stereoelectronic properties and applications in catalysis. This is complemented by related topics such as organocatalysis and biologically active complexes. Written for organic and inorganic chemists, this book is ideal for postgraduates, researchers and industrialists.

In one convenient resource, Creighton's landmark textbook offers an expert introduction to all aspects of proteins--biosynthesis, evolution, structures, dynamics, ligand binding, and catalysis. It works equally well as a reference or as a classroom text.

Inorganic Chemistry provides essential information in the major areas of inorganic chemistry. The author emphasizes fundamental principles―including molecular structure, acid-base chemistry, coordination chemistry, ligand field theory, and solid state chemistry ― and presents topics in a clear, concise manner. Concise coverage maximizes student understanding and minimizes the inclusion of details students are unlikely to use. The discussion of elements begins with survey chapters focused on the main groups, while later chapters cover the elements in greater detail. Each chapter opens with narrative introductions and includes figures, tables, and end-of-chapter problem sets. This text is ideal for advanced undergraduate and graduate-level students enrolled in the inorganic chemistry course. The text may also be suitable for biochemistry, medicinal chemistry, and other professionals who wish to learn more about this subject are.Concise coverage maximizes student understanding and minimizes the inclusion of details students are unlikely to use.Discussion of elements begins with survey chapters focused on the main groups, while later chapters cover the elements in greater detail.Each chapter opens with narrative introductions and includes figures, tables, and end-of-chapter problem sets.

Cellular and Molecular Neurobiology introduces a novel approach to learning and teaching neuroscience. The molecular aspects of ionic channels (voltage and ligand-dependent channels) are clearly explained from a functional view point and with an hypothesis-driven approach firmly based on experiments. Once each channel is explained, it is summed up one-to-one to arrive at the explanation of the basic properties of excitable cells and secretory cells; action potentials, sensory receptor potentials, statistics of transmitter release and synaptic potentials. This building block approach to illustrate the functions of the neuronal plasma membrane also facilitates the explanation of more complex neuronal behaviors. With the aid of over 400 illustrations reconstructed from classical experiments, the chapters are organized to encourage students to ask questions in the face of an observation, to formulate hypotheses, to design experiments to test these hypotheses, and to draw critical conclusions from the results obtained. As a result, it is a book from which students like to learn. Key Features* Provides a novel approach to learning and teaching neurosciences* Clearly explains molecular aspects of ionic channels from a functional view point based firmly on experiments* Presents more than 400 illustrations showing details of pathways of neurotransmitter systems, channel activities, and metabolic routes* Includes a comprehensive appendix with coverage of more advanced techniques

From the hydrophobic effect to protein-ligand binding, statistical physics is relevant in almost all areas of molecular biophysics and biochemistry, making it essential for modern students of molecular behavior. But traditional presentations of this material are often difficult to penetrate. Statistical Physics of Biomolecules: An Introduction brings "down to earth" some of the most intimidating but important theories of molecular biophysics. With an accessible writing style, the book unifies statistical, dynamic, and thermodynamic descriptions of molecular behavior using probability ideas as a common basis. Numerous examples illustrate how the twin perspectives of dynamics and equilibrium deepen our understanding of essential ideas such as entropy, free energy, and the meaning of rate constants. The author builds on the general principles with specific discussions of water, binding phenomena, and protein conformational changes/folding. The same probabilistic framework used in the introductory chapters is also applied to non-equilibrium phenomena and to computations in later chapters. The book emphasizes basic concepts rather than cataloguing a broad range of phenomena. Focuses on what students need to know now Students build a foundational understanding by initially focusing on probability theory, low-dimensional models, and the simplest molecular systems. The basics are then directly developed for biophysical phenomena, such as water behavior, protein binding, and conformational changes. The book’s accessible development of equilibrium and dynamical statistical physics makes this a valuable text for students with limited physics and chemistry backgrounds.

Discusses the history and biological processes of thermodynamics. The first half of the book covers theoretical aspects of thermodynamic principles which will aid in understanding biochemical processes. Later chapters deal with the interpretation of data obtained from biochemical reactions, ligand binding, and calorimetric measurements on biological systems.