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Inorganic Chemistry This series reflects the breadth of modern research in inorganic chemistry and fulfils the need for advanced texts. The series covers the whole range of inorganic and physical chemistry, solid state chemistry, coordination chemistry, main group chemistry and bioinorganic chemistry. Chemical Bonds A Dialog Jeremy K. Burdett The University of Chicago, USA Understanding the nature of the chemical bond is the key to understanding all chemistry, be it inorganic, physical, organic or biochemistry. In the form of a question and answer tutorial the fundamental concepts of chemical bonding are explored. These range from the nature of the chemical bond, via the regular hexagonal structure of benzene and the meaning of the term 'metallic bond', to d-orbital involvement in hypervalent compounds and the structure of N_2O. Chemical Bonds: A Dialog provides* a novel format in terms of a dialog between two scientists* insights into many key questions concerning chemical bonds* an orbital approach to quantum chemistry
Chemical structure --- fysicochemie --- Chemical bonds. Valence --- 541.57 --- #WSCH:AAS2 --- Bonds --- Chemical bonds. --- 541.57 Bonds --- Chemical bonds --- Bonds, Chemical --- Chemistry, Physical and theoretical --- Overlap integral --- Quantum chemistry --- Valence (Theoretical chemistry) --- Molecular orbitals. --- Bond
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Molecular structure --- Stereochemistry --- Structure moléculaire --- Stéréochimie --- Molecular structure. --- Stereochemistry. --- 541.63 --- Atoms --- Molecular asymmetry --- Chemical structure --- Chemistry --- Isomerism --- Polarization (Light) --- Structure, Molecular --- Structural bioinformatics --- Stereochemistry in general --- Space arrangement --- 541.63 Stereochemistry in general --- Structure moléculaire --- Stéréochimie
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In Chemical Bonding in Solids, renowned chemist Jeremy K. Burdett offers a clear and much-needed synthesis of chemical bonding theory and solid state structural considerations. Over the past fifteen years, the delocalized orbital model favored by molecular chemists--the model of choice for understanding a plethora of organic, inorganic, and organometallic chemistry phenomena--has been effectively used for infinite solid-state arrays. In addition, other concepts originating from molecular chemistry--including overlap population analysis, topological aspects of the Hamiltonian matrix, and eigenvalue and eigenvector forms--have been increasingly added to the physicist's arsenal. Focusing on insights proffered by both chemists and physicists, this book documents cutting-edge approaches to the computation of the electronic band structures of materials, attempts to understand their origin, the use of results to make predictions concerning the properties of such materials, and the extraction of general ideas concerning structure and bonding. Copiously illustrated and extremely well-written, Chemical Bonding in Solids is the ideal introduction for graduate students and for researchers interested in applying the latest theoretical ideas to applied efforts in synthesizing and characterizing important new materials.
541.57 --- 548.12 --- #WSCH:AAS2 --- Bonds --- Theory of symmetry. Theory of original forms in general --- Solid state chemistry. --- 548.12 Theory of symmetry. Theory of original forms in general --- 541.57 Bonds --- Solid state chemistry --- Chemistry, Solid state --- Chemistry, Physical and theoretical
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"This new edition of a bestselling reference on applied molecular orbital theory covers organic, organometallic, inorganic, and solid state chemistry, demonstrating how common orbital situations arise through the whole chemical spectrum. This latest edition features a new chapter on current concepts in solid state chemistry, examples of recent advances in the field, more detailed information on trends in the periodic table, expanded information on the mechanics of group theory, and a new chapter on metals. An essential reference for chemists in the areas of organic, inorganic, solid state, and computational chemistry"--
Quantum chemistry --- fysicochemie --- SCIENCE / Chemistry / Physical & Theoretical. --- Molecular orbitals. --- Orbites moléculaires --- Molecular orbitals --- 541.57 --- 539.194 --- Bonds --- Internal mechanics of molecules. Energy relationships. Vibration and rotation in molecules. Electronic levels. Bonds. Resonance energies, potentials. Nuclear coupling. Polarizability etc. --- 539.194 Internal mechanics of molecules. Energy relationships. Vibration and rotation in molecules. Electronic levels. Bonds. Resonance energies, potentials. Nuclear coupling. Polarizability etc. --- 541.57 Bonds --- Orbites moléculaires --- Orbitals, Molecular --- Chemical bonds --- Electrons --- Molecules --- Overlap integral --- Valence (Theoretical chemistry) --- Wave mechanics --- Internal mechanics of molecules. Energy relationships. Vibration and rotation in molecules. Electronic levels. Bonds. Resonance energies, potentials. Nuclear coupling. Polarizability etc
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Quantum chemistry --- fysicochemie --- Molecular orbitals --- 539.194 --- #WSCH:AAS2 --- Orbitals, Molecular --- Chemical bonds --- Electrons --- Molecules --- Overlap integral --- Valence (Theoretical chemistry) --- Wave mechanics --- Internal mechanics of molecules. Energy relationships. Vibration and rotation in molecules. Electronic levels. Bonds. Resonance energies, potentials. Nuclear coupling. Polarizability etc. --- 539.194 Internal mechanics of molecules. Energy relationships. Vibration and rotation in molecules. Electronic levels. Bonds. Resonance energies, potentials. Nuclear coupling. Polarizability etc. --- Internal mechanics of molecules. Energy relationships. Vibration and rotation in molecules. Electronic levels. Bonds. Resonance energies, potentials. Nuclear coupling. Polarizability etc
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