Keywords:
Inorganic compounds.
;
Electronic books.
Type of Medium:
Online Resource
Pages:
1 online resource (13379 pages)
Edition:
2nd ed.
ISBN:
9780080913162
URL:
https://ebookcentral.proquest.com/lib/geomar/detail.action?docID=5543065
DDC:
541.2/242
Language:
English
Note:
Cover image -- Title page -- Table of Contents -- Editors-in-Chief -- Volume Editors -- International Advisory Board -- Preface -- Coordination Chemistry: The Past, Present, and Possible Future -- Introduction to Volumes 1 and 2 -- Introduction to Volume 3 -- Introduction to Volume 4 -- Introduction to Volume 5 -- Introduction to Volume 6 -- Introduction to Volume 7 -- Introduction to Volume 8 -- Introduction to Volume 9 -- Permission Acknowledgments -- Volume 1: Fundamentals: Ligands, Complexes, Synthesis, Purification, and Structure -- Section I: Ligands -- 1.1: Bipyridine Ligands -- 1.2: Phenanthroline Ligands -- 1.3: Terpyridine, Oligopyridine, and Polypyridine Ligands -- 1.4: Pyridopyridine Ligands -- 1.5: Heterocyclic and Open-chain 1,2-Diazine Ligands -- 1.6: β-Diketones and Related Ligands -- 1.7: Phenylcyanamide Ligands -- 1.8: Benzimidazole Ligands -- 1.9: Polyatomic Bridging Ligands -- 1.10: Polypyrazolylborate and Scorpionate Ligands -- 1.11: Higher Denticity Ligands -- 1.12: Phosphorus Ligands -- 1.13: Phosphorus Tripodal Ligands -- 1.14: Dichalcogenoimidodiphosph(in)ate Ligands -- 1.15: 1,1-Dithiolato Ligands -- 1.16: Acyclic Arsine, Stibine, and Bismuthine Ligands -- 1.17: Acyclic Thio-, Seleno-, and Telluroether Ligands -- 1.18: Macrocyclic Thio-, Seleno-, and Telluroether Ligands -- 1.19: Acyclic and Macrocyclic Schiff Base Ligands -- 1.20: N Macrocyclic Ligands -- 1.21: Macrocyclic Phosphine and Arsine Ligands -- 1.22: Calixarenes -- 1.23: Porphyrins -- 1.24: Phthalocyanines -- Section II: Synthesis, Purification, and Characterization of Coordination Compounds -- 1.25: Metal Aqua Ions -- 1.26: Solvents and Ionic Liquids -- 1.27: Chromatographic Methods -- 1.28: Crystal Growth Methods -- Section III: Reactions of Coordinated Ligands -- 1.29: Ligand Reactivity: General Introduction.
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1.30: Reactivity and Structure of Complexes of Small Molecules: Carbon Dioxide -- 1.31: Reactivity and Structure of Complexes of Small Molecules: Nitric and Nitrous Oxide -- 1.32: Reactivity and Structure of Complexes of Small Molecules: Dioxygen -- 1.33: Reactivity of Coordinated Oximes -- 1.34: Reactivity of Coordinated Nitriles -- Section IV: Stereochemistry, Structure, and Crystal Engineering -- 1.35: Lone Pair Effects and Stereochemistry -- 1.36: Outer Sphere Coordination Chemistry -- 1.37: Solid State, Crystal Engineering and Hydrogen Bonds -- Section V: New Synthetic Methods -- 1.38: Biphasic Synthesis -- 1.39: Solid State Methods, Hydrothermal -- 1.40: Sol-Gel -- 1.41: Sonochemistry -- 1.42: Microwave Heating -- 1.43: Assemblies and Self-assembly -- 1.44: Electrochemical Methods, Electrocrystallization -- 1.45: Spectroelectrochemistry -- 1.46: Applications of Genetic Engineering -- 1.47: Appendix to Volume 1 -- Volume 2: Fundamentals: Physical Methods, Theoretical Analysis, and Case Studies -- Section I: Physical Methods -- 2.1: Nuclear Magnetic Resonance Spectroscopy -- 2.2: Electron Paramagnetic Resonance Spectroscopy -- 2.3: Electron-Nuclear Double Resonance Spectroscopy and Electron Spin Echo Envelope Modulation Spectroscopy -- 2.4: X-ray Diffraction -- 2.5: Chiral Molecules Spectroscopy -- 2.6: Neutron Diffraction -- 2.7: Time-resolved Infrared Spectroscopy -- 2.8: Raman and FT-Raman Spectroscopy -- 2.9: High-pressure Raman Techniques -- 2.10: Resonance Raman: Coordination Compounds -- 2.11: Resonance Raman: Bioinorganic Applications -- 2.12: Gas Phase Coordination Chemistry -- 2.13: X-ray Absorption Spectroscopy -- 2.14: Photoelectron Spectroscopy -- 2.15: Electrochemistry: General Introduction -- 2.16: Electrochemistry: Proton Coupled Systems -- 2.17: Electrochemistry: Mixed Valence Systems -- 2.18: Electrochemistry: High Pressure.
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2.19: Ligand Electrochemical Parameters and Electrochemical-Optical Relationships -- 2.20: Mössbauer Spectroscopy: Introduction -- 2.21: Mössbauer Spectroscopy: Bioinorganic -- 2.22: Optical (Electronic) Spectroscopy -- 2.23: Stark Spectroscopy -- 2.24: Electronic Emission Spectroscopy -- 2.25: Magnetic Circular Dichroism -- 2.26: Magnetic Circular Dichroism of Paramagnetic Species -- 2.27: Solvatochromism -- 2.28: Mass Spectrometry -- 2.29: Neutralization-Reionization Mass Spectrometry -- 2.30: Electrospray Mass Spectrometry -- 2.31: Magnetism: General Introduction -- 2.32: Electronic Spin Crossover -- 2.33: Excited Spin State Trapping (LIESST, NIESST) -- 2.34: Notes on Time Frames -- Section II: Theoretical Models, Computational Methods, and Simulation -- 2.35: Ligand Field Theory -- 2.36: Angular Overlap Model -- 2.37: Molecular Mechanics -- 2.38: Semiempirical SCF MO Methods, Electronic Spectra, and Configurational Interaction -- 2.39: Density Functional Theory -- 2.40: Time-dependent Density Functional Resonance Theory -- 2.41: Molecular Orbital Theory (SCF Methods and Active Space SCF) -- 2.42: Valence Bond Configuration Interaction Model -- 2.43: Time-dependent Theory of Electronic Spectroscopy -- 2.44: Electronic Coupling Elements and Electron Transfer Theory -- 2.45: Metal-Metal Exchange Coupling -- 2.46: Solvation -- 2.47: Topology: General Theory -- 2.48: Topology: Assemblies -- 2.49: Electrode Potential Calculations -- 2.50: Comparison of DFT, AOM, and Ligand Field Approaches -- 2.51: MO Description of Transition Metal Complexes by DFT and INDO/S -- Section III: Software -- 2.52: AOMX: Angular Overlap Model Computation -- 2.53: GAMESS and MACMOLPLT -- 2.54: CAMMAG -- 2.55: Ligfield -- 2.56: ADF -- 2.57: DeMON -- 2.58: Software for Computational Chemistry -- Section IV: Case Studies.
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2.59: Spectroscopy and Electronic Structure of [FeX4]n− (X=Cl, SR) -- 2.60: Mixed Valence Dinuclear Species -- 2.61: Mixed Valence Clusters -- 2.62: Non-biological Photochemistry Multiemission -- 2.63: Nitrosyl and Oxo Complexes of Molybdenum -- 2.64: Structure of Oxo Metallic Clusters -- 2.65: Centred Zirconium Clusters -- 2.66: Case Study of the Dicyanamidebenzene System -- 2.67: Appendix to Volume 2 -- Volume 3: Coordination Chemistry of the s, p, and f Metals -- 3.1: Group 1s and 2s Metals -- 3.2: Scandium, Yttrium, and the Lanthanides -- 3.3: The Actinides -- 3.4: Aluminum and Gallium -- 3.5: Indium and Thallium -- 3.6: Arsenic, Antimony, and Bismuth -- 3.7: Germanium, Tin, and Lead -- 3.8: Appendix to Volume 3 -- Volume 4: Transition Metal Groups 3-6 -- 4.1: Scandium and Yttrium -- 4.2: Titanium -- 4.3: Zirconium and Hafnium -- 4.4: Vanadium -- 4.5: Niobium and Tantalum -- 4.6: Chromium -- 4.7: Molybdenum -- 4.8: Tungsten -- 4.9: Dinuclear Metal-Metal Bonded Systems -- 4.10: Polyoxo Anions: Synthesis and Structure -- 4.11: Polyoxometalates: Reactivity -- 4.12: Chalcogenide-containing Metal Clusters -- Volume 5: Transition Metal Groups 7 and 8 -- 5.1: Manganese -- 5.2: Technetium -- 5.3: Rhenium -- 5.4: Iron -- 5.5: Ruthenium and Osmium: Low Oxidation States -- 5.6: Ruthenium and Osmium: High Oxidation States -- Volume 6: Transition Metal Groups 9-12 -- 6.1: Cobalt -- 6.2: Iridium -- 6.3: Nickel -- 6.4: Palladium -- 6.5: Platinum -- 6.6: Copper -- 6.7: Silver and Gold -- 6.8: Zinc -- 6.9: Cadmium and Mercury -- 6.10: Appendix to Volume 6 -- Volume 7: From the Molecular to the Nanoscale: Synthesis, Structure, and Properties -- 7.1: High Nuclearity Clusters: Iso and Heteropolyoxoanions and Relatives -- 7.2: High Nuclearity Clusters: Metal-Chalcogenide Polynuclear Complexes.
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7.3: High Nuclearity Clusters: Clusters and Aggregates with Paramagnetic Centers: Oxygen and Nitrogen Bridged Systems -- 7.4: High Nuclearity Clusters: Clusters and Aggregates with Paramagnetic Centers: Cyano and Oxalato bridged Systems -- 7.5: Coordination Polymers: Infinite Systems -- 7.6: Coordination Polymers: Discrete Systems -- 7.7: Supramolecular Systems: Templating -- 7.8: Supramolecular Systems: Self-assembly -- 7.9: Metallomesogens -- 7.10: Sol-Gel Processing of Metal Compounds -- 7.11: Molecular Electron Transfer -- 7.12: Electron Transfer from the Molecular to the Nanoscale -- 7.13: Magnetism from the Molecular to the Nanoscale -- Volume 8: Bio-coordination Chemistry -- 8.1: Recurring Structural Motifs in Bioinorganic Chemistry -- 8.2: Electron Transfer: Cytochromes -- 8.3: Electron Transfer: Iron-Sulfur Clusters -- 8.4: Electron Transfer: Cupredoxins -- 8.5: Alkali and Alkaline Earth Ion Recognition and Transport -- 8.6: Siderophores and Transferrins -- 8.7: Ferritins -- 8.8: Metal Ion Homeostasis -- 8.9: Metallothioneins -- 8.10: Dioxygen-binding Proteins -- 8.11: Heme-peroxidases -- 8.12: Cytochrome P450 -- 8.13: Nonheme Di-iron Enzymes -- 8.14: Non-heme Mono-iron Enzymes -- 8.15: Dicopper Enzymes -- 8.16: Monocopper Oxygenases -- 8.17: Multimetal Oxidases -- 8.18: Molybdenum and Tungsten Enzymes -- 8.19: Superoxide Processing -- 8.20: Oxygen Evolution -- 8.21: Hydrogen Activation -- 8.22: Nitrogen Fixation -- 8.23: Zinc Hydrolases -- 8.24: Dinuclear Hydrolases -- 8.25: Bioorganometallic Chemistry of Cobalt and Nickel -- 8.26: Metal-Radical Arrays -- 8.27: Iron-Sulfur Clusters in Enzyme Catalysis -- 8.28: Denitrification -- 8.29: DNA and RNA as Ligands -- 8.30: Appendix to Volume 8 -- Volume 9: Applications of Coordination Chemistry -- 9.1: Metal Complexes as Catalysts for Polymerization Reactions.
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9.2: Metal Complexes as Hydrogenation Catalysts.
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