Inorganic chemistry
by
 
Weller, Mark T., author.

Title
Inorganic chemistry

Author
Weller, Mark T., author.

ISBN
9780199641826

Personal Author
Weller, Mark T., author.

Edition
Sixth edition.

Physical Description
xx, 875 pages : illustrations (some color) ; 28 cm.

Contents
pt. 1 Foundations -- 1.Atomic structure -- The structures of hydrogenic atoms -- 1.1.Spectroscopic information -- 1.2.Some principles of quantum mechanics -- 1.3.Atomic orbitals -- Many-electron atoms -- 1.4.Penetration and shielding -- 1.5.The building-up principle -- 1.6.The classification of the elements -- 1.7.Atomic properties -- Further Reading -- Exercises -- Tutorial Problems -- 2.Molecular structure and bonding -- Lewis structures -- 2.1.The octet rule -- 2.2.Resonance -- 2.3.The VSEPR model -- Valence bond theory -- 2.4.The hydrogen molecule -- 2.5.Homonuclear diatomic molecules -- 2.6.Polyatomic molecules -- Molecular orbital theory -- 2.7.An introduction to the theory -- 2.8.Homonuclear diatomic molecules -- 2.9.Heteronuclear diatomic molecules -- 2.10.Bond properties -- 2.11.Polyatomic molecules -- 2.12.Computational methods -- Structure and bond properties -- 2.13.Bond length -- 2.14.Bond strength --
 
2.15.Electronegativity and bond enthalpy -- 2.16.Oxidation states -- Further Reading -- Exercises -- Tutorial Problems -- 3.The structures of simple solids -- The description of the structures of solids -- 3.1.Unit cells and the description of crystal structures -- 3.2.The close packing of spheres -- 3.3.Holes in close-packed structures -- The structures of metals and alloys -- 3.4.Polytypism -- 3.5.Nonclose-packed structures -- 3.6.Polymorphism of metals -- 3.7.Atomic radii of metals -- 3.8.Alloys and interstitials -- Ionic solids -- 3.9.Characteristic structures of ionic solids -- 3.10.The rationalization of structures -- The energetics of ionic bonding -- 3.11.Lattice enthalpy and the Born-Haber cycle -- 3.12.The calculation of lattice enthalpies -- 3.13.Comparison of experimental and theoretical values -- 3.14.The Kapustinskii equation -- 3.15.Consequences of lattice enthalpies -- Defects and nonstoichiometry --
 
3.16.The origins and types of defects -- 3.17.Nonstoichiometric compounds and solid solutions -- The electronic structures of solids -- 3.18.The conductivities of inorganic solids -- 3.19.Bands formed from overlapping atomic orbitals -- 3.20.Semiconduction -- Further Information: the Born-Mayer equation -- Further Reading -- Exercises -- Tutorial Problems -- 4.Acids and bases -- Brønsted acidity -- 4.1.Proton transfer equilibria in water -- Characteristics of Brønsted acids -- 4.2.Periodic trends in aqua acid strength -- 4.3.Simple oxoacids -- 4.4.Anhydrous oxides -- 4.5.Polyoxo compound formation -- Lewis acidity -- 4.6.Examples of Lewis acids and bases -- 4.7.Group characteristics of Lewis acids -- Reactions and properties of Lewis acids and bases -- 4.8.The fundamental types of reaction -- 4.9.Factors governing interactions between Lewis acids and bases -- 4.10.Thermodynamic acidity parameters -- Nonaqueous solvents -- 4.11.Solvent levelling --
 
4.12.The solvent-system definition of acids and bases -- 4.13.Solvents as acids and bases -- Applications of acid-base chemistry -- 4.14.Superacids and superbases -- 4.15.Heterogeneous acid-base reactions -- Further Reading -- Exercises -- Tutorial Problems -- 5.Oxidation and reduction -- Reduction potentials -- 5.1.Redox half-reactions -- 5.2.Standard potentials and spontaneity -- 5.3.Trends in standard potentials -- 5.4.The electrochemical series -- 5.5.The Nernst equation -- Redox stability -- 5.6.The influence of pH -- 5.7.Reactions with water -- 5.8.Oxidation by atmospheric oxygen -- 5.9.Disproportionation and comproportionation -- 5.10.The influence of complexation -- 5.11.The relation between solubility and standard potentials -- Diagrammatic presentation of potential data -- 5.12.Latimer diagrams -- 5.13.Frost diagrams -- 5.14.Pourbaix diagrams -- 5.15.Applications in environmental chemistry: natural waters --
 
Chemical extraction of the elements -- 5.16.Chemical reduction -- 5.17.Chemical oxidation -- 5.18.Electrochemical extraction -- Further Reading -- Exercises -- Tutorial Problems -- 6.Molecular symmetry -- An introduction to symmetry analysis -- 6.1.Symmetry operations, elements, and point groups -- 6.2.Character tables -- Applications of symmetry -- 6.3.Polar molecules -- 6.4.Chiral molecules -- 6.5.Molecular vibrations -- The symmetries of molecular orbitals -- 6.6.Symmetry-adapted linear combinations -- 6.7.The construction of molecular orbitals -- 6.8.The vibrational analogy -- Representations -- 6.9.The reduction of a representation -- 6.10.Projection operators -- Further Reading -- Exercises -- Tutorial Problems -- 7.An introduction to coordination compounds -- The language of coordination chemistry -- 7.1.Representative ligands -- 7.2.Nomenclature -- Constitution and geometry -- 7.3.Low coordination numbers --
 
7.4.Intermediate coordination numbers -- 7.5.Higher coordination numbers -- 7.6.Polymetallic complexes -- Isomerism and chirality -- 7.7.Square-planar complexes -- 7.8.Tetrahedral complexes -- 7.9.Trigonal-bipyramidal and square-pyramidal complexes -- 7.10.Octahedral complexes -- 7.11.Ligand chirality -- The thermodynamics of complex formation -- 7.12.Formation constants -- 7.13.Trends in successive formation constants -- 7.14.The chelate and macrocyclic effects -- 7.15.Steric effects and electron delocalization -- Further Reading -- Exercises -- Tutorial Problems -- 8.Physical techniques in inorganic chemistry -- Diffraction methods -- 8.1.X-ray diffraction -- 8.2.Neutron diffraction -- Absorption and emission spectroscopies -- 8.3.Ultraviolet-visible spectroscopy -- 8.4.Fluorescence or emission spectroscopy -- 8.5.Infrared and Raman spectroscopy -- Resonance techniques -- 8.6.Nuclear magnetic resonance -- 8.7.Electron paramagnetic resonance --
 
8.8.Mossbauer spectroscopy -- Ionization-based techniques -- 8.9.Photoelectron spectroscopy -- 8.10.X-ray absorption spectroscopy -- 8.11.Mass spectrometry -- Chemical analysis -- 8.12.Atomic absorption spectroscopy -- 8.13.CHN analysis -- 8.14.X-ray fluorescence elemental analysis -- 8.15.Thermal analysis -- Magnetometry and magnetic susceptibility -- Electrochemical techniques -- Microscopy -- 8.16.Scanning probe microscopy -- 8.17.Electron microscopy -- Further Reading -- Exercises -- Tutorial Problems -- pt. 2 The elements and their compounds -- 9.Periodic trends -- Periodic properties of the elements -- 9.1.Valence electron configurations -- 9.2.Atomic parameters -- 9.3.Occurrence -- 9.4.Metallic character -- 9.5.Oxidation states -- Periodic characteristics of compounds -- 9.6.Coordination numbers -- 9.7.Bond enthalpy trends -- 9.8.Binary compounds -- 9.9.Wider aspects of periodicity -- 9.10.Anomalous nature of the first member of each group --
 
Further Reading -- Exercises -- Tutorial Problems -- 10.Hydrogen -- pt. A The essentials -- 10.1.The element -- 10.2.Simple compounds -- pt. B The detail -- 10.3.Nuclear properties -- 10.4.Production of dihydrogen -- 10.5.Reactions of dihydrogen -- 10.6.Compounds of hydrogen -- 10.7.General methods for synthesis of binary hydrogen compounds -- Further Reading -- Exercises -- Tutorial Problems -- 11.The Group 1 elements -- pt. A The essentials -- 11.1.The elements -- 11.2.Simple compounds -- 11.3.The atypical properties of lithium -- pt. B The detail -- 11.4.Occurrence and extraction -- 11.5.Uses of the elements and their compounds -- 11.6.Hydrides -- 11.7.Halides -- 11.8.Oxides and related compounds -- 11.9.Sulfides, selenides, and tellurides -- 11.10.Hydroxides -- 11.11.Compounds of oxoacids -- 11.12.Nitrides and carbides -- 11.13.Solubility and hydration -- 11.14.Solutions in liquid ammonia -- 11.15.Zintl phases containing alkali metals --
 
11.16.Coordination compounds -- 11.17.Organometallic compounds -- Further Reading -- Exercises -- Tutorial Problems -- 12.The Group 2 elements -- pt. A The essentials -- 12.1.The elements -- 12.2.Simple compounds -- 12.3.The anomalous properties of beryllium -- pt. B The detail -- 12.4.Occurrence and extraction -- 12.5.Uses of the elements and their compounds -- 12.6.Hydrides -- 12.7.Halides -- 12.8.Oxides, sulfides, and hydroxides -- 12.9.Nitrides and carbides -- 12.10.Salts of oxoacids -- 12.11.Solubility, hydration, and beryllates -- 12.12.Coordination compounds -- 12.13.Organometallic compounds -- Further Reading -- Exercises -- Tutorial Problems -- 13.The Group 13 elements -- pt. A The essentials -- 13.1.The elements -- 13.2.Compounds -- 13.3.Boron clusters -- pt. B The detail -- 13.4.Occurrence and recovery -- 13.5.Uses of the elements and their compounds -- 13.6.Simple hydrides of boron -- 13.7.Boron trihalides -- 13.8.Boron-oxygen compounds --
 
13.9.Compounds of boron with nitrogen -- 13.10.Metal borides -- 13.11.Higher boranes and borohydrides -- 13.12.Metallaboranes and carboranes -- 13.13.The hydrides of aluminium and gallium -- 13.14.Trihalides of aluminium, gallium, indium, and thallium -- 13.15.Low-oxidation-state halides of aluminium, gallium, indium, and thallium -- 13.16.Oxo compounds of aluminium, gallium, indium, and thallium -- 13.17.Sulfides of gallium, indium, and thallium -- 13.18.Compounds with Group 15 elements -- 13.19.Zintl phases -- 13.20.Organometallic compounds -- Further Reading -- Exercises -- Tutorial Problems -- 14.The Group 14 elements -- pt. A The essentials -- 14.1.The elements -- 14.2.Simple compounds -- 14.3.Extended silicon-oxygen compounds -- pt. B The detail -- 14.4.Occurrence and recovery -- 14.5.Diamond and graphite -- 14.6.Other forms of carbon -- 14.7.Hydrides -- 14.8.Compounds with halogens -- 14.9.Compounds of carbon with oxygen and sulfur --
 
14.10.Simple compounds of silicon with oxygen -- 14.11.Oxides of germanium, tin, and lead -- 14.12.Compounds with nitrogen -- 14.13.Carbides -- 14.14.Silicides -- 14.15.Extended silicon-oxygen compounds -- 14.16.Organosilicon and organogermanium compounds -- 14.17.Organometallic compounds -- Further Reading -- Exercises -- Tutorial Problems -- 15.The Group 15 elements -- pt. A The essentials -- 15.1.The elements -- 15.2.Simple compounds -- 15.3.Oxides and oxanions of nitrogen -- pt. B The detail -- 15.4.Occurrence and recovery -- 15.5.Uses -- 15.6.Nitrogen activation -- 15.7.Nitrides and azides -- 15.8.Phosphides -- 15.9.Arsenides, antimonides, and bismuthides -- 15.10.Hydrides -- 15.11.Halides -- 15.12.Oxohalides -- 15.13.Oxides and oxoanions of nitrogen -- 15.14.Oxides of phosphorus, arsenic, antimony, and bismuth -- 15.15.Oxoanions of phosphorus, arsenic, antimony, and bismuth -- 15.16.Condensed phosphates -- 15.17.Phosphazenes --
 
15.18.Organometallic compounds of arsenic, antimony, and bismuth -- Further Reading -- Exercises -- Tutorial Problems -- 16.The Group 16 elements -- pt. A The essentials -- 16.1.The elements -- 16.2.Simple compounds -- 16.3.Ring and cluster compounds -- pt. B The detail -- 16.4.Oxygen -- 16.5.Reactivity of oxygen -- 16.6.Sulfur -- 16.7.Selenium, tellurium, and polonium -- 16.8.Hydrides -- 16.9.Halides -- 16.10.Metal oxides -- 16.11.Metal sulfides, selenides, tellurides, and polonides -- 16.12.Oxides -- 16.13.Oxoacids of sulfur -- 16.14.Polyanions of sulfur, selenium, and tellurium -- 16.15.Polycations of sulfur, selenium, and tellurium -- 16.16.Sulfur-nitrogen compounds -- Further Reading -- Exercises -- Tutorial Problems -- 17.The Group 17 elements -- pt. A The essentials -- 17.1.The elements -- 17.2.Simple compounds -- 17.3.The interhalogens -- pt. B The detail -- 17.4.Occurrence, recovery, and uses -- 17.5.Molecular structure and properties --
 
17.6.Reactivity trends -- 17.7.Pseudohalogens -- 17.8.Special properties of fluorine compounds -- 17.9.Structural features -- 17.10.The interhalogens -- 17.11.Halogen oxides -- 17.12.Oxoacids and oxoanions -- 17.13.Thermodynamic aspects of oxoanion redox reactions -- 17.14.Trends in rates of oxoanion redox reactions -- 17.15.Redox properties of individual oxidation states -- 17.16.Fluorocarbons -- Further Reading -- Exercises -- Tutorial Problems -- 18.The Group 18 elements -- pt. A The essentials -- 18.1.The elements -- 18.2.Simple compounds -- pt. B The detail -- 18.3.Occurrence and recovery -- 18.4.Uses -- 18.5.Synthesis and structure of xenon fluorides -- 18.6.Reactions of xenon fluorides -- 18.7.Xenon-oxygen compounds -- 18.8.Xenon insertion compounds -- 18.9.Organoxenon compounds -- 18.10.Coordination compounds -- 18.11.Other compounds of noble gases -- Further Reading -- Exercises -- Tutorial Problems -- 19.The d-block elements --
 
pt. A The essentials -- 19.1.Occurrence and recovery -- 19.2.Chemical and physical properties -- pt. B The detail -- 19.3.Group 3: scandium, yttrium, and lanthanum -- 19.4.Group 4: titanium, zirconium, and hafnium -- 19.5.Group 5: vanadium, niobium, and tantaium -- 19.6.Group 6: chromium, molybdenum, and tungsten -- 19.7.Group 7: manganese, technetium, and rhenium -- 19.8.Group 8: iron, ruthenium, and osmium -- 19.9.Group 9: cobalt, rhodium, and iridium -- 19.10.Group 10: nickel, palladium, and platinum -- 19.11.Group 11: copper, silver, and gold -- 19.12.Group 12: zinc, cadmium, and mercury -- Further Reading -- Exercises -- Tutorial Problems -- 20.d-Metal complexes: electronic structure and properties -- Electronic structure -- 20.1.Crystal-field theory -- 20.2.Ligand-field theory -- Electronic spectra -- 20.3.Electronic spectra of atoms -- 20.4.Electronic spectra of complexes -- 20.5.Charge-transfer bands -- 20.6.Selection rules and intensities --
 
20.7.Luminescence -- Magnetism -- 20.8.Cooperative magnetism -- 20.9.Spin-crossover complexes -- Further Reading -- Exercises -- Tutorial Problems -- 21.Coordination chemistry: reactions of complexes -- Ligand substitution reactions -- 21.1.Rates of ligand substitution -- 21.2.The classification of mechanisms -- Ligand substitution in square-planar complexes -- 21.3.The nucleophilicity of the entering group -- 21.4.The shape of the transition state -- Ligand substitution in octahedral complexes -- 21.5.Rate laws and their interpretation -- 21.6.The activation of octahedral complexes -- 21.7.Base hydrolysis -- 21.8.Stereochemistry -- 21.9.Isomerization reactions -- Redox reactions -- 21.10.The classification of redox reactions -- 21.11.The inner-sphere mechanism -- 21.12.The outer-sphere mechanism -- Photochemical reactions -- 21.13.Prompt and delayed reactions -- 21.14.d-d and charge-transfer reactions -- 21.15.Transitions in metal-metal bonded systems --
 
Further Reading -- Exercises -- Tutorial Problems -- 22.d-Metal organometallic chemistry -- Bonding -- 22.1.Stable electron configurations -- 22.2.Electron-count preference -- 22.3.Electron counting and oxidation states -- 22.4.Nomenclature -- Ligands -- 22.5.Carbon monoxide -- 22.6.Phosphines -- 22.7.Hydrides and dihydrogen complexes -- 22.8.η1-Alkyl, -alkenyl, -alkynyl, and -aryl ligands -- 22.9.η2-Alkene and -alkyne ligands -- 22.10.Nonconjugated diene and polyene ligands -- 22.11.Butadiene, cyclobutadiene, and cyclooctatetraene -- 22.12.Benzene and other arenes -- 22.13.The allyl ligand -- 22.14.Cyclopentadiene and cycloheptatriene -- 22.15.Carbenes -- 22.16.Alkanes, agostic hydrogens, and noble gases -- 22.17.Dinitrogen and nitrogen monoxide -- Compounds -- 22.18.d-Block carbonyls -- 22.19.Metallocenes -- 22.20.Metal-metal bonding and metal clusters -- Reactions -- 22.21.Ligand substitution --
 
22.22.Oxidative addition and reductive elimination -- 22.23.σ-Bond metathesis -- 22.24.1,1-Migratory insertion reactions -- 22.25.1,2-Insertions and β-hydride elimination -- 22.26.α, γ, and δ-Hydride eliminations and cyclometallations -- Further Reading -- Exercises -- Tutorial Problems -- 23.The f-block elements -- The elements -- 23.1.The valence orbitals -- 23.2.Occurrence and recovery -- 23.3.Physical properties and applications -- Lanthanoid chemistry -- 23.4.General trends -- 23.5.Electronic, optical, and magnetic properties -- 23.6.Binary ionic compounds -- 23.7.Ternary and complex oxides -- 23.8.Coordination compounds -- 23.9.Organometallic compounds -- Actinoid chemistry -- 23.10.General trends -- 23.11.Electronic spectra of the actinoids -- 23.12.Thorium and uranium -- 23.13.Neptunium, plutonium, and americium -- Further Reading -- Exercises -- Tutorial Problems -- pt. 3 Frontiers --
 
24.Materials chemistry and nanomaterials -- Synthesis of materials -- 24.1.The formation of bulk material -- Defects and ion transport -- 24.2.Extended defects -- 24.3.Atom and ion diffusion -- 24.4.Solid electrolytes -- Metal oxides, nitrides, and fluorides -- 24.5.Monoxides of the 3d metals -- 24.6.Higher oxides and complex oxides -- 24.7.Oxide glasses -- 24.8.Nitrides, fluorides, and mixed-anion phases -- Sulfides, intercalation compounds, and metal-rich phases -- 24.9.Layered MS2 compounds and intercalation -- 24.10.Chevrel phases and chalcogenide thermoelectrics -- Framework structures -- 24.11.Structures based on tetrahedral oxoanions -- 24.12.Structures based on linked octahedral and tetrahedral centres -- Hydrides and hydrogen-storage materials -- 24.13.Metal hydrides -- 24.14.Other inorganic hydrogen-storage materials -- Optical properties of inorganic materials -- 24.15.Coloured solids -- 24.16.White and black pigments -- 24.17.Photocatalysts --
 
Semiconductor chemistry -- 24.18.Group 14 semiconductors -- 24.19.Semiconductor systems isoelectronic with silicon -- Molecular materials and fullerides -- 24.20.Fullerides -- 24.21.Molecular materials chemistry -- Nanomaterials -- 24.22.Terminology and history -- 24.23.Solution-based synthesis of nanoparticles -- 24.24.Vapour-phase synthesis of nanoparticles via solutions or solids -- 24.25.Templated synthesis of nanomaterials using frameworks, supports, and substrates -- 24.26.Characterization and formation of nanomaterials using microscopy -- Nanostructures and properties -- 24.27.One-dimensional control: carbon nanotubes and inorganic nanowires -- 24.28.Two-dimensional control: graphene, quantum wells, and solid-state superlattices -- 24.29.Three-dimensional control: mesoporous materials and composites -- 24.30.Special optical properties of nanomaterials -- Further Reading -- Exercises -- Tutorial Problems -- 25.Catalysis -- General principles --
 
25.1.The language of catalysis -- 25.2.Homogeneous and heterogeneous catalysts -- Homogeneous catalysis -- 25.3.Alkene metathesis -- 25.4.Hydrogenation of alkenes -- 25.5.Hydroformylation -- 25.6.Wacker oxidation of alkenes -- 25.7.Asymmetric oxidations -- 25.8.Palladium-catalysed C-C bond-forming reactions -- 25.9.Methanol carbonylation: ethanoic acid synthesis -- Heterogeneous catalysis -- 25.10.The nature of heterogeneous catalysts -- 25.11.Hydrogenation catalysts -- 25.12.Ammonia synthesis -- 25.13.Sulfur dioxide oxidation -- 25.14.Catalytic cracking and the interconversion of aromatics by zeolites -- 25.15.Fischer-Tropsch synthesis -- 25.16.Electrocatalysis and photocatalysis -- 25.17.New directions in heterogeneous catalysis -- Heterogenized homogeneous and hybrid catalysis -- 25.18.Oligomerization and polymerization -- 25.19.Tethered catalysts -- 25.20.Biphasic systems -- Further Reading -- Exercises -- Tutorial Problems --
 
26.Biological inorganic chemistry -- The organization of cells -- 26.1.The physical structure of cells -- 26.2.The inorganic composition of living organisms -- Transport, transfer, and transcription -- 26.3.Sodium and potassium transport -- 26.4.Calcium-signalling proteins -- 26.5.Zinc in transcription -- 26.6.Selective transport and storage of iron -- 26.7.Oxygen transport and storage -- 26.8.Electron transfer -- Catalytic processes -- 26.9.Acid-base catalysis -- 26.10.Enzymes dealing with H2O2 and O2 -- 26.11.The reactions of cobalt-containing enzymes -- 26.12.Oxygen atom transfer by molybdenum and tungsten enzymes -- Biological cycles -- 26.13.The nitrogen cycle -- 26.14.The hydrogen cycle -- Sensors -- 26.15.Iron proteins as sensors -- 26.16.Proteins that sense Cu and Zn levels -- Biominerals -- 26.17.Common examples of biominerals -- Perspectives -- 26.18.The contributions of individual elements -- 26.19.Future directions -- Further Reading --
 
Exercises -- Tutorial Problems -- 27.Inorganic chemistry in medicine -- The chemistry of elements in medicine -- 27.1.Inorganic complexes in cancer treatment -- 27.2.Anti-arthritis drugs -- 27.3.Bismuth in the treatment of gastric ulcers -- 27.4.Lithium in the treatment of bipolar disorders -- 27.5.Organometallic drugs in the treatment of malaria -- 27.6.Cyclams as anti-HIV agents -- 27.7.Inorganic drugs that slowly release CO: an agent against post-operative stress -- 27.8.Chelation therapy -- 27.9.Imaging agents -- 27.10.Outlook -- Further Reading -- Exercises -- Tutorial Problems -- Resource sections -- Resource section 1 Selected ionic radii -- Resource section 2 Electronic properties of the elements -- Resource section 3 Standard potentials -- Resource section 4 Character tables -- Resource section 5 Symmetry-adapted orbitals -- Resource section 6 Tanabe-Sugano diagrams.

Abstract
Leading the reader from the fundamental principles of inorganic chemistry, right through to cutting-edge research at the forefront of the subject, Inorganic Chemistry, Sixth Edition is the ideal course companion for the duration of a student's degree.

Subject Term
Chemistry, Inorganic.

Added Author
Overton, Tina,
 
Rourke, Jonathan,
 
Armstrong, F. A. (Fraser A.),


LibraryMaterial TypeItem BarcodeShelf NumberCopy
IIEMSAGeneral Books33168025793932546 W448.I 20141
IIEMSAGeneral Books33168025775715546 W448.I 20143
IIEMSAGeneral Books33168025792983546 W448.I 20144