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CHE 310: Inorganic Chemistry

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CHE 310: Inorganic Chemistry

The course offers a detailed description of atomic structure, acid-base theories, basic concepts of symmetry, group theory, and their application in chemical bonding, reactivity, and spectroscopy of inorganic compounds. Selected topics in main group chemistry and nuclear chemistry will also be included.

Chemistry
Author
Hernan Biava
Publisher
Brevard College
Source
LibreTexts
Language
EN
Category
Basic Sciences
Read online Download PDF (open licence)
Contents· 139 sections
  1. 01: Introduction to Inorganic Chemistry
  2. 1.01: What is Inorganic Chemistry
  3. 1.02: Inorganic vs Organic Chemistry
  4. 1.03: History of Inorganic Chemistry
  5. 1.04: Exercises
  6. 02: Atoms Molecules and Ions
  7. 2.01: Introduction
  8. 2.02: Early Ideas in Atomic Theory
  9. 2.03: Evolution of Atomic Theory
  10. 2.04: Atomic Structure and Symbolism
  11. 2.05: Chemical Formulas
  12. 2.06: The Periodic Table
  13. 2.07: Molecular and Ionic Compounds
  14. 2.08: Chemical Nomenclature
  15. 2.09: Key Terms
  16. 2.10: Key Equations
  17. 2.11: Summary
  18. 2.12: Exercises
  19. 03: Electronic Structure and Periodic Properties
  20. 3.01: Introduction
  21. 3.02: Electromagnetic Energy
  22. 3.03: The Bohr Model
  23. 3.04: Development of Quantum Theory
  24. 3.05: Electronic Structure of Atoms (Electron Configurations)
  25. 3.06: Periodic Variations in Element Properties
  26. 3.07: Key Terms
  27. 3.08: Key Equations
  28. 3.09: Summary
  29. 3.10: Exercises
  30. 04: Chemical Bonding and Molecular Geometry
  31. 4.01: Introduction
  32. 4.02: Ionic Bonding
  33. 4.03: Covalent Bonding
  34. 4.04: Lewis Symbols and Structures
  35. 4.05: Formal Charges and Resonance
  36. 4.06: Strengths of Ionic and Covalent Bonds
  37. 4.07: Molecular Structure and Polarity
  38. 4.08: Key Terms
  39. 4.09: Key Equations
  40. 4.10: Summary
  41. 4.11: Exercises
  42. 05: Advanced Theories of Covalent Bonding
  43. 5.01: Introduction
  44. 5.02: Valence Bond Theory
  45. 5.03: Hybrid Atomic Orbitals
  46. 5.04: Multiple Bonds
  47. 5.05: Molecular Orbital Theory
  48. 5.5.01: MO Diagrams for Heterodiatomic Molecules
  49. 5.5.02: MO Diagrams for Water and Nitrate Ion
  50. 5.5.03: Types of MOs
  51. 5.5.04: Frontier MOs- An Acid-Base Theory
  52. 5.06: Key Terms
  53. 5.07: Key Equations
  54. 5.08: Summary
  55. 5.09: Exercises
  56. 06: Transition Metals and Coordination Chemistry
  57. 6.01: Introduction
  58. 6.02: Occurrence Preparation and Properties of Transition Metals and Their Compounds
  59. 6.03: Coordination Chemistry of Transition Metals
  60. 6.04: Bonding Spectroscopic and Magnetic Properties of Coordination Compounds
  61. 6.05: Key Terms
  62. 6.06: Summary
  63. 6.07: Exercises
  64. 07: Symmetry and Group Theory
  65. 7.01: Symmetry Elements and Operations
  66. 7.02: Point Groups
  67. 7.2.01: Groups of Low and High Symmetry
  68. 7.2.02: Other Groups
  69. 7.03: Properties and Representations of Groups
  70. 7.3.01: Matrices
  71. 7.3.02: Representations of Point Groups
  72. 7.3.03: Character Tables
  73. 7.04: Examples and Applications of Symmetry
  74. 7.4.01: Chirality
  75. 7.4.02: Molecular Vibrations
  76. 7.05: Exercises
  77. 08: Liquids and Solids
  78. 8.01: Introduction
  79. 8.02: Intermolecular Forces
  80. 8.03: Properties of Liquids
  81. 8.04: Phase Transitions
  82. 8.05: Phase Diagrams
  83. 8.06: The Solid State of Matter
  84. 8.07: Lattice Structures in Crystalline Solids
  85. 8.08: Key Terms
  86. 8.09: Key Equations
  87. 8.10: Summary
  88. 8.11: Exercises
  89. 09: Acid-Base and Donor-Acceptor Chemistry
  90. 9.01: Arrhenius Model
  91. 9.02: Brnsted-Lowry Model
  92. 9.03: Lewis Concept and Frontier Orbitals
  93. 9.04: Hard and Soft Acids and Bases
  94. 9.05: Exercises
  95. 10: Reduction and Oxidation Chemistry
  96. 10.01: Review of Redox Chemistry
  97. 10.02: Oxidation States of Transition Metals
  98. 10.03: Electrochemical Potentials
  99. 10.04: Latimer Diagrams
  100. 10.05: Frost Diagrams
  101. 10.06: Pourbaix Diagrams
  102. 10.07: Exercises
  103. 11: Representative Metals Metalloids and Nonmetals
  104. 11.01: Introduction
  105. 11.02: Periodicity
  106. 11.03: Occurrence and Preparation of the Representative Metals
  107. 11.04: Structure and General Properties of the Metalloids
  108. 11.05: Structure and General Properties of the Nonmetals
  109. 11.06: Occurrence Preparation and Compounds of Hydrogen
  110. 11.07: Occurrence Preparation and Properties of Carbonates
  111. 11.08: Occurrence Preparation and Properties of Nitrogen
  112. 11.09: Occurrence Preparation and Properties of Phosphorus
  113. 11.10: Occurrence Preparation and Compounds of Oxygen
  114. 11.11: Occurrence Preparation and Properties of Sulfur
  115. 11.12: Occurrence Preparation and Properties of Halogens
  116. 11.13: Occurrence Preparation and Properties of the Noble Gases
  117. 11.14: Key Terms
  118. 11.15: Summary
  119. 11.16: Exercises
  120. 12: Nuclear Chemistry
  121. 12.01: Introduction
  122. 12.02: Nuclear Structure and Stability
  123. 12.03: Nuclear Equations
  124. 12.04: Radioactive Decay
  125. 12.05: Transmutation and Nuclear Energy
  126. 12.06: Uses of Radioisotopes
  127. 12.07: Biological Effects of Radiation
  128. 12.08: Key Terms
  129. 12.09: Key Equations
  130. 12.10: Summary
  131. 12.11: Exercises
  132. 13: Bioinorganic Chemistry
  133. 13.01: Biological Significance of Metals
  134. 13.02: Introduction to Amino Acids and Proteins
  135. 13.03: Biological Dioxygen Transport and Storage
  136. 13.04: Biological Metal Storage
  137. 13.05: Zinc as Lewis Acid and Template
  138. 13.06: Electron Transfer
  139. 13.07: Exercises