4.15. Inorganic Chemistry (INC)

4.15. Inorganic Chemistry (INC)

This knowledge area covers the fundamental principles of inorganic chemistry including atomic structure, coordination chemistry, main group and transition metal chemistry, organometallic chemistry, and solid-state materials. It emphasizes bonding theories, reaction mechanisms, and applications in catalysis and materials science.

Knowledge Area (KA) Core
Tier1
Core
Tier2
 4.15.1 Solid State and Material Chemistry 11
 4.15.2 Atomic Structure and Periodicity Elective
Table 4.15: List of KUs in the Inorganic Chemistry area.

4.15.1. INC/Solid State and Material Chemistry  (Core Tier1: 1 hr, Core Tier2: 1 hr) ↑ Back to top

Principles of solid-state chemistry including crystal structures, bonding in engineering solids, defect chemistry, electronic properties, and synthesis methods for inorganic materials.
Topics:
Core

  • Crystal systems, Bravais lattices, and Miller indices for engineering materials
  • X-ray diffraction for crystal structure determination and phase identification
  • Ionic compounds: crystal structures and lattice energies
  • Metallic and covalent network solids: bonding and engineering properties
  • Point defects, vacancies, interstitials, and non-stoichiometry in engineering solids
  • Band theory and the electronic properties of engineering conductors, semiconductors, and insulators
  • Synthesis methods for engineering inorganic materials: solid-state reactions, sol-gel, and CVD

Learning Outcomes:
Core:

  1. Identify crystal systems and describe symmetry operations in engineering solid materials [Familiarity]
  2. Interpret X-ray diffraction patterns to identify crystal phases and determine unit cell parameters [Usage]
  3. Calculate lattice energies using Born-Haber cycles for engineering ionic compounds [Usage]
  4. Explain how point defects control diffusion, conductivity, and corrosion in engineering materials [Assessment]
  5. Apply band theory to predict and engineer the electrical properties of solid materials [Assessment]
  6. Select synthesis methods appropriate for producing specific engineering inorganic materials [Usage]

4.15.2. INC/Atomic Structure and Periodicity ↑ Back to top

Fundamental concepts of atomic structure, electron configuration, periodic trends, and the relationship between electronic structure and chemical properties of engineering materials.
Topics:
Core

  • Quantum numbers and atomic orbitals
  • Electron configuration and the Aufbau principle
  • Periodic trends: atomic radius, ionization energy, and electronegativity
  • Effective nuclear charge and shielding effects relevant to material selection
  • Spin-orbit coupling and magnetic properties of engineering materials

Learning Outcomes:
Core:

  1. Describe quantum numbers and their role in defining atomic orbitals of engineering elements [Familiarity]
  2. Write electron configurations for atoms and ions commonly encountered in engineering materials [Usage]
  3. Predict periodic trends in atomic properties and relate them to material engineering performance [Assessment]
  4. Interpret magnetic properties of engineering alloys using spin-orbit coupling considerations [Usage]

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