CH-160(b): General chemistry

Lectures in this course (80)

Explains buffer solutions and pH calculations when adding acids or bases.

Covers the balancing of redox reactions using oxidation numbers and making simplifying assumptions.

Explores chemical bonds, electron sharing, Lewis theory, and bond representation in 2D and 3D, emphasizing ionic compound properties and bond types.

Explains drawing Lewis structures, assigning charges, and determining molecular geometries based on electronic repulsion energy.

Explores enzymatic catalysis mechanisms, Michaelis-Menten kinetics, and activation energy.

Demonstrates the effects of vapor pressure by establishing an equilibrium between the liquid and gas forms of a substance.

Explores chemical kinetics, reaction rates, speed laws, and activation energy in various reactions.

Explores a highly exothermic reaction involving aluminum and iron oxide.

Explores ideal solutions, thermodynamics of mixtures, chemical potential, and colligative properties of solutions.

Introduces reaction orders, rate laws, and temperature influence in chemical kinetics.

Explores the Bohr model of the atom and electron configuration in detail.

Explores the Bohr model, electron duality, emission spectrum, and photoelectric effect in atomic structure.

Explores the quantum model of the atom, electron configuration, orbital shapes, and stability.

Explores the periodic table, atomic structure, and trends in atomic properties.

Explores periodic trends in ionization energy, electron affinity, and electronegativity, emphasizing their role in predicting element properties.

Covers chemical balances, bond types, thermodynamics, reaction rates, and atomic models.

Explores Raoult's Law for ideal solutions and Henry's Law for gas solubility.

Explores Michaelis-Menten enzymatic kinetics, steady-state, enzyme saturation, and catalytic efficiency of enzymes.

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