Classify acids, bases, and oxides, calculate pH, conduct volumetric titrations, and write full and net ionic neutralization equations.

Model electron configurations, analyze periodic trends, and explain bonding mechanisms and intermolecular forces in crystalline and molecular structures.

Analyze the movement of carbon, nitrogen, and water across Earth's spheres and assess how biological processes and anthropogenic disruptions influence climate equilibrium.

Analyze the molecular structures, monomeric subunits, and physiological functions of carbohydrates, lipids, proteins, and nucleic acids, and execute biochemical identification assays.

Describe eukaryotic cell cycle phases, semiconservative DNA replication, and mitotic division, explain stem cell differentiation, and analyze oncogenic checkpoint failures.

Compare prokaryotic and eukaryotic cellular ultrastructures, explain the endosymbiotic theory of organelle evolution, and apply microscopy techniques to analyze specimen dimensions.

Analyze cellular respiration as an exothermic catabolic pathway, comparing the biochemical stages of aerobic respiration with anaerobic fermentation.

Explain reaction rates using collision theory, analyze activation energy profiles with catalysts, and predict equilibrium shifts using Le Chatelier's principle.

Analyze series and parallel direct-current circuits using Ohm's law, calculate electrical energy use, and model electromagnetic induction in motors and generators.