AEPA Chemistry NT306 study materials
AEPA Chemistry NT306 study resources

AEPA Chemistry NT306 study plan

AEPA Chemistry NT306 · Give each week a clear focus.

8 weeks · About 6 hours per week

Week 1

Matter and Its Properties & Atomic and Molecular Structure

  • Classify matter by composition and particle-level structure, and justify each classification in writing

  • Distinguish physical from chemical properties and changes using evidence-based criteria

  • Convert among mass, volume, density, and temperature scales with unit tracking

  • Draw and label atomic and molecular models (Lewis, electron configuration, orbital box) for representative elements

Your checkpoint

A 20-item self-made classification and calculation set with worked solutions scored to 90% accuracy

Week 2

Atomic and Molecular Structure & Chemical Reactions

  • Predict periodic trends (atomic radius, ionization energy, electronegativity, electron affinity) and explain each in terms of nuclear charge and shielding

  • Determine bond type and molecular geometry from electronegativity differences and VSEPR counting

  • Write and name ionic, covalent, and acid formulas from constituent ions and prefixes

  • Balance equations and identify reaction types (synthesis, decomposition, single/double replacement, combustion)

Your checkpoint

A one-page periodic-trends and bonding summary sheet plus 15 balanced equations with reaction-type labels

Week 3

Chemical Reactions & Matter and Its Properties

  • Solve stoichiometry problems across grams, moles, particles, and gas volumes, including limiting-reactant and percent-yield cases

  • Apply solubility rules to predict precipitate formation and write net ionic equations

  • Calculate molarity and perform dilution and titration calculations

  • Perform mole-to-mole conversions through a full multi-step problem without prompts

Your checkpoint

A timed 10-problem stoichiometry and solution-chemistry quiz completed in 45 minutes with 80% or better

Week 4

Chemical Reactions & Thermodynamics and Kinetics

  • Identify acids, bases, and conjugate pairs and predict neutralization products

  • Assign oxidation numbers and identify oxidized and reduced species in redox reactions

  • Distinguish exothermic from endothermic processes using enthalpy sign conventions and energy diagrams

  • Write equilibrium expressions and apply Le Chatelier's principle qualitatively

Your checkpoint

A 15-item acid-base, redox, and thermochemistry problem set with annotated reasoning for each answer

Week 5

Thermodynamics and Kinetics

  • Calculate enthalpy changes using Hess's law, calorimetry data, and standard heats of formation

  • Apply collision theory and transition-state reasoning to explain how temperature, concentration, surface area, and catalysts affect rate

  • Interpret rate laws and reaction-order data from initial-rate tables

  • Explain how equilibrium constants relate to reaction spontaneity and temperature dependence

Your checkpoint

A worked kinetics and thermodynamics portfolio of 8 problems, including one Hess's law and one calorimetry calculation shown step by step

Week 6

Nature of Science & Thermodynamics and Kinetics

  • Design a controlled experiment that isolates one independent variable and identify all controls and constants

  • Distinguish accuracy from precision and calculate percent error and significant figures correctly

  • Evaluate claims by identifying assumptions, alternative explanations, and sources of systematic error

  • Distinguish a hypothesis, a law, and a theory using chemistry examples

Your checkpoint

A written experimental design for a rate-of-reaction investigation including variables, controls, data table, and error analysis

Week 7

Nature of Science & Matter and Its Properties & Atomic and Molecular Structure

  • Interpret and construct graphs, tables, and models used in chemistry and identify their limitations

  • Connect macroscopic observations to particulate-level and symbolic representations for three phenomena

  • Compare scientific explanations with pseudoscientific or non-testable claims using explicit criteria

  • Explain the role of peer review, replication, and revision in the development of chemical knowledge

Your checkpoint

A three-representation explainer (macroscopic, particulate, symbolic) for one reaction plus a short written evaluation of a flawed experimental claim

Week 8

Nature of Science & Matter and Its Properties & Chemical Reactions & Thermodynamics and Kinetics & Atomic and Molecular Structure

  • Integrate concepts across all five domains by solving mixed-topic problems in exam-like conditions

  • Diagnose and remediate the two weakest domains identified by practice-test data

  • Rehearse timing and question-strategy routines for multiple-choice and constructed-response items

  • Review and correct all previously missed items in the error log

Your checkpoint

A full-length 100-question practice exam scored at 80% or higher, with a completed error-log remediation for every missed item

Milestones

Week 2: Score 85% or higher on a 25-question self-quiz covering matter classification, atomic structure, bonding, and nomenclature

Week 4: Complete the timed stoichiometry quiz at 80% or higher and submit the acid-base/redox/thermochemistry set with reasoning for all items

Week 6: Submit the experimental design deliverable and pass a self-check that all variables, controls, and error sources are explicitly identified

Week 8: Score 80% or higher on the full-length practice exam with all missed items remediated in the error log