MTEL Chemistry study plan

Map the official MTEL Chemistry subarea breakdown and weight each subarea by expected question count so study time is allocated proportionally.

Build a one-page equation sheet covering stoichiometry, gas laws, thermochemistry, and equilibrium expressions, then solve five mixed calculation problems without notes.

Diagnose baseline weaknesses by completing a timed 40-question mixed practice set and logging every error by subarea.

Review dimensional analysis and significant-figure conventions until unit-cancellation setups are automatic.

Solve stoichiometry problems involving limiting reactants, percent yield, and solution molarity, showing full unit tracking.

Apply gas laws (ideal, combined, Dalton partial pressures, Graham diffusion) to multi-step problems.

Perform thermochemistry calculations with calorimetry, Hess's law, and bond-energy data.

Write and balance net ionic equations for precipitation, acid-base, and redox reactions in acidic and basic media.

Predict periodic trends (atomic radius, ionization energy, electronegativity, electron affinity) and justify each with effective nuclear charge and shielding.

Draw Lewis structures, assign formal charges, and apply VSEPR to predict geometry and polarity.

Distinguish intermolecular forces and predict relative boiling points, solubility, and vapor pressure.

Explain hybridization and molecular orbital basics for diatomic and simple polyatomic species.

Calculate equilibrium constants, reaction quotients, and shifts using Le Chatelier reasoning.

Solve weak acid/base, buffer, and titration pH problems including polyprotic cases.

Apply solubility product and common-ion effects to precipitation predictions.

Connect thermodynamics (Gibbs free energy) to spontaneity and equilibrium position.

Predict organic reaction products for substitution, elimination, addition, and oxidation-reduction pathways.

Identify functional groups and apply IUPAC naming to alkanes, alkenes, aromatics, alcohols, carbonyls, and carboxylic acid derivatives.

Interpret IR and NMR spectra to propose structures from data.

Describe biochemical building blocks (amino acids, carbohydrates, lipids, nucleic acids) and their key reactions.

Analyze kinetics data to determine rate laws, reaction order, half-life, and activation energy.

Apply electrochemistry to cell potentials, spontaneity, and electrolysis stoichiometry.

Explain nuclear decay modes, half-life calculations, and balancing nuclear equations.

Describe laboratory safety, waste handling, and proper use of common instrumentation.

Integrate all subareas by completing two full-length timed practice exams under test-day conditions.

Analyze each miss by root cause (content gap, misread, calculation slip) and rank remediation priorities.

Rehearse a strategy for calculation-heavy items, including estimation and answer-elimination techniques.

Review the weakest three subareas identified across both practice exams.

Close remaining content gaps by re-solving every previously missed problem type until correct on first attempt.

Recite from memory the core equation sheet, periodic trends, and functional-group reactions.

Complete one final timed mixed set and confirm scores are stable or improving.

Finalize test-day logistics: registration confirmation, ID, timing plan, and rest schedule.