HUNTERTUTORING

Qualifying exam prep

Graduate · Chemistry

Syllabus focus

Standard syllabus · STEM / applied

Pricing

Graduate-level rates are set on consultation. See the pricing page for K–12 and undergraduate rates.

Topics typically covered

Standard syllabus

Exam format and strategy

  • Understanding departmental qualifying exam structure
  • Written vs oral exam components and timing
  • Topic coverage: organic, inorganic, physical, analytical breadth
  • Historical pass rates and common failure modes
  • Study timeline: 6-month and 3-month preparation plans
  • Practice exam archives and peer study groups
  • Faculty expectations and evaluation rubrics
  • Retake policies and appeal procedures
  • Balancing research and exam preparation
  • Stress management and exam-day logistics

Organic chemistry review

  • Reaction mechanisms: substitution, elimination, addition, rearrangement
  • Pericyclic reactions and stereochemistry
  • Spectroscopy-based structure elucidation problems
  • Retrosynthesis and forward synthesis planning
  • Named reactions and reagent selection
  • Physical organic concepts: Hammett, pKa, kinetics
  • Organometallic catalysis mechanisms
  • Bioorganic and medicinal chemistry highlights
  • Common qualifying exam problem types
  • Timed problem-solving practice strategies

Inorganic and analytical review

  • Coordination chemistry: bonding, spectra, magnetism
  • Organometallic reaction steps and catalytic cycles
  • Main-group chemistry and cluster compounds
  • Solid-state and materials chemistry essentials
  • Group theory and symmetry applications
  • Quantitative analysis: error, equilibrium, electrochemistry
  • Instrumental methods: chromatography, MS, NMR, IR
  • Spectroscopic interpretation problems
  • Bioinorganic highlights: metalloproteins, models
  • Descriptive chemistry trends across the periodic table

Physical chemistry review

  • Thermodynamics: laws, potentials, phase equilibria
  • Statistical mechanics: ensembles, partition functions
  • Chemical kinetics: rate laws, mechanisms, catalysis
  • Quantum chemistry: hydrogen atom, MO theory, spectroscopy
  • Electrochemistry: Nernst, Butler–Volmer, cells
  • Transport phenomena: diffusion, viscosity (intro)
  • Mathematical methods: calculus, differential equations, linear algebra
  • Physical chemistry problem-solving techniques
  • Connecting theory to experimental observables
  • Cross-topic integrative problems

STEM / applied

Practice and remediation

  • Weekly timed problem sets mimicking exam conditions
  • Mock oral exams with peers and mentors
  • Whiteboard presentation practice for oral components
  • Identifying and filling knowledge gaps systematically
  • One-page summary sheets for each major topic area
  • Flashcard decks for reactions, reagents, and constants
  • Office hours with faculty for clarification of scope
  • Review of classic textbooks: Clayden, Miessler, Atkins, Skoog
  • Online resources: MIT OCW, Khan Academy for math review
  • Post-mortem analysis of practice exam performance

Program navigation

  • Understanding advancement to candidacy requirements
  • Advisor selection timing relative to qualifying exam
  • Committee composition and expectations
  • Funding implications of exam outcomes
  • International student visa considerations
  • Accommodations for disabilities and extensions
  • Department culture and peer support networks
  • Transition from coursework to research focus
  • Long-term career planning beyond the qualifying exam
  • Alumni advice and mentorship for exam preparation

Notes

Qualifying exam preparation varies significantly by department. Topics reflect common breadth expected at US chemistry PhD programs. Standard and STEM/applied tracks cover complementary study strategies; align preparation with your department's specific exam format and rubric.