HUNTERTUTORING

Polymer chemistry

Undergraduate · Chemistry

Syllabus focus

Topics typically covered

Standard syllabus

Polymer fundamentals

  • Definitions: monomer, oligomer, polymer, macromolecule
  • Average molecular weights: Mn, Mw, polydispersity index
  • Polymer architecture: linear, branched, cross-linked, network
  • Tacticity: isotactic, syndiotactic, atactic
  • Copolymers: random, alternating, block, graft
  • Thermodynamics of polymer solutions
  • Flory–Huggins theory (introduction)
  • Theta conditions and coil dimensions
  • Rubber elasticity and entropic elasticity
  • Viscoelasticity: creep, stress relaxation, dynamic mechanical analysis

Polymerization mechanisms

  • Step-growth (condensation) polymerization
  • Carothers equation and gel point
  • Chain-growth (addition) polymerization
  • Free-radical polymerization: initiation, propagation, termination
  • Radical inhibitors and retarders
  • Ionic polymerization: anionic and cationic
  • Living polymerizations: ATRP, RAFT, NMP (overview)
  • Ring-opening polymerization
  • Coordination polymerization: Ziegler–Natta, metallocene catalysts
  • Copolymerization: reactivity ratios and Mayo–Lewis equation

Polymer properties and transitions

  • Glass transition temperature: factors affecting Tg
  • Crystallinity and melting temperature
  • Factors affecting crystallization rate
  • Amorphous vs semicrystalline morphology
  • Polymer blends and compatibilization
  • Plasticizers and additives
  • Degradation: thermal, oxidative, photolytic, hydrolytic
  • Mechanical properties: tensile, impact, fatigue
  • Rheology of polymer melts and solutions
  • Structure–property design principles

Characterization methods

  • Size-exclusion chromatography (GPC/SEC)
  • Light scattering for molecular weight
  • Viscometry and intrinsic viscosity
  • Differential scanning calorimetry for Tg and Tm
  • Thermogravimetric analysis for thermal stability
  • IR and NMR spectroscopy of polymers
  • X-ray diffraction for crystallinity
  • Microscopy: optical and electron microscopy of morphology
  • Dynamic mechanical analysis (DMA)
  • Spectroscopic identification of polymer types

STEM / applied

Laboratory synthesis

  • Free-radical polymerization of styrene or MMA
  • Emulsion polymerization techniques
  • Cross-linking with divinyl monomers
  • Determination of molecular weight by GPC
  • DSC analysis of glass transition
  • Tensile testing of polymer films
  • Safe handling of monomers and initiators
  • Polymer film casting and molding
  • Green polymerization solvents and catalysts
  • Writing polymer lab reports with characterization data

Industrial and applied polymers

  • Commodity plastics: PE, PP, PVC, PS, PET
  • Engineering plastics: nylon, polycarbonate, PEEK
  • Elastomers: natural rubber, SBR, silicone
  • Adhesives and coatings chemistry
  • Biodegradable and bio-based polymers
  • Polymer recycling and circular economy
  • Polymer composites in automotive and aerospace
  • Biomedical polymers: sutures, implants, drug delivery
  • Conducting polymers in electronics
  • Career paths in polymer science and plastics engineering

Study units

Each unit includes a study guide, worksheets, review, practice test, and answer key. One unit is free; subscribe for the full class.

  • Polymer fundamentals

    Definitions: monomer, oligomer, polymer, macromolecule

    Coming soon
  • Polymerization mechanisms

    Step-growth (condensation) polymerization

    Coming soon
  • Polymer properties and transitions

    Glass transition temperature: factors affecting Tg

    Coming soon
  • Characterization methods

    Size-exclusion chromatography (GPC/SEC)

    Coming soon

Notes

Topics reflect common polymer chemistry syllabi at US colleges and universities. Prior organic chemistry background is essential. Overlap with materials science courses is common.