University
Undergraduate chemistry (L1–L3): quantum mechanics applied to the atom, bonding theory (MO, hybridization), chemical thermodynamics, advanced kinetics, electrochemistry, advanced organic, inorganic, spectroscopies. Nine chapters to master the concepts that structure research, industry, and computational chemistry. The final chapter bridges to graduate work.
Advanced atomistics
The atom from a quantum point of view: Schrödinger equation, s/p/d/f orbitals, spin-orbit coupling, spectra.
Bonding and molecules
Advanced Lewis, formal VSEPR (Gillespie), hybridization, molecular orbital theory, energy diagrams.
Chemical thermodynamics
First and second laws, enthalpy, entropy, Gibbs free energy, thermodynamic equilibria.
Advanced kinetics
Complex mechanisms, steady state, homogeneous/heterogeneous/enzymatic catalysis, Michaelis-Menten.
Electrochemistry
Batteries, electrolysis, redox potentials, Nernst equation, Pourbaix diagrams. The bridge between chemistry and energy.
Advanced organic chemistry
Formal stereochemistry, SN/E mechanisms, aromatic chemistry, multi-step synthesis.
Inorganic chemistry
Coordination, transition metals, organometallics (intro), solid-state chemistry.
Spectroscopic methods
IR, UV-Vis, ¹H/¹³C NMR, mass spectrometry, intro to XRD. Identifying a molecule, monitoring a reaction.
Toward graduate work
Bridge chapter to graduate work: computational quantum chemistry, group theory, supramolecular, green chemistry and asymmetric catalysis.