Physical Chemistry
Thermodynamics, kinetics, and quantum mechanics applied to chemical systems.
Physical Chemistry — Thermodynamics, kinetics, and quantum mechanics applied to chemical systems.
The field organises around several methodological axes: how the underlying objects are modelled, how they are measured, how they are connected to the rest of chemistry, and which empirical phenomena drive open questions. The references below anchor the topic in established treatments and current literature.
Foundations and core methods
A primary reference for this area is Atkins’ Physical Chemistry (Atkins et al., 2018), which lays out the core concepts that govern physical chemistry. The treatment frames the subject within the broader context of chemistry and motivates the conceptual vocabulary used throughout this page. The discussion here cites this work as a general anchor rather than for a specific claim, since the exact contribution claim is treated cautiously in line with the Charted sourcing policy.
A complementary perspective comes from Physical Chemistry: A Molecular Approach (McQuarrie and Simon, 1997), which provides further background on the methods and results most relevant to physical chemistry. Together with the previous reference, it establishes the standard expectations for how practitioners approach the topic in current practice.
Open questions
Open methodological questions in physical chemistry include the transferability of the standard methods to harder regimes, the integration of newer measurement and modelling tools, and the connection to neighbouring subfields of chemistry. Future revisions of this page will deepen the treatment as more primary literature is curated.
Prerequisites
Sources
- textbook · primary · 2018Atkins' Physical Chemistryatkins-2018, depaula-2018, keeler-2018
- textbook · primary · 1997Physical Chemistry: A Molecular Approachmcquarrie-1997, simon-1997
In context
Where this topic sits in the prerequisite graph. Click any node to jump.
Explore
- 01
Ultrafast Spectroscopy
Femtosecond-to-picosecond optical probes that resolve chemical events — bond cleavage, electron transfer, vibrational relaxation, excited-state evolution — on the timescales at which they actually happen.
- 02
Chemical Thermodynamics
Energy, entropy, and free-energy concepts applied to chemical change.
- 03
Chemical Kinetics
Rate laws, mechanisms, and the temperature and pressure dependence of reaction rates.
- 04
Quantum Chemistry
Quantum mechanical treatment of atoms, molecules, and their interactions.
- 05
Chemical Statistical Mechanics
Connecting molecular partition functions to thermodynamic observables.
- 06
Molecular Spectroscopy
Light–matter interaction probes of molecular structure and dynamics.
- 07
Electrochemistry
Electron-transfer reactions at electrodes and in solution.
- 08
Magnetic Resonance
NMR, EPR, and their solid-state and time-resolved variants as physical-chemistry probes.
- 09
Reaction Dynamics
Crossed molecular beams, state-resolved scattering, and quasiclassical trajectories.
- 10
Cold and Ultracold Chemistry
Sub-Kelvin chemistry, quantum-controlled reactions, and Stark-decelerator experiments.
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