Computational Physics

Numerical algorithms and high-performance computing for physical models.


foundation tier

Computational Physics is a topic within applied and computational. Numerical algorithms and high-performance computing for physical models. The area sits at the intersection of foundational theory and active research practice, and its methodology is shaped by a small set of canonical references that frame how problems are posed, how results are validated, and what counts as progress.

Work in this area progresses along several axes: the canonical theoretical framework, benchmark problems that calibrate methods against known answers, computational and experimental tooling that extends reach to larger or more complex systems, and frontier questions that current references either open up or partially answer. The references cited below illustrate these axes in different ways and together define the working vocabulary of the field.

Foundational references

The primary references for this topic establish the conceptual core and the standard problem set.

Computational Physics (Thijssen, 2007) is treated here as a primary reference for this area; its presentation of the subject is the canonical entry point for learners moving from prerequisites into independent work on computational physics.

Numerical Recipes: The Art of Scientific Computing (Press et al., 2007) is treated here as a primary reference for this area; its presentation of the subject is the canonical entry point for learners moving from prerequisites into independent work on computational physics.

Open methodological questions in computational physics include the precise scope of validity of the current dominant techniques, the integration of newer computational or experimental tools, and how this topic connects to neighbouring areas in the tree. Subsequent waves of editing will deepen these connections and add fresh frontier references as the literature evolves.

Prerequisites

Sources

  • textbook · primary · 2007
    Computational Physics
    thijssen-2007
  • textbook · primary · 2007
    Numerical Recipes: The Art of Scientific Computing
    press-2007, teukolsky-press-2007, vetterling-2007, flannery-2007

In context

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  1. 01

    Molecular Dynamics

    Classical N-body simulation of atoms and molecules with empirical force fields.

  2. 02

    Ab Initio Molecular Dynamics

    First-principles dynamics combining electronic-structure calculations with nuclear motion.

  3. 03

    Quantum Monte Carlo

    Stochastic methods for ground-state and finite-temperature quantum many-body problems.

  4. 04

    Tensor Network Methods

    DMRG, MPS, PEPS, and MERA for low-entanglement many-body problems.

  5. 05

    Finite Element Methods (Physics)

    FEM discretization for elasticity, electromagnetism, and coupled PDE physics.

  6. 06

    Particle-in-Cell Methods

    Kinetic plasma and beam simulations using PIC discretization.

  7. 07

    Machine Learning for Physics

    Neural networks, surrogate models, and learned representations of physical systems.

  8. 08

    Scientific Machine Learning

    Physics-informed neural networks, operator learning, and differentiable simulation.

  9. 09

    Inverse Problems (Physics)

    Reconstruction of physical states and parameters from observational data.

  10. 10

    Data-Driven Discovery of Equations

    Sparse regression, symbolic regression, and operator-learning approaches to model discovery.

  11. 11

    High-Performance Computing for Physics

    Parallel architectures, GPUs, and exascale strategies for physics simulations.

  12. 12

    Lattice Boltzmann Methods

    Mesoscopic kinetic schemes for fluid and complex-flow simulation.

  13. 13

    Neural-Network Wavefunctions

    Variational ansätze parameterized by neural networks for quantum many-body problems.

  14. 14

    Differentiable Physics Simulators

    End-to-end differentiable simulators enabling gradient-based design and inference.

  15. 15

    Uncertainty Quantification in Physics

    Probabilistic propagation of input/model uncertainty through physical simulators.


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