Michael C. Ogilvie

​Professor of Physics
PhD, Brown University
MSc, Brown University
BS, Massachusetts Institute of Technology
research interests:
  • Particle Physics
  • Quantum Field Theory
  • Quantum Chromodynamics
  • Lattice Gauge Theory

contact info:

mailing address:

  • WASHINGTON UNIVERSITY
  • CB 1105
  • ONE BROOKINGS DR.
  • ST. LOUIS, MO 63130-4899

​Professor Ogilvie's research interests include particle physics and quantum field theory, extreme QCD, lattice gauge theory, phase transitions, and critical phenomena.

One of the great unifying themes in modern physics is the investigation of different phases of matter. Just as water occurs in solid, liquid and gaseous forms, theories of fundamental particles can manifest in different phases. In the universe as we know it today, the electromagnetic and gravitational forces are associated with a Coulomb phase, where massless photons and gravitons give rise to long-range forces. The weak force is associated with the Higgs phase, which has a close relation to superconductivity. The strong force confines quarks and gluons, yet another phase of fundamental matter. Phase transitions from one phase of fundamental matter to another are crucial in modern particle physics and astrophysics.

Ogilvie’s work centers around the phase structure of QCD, the modern theory of the strong interactions between quarks. Using a combination of theoretical tools and computer simulation methods, the goal of his research is to determine the phase structure of QCD under extreme conditions, such as high temperature or high density.

 

Publications

Complete publications list 

 

recent courses

Computational Methods (Physics 584)

This course provides an introduction to the computational techniques that are most widely used in both theoretical and experimental research in physics. Each lecture will use a realistic research problem to introduce the algorithms, software packages and numerical techniques that will be used by the students to develop a solution on the computer. Topics include Monte Carlo techniques, symbolic analysis with Mathematica, data acquisition software used in the laboratory, the numerical solution of quantum mechanical problems, and an introduction to general purpose frameworks based on Python.

    Relativistic Quantum Field Theory (Physics 552)

    Continuation of Physics 551. Path integral quantization of spin 1/2 and spin 1 fields. Quantum electrodynamics. Ward identities and renormalization. Computation of the electron anomalous magnetic moment and the Lamb shift. Non-Abelian gauge theories and their quantization. Quantum chromodynamics and asymptotic freedom. Spontaneous symmetry breaking and the Standard Model.

      Relativistic Quantum Mechanics (Physics 551)

      Introduction to Quantum Field Theory using simple 1-dimensional and/or scalar field examples. Canonical quantization and path integrals; Feynman diagrams; Lorentz group; discrete symmetries; LSZ theorem. Introduction to regularization and renormalization.

        Honors and Awards

        1975 University Fellow, Brown University

        1987 Outstanding Junior Investigator Award, US Department of Energy

         

        Professional History

        1997- Professor, Washington University

        1992-1997 Associate Professor, Washington University

        1986-1992 Assistant Professor, Washington University

        1984-1986 Senior Research Associate, Washington University

        1982-1983 Research Associate, Brookhaven National Laboratory

        1980-1982 Research Associate, University of Maryland