Research areas


Astronomy and Astrophysics Division

... Groundbreaking research, cutting-edge technology, award-winning faculty – UCLA’s Division of Astronomy & Astrophysics offers a rewarding environment to pursue higher education and topical research. All members of the Division carry out active research programs that garner widespread international recognition. Doctoral students can participate in a variety of research projects.

Research activities include the following areas.

Faculty Research

  • Eric Becklin focuses on the observational studies of the regions around the Massive Black Hole in the center of the Milky Way and other regions of star formation in the Galaxy. He is the Chief Scientific Advisor on SOFIA.
  • Tuan Do works to understand the formation of the nuclei of galaxies - He's currently studying the composition and star formation history of the Milky Way nuclear star cluster and how these stars interact with the supermassive black hole at the Galactic center.
  • Mike Fitzgerald is interested in extrasolar planets and their formation using indirect and direct techniques such as adaptive optics, coronagraphy, and interferometry. He also works to develop infrared instrumentation.
  • Steve Furlanetto studies theoretically the first galaxies in the Universe and their effects on the Universe around them.
  • Andrea Ghez is carrying out a diffraction-limited study of the Galaxy's central stellar cluster. This program has provided strong evidence for a supermassive black hole at the center of the Milky Way and is continuing to study the environs of this region.
  • Brad Hansen studies the evolution of white dwarf stars and the formation and evolution of planetary systems.
  • James Larkin uses infrared spectroscopy and diffraction limited imaging to study nearby galaxies.
  • Matthew Malkaninvestigates active galactic nuclei, quasars, and the evolution of young galaxies.
  • Ian McLean is director of the Infrared Astronomy Laboratory at UCLA and studies sub-stellar mass objects (brown dwarfs).
  • Mark Morris studies the fate of massive stars and star clusters at the Galactic center, and is trying to determine the character and the origin of the magnetic field in the central few hundred parsecs of the Galaxy. He also studies the hot, diffuse gas at the Galactic center with the Chandra and XMM X-ray observatories.
  • Smadar Naoz is studying structure formation in the very early Universe. This involves both analytical and numerical simulations of the first gas rich and poor objects.
  • William Newman is a professor in the Departments of Earth, Planetary, and Space Sciences, Physics and Astronomy, and Mathematics. His astrophysical research focuses on the the dynamics and statistics of galaxy clusters, magnetic fields in the intercluster medium, and accretion processes in AGNs. His broader research relates to nonlinear dynamical problems, such as those encountered in solar system dynamics.
  • Rene Ong's research focuses on the astrophysics of the high-energy Universe, as revealed by gamma rays and cosmic rays, and on the quest to understand the nature of dark matter.
  • Erik Petigura's main research interests are the discovery and characterization of extrasolar planets, using ground- and space-based telescopes.
  • Michael Rich of the Galaxy Evolution Explorer team focuses on using GALEX to address star formation in the universe.
  • Shoko Sakai investigates star formation rate and 3D structure of the local universe.
  • Alice Shapley explores optical/infrared imaging and spectroscopic observations of high-redshift galaxies.
  • Jean Turner studies star formation in starbursts, especially super star cluster formation.
  • Vladimir Vassiliev uses ground-based gamma-ray astronomy with VERITAS and Whipple to study Extragalactic Background Light and high energy gamma ray sources.
  • Edward (Ned) Wright is interested in infrared astronomy and cosmology. He is the PI on the Wide-field Infrared Survey Explorer (WISE).


Atomic-Molecular-Optical (AMO) Physics

... The UCLA AMO group develops methods to bring new forms of quantum matter under control and uses existing systems to demonstrate new technologies and measurements. Goals include understanding quantum magnetism using quantum information protocols in trapped ions, and developing new methods for producing ultracold molecules and molecular ions.

Research activities include the following areas.

  • Wes Campbell uses ultra-cold atoms and molecules to learn about the physical processes that permeate our world, focusing specifically on the physics of quantum mechanical systems that involve many-body interactions.
  • Paul Hamilton explores a new direction for the field using atom interferometry to probe the properties of dark matter and dark energy using laser-cooled atoms.
  • Eric Hudson focuses on understanding and harnessing the power of quantum interactions to to enable new tests of fundamental physics and new technology.


Hard Condensed Matter

... This Physics & Astronomy faculty group is active in the discovery of novel electronic materials, correlated electron systems, unconventional superconductivity, quantum magnetism, heavy-fermion physics, quantum critical phenomena, semiconductor physics, spintronics, quantum statistical mechanics and field theory, topological states of matter, and Majorana fermions.

Research activities include the following areas.

  • Stuart Brown investigates the roles of dimensionality, electronic correlations, and disorder in the properties of electronic materials. Most of the systems we study are quasi-one dimensional or quasi-two dimensional crystals, and in some cases powders.
  • Sudip Chakravarty's research interest involves quantum theory of collective behavior of electronic systems. He is interested in theories of high temperature superconductivity, dissipative quantum systems, quantum phase transition and criticality, localization transition in interacting systems, and the concept of von Neumann entropy in quantum phase transitions.
  • George Grüner explores experimental condensed matter physics, with focus on the electron states of matter, chemical and bio-interactions with nano-structured beta-device printed electronics, and applied nanotechnology
  • Karoly Holczer studies experimental condensed matter physics, organic conductors and superconductors, and electron paramagnetic resonance.
  • HongWen Jiang focuses on experiments on the interactions between electrons and magnetic fields in various quantum Hall systems and electron localization phenomena.
  • Anshul Kogar studies highly nonlinear effects with ultrafast probes of materials.
  • Ni Ni focuses on the characterization of physical properties and structures of materials through thermodynamic, transport, X-ray and neutron measurements, with an emphasis on the design, synthesis, and crystal growth of new materials.
  • B. Chris Regan's long term goals include a better understanding of the overlap between thermodynamics and quantum mechanics, and the construction of a model system for the investigation of clean energy harvesting. Areas of expertise include carbon nanotubes, graphene, nanofabrication and in situ transmission electron microscopy.
  • Rahul Roy's work is in the field of condensed matter theory, which is devoted to the study of systems with many particles where quantum effects are important. A particular theme of his research is the study of topological phases and other topological aspects of condensed matter.
  • Yaroslav Tserovnyak studies quantum transport and nonequilibrium dynamics in low-dimensional electron systems, with a focus on spin and topology.
  • Gary Williams studies low-temperature physics and the properties of superfluid helium. Currently dilution-refrigerator experiments are in progress on the superfluid phase transition of helium films adsorbed in porous materials, to examine the role of quantized vorticity in this three-dimensional transition.


Soft Condensed Matter

...Research includes acoustic and low temperature physics studies such as theoretical investigations into the superfluid phase transition of liquid helium and search for the phenomenon of sonoluminescence in cryogenic liquids, such as alcohols, liquid nitrogen and liquid oxygen. The group has an active research program in microrheology, nanoemulsions, light and neutron scattering, and microfluidics.

Research activities include the following areas.

  • Katsushi Arisaka's prime interest is to understand the origin of the Universe, life and consciousness altogether by yet-to-be-discovered physics laws. In particular he is interested in how the Universe evolved at its earliest stage.
  • Dolores Bozovic focuses on problems at the interface between physics and sensory neuroscience.
  • Robijn Bruinsma's current work concerns the application of theoretical physics and numerical modeling to molecular biology.
  • Alexander Levine studies a variety of problems in the field of soft condensed matter and biophysics.
  • Mayank Mehta studies fundamental questions in neurophysics.
  • Jianwei (John) Miao’s research interests lie in the interplay of physics, materials science, nanoscience, and biology. He has developed groundbreaking physical methods for high-resolution 3D imaging of nanoscale materials and biological specimens.
  • Seth Putterman investigates the non-linear physics of off-equilibrium motion, including sonoluminescence from molten salts, cavitation within gel-like materials, theory and experiment aimed at defining the intermediate model of tribo-x-ray emission, enhanced neutron emission from dense plasma focusing, and ion-acoustic modes of long-lived dense plasmas.
  • Joseph Rudnick researches a variety of problems in condensed matter physics, with primary interests in the general field of statistical mechanics.
  • Shenshen Wang focuses on biophysical systems where collective responses emerge from a large and structured collection of interacting components. Two systems of main focus are the adaptive immune system and active matter, a condensed matter system comprised of numerous self-driven subunits.
  • Giovanni Zocchi focuses on the physics of macromolecules such as proteins and DNA.


Experimental Elementary Particle Physics

...EEP is involved in experimental and theoretical research in the areas of dark matter, high-energy astrophysics (using gamma rays, cosmic rays and neutrinos), cosmology, and physics at the Large Hadron Collider.




Research activities include the following areas.

  • Michalis Bachtis is focused in the energy frontier of particle physics where, along with his other UCLA colleagues, he participates in the Compact Muon Solenoid (CMS) experiment at CERN's Large Hadron Collider.
  • Robert Cousins devotes essentially all of his research time to the CMS Experiment at CERN in Geneva, along with other colleagues in the UCLA CMS Group.
  • Jay Hauser researches elementary particle physics at the CMS experiment at CERN.
  • Rene Ong's research focuses on the astrophysics of the high-energy Universe, as revealed by gamma rays and cosmic rays, and on the quest to understand the nature of dark matter.
  • David Saltzberg's interests include ultra high energy showers that are detectable from the radio emission as fast cherenkov radiation wakefields. He also works at the Large Hadron Collider at CERN.
  • Nathan Whitehorn focuses on neutrinos to understand the origin of the highest energy cosmic rays using IceCube and gravitational measurements of neutrino mass and number using the recently deployed 3rd-generation South Pole Telescope.


Theoretical Elementary Particles

...The goal of TEP is to attain a fundamental description of the laws of physics, the constituents of matter and their interactions. Research spans the areas of perturbative gauge theories, lattice gauge theories, non-perturbative gauge theories, quantum gravity and string theory. With funding from DOE and NSF the group supports several postdocs and students each year.

Research activities include the following areas.

  • Ernest Abers studies gauge theories, supersymmetry, weak interaction phenomenology.
  • Zvi Bern's primary interest is in developing new methods for calculating and understanding scattering amplitudes. He is especially interested in applications to LHC physics and to maximally supersymmetric gauge and gravity theories.
  • Eric D'Hoker focuses on quantum field theory and string theory, with applications to particle physics, and occasionally to condensed matter physics and mathematics.
  • Thomas Dumitrescu's research spans many aspects of quantum field theory, including applications to particle and condensed matter physics, as well as supersymmetry, string theory, and mathematical physics. He is particularly interested in developing new theoretical tools for analyzing strongly-coupled quantum field theories, which are beyond the reach of conventional perturbation theory.
  • Sergio Ferrara's main research interests are in modern theories of gravitation and unification of fundamental interactions through the principle of symmetries.
  • Robert Finkelstein has been applying quantum groups to investigate weak deformations of quantum mechanics and quantum field theory.
  • Christian Fronsdal's research involves investigations in general relativity, hydrodynamics, and thermodynamics.
  • Michael Gutperle's research is focused on theoretical particle physics, quantum gravity and string theory.
  • Per Kraus works on problems involving quantum field theory, string theory, classical and quantum gravity. These frequently involve black holes and the AdS/CFT correspondence.
  • Terry Tomboulis' current interests are focused on nonperturbative aspects of field theory such as the infrared behavior of QCD and the phenomenon of quark confinement.


Theory of Elementary Particles, Astroparticle Physics, and Phenomenology

...The goal of theoretical particle physics is to attain a fundamental description of the laws of physics, the constituents of matter and their interactions. Physicists believe that the Standard Model (SM) of elementary particles must be part of a more fundamental theory of nature beyond the Standard Model. The search for new physics is the major thrust of current research in particle physics.

Research activities include the following areas.

  • Graciela Gelmini has been working on astro-particle physics, especially in the problem of dark matter, where she has studied different dark matter particle candidates. She is also interested in different aspects of the physics of neutrinos.
  • Alexander Kusenko works on a broad range of topics in elementary particle physics, astrophysics, and cosmology.
  • Roberto Peccei has been mainly working on B and K physics, in particular the physics of heavy quark decays, B meson mixing, and CP violation. He has been also interested in various aspects of electroweak interactions and dynamical mass generation.
  • Terry Tomboulis' current interests are focused on nonperturbative aspects of field theory such as the infrared behavior of QCD and the phenomenon of quark confinement.


Nuclear Physics

...The nuclear physics research is focused on understanding the matter composed of quarks and gluons as described by Quantum Chromodynamics (QCD), which makes up 99% of the visible mass of the universe; as well as the fundamental nature of the neutrinos. Current research includes both experimental nuclear physics and theoretical nuclear physics.

Research activities include the following areas.

  • Huan Huang study the properties of the QCD matter at extremely high energy density and temperature and investigate the QCD spin structure functions of the proton.
  • George Igo's studies involve the CERN SMC (spin muon collaboration) program, the study of relativistic collisions between Pb nuclei.
  • Zhongbo Kang's interests are primarily in Quantum Chromodynamics (QCD) and strong interaction, and their applications in high energy nuclear and particle physics, with main research efforts in QCD structure of the nucleon, QCD collider physics, and heavy ion physics.
  • Steven Moszkowski studies simple quark-based models of nuclear two body and three body systems, the nuclear mean field and applications, the Quark-Meson Coupling model, effective interactions in nuclear structure calculations, and application of the Nambu-Jona-Lasinio Model to nuclear forces and nuclear structure.
  • Chun Wa Wong's interests include nuclear forces and nuclear properties, quark and Skyrmion models of hadrons, and cross sections for Pomeron exchange and dibaryon production.


Plasma and Advanced Accelerators

...Beam physics is a vibrant, cross-disciplinary enterprise, which intersects heavily with high-energy density science, plasma physics, ultra-fast lasers, nonlinear dynamics and various high-field/high-power technologies. Areas of study include basic plasma physics, fusion research, space plasma physics, laser-plasma interactions, and advanced accelerators.

Research activities include the following areas.

  • Troy Carter's research involves experiments in laboratory plasmas and seeks to understand phenomena relevant to magnetic confinement fusion energy and to astrophysical plasmas.
  • Neal A. Crocker is involved in cutting edge fusion research at multiple fusion research facilities both in the US and around the world.
  • Walter Gekelman studies microscopic phenomena on the fast electron time scales (e.g., electron plasma waves, cyclotron radiation) to the slow time scales characteristic of plasma transport driven by drift‐wave turbulence and long wavelength magnetic fluctuations.
  • George Morales pursues research in plasma physics, nonlinear waves, heating of thermonuclear fusion plasmas, ionosphere modification, laboratory simulation of space phenomena, and non-diffusive transport.
  • Pietro Musumeci researches laser technology to provide high quality, ultra-short particle beams from compact accelerators.
  • Warren Mori develops and uses state-of-the-art simulation tools to study laser and beam interactions in high energy density plasmas.
  • Christoph Niemann studies high energy density plasmas.
  • James Rosenzweig's studies includes the creation of ultra-fast, high-brightness electron beams; the application of such beams to advanced accelerators using lasers and/or plasmas; the creation of new types of light sources, such as free-electron lasers and inverse-Compton scattering sources based on high brightness electron beams.


The Science of Teaching and Learning

...The science of teaching and learning is a multidisciplinary field that attempts to illuminate the mechanisms underlying human learning in an effort to optimize education. Our research at UCLA focuses on how course design decisions impact student application and retention of physics and mathematics skills.


Research activities include the following areas.

  • Josh Samani's doctoral research was in high-energy physics and centered on aspects of holography -- the AdS/CFT correspondence in particular.