IN THIS SECTION
Harold Y. Hwang, PhD
Professor of Applied Physics and Photon Science
Deputy Director, SIMES
(650) 725-8978
http://www.stanford.edu/group/hyhwang/
http://home.slac.stanford.edu/photonScienceFacultySearch.html#Hwang
Our research is in materials physics: Probing correlated electrons at artificial interfaces and in confined systems; Atomic scale synthesis and control of complex oxide heterostructures; Low-dimensional superconductivity; Novel devices based on interface states in oxides.
Education
BS, Electrical Engineering, Massachusetts Institute of Technology, 1993
MS, Electrical Engineering, Massachusetts Institute of Technology, 1993
BS, Physics, Massachusetts Institute of Technology, 1993
PhD, Physics, Princeton University, 1997
Research Interests
- Condensed Matter
- Electrical Engineering
- Energy Sciences
- Materials Science
- Nano Sci/Eng
- Quantum Many-Body Physics, Synchrotron Radiation
- Electrons at artificial interfaces and in confined systems
- Atomic scale synthesis and control of complex oxide heterostructures
- Low-dimensional superconductivity
- Novel devices based on interface states in oxides.
Projects
- Low-dimensional superconductivity in delta-doped heterostructures, interfaces, and their field-effect control
- Correlated electrons in quantum wells
- Nanolithography using surface charge writing in oxide heterostructures
- Photoemission spectroscopy of oxide heterostructures
- Nanomagnetism
- Interface dipole engineering.
- Oxide heterojunction hot-electron transistors
Publications
See Publications for Harold Y. Hwang, PhDZhenan Bao, PhD
Associate Professor of Chemical Engineering
(650) 723-2419
I work on organic semiconductors transistors, solar cells, carbon nanotube, transparent electrodes, sensors, soft materials, organic and polymer synthesis and characterization, nano- and micropatterning, bio-inspired assembly, and device fabrication and characterization.
Yi-De Chuang
Physicist Scientist, Advanced Light Source (ALS), Lawrence Berkeley National Laboratory (LBNL)
(510)495-2328
William Chueh
Assistant Professor of Materials Science and Engineering
Center Fellow at the Precourt Institute for Energy
(650) 725-7515
Science Award Electrochemistry 2016, awarded by Volkswagen and BASF.
https://www.science-award.com/en/sae/
Yi Cui, PhD
Associate Professor Department of Materials Science and Engineering
(650) 723-4613
I’m an Associate Professor of Materials Science and Engineering. My research interest lies in the nanoscale materials design for energy, environment, topological insulator and biotechnology.
Awards:
2017 Blavatnik National Laureate
2015 Resonate Award, from California Institute of Technology’s Resnick Sustainability Institute.
2015 MRS Fred Kavli Distinguished Lectureship in Nanoscience
2019 Dan Maydan Prize for Nanoscience Research
Thomas P. Devereaux, PhD
Director of SIMES
Professor of Photon Science
Professor of Materials Science and Engineering
( 650) 736-7574
http://www.stanford.edu/group/photontheory/
http://home.slac.stanford.edu/photonScienceFacultySearch.html#Devereaux
I am interested in materials where surprising behavior emerges from a dynamic, and sometimes subtle, interplay between many degrees of freedom. A fundamental understanding of these emergent properties is key to designing new devices and tailoring materials with beneficial properties for energy production, harvesting, and storage. The complexity of these systems means that large-scale, numerical simulations are crucial to an understanding of the root causes of material properties and their expression in different experimental probes. I work closely with experimental groups who utilize leading light sources, such as SSRL and LCLS here at Stanford, to image electron dynamics through photon spectroscopies and use simulations to better interpret the results and guide future research.
Ian Fisher, PhD
Professor of Applied Physics
Director of the Geballe Laboratory for Advanced Materials
(650) 723-5821
In our group we study materials with unconventional magnetic and/or electronic properties, with the aim of better understanding emergent behavior in strongly correlated systems. We employ a combination of thermodynamic, transport and scattering measurements, often in high magnetic fields, and use a variety of techniques to grow high quality single crystals of the materials that we study. Current interests include superconductivity, charge density wave formation, electronic nematic order, aspects of quantum magnetism and the behavior of electrons in low-dimensional materials.
Theodore H. Geballe, PhD
Emeritus Professor of Applied Physics and of Materials Science and Engineering
(650) 723-0215
The unsolved problems that show up in high-temperature superconductors are fascinating challenges. I look for clues by trying to reconcile the diverse properties of these superconductors, and try to resolve them by synthesis of film and crystals.
Arianna Gleason
Staff Scientist
Adjunct Professor, Department of Geological Sciences
Adjunct Faculty, Mechanical Engineering, University of Rochester
510-332-1326
David Goldhaber-Gordon, PhD
Associate Professor of Physics
Director of Center for Probing the Nanoscale, an NSF Nanoscale Science and Engineering Center
(650) 724-3709
My research interests are mostly focused on the field of mesoscopic physics, which explores length scales between the microscopic size of individual atoms and the macroscopic scale of everyday objects. Over the last decade, mesoscopic physics has forced us to grapple with new ways of thinking about quantum mechanics, measurement, and dephasing, especially for systems of interacting particles.
In my lab, we approach the mesoscopic regime in semiconductor devices, where electrons can be confined to small “boxes” and thus are restricted to discrete quantized states (instead of being able to move freely) in one, two, or even all three spatial dimensions.
Tony Heinz
Professor of Applied Physics and of Photon Science
650) 723-1810
http://web.stanford.edu/group/heinz/
https://web.stanford.edu/dept/app-physics/cgi-bin/person/tony-heinz-january-2015/
Yasuyuki Hikita
Staff Scientist
(650) 926-3593
Zahid Hussain
Aharon Kapitulnik, PhD
Professor of Applied Physics and Professor of Physics
650-723 3847
2015 Oliver E. Buckley Condensed Matter Physics Prize
Awarded by the American Physics Society
Elected to National Academy of Sciences 2015
Our group’s general aim is to contribute to the understanding of current problems in Physics including gravitational physics, quantum physics and condensed matter physics of strongly correlated electron systems. We use novel experimental techniques that are mostly developed in our laboratory.
Hemamala Karunadasa
Associate Professor of Chemistry
Steve Kivelson, PhD
Professor of Physics
(650) 723-1974
http://www.stanford.edu/group/sitp/CondensedMatter/index.html
http://www.stanford.edu/dept/physics/people/faculty/kivelson_steven.html
http://www.stanford.edu/dept/app-physics/cgi-bin/person/steven-a-kivelson/
Member, National Academy of Sciences 2010
I am interested in the qualitative understanding of the macroscopic and collective properties of condensed matter systems, and on the relation between this and the microscopic physics at the single electron or single molecule scale.
I have been particularly interested in exploring the spectacular consequences of strong correlation effects in electronic materials and devices where the low energy properties are qualitatively different from those of a non interacting electron gas. This field of study has been made particularly rich and exciting by the seemingly non-ending sequence of unexpected experimental discoveries that have occurred in over the past couple of decades — discoveries which undermine accepted beliefs and raise conceptually deep questions concerning the emergent behavior of systems with many strongly interacting degrees of freedom.
Young S. Lee
Professor of Applied Physics and of Photon Science
650-498-6308
The Lee group seeks to develop a deeper understanding of quantum materials through research activities involving neutron scattering, x-ray scattering, and crystal growth. We are particularly interested in novel many-body states such as quantum spin liquids, exotic superconductivity, and topological phases of matter.
Lin Lin
Assistant Professor of Mathematics
(510) 664-7189
Ingolf Lindau, PhD
Professor of Electrical Engineering (Research) and of the Stanford Synchrotron Radiation Laboratory, Emeritus
650-926-3456 (SLAC) 650-723-1052 (Stanford)
My academic career at Stanford has been focused on research efforts to understand the electronic properties of semiconductor surfaces and interfaces on an atomic scale using synchrotron radiation of importance for the development of modern electronic devices. I have taken a great interest in the development of synchrotron radiation and free electron laser facilities and instrumentation, and research policies for large scale facilities. I have been (and still am) a member/chairperson of a large number of review and advisory committees.
Awards and Honors
Fellow of the American Physical Society
Member of the Royal Swedish Academy of Sciences
I am interested in the ultrafast properties of materials, using atomic-scale real-time probes to visualize and control processes of relevance to energy conversion and information processing.
Hari Manoharan, PhD
Associate Professor of Physics
(650) 479-6266
What new science and technologies lurk at the smallest scales of condensed matter? How does physics change in lower dimensions? My experimental research group combines condensed matter physics, nanoscale science and technology, and atom manipulation to address these and related questions. We focus on ultra-high resolution quantum imaging and probes of interesting electronic systems. We also specialize in the science of atomic and molecular manipulation for atom-by-atom assembly of exotic nanostructures and artificial materials.
The main focus of my research lies in understanding the behavior of materials under compression. High pressure science is exceedingly multidisciplinary. Pressure induces dramatic changes in materials, adding a new dimension to applications in Earth, planetary, environmental, energy-related, biological, electromagnetic, optical, superhard and nano- materials, and contributing to our fundamental understanding of condensed-matter physics and chemistry. Pressure is also a clean, continuous, tuning knob for fundamental scientific research: testing theories, discovering new phenomena and novel materials.
Nicholas A. Melosh, PhD
Assistant Professor, Materials Science and Engineering
Assistant Professor of Photon Science
(650) 724-3679
Kathryn A. Moler, PhD
Professor of Applied Physics and of Physics
(650) 723-6804
Electrons create magnetic fields, so materials that manifest quantum mechanical and strongly correlated electron behavior must have magnetic signatures. Although distinctive, interesting, and informative, these signatures are hard to measure. Twelve years ago, I set out to build a group based on the strategy of specialized magnetic nanoprobes for basic condensed matter studies. This strategy enables the advances in knowledge described in the publications section of my group’s web site, as well as in my ongoing work and the ongoing work of my group alumni in their current positions.
Joel E. Moore
Professor of Physics, UC Berkeley
Senior Faculty Scientist, LBNL
510-642-8313
The Moore group seeks to develop theories for new phenomena in quantum materials, including non-equilibrium dynamics and novel states of topological matter. Methods include analytical techniques such as quantum field theory and also numerical methods, primarily based on tensor networks.
Joseph W. Orenstein
Professor of Physics, UC Berkeley
Member of Staff, LBNL
(510) 486-5880
http://www.physics.berkeley.edu/research/faculty/orenstein.html
Joseph W. Orenstein earned his Ph.D. in Solid State Physics from the Massachusetts Institute of Technology in 1980. He received an IBM Postdoctoral Fellowship 1978-79, and was a Member of the Technical Staff at the AT&T Bell Laboratories from 1981 to 1989. In 1989, he was made a Distinguished Member of the Technical Staff. He joined the Physics Dept. at UC Berkeley in 1990. He is a Fellow of the American Physical Society.
Das Pemmaraju
Associate Staff Scientist
650-926-3829
Das is an Associate Staff Scientist at SLAC jointly appointed between TIMES, SSRL and LCLS. His research focuses on using ab initio methods to simulate X-ray spectroscopies in materials and molecular systems, particularly for systems driven out of equilibrium for which he currently is developing real-time TDDFT codes.
John J. Rehr, PhD
Adjunct Professor of Photon Science, SLAC
Professor of Physics, University of Washington
(206) 953-7838
I am primarily interested in theoretical condensed matter physics and especially theories of excited state electronic structure and x-ray and electron spectra, e.g. as probed at modern synchrotron x-ray facilities. We are particularly interested in real-space, real-time approaches to many-body physics.
David Reis, PhD
Associate Professor of Photon Science and of Applied Physics
(650) 926-4192
http://www.stanford.edu/dept/app-physics/cgi-bin/person/reis-david/
I am an experimentalist who studies dynamics that occur on extremely short time and distance scales. My background is in the areas of ultrafast laser, high field, accelerator, x-ray and condensed matter physics.
Matteo Rossi
Peter Schreiner
Professor
+49 (0)641 / 99 34300
http://www.uni-giessen.de/fbz/fb08/Inst/organische-chemie/agschreiner
Zhi-Xun Shen, PhD
Chief Scientist of SLAC National Accelerator Laboratory
Paul Pigott Professor in Physical Sciences of Stanford University
(650) 725-0440
Elected to National Academy of Sciences 2015
My main research interest lies in the area of condensed matter and materials physics. The questions that motivate my research are: what is the nature of quantum matter? How does complexity give rise to unusual and extreme properties?
Joshua Turner
Staff Scientist
(650) 926-4437
https://portal.slac.stanford.edu/sites/lcls_public/science/people/joshuat/Pages/default.aspx
Jelena Vuckovic
Professor of Electrical Engineering and, by courtesy, of Applied Physics
(650) 723-5320
