Testing.
Understanding the quantum phases of interacting fermions is a fundamental, chanllenging problem in many-body physics. Broken symmetry phases, such as spin density wave order in antiferromagnetic metal Chromium, or the p-wave superfluid order in liquid Helium 3, have long been known and well understood. Motivated by recent experiments, we find theoretically that an unconventional spin-density wave phase with p-wave orbital symmetry in ultracold Fermi gases of polar molecules and magnetic atoms. It is a kind of magnetic order formed on bonds connecting the lattice sites, and can be viewed as the particle-hole analog of p-wave superconductivity.
Unconventional Spin Density Waves in Dipolar Fermi Gases, S. G. Bhongale, L. Mathey, Shan-Wen Tsai, Charles W. Clark, Erhai Zhao, arXiv:1209.2671
Click the “Posts” tab in the left sidebar to view the list of all existing posts
Click “Add New” to start a new research post, or a a previously started post from the list
Please, don’t proliferate the number of unfinished draft posts and delete the ones you abandoned
Please, don’t publish posts until they are finished
Maintain at least one post in the categories <your name> and <your research field>
Write as many research posts as you wish (the more the better), and as often as you wish
These posts are owned by <your username>
Appears when the “Research” menu is clicked on the website’s top menu
Should extremely concisely mention your research interests, accomplishments, etc. – at the right place and in the right context
The purpose of the page is to present an overall research image of the Center
Edit sporadically, only when necessary to make sure you are represented (accurately)
Appear when the “Publications” or “Presentations” are clicked on the website’s top menu
Should include your published papers/books/etc… and talks/seminars/posters respectively
Edit when changes occur, or once a year
Appears when …
In recent years, atomic physics has opened a new frontier for the exploration of strongly correlated many-body systems. Atoms can be cooled to sub-nanokelvin temperatures, trapped in a small volume and placed in artificial crystalline potentials or electromagnetic fields created by lasers. Furthermore, interactions between atoms can be controlled. This enables simulations of electronic materials with more ideal properties than found in nature, and testing or developing theories of condensed matter in a new environment. Novel forms of quantum matter can also be engineered using ultra-cold atoms.
Zlatko Tesanovic Memorial Symposium, Johns Hopkins University, 23 March 2013
Frontiers of Quantum Matter, June 2012
Condensed Matter Physics Seminar
Seminar of the Institute for Quantum Matter
Hard Times journal club
Seminar of the Condensed Matter Theory Center
Quantum Information / Bose-Einstein Condensation (QIBEC) seminars
Welcome to the Center for Quantum Science. Our site is still being built.
Please, visit again soon.
Wikipedia
American Physical Society
Research literature: articles and books
Boulder School of Physics
Wikipedia
Books
A full online course
High-temperature superconductors
Atomic, molecular & optical physics
Topological order
Particle physics
String theory
Condensed matter theory: P.Nikolic, I.Satija, E.Zhao
Condensed matter experiment: K.Vemuru
Atomic, molecular and optical physics experiment: K.Sauer, M.Tian
Materials science: Y.Mishin
High energy physics experiment: P.Rubin
Welcome to the Center for Quantum Science. Our site is still being built.
Please, visit again …
There is no excerpt because this is a protected post.