Schedule
Schedules for the CIFAR Summer School.
Booklet for the CIFAR Summer School.
Schedules for the CIFAR Main Meeting.
The list of all speakers attending the Summer School is available below.
If you have questions, please write to us at cifarqmss@gmail.com
Speakers for the Summer School 2014
Tami Pereg-Barnea
"I am interested in condensed matter systems with unusual properties often related to exotic/topological order or strong interactions. Specifically I study: |
David Hawthorn "Our group studies strongly correlated materials with exotic spin, charge and orbital ordering by means of resonant soft x-ray scattering and x-ray absorption spectroscopy at synchrotrons such as the Canadian Light Source. By clarifying the nature of these exotic ordering phenomena, we hope to shed light on some of the long-standing mysteries in the rich physics of cuprate high temperature superconductors." Abstract |
Ion Garate "I am a theorist interested in quantum condensed matter theory. My research interests are quite broad, and are often driven by a desire to build connections between different topics. I enjoy working on problems where some progress can be made analytically, as well as developing qualitative ideas and making predictions that could (if lucky) be verified by experiments. I am fond of applying standard quantum field theory methods, which are essential in order to understand the behavior of interacting electrons in solids. Lately, I have been exploring how phonons might destroy or induce topological states of matter. For the near future, part of my research will be devoted to analyzing time-dependent phenomena in topological insulators." Abstract |
Jeffrey Quilliam "The primary theme of my research is the study of frustrated magnetic materials. I employ various experimental techniques, including nuclear magnetic resonance (NMR), thermodynamic measurements and muon spin rotation (µSR), often at temperatures approaching absolute zero." Abstract |
Michel Gingras
* Panel on career prospects "My main current interests are in the area of random disordered systems and problems pertaining to frustrated classical and quantum magnetic systems. I often collaborate with experimentalists, either trying to understand their results or to think of new experiments to test theoretical ideas." Abstract |
Lillian Childress "Coherent, controllable quantum systems underlie the best clocks and the most precise sensors, and may someday form building blocks for information processing devices. Our research uses techniques developed in quantum optics and atomic physics to understand and control the quantum states of defect centers in crystalline hosts, while exploring their potential applications in quantum information science and metrology." Abstract |
Joseph H. Thywissen "Dr. Thywissen's work focuses on ultra-cold alkali gases, including both fermionic and bosonic species. Placed in optical lattices, cold atoms realize physical analogues of idealized models for strongly correlated electron systems. By experimentally studying these iconic condensed matter systems, he and his colleagues hope to learn whether the Hubbard model can explain high-temperature superconducting cuprates, and which models of magnetism give rise to spin liquids. In short, cold atoms may provide a kind of "half-way house" between theories of quantum matter and experimental measurements of complex materials." Abstract |
Guillaume Gervais "Dr. Gervais' main research lies in the area of the strongly correlated electronic properties of low-dimensional nanostructured systems. In particular, he is interested in probing the fundamental quantum properties of strongly-correlated systems at temperatures very near the absolute zero of temperature. Examples of phenomena of interest are the physics of two-dimensional electrons (fractional quantum Hall effect, anyons and non-abelian quantum statistics, skyrmion crystals), Luttinger liquid behaviour in one-dimensional system, and other quantum-coherent phenomena in quantum dots and quantum wires." Abstract |
Catherine Kallin
* Talk on the gender gap in physics "Dr. Kallin’s research is in the area of strongly correlated electron systems, including high temperature superconductors, frustrated antiferromagnets, anyon, the two-dimensional electron gas in the limit of large magnetic fields and low temperatures, and quantum Hall systems. Much of her most recent work is focused on understanding high temperature superconductivity. She is also interested in vortex dynamics, nanotubes and quantum dots." Abstract |
Tilman Esslinger "In our research we use ultracold atoms to synthetically create key models in quantum many-body physics. We explore the physics of quantum phase transitions and crossovers, low-dimensional systems and non-equilibrium dynamics, and thereby establish the basis for quantum simulation of many-body Hamiltonians." Abstract |
Eduardo H. da Silva Neto "Research interests include exploring the many interesting physical phenomena commonly observed in unconventional superconductors by performing experiments on different materials and with different spectroscopic techniques. This approach would allow the identification of which phenomena are relevant to the superconducting mechanism, their microscopic nature, and whether they cooperate or compete with superconductivity." Abstract |
Fazel Fallah Tafti "My research interest spans over a broad range of topics in quantum materials, including topological superconductivity, topological insulators, high temperature superconductivity, and frustrated magnetism. My experimental expertise include electric, thermal, and thermoelectric transport measurements as well as thermodynamic properties such as magnetic susceptibility and thermal expansion coefficient. In particular, I am interested in tuning material properties by using high pressures and intense magnetic fields. " Abstract |
Maxime Dion "As a Ph.D. student I like to work on both the experimental and the theory parts of my projects. My recent experiences covers fields such as oxide heterostructures, high temperature superconductors and organic superconductors. To study these topics I’ve mainly been using transport measurements, ultrasonic measurements with the help of numerical simulations and group theory." Abstract |