Data breaches, identity theft, online and phone scams are a reality in our lives today. Never reveal sensitive financial information to a person or business you don’t know, whether they reach out to you via phone or text.
Please be aware that the International Institute of Physics, IIP, does not request payment information of any kind. Scammers sometimes approach participants claiming to be able to provide accommodation and asking for credit card information. Please do not give any information away. IIP will be in touch via official email regarding accommodation and financial support for qualified applicants. If you have any questions, please contact IIP events department at email@example.com
Advances in Quantum Simulation with Ultracold Atoms
Quantum simulation is an exceptionally vivid field of research embracing several areas of physics, ranging from atomic, molecular, and optical physics, to condensed-matter, nuclear, gravitational and high-energy physics, as well as quantum information science. The goal of quantum simulation is to address important, yet unsolved quantum Hamiltonians by “synthesizing” them in experimental quantum systems so as to directly measure the properties of these models, otherwise very hard to be handled by classical computations. This approach is well summarized by Feynman's own words: 'Nature isn’t classical, dammit, and if you want to make a simulation of nature, you’d better make it quantum mechanical, and by golly it’s a wonderful problem, because it doesn’t look so easy'. Ultracold atomic quantum gases, in particular, offer a unique setting for quantum simulation of interacting many-body systems. The high degree of controllability, the novel detection possibilities and the extreme physical parameter regimes that can be reached provide an exciting complementary set-up compared e.g. with natural condensed-matter systems, allowing the study of novel quantum states of matter that are very hard to achieve, or are completely inaccessible in Nature.
In the last ten years, a worldwide effort has been devoted to pursuing these goals, bringing together researchers from very diverse disciplines. It has been experimentally proved that through quantum simulation, one can extract the equation of state of Bose and Fermi systems, map out phase diagrams, detect quantum critical behavior, realize new forms of strongly-correlated fermionic superfluids, and determine localization in disordered systems even in the presence of interactions, giving experimental support to the now popular field of many-body localization. At the same time, the breakthrough in controlling long-range interactions via Rydberg atoms, polar molecules and trapped ions, and the success in reaching quantum degeneracy for large-spin particles have opened up exciting possibilities of exploring new classes of magnetic Hamiltonians both in the ground state and their non trivial quantum dynamics. Moreover, the trapping of atoms with high magnetic moments led recently to the discovery of the quantum analogue of classical ferrofluid phases.
The realization of the quantum gas microscope, since recently available also for fermionic atoms, has opened up yet another set of amazing possibilities, from directly accessing correlations of quantum states, to directly probing the wave functions of many-body systems out of equilibrium through quantum quenches. One of the remarkable achievements in recent years has also been the realization of synthetic background gauge fields, akin to magnetic fields in electronic systems, and exact implementations of fundamental models of topological quantum matter, whose importance was recently recognized with the Nobel prize. Finally, the quantum simulation of dynamical abelian and non-abelian gauge fields using ultracold gases in optical lattices paved the way for the realization of toy models of quantum field theories leading to the big goal of solving yet unresolved mysteries of high-energy physics as well as topological quantum matter.
These spectacular results have opened new directions of research and more ambitious challenges. The purpose of this event is to bring together young and experienced researchers in the rapidly developing field of quantum simulation with ultracold atoms to interact and develop new ideas in a pleasant scientific environment. The conference will be divided into a school dedicated to young scientists entering the field, and an international workshop where the latest developments and major challenges, as well as the new directions, will be targeted and discussed.
List of topics to be presented:
Spin-orbit coupling and gauge fields
Topological quantum matter
Dipolar physics and Rydberg atoms
Large-spin systems and spinor physics
Transport and dynamics in low-dimensional systems
Unitary fermions and bosons
Disorder and many-body localization
Bosonic and fermionic quantum microscopes
In order to assist the organizing staff to timely issue invitation and visa letters, book accommodation and communicate important information, the prospective participants are kindly asked to register by clicking on the "Register" button at the top of this page.
Registration deadline: September 29, 2018
The policy of the International Institute of Physics with respect to organization of events demands collecting a registration fee from the participants. Members of the local community (institutions in Natal) are considered as free listeners and are exempt from paying the fee.
Students = R$ 400 Brazilian reais
Postdocs/Professionals = R$ 800 Brazilian reais
*Registration fee is accepted in cash only.
** Information about lodging will be posted soon.
Available for those who qualify for financial help. You may apply for financial support when filling out your registration form (Registration page).
For more information, please contact our events department at: firstname.lastname@example.org
[The International Institute of Physics (Natal-Brazil) informs that we DO NOT make phone calls requesting credit cards numbers or bank information for payments of any kind]