The Undergraduate School on Experimental Quantum Information Processing (USEQIP) is a two-week program on the theory and experimental study of quantum information processors aimed primarily at students just completing their junior year. The program is designed to introduce students to the field of quantum information processing. The lectures are geared to students of engineering, physics, chemistry and math, though all interested students are invited to apply.
Alessandro Fedrizzi, Queensland University
Ivan Deutsch, University of New Mexico
Pranab Sen, Tata Institute of Fundamental Research
Adrian Lupascu, Institute for Quantum Computing
Quantum superconducting circuits are nanostructured superconducting electrical networks with Josephson junctions. At low temperatures, their quantum dynamics is properly described by using a few degrees of freedom with a collective character. The parameters in the Hamiltonian depend on the dimensions and topology of the circuit; superconducting quantum circuits therefore behave as artificial atoms.
Nathan Wiebe, University of Calgary
We introduce an efficient quantum algorithm for simulating time-dependent Hamiltonian quantum dynamics on a quantum computer and accounts fully for all computational resources, especially the per-qubit oracle query cost, which has been previously regarded as constant cost per query regardless of the number of qubits accessed.
Britton Plourde, Syracuse University
Todd Pittman, University of Maryland, Baltimore County
Falk Unger, University of California, Berkeley
Seth Lloyd, Massachusetts Institute of Technology
Ever since Einstein, physicists have argued about whether time travel is consistent with the laws of physics, and, if so, how it might be accomplished. This talk presents a new theory of time travel based on quantum teleportation. Unlike previous theories, the theory can be tested experimentally. I report on an experimental realization of the 'grandfather paradox': we send a photon a few billionths of a second backwards in time and have it try to 'kill' its previous self.