Our group focuses on the use of individual atoms
and photons for fundamental studies of quantum physics and
applications in quantum information science.
A long term goal of our research is the realization of large-scale quantum
information networks that could store and
process information in a way that could eclipse
the performance of conventional computers. Our main
tools are electromagnetic atom traps and lasers, providing control of the most pristine source of quantum bits: trapped
atomic ions.
Cadmium Yellow
Entangled, by Boris Blinov (2005) |
January, 2012
Paramagentic to Ferromagnetic phase transition with N=16 trapped ion spins (two qubytes)
|
 |
July 5, 2011
Quantum Simulation of Magnetism: Onset of a Quantum Phase Transition as system size grows
|
|
Aug 26, 2010
Ultrafast (picosecond) and ultraclean coherent manipulation of trapped ion qubit
|
|
Jun 3, 2010
Quantum Simulation of Magnetism: Frustration and Entanglement
|
|
Apr 15, 2010
Private random numbers certified by Bell's inequalities
|
|
Apr 15, 2010
|
Quantum control of trapped ion motion and multi-ion entangling gates with an optical frequency comb
|
|
Mar 3, 2010
Steve Olmschenk selected as finalist for 2010 APS DAMOP thesis prize |
Sept 18, 2009
Measurement and control of spin-spin couplings in three atoms, for scalable entanglement and simulation of quantum magnetism
|
|
Jan 22, 2009
Quantum teleportation of a single atom over 1 meter
|
 N.R. Fuller, NSF
|
More NEWS
Archived NEWS |
