Quantum Computing
Qubits and Logic   Architectures   Communications and Storage   Theory and Algorithms

Neil Gershenfeld, Massachusetts Institute of Technology
Cambridge, Massachusetts
web.media.mit.edu/~neilg

Robert Joynt, University of Wisconsin
Madison, Wisconsin
uw.physics.wisc.edu/~joynt

Bruce Kane, University of Maryland
College Park, Maryland
www.glue.umd.edu/~bekane/QC/QC@UMD’s_LPS_Bruce_Kane.htm

Franco Nori, University of Michigan
Ann Arbor, Michigan
www-personal.engin.umich.edu/~nori


What to Look For

Qubits and Logic:

Encoding information in logical qubits
Creating entanglement on demand
Qubits that last for whole seconds
Reliably transferring information from atoms to photons and back

Computers:

Fault-tolerant operation of a multi-qubit computer
10-qubit computer
100-qubit computer
1,000-qubit computer
A quantum computer that outperforms classical computers

Communications:

Electric, room-temperature single-photon sources
Efficient sources of entangled photons
Efficient room-temperature photon detectors
Quantum repeaters or relays

Algorithms:

Proof of a quantum speedup for route optimization-type problems
Proof of a quantum speedup for pattern recognition problems
Proof of a quantum speedup for simulating chaos


 


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