Scalability, Complexity and Reliability in Quantum Information Processing

Abstract

This program was a theoretical/experimental collaboration focusing on the fundamental need for scalability in the development of quantum information processing. Theory and experiment were connected and interleaved at several levels. The theoretical objectives were as follows: (1) to develop new theoretical tools to enable the implementation of reliable quantum information processing in scalable systems; and (2) to characterize the relations between quantum algorithms and architectures, fault tolerance and architectures, and quantum and classical complexity classes; and (3) to develop secure primitives for quantum cryptography. The experimental objectives were to develop a scalable quantum component technology based on gas phase systems using atoms and light fields. Specific experimental goals were scalable implementation of universal quantum logic in optical lattices and the achievement of deterministic control in atom/cavity systems.

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Document Details

Document Type
Technical Report
Publication Date
Mar 01, 2007
Accession Number
ADA528491

Entities

People

  • Dan Stamper-Kurn
  • David Weiss
  • K. B. Whaley
  • Umesh Vazirani

Organizations

  • University of California, Berkeley

Tags

Communities of Interest

  • Advanced Electronics

DTIC Thesaurus Topics

  • Bose Einstein Condensates
  • Crystal Lattices
  • Information Processing
  • Information Retrieval
  • Information Science
  • Information Systems
  • Ion Traps
  • Optical Lattices
  • Physical Theories
  • Physics Laboratories
  • Quantum Algorithms
  • Quantum Computing
  • Quantum Cryptography
  • Quantum Information
  • Quantum Information Science
  • Quantum Mechanics
  • Solid State Physics

Readers

  • Distributed Systems and Data Platform Development
  • Parallel and Distributed Computing.
  • Quantum Dot Semiconductor Device Photonics and Graphene Optoelectronic Materials and THz Physics.

Technology Areas

  • Cyber
  • Cyber - Cryptography
  • Cyber - Quantum
  • Quantum Computing