Journal
QUANTUM INFORMATION PROCESSING
Volume 15, Issue 12, Pages 5351-5383Publisher
SPRINGER
DOI: 10.1007/s11128-016-1298-8
Keywords
Ion traps; Quantum computation; Quantum information; Trapped ions; Ion-photon interface; Graphene; Indium tin oxide; Cavity cooling; Optical trapping; Micromirror; Motional heating; CMOS ion trap; Hybrid trap; Scalable
Funding
- MQCO Program
- IARPA
- Quest program
- DARPA
- Air Force Office of Scientific Research MURI on Ultracold Molecules
- NSF Center for Ultracold Atoms
- National Science and Engineering Research Council of Canada's Postgraduate Scholarship program
- Direct For Mathematical & Physical Scien
- Division Of Physics [1505862] Funding Source: National Science Foundation
- Direct For Mathematical & Physical Scien
- Division Of Physics [1205554] Funding Source: National Science Foundation
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Scaling up from prototype systems to dense arrays of ions on chip, or vast networks of ions connected by photonic channels, will require developing entirely new technologies that combine miniaturized ion trapping systems with devices to capture, transmit, and detect light, while refining how ions are confined and controlled. Building a cohesive ion system from such diverse parts involves many challenges, including navigating materials incompatibilities and undesired coupling between elements. Here, we review our recent efforts to create scalable ion systems incorporating unconventional materials such as graphene and indium tin oxide, integrating devices like optical fibers and mirrors, and exploring alternative ion loading and trapping techniques.
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