| 2018-WEIN-68315 | |
| Quantum computation promises to enable the simulation of complex quantum mechanical systems which are impossible to realize with our current computing infrastructure. Quantum computation using optical states consists of making photons interact with one another, which leads to a probabilistic process, hence not scalable. Currently, deterministic quantum gates use different degrees of freedom in a single photon, utilizing two-dimensional encoding per each degree of freedom, thus failing to exploit the full information capacity of single photons while having very limited Hilbert space dimensions. Researchers at Purdue University have developed deterministic single- and two-qudit optical quantum gates in a single photon. By proposing a scalable scheme to execute quantum gates, this technology can implement quantum computing algorithms in large Hilbert spaces. This technology can help producers of optical quantum processors who want to demonstrate quantum computing algorithms in the optical domain. Advantages: -Scalable scheme -Implementations in large Hilbert spaces -Exploits full information capacity of single photons Potential Applications: -Near-term quantum computing -Optical quantum processors |
|
|
|
|
May 8, 2020
Utility Patent
United States
(None)
(None)
May 10, 2019
Provisional-Patent
United States
(None)
(None)
|
|
|
Purdue Office of Technology Commercialization The Convergence Center 101 Foundry Drive, Suite 2500 West Lafayette, IN 47906 Phone: (765) 588-3475 Fax: (765) 463-3486 Email: otcip@prf.org |
