View source for 20240012309. OPTICAL QUANTUM LOGIC FOR USE IN LARGE OPERATIONAL SPACES simplified abstract (PURDUE RESEARCH FOUNDATION)

=OPTICAL QUANTUM LOGIC FOR USE IN LARGE OPERATIONAL SPACES=


==Organization Name==

[[:Category:PURDUE RESEARCH FOUNDATION|PURDUE RESEARCH FOUNDATION]]


[[Category:PURDUE RESEARCH FOUNDATION]]

==Inventor(s)==

[[:Category:Andrew Weiner of West Lafayette IN (US)|Andrew Weiner of West Lafayette IN (US)]][[Category:Andrew Weiner of West Lafayette IN (US)]]

[[:Category:Poolad Imany of Boulder CO (US)|Poolad Imany of Boulder CO (US)]][[Category:Poolad Imany of Boulder CO (US)]]

==OPTICAL QUANTUM LOGIC FOR USE IN LARGE OPERATIONAL SPACES - A simplified explanation of the abstract==


This abstract first appeared for US patent application 20240012309 titled 'OPTICAL QUANTUM LOGIC FOR USE IN LARGE OPERATIONAL SPACES

==Simplified Explanation==

The abstract describes a method for generating a photon with multiple dimensions. It involves encoding quantum information in multiple frequency bins and at least one time bin of a first photon. A frequency dependent time operation is then performed to entangle the frequency bins and time bins in the photon.

* The method generates a photon with quantum information encoded in multiple frequency and time bins.
* A frequency dependent time operation is performed to entangle the frequency and time bins in the photon.

Potential Applications:
* Quantum communication: The entangled photon can be used for secure communication and quantum key distribution.
* Quantum computing: The entangled photon can be used as a qubit for quantum computing operations.
* Quantum sensing: The entangled photon can be used for high-precision measurements and sensing applications.

Problems Solved:
* Overcoming limitations of traditional photon generation methods by generating a photon with multiple dimensions.
* Enabling the generation of entangled photons, which are crucial for various quantum technologies.

Benefits:
* Enhanced security: The entangled photon can be used for secure communication, as any attempt to intercept or measure the photon would disrupt its entanglement.
* Increased computational power: The entangled photon can be used as a qubit in quantum computing, enabling more powerful and efficient calculations.
* Improved precision: The entangled photon can be used for high-precision measurements and sensing, allowing for more accurate and sensitive detection.


==Original Abstract Submitted==

a method of generating a photon with multiple dimensions includes a step of generating a first photon encoded with quantum information in each of two or more frequency bins and at least one time bin. the method further includes performing a frequency dependent time operation to entangle (i.e. make non-separable) the frequency bins and the time bins in the photon.



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