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

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OPTICAL QUANTUM LOGIC FOR USE IN LARGE OPERATIONAL SPACES

Organization Name

PURDUE RESEARCH FOUNDATION

Inventor(s)

Andrew Weiner of West Lafayette IN (US)

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.