View source for 20240045144. HIGH FIDELITY STORAGE AND RETRIEVAL OF QUANTUM INFORMATION IN A WARM ATOMIC VAPOR CELL DEVICE simplified abstract (Qunnect, Inc.)

=HIGH FIDELITY STORAGE AND RETRIEVAL OF QUANTUM INFORMATION IN A WARM ATOMIC VAPOR CELL DEVICE=


==Organization Name==

[[:Category:Qunnect, Inc.|Qunnect, Inc.]]


[[Category:Qunnect, Inc.]]

==Inventor(s)==

[[:Category:Mehdi Namazi of Brooklyn NY (US)|Mehdi Namazi of Brooklyn NY (US)]][[Category:Mehdi Namazi of Brooklyn NY (US)]]

[[:Category:Mael Flament of Brooklyn NY (US)|Mael Flament of Brooklyn NY (US)]][[Category:Mael Flament of Brooklyn NY (US)]]

[[:Category:Yang Wang of New York NY (US)|Yang Wang of New York NY (US)]][[Category:Yang Wang of New York NY (US)]]

[[:Category:Alexander Craddock of Brooklyn NY (US)|Alexander Craddock of Brooklyn NY (US)]][[Category:Alexander Craddock of Brooklyn NY (US)]]

==HIGH FIDELITY STORAGE AND RETRIEVAL OF QUANTUM INFORMATION IN A WARM ATOMIC VAPOR CELL DEVICE - A simplified explanation of the abstract==


This abstract first appeared for US patent application 20240045144 titled 'HIGH FIDELITY STORAGE AND RETRIEVAL OF QUANTUM INFORMATION IN A WARM ATOMIC VAPOR CELL DEVICE

==Simplified Explanation==

The abstract describes a patent application for a quantum memory device and methods for storing and retrieving a qubit from the device. The device includes an optical component to convert an input qubit encoded in the polarization state of a photon into a spatial qubit propagating in parallel optical rails. An atomic vapor memory is used to store the spatial qubit, and a second optical component combines the spatial qubit, retrieved from the atomic vapor memory, into an output qubit encoded in the polarization state of a photon.

* The patent application describes a quantum memory device for storing and retrieving qubits.
* The device includes an optical component to convert an input qubit into a spatial qubit.
* The spatial qubit is stored in an atomic vapor memory.
* A second optical component combines the spatial qubit into an output qubit.
* The output qubit is encoded in the polarization state of a photon.

Potential applications of this technology:
* Quantum computing: The quantum memory device can be used in quantum computers to store and retrieve qubits, which are the fundamental units of information in quantum computing.
* Quantum communication: The device can be used in quantum communication systems to store and retrieve quantum information encoded in qubits, enabling secure and efficient transmission of information.

Problems solved by this technology:
* Quantum information storage: The device provides a solution for storing and retrieving qubits, which is crucial for the development of quantum computing and quantum communication systems.
* Polarization state encoding: The device allows for the encoding of qubits in the polarization state of photons, providing a versatile and efficient method for information storage and retrieval.

Benefits of this technology:
* High-speed operation: The device enables fast storage and retrieval of qubits, facilitating efficient quantum computing and communication.
* Versatile encoding: The ability to encode qubits in the polarization state of photons allows for flexible and adaptable information storage and retrieval.
* Scalability: The quantum memory device can be scaled up to accommodate larger numbers of qubits, making it suitable for future advancements in quantum technology.


==Original Abstract Submitted==

a quantum memory device and methods for storage and retrieval of a qubit from the quantum memory device are described. the quantum memory device includes a first optical component to convert an input qubit encoded in an arbitrary polarization state of a photon into a spatial qubit propagating in a pair of parallel optical rails, an atomic vapor memory to store the spatial qubit in an atomic vapor, and a second optical component to combine the spatial qubit, when retrieved from the atomic vapor memory, into an output qubit encoded in an arbitrary polarization state of a photon.



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