View source for Arizona Board of Regents on Behalf of Northern Arizona University (20240346134). MULTI-WAVELENGTH QUANTUM KEY DISTRIBUTION FOR ENHANCED SECURITY AGAINST A PHOTON NUMBER SPLITTING ATTACK AND HIGHER DATA RATES simplified abstract

=MULTI-WAVELENGTH QUANTUM KEY DISTRIBUTION FOR ENHANCED SECURITY AGAINST A PHOTON NUMBER SPLITTING ATTACK AND HIGHER DATA RATES=


==Organization Name==

[[:Category:Arizona Board of Regents on Behalf of Northern Arizona University|Arizona Board of Regents on Behalf of Northern Arizona University]]


[[Category:Arizona Board of Regents on Behalf of Northern Arizona University]]

==Inventor(s)==

[[:Category:Julie B. Heynssens of Flagstaff AZ (US)|Julie B. Heynssens of Flagstaff AZ (US)]][[Category:Julie B. Heynssens of Flagstaff AZ (US)]]

[[:Category:Bertrand F. Cambou of Flagstaff AZ (US)|Bertrand F. Cambou of Flagstaff AZ (US)]][[Category:Bertrand F. Cambou of Flagstaff AZ (US)]]

==MULTI-WAVELENGTH QUANTUM KEY DISTRIBUTION FOR ENHANCED SECURITY AGAINST A PHOTON NUMBER SPLITTING ATTACK AND HIGHER DATA RATES - A simplified explanation of the abstract==


This abstract first appeared for US patent application 20240346134 titled 'MULTI-WAVELENGTH QUANTUM KEY DISTRIBUTION FOR ENHANCED SECURITY AGAINST A PHOTON NUMBER SPLITTING ATTACK AND HIGHER DATA RATES

'''Simplified Explanation:'''
The patent application discloses a method for detecting number splitting attacks in quantum key distribution systems by comparing photon transmission rates of signals of different wavelengths to detect the presence of an eavesdropper.

* **Key Features and Innovation:**
    * Detecting number splitting attacks in quantum key distribution systems.
    * Comparing photon transmission rates of signals of different wavelengths.
    * Measuring percent difference in photon receive rates to identify eavesdroppers.
    * Comparing measured difference with expected difference based on historical data or computed from Poisson distributions.

* **Potential Applications:**
    * Quantum key distribution systems security.
    * Secure communication networks.
    * Data encryption technologies.

* **Problems Solved:**
    * Detecting eavesdroppers in quantum key distribution systems.
    * Preventing number splitting attacks.
    * Enhancing the security of communication networks.

* **Benefits:**
    * Improved security in quantum key distribution systems.
    * Early detection of potential threats.
    * Enhanced data protection.

* **Commercial Applications:**
    * Secure communication systems for government agencies.
    * Data encryption services for financial institutions.
    * Network security solutions for businesses.

* **Prior Art:**
    Prior art related to this technology may include research on quantum key distribution systems, photon transmission rates, and eavesdropping detection methods.

* **Frequently Updated Research:**
    Ongoing research in quantum cryptography, photonics, and network security may provide further insights into improving the detection of number splitting attacks in quantum key distribution systems.

'''Questions about Quantum Key Distribution Systems:'''
1. How does the method proposed in the patent application enhance the security of quantum key distribution systems?
    - The method compares photon transmission rates of signals of different wavelengths to detect eavesdroppers, thereby improving system security.
    
2. What are the potential implications of detecting number splitting attacks in quantum key distribution systems?
    - Detecting such attacks can prevent unauthorized access to sensitive information and enhance overall system security.


==Original Abstract Submitted==

an arrangement and method for detecting number splitting attacks in quantum key distribution systems is disclosed. according to the method, a receiver may detect the presence of an eavesdropper on a transmission channel by detecting an increase in the percent difference between the photon transmission rates of two signals of different wavelengths. the receiver may directly measure a percent difference in photon receive rates as between the two signals, and compare the measured difference with an expected difference. the expected difference may be known, or may be measured by the receiver on the basis of historical data. the expected difference may be computed from the percent difference between the means of the poisson distributions of the transmitter's laser sources, which may be determined a priori and communicated to the transmitter.



[[Category:G06F21/55]]
[[Category:H04L9/08]]
[[Category:CPC_G06F21/554]]