Quantum-computing threats surveillance system and method for use in quantum communication environments
AssigneeAhP-Tech Inc.
InventorCHAO-HUANG CHEN
Life of this patent
Estimating the term…
Abstract
A quantum-computing threats surveillance system for use in quantum communication environments is a quantum-surveillance technology which detects quantum computing threats based on free electron monitoring and entangled state measurement, and performs time-and-space analysis on quantum communication environments via making use of specific Fourier transforms, and then collaborate with a system of Lotka-Volterra competition models for variance analysis, so as to determine whether there is suspicious or potential quantum computing in a quantum communication environment. Furthermore, it can monitor different quantum-teleportation channels to achieve the effect of tracking specific quantum-computing behaviors for a long term.
Claims19
A quantum-computing threats surveillance system for use in quantum communication environments comprising:
- at least a first sub-system to monitor free electrons and decoherenced states for labeling abnormal events to be further analyzed, and
- a second sub-system for entanglement measures within current quantum communication environments to evaluate whether received entangled states are not stable enough, so as to escalate warning status for a system administrator, wherein the first sub-system at least comprises:
- an environment-pre-checking module which labels abnormal events via analyzing captured free electrons in a specific duration;
- a decoherence monitoring unit which labels abnormal events via monitoring decoherenced states in a specific duration;
- and
- a system-environment patterning module which parameterizes system environments when an abnormal event is labeled to be escalated and then triggers the second sub-system with patterned parameters of the system environments;
- wherein the second sub-system is for applying entanglement measuring procedures and comprises:
- an entanglement-measures mapping module which performs a procedure to map a set of entanglement measures to positive real numbers via making use of a density operator;
- an entanglement-measures filtering module which performs a procedure to discard the cases that mapping result of entanglement measures is zero;
- an entanglement-measures reducing module for performing a procedure which reduces the mapped entanglement measures to von-Neumann entropy;
- and
- an LOCC operation module which performs operations of LOCC (local operations and classical communication) on the measures output from the entanglement-measures reducing module so as to confirm whether the current entangled states are not stable enough;
- and then the second sub-system determines whether to collaborate with a security communication unit to secure and stabilize current quantum communication via making use of hyper-entangled states with QSDC (quantum secure direct communication) protocol.
A quantum-computing threats surveillance method relating to implementation of applications, solutions, and state-of-the-arts, for use in quantum communication environments, comprising the following operations:
- a) finding abnormal events via monitoring specific free electrons and decoherenced states in a specific duration by means of environment-pre-checking module and means of quantum-state pre-checking module;
- b) after an abnormal event is found, determining whether the current entanglement is stable enough by means of entanglement measurements and means of LOCC (local operations and classical communication);
- c) once current entanglement status is determined that is not stable enough, performing specific Fourier transforms on observed free electrons and observed decoherence for labeling an advanced suspicious event by means of analysis with Fourier transforms;
- d) once an advanced suspicious event is labeled, conducting Lotka-Volterra competition model for determining a risk event by means of dynamic-model evaluation and means of Lorentz-invariant verification;
- e) based on the result derived from dynamic-model evaluation and Lorentz-invariant verification, labeling quantum teleportation channels via technology of Bell measurement and means of local-hidden-variables analysis;
- and
- f) providing log-and-trace services for collaborating with the above operations, and providing quality services by means of signal-loss correction and means of degenerated-information recovery for unstable quantum communication determined by the above operations.
Dependencies are inferred from the claim text.