Quantum Luminescence Communication via Entangled Electron Traps
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Solution Overview
Problem
Current techniques for remote communication using photoluminescent or thermoluminescent materials face challenges in efficiently managing the emptying of entangled traps, leading to reduced fidelity and reliability in quantum couplings, especially due to the slow emptying of traps and fading of luminescence signals over time.
Innovation Solution
The process involves a 'master' and 'slave' sample setup where the 'master' sample is stimulated through temperature or radiation changes, causing correlated luminescence peaks in the 'slave' sample, allowing for the calculation of correlation coefficients to determine information transmission, with characteristic profiles optimizing the probability of deexcitation and trap emptying.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If the master sample is stimulated through temperature or radiation changes to cause correlated luminescence peaks in the slave sample, then the fidelity of quantum communication is improved, but the trap emptying time increases leading to reduced communication speed
Solution Approach 1:
The patent applies periodic stimulation to the master sample through characteristic temperature or radiation profiles that repeatedly cycle through stimulation phases. This periodic action creates correlated luminescence peaks in the slave sample at regular intervals, maintaining high fidelity quantum communication while establishing a rhythmic communication pattern that can be detected and decoded, thereby resolving the contradiction between reliable signal transmission and communication speed.
2Measurement precision
If characteristic profiles are used to optimize the probability of deexcitation and trap emptying, then the signal-to-noise ratio is improved, but the complexity of the communication system increases
Solution Approach 1:
The patent utilizes characteristic profiles that systematically vary physical parameters such as temperature or radiation intensity over time to optimize deexcitation probability and trap emptying. By changing these parameters in predetermined patterns, the system enhances luminescence signal strength and improves signal-to-noise ratio while maintaining manageable system complexity through the use of standardized profile templates.
3Productivity
If multiple uses of the samples are enabled through transient modification of deexcitation probability, then the productivity of the communication system is improved, but the luminescence signal fading over time reduces reliability
Solution Approach 1:
The patent applies preliminary stimulation to the master sample using characteristic profiles that prepare the luminescent materials for optimal signal generation. By pre-modifying the deexcitation probability through controlled temperature or radiation exposure before actual communication events, the system enables multiple productive uses of the samples while compensating for natural luminescence fading, thereby maintaining reliability across repeated communications.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
This approach enhances the fidelity of quantum communication by transiently modifying the probability of deexcitation, allowing for multiple uses of the samples and improving signal-to-noise ratios through optimized temperature and radiation profiles, thereby maintaining communication efficacy over time.
Implementation Method 1
Thermoluminescence is a physical phenomenon, which results in the property that have certain crystals to emit light when they are heated. This luminescence is produced only if the heating has been preceded by an irradiation due to ionizing radiations
Implementation Method 2
In photoluminescence the energy of the photons of white or ultraviolet light is transferred to valence electrons from the molecules, which are captured by the impurities or dislocations of the crystal lattice. The deexcitation due to the return of the electrons to their orbit of valence is produced at ambient temperature with emission of visible light
Data Source
AI summary
A method for remote communication using the interpretation of thermoluminescence or photoluminescence signals uses a property of photoluminescence or of thermoluminescence when it is caused by entangled trapped electrons. In this case, stimulation of deexcitation of trapped electrons by heat or radiation occurs when the deexcitation thermal energy is approximately equal to the trap-emptying energy. Stimulation by a temperature rise of a “master” sample induces luminescence of a remote “slave”“entangled” sample, which is reproduced on lowering the temperature of the “master” sample whatever the distance and the media separating the “master” sample and the “slave” sample. This teaching and its generalization to other forms of stimulation is used by the method of interpreting the quantum reception measurements so as to determine, using a correlation method, the transmission of information or commands. This method is particularly suitable for carrying out communication with submarines, communication in mine galleries, or communication with space probes.