Virtual Photon Instantaneous Communication via Coherent Particle Splitting
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Solution Overview
Problem
Quantum mechanics faces challenges in explaining the nuclear interaction between different particles, such as protons and neutrons, and the Entanglement problem, where two coherent particles in a closed system cannot have identical spins, leading to instability and contradictions with empirical observations.
Innovation Solution
The method involves splitting a single photon into two coherent states using polaroid filters and a diffraction pattern with two slits, creating virtual photons that occupy discrete coordinates, allowing for instantaneous communication by manipulating regular photons to affect virtual photons.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If two coherent particles exist in a closed system with different spin directions to satisfy quantum mechanics rules, then the system maintains stability, but instantaneous communication cannot be achieved
Solution Approach 1:
The invention segments a single photon into two coherent states (passing through two slits), creating two coherent particles from one particle. This segmentation allows the system to have multiple coherent states while originating from a single source, enabling the virtual photon mechanism for instantaneous communication without violating quantum mechanics stability rules.
Solution Approach 2:
The invention introduces virtual photons as intermediary entities that mediate instantaneous communication between the two coherent states. These virtual photons occupy discrete coordinates and are manipulated through regular photons, serving as a bridge that enables superluminal communication while maintaining system stability through the coherent state framework.
2Adaptability or versatility
If a single particle passes through two slits creating two coherent states, then communication capability is enabled, but the two-state problem and Entanglement paradox arise
Solution Approach 1:
The invention applies local quality by assigning different properties to different regions: regular photons propagate at speed of light following standard quantum mechanics, while virtual photons occupy discrete coordinates and enable instantaneous manipulation. This local differentiation resolves the paradox by allowing different behaviors in different spatial regions without violating overall theoretical consistency.
Solution Approach 2:
The invention transitions from standard spacetime dimensions to an additional dimension by introducing virtual photons that occupy discrete coordinates beyond conventional spatial location. This dimensional extension allows instantaneous communication to occur without violating the speed of light constraint in normal spacetime, resolving the Entanglement paradox.
3Speed
If virtual photons are used for instantaneous communication, then communication speed is improved, but device complexity increases
Solution Approach 1:
The system uses self-service by manipulating regular photons (which naturally propagate through the apparatus) to indirectly control virtual photons. The regular photons serve themselves to create and manipulate the virtual photon states without requiring direct intervention, simplifying the control mechanism while maintaining instantaneous communication capability.
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 enables instantaneous transmission of communication messages by utilizing virtual photons, resolving the paradox of nuclear interactions and Entanglement by creating stable energy exchanges between particles, facilitating secure and rapid data transfer.
Implementation Method 1
splitting two quantum states in a single photon, using as a source of photons, two polaroid filters
Implementation Method 2
a diffraction pattern comprising two slits for creation of two coherent states
Data Source
AI summary
A laser setup is described that uses an attenuated laser beam energy that is caused by polarizing filters set at angles to the incident laser beam. The resulting attenuated laser beam is of an energy that allows the spin states of subatomic particles to generate virtual photons. The virtual photons allow for the instantaneous transmission of communication messages and thus, the laser setup can be used in diverse fields such as communication, computer technologies, and other related fields.