Quantum Entangled Laser Communication System
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Solution Overview
Problem
Time delays in data transmission systems limit the speed and efficiency of communication, making it difficult to transmit information instantly, which is crucial in applications where quick response times are necessary, such as stock trades and military operations.
Innovation Solution
A laser data transmission system utilizing quantum entangled photons, where multiple laser beams are rotated and overlapped to create interference patterns that encode and decode data simultaneously, allowing for instantaneous data transfer without physical interception.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Speed
If conventional data transmission methods are used, then data can be transmitted over distance, but time delays occur that slow down communication speed
Solution Approach 1:
The patent uses quantum entangled photons as an intermediary carrier to transmit data. The entangled photon pairs are generated at the source, with one photon sent to the receiver and the other retained. This intermediary quantum system enables instantaneous correlation between sender and receiver, eliminating classical transmission time delays while maintaining data integrity through quantum state correlation.
Solution Approach 2:
The patent changes the fundamental parameter of data transmission from classical electromagnetic wave propagation to quantum entangled state correlation. By altering the transmission mechanism from speed-dependent classical signals to instantaneous quantum correlations, the system achieves elimination of time delays while maintaining communication functionality through measurement-based information transfer.
2Loss of time
If data is transmitted instantly using quantum entanglement, then time delays are eliminated, but the system complexity increases due to requirements for entangled photon generation and detection
Solution Approach 1:
The quantum entangled photon system provides self-service functionality where the entangled photons automatically maintain their quantum correlation without requiring active control or adjustment during transmission. The system self-regulates through the inherent properties of quantum entanglement, reducing the need for complex control mechanisms and simplifying the overall system architecture despite the advanced physics involved.
Solution Approach 2:
The patent employs a universal quantum entanglement mechanism that can serve multiple communication functions simultaneously. The same entangled photon system handles both data encoding and transmission, eliminating the need for separate control and data channels. This multi-functionality reduces system complexity by consolidating multiple subsystems into a single quantum-based platform.
3Productivity
If multiple laser beams are overlapped to create interference patterns for encoding data, then data transmission capability is enhanced, but the device complexity increases due to beam control mechanisms
Solution Approach 1:
The patent uses dynamic control of laser beam phases and amplitudes to create time-varying interference patterns for data encoding. By dynamically adjusting the relative phases of multiple entangled photon beams, the system can encode complex data patterns without requiring static complex optical structures. This dynamic approach enhances data transmission capability while keeping the physical system relatively simple.
Solution Approach 2:
The system employs periodic modulation of laser beam parameters to create interference patterns that encode data. By using periodic variations in beam intensity, phase, or frequency, the system can encode multiple bits of information through temporal patterns, enhancing data transmission capability without requiring proportionally increased system complexity.
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
Enables instantaneous data transfer between points, eliminating time delays and improving response times in various industries, including banking, military, and space exploration, by leveraging the properties of quantum entanglement to encode and decode data through interference patterns.
Implementation Method 1
The present system utilizes quantum entanglement in a communication system. Quantum entanglement is when two particles, such as two photons of light, act together in an entangled system. The particles behave like one object even though they are physically apart.
Implementation Method 2
A laser beam detector array is positioned for each said laser beam to impinge upon and each laser beam partially overlapping each other laser beam of the plurality of laser beams of entangled photons to create at least one interference pattern therebetween.
Implementation Method 3
each laser having means, such as by a galvanometer scanner, for moving at least one laser beam emanating therefrom
Data Source
AI summary
The present invention relates to a laser data transmission system and, more particularly, to a communication system using a plurality of laser beams populated with quantum entangled photons. At least one of the laser beams is moved to form an overlapping pattern with a second laser reference beam to form an interference pattern between the laser beams as they impinge upon a detector array to transmit encoded data and to remotely decode the encoded data simultaneously. The interference patterns are used to encode and simultaneously decode the interference shadows upon impingement of the laser beams on a detector array.