Entangled Clocks for Real-Time Kinematic Tracking
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Solution Overview
Problem
Current methods lack efficient means for measuring kinematic properties like location, speed, and velocity over long distances, particularly in space exploration, where real-time communication and precise tracking are essential.
Innovation Solution
The apparatus utilizes entangled clocks and photo detectors to measure kinematic properties by exploiting quantum entanglement principles, enabling instantaneous communication and precise determination of positional changes between objects, such as those on Earth and in space, using a pair of communicators equipped with lasers, entangled clocks, detectors, and processors.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Speed
If traditional communication methods are used for long-distance space communication, then signal transmission can be achieved, but real-time communication and instantaneous updates are not possible due to light speed limitations
Solution Approach 1:
The patent replaces traditional electromagnetic signal transmission (mechanical/physical system bound by light speed) with quantum entanglement-based communication. Entangled particles exhibit instantaneous correlation regardless of distance, eliminating the light-speed delay inherent in traditional radio or laser communication between Earth and space probes.
Solution Approach 2:
The patent introduces entangled particle pairs as intermediaries for communication. One particle remains with the Earth-based station while its entangled partner travels with the space probe. Changes to the Earth-based particle instantaneously affect its entangled partner, serving as a mediator for real-time communication without traditional signal transmission delays.
2Measurement precision
If precise tracking of kinematic properties is implemented over long distances, then location and velocity measurement accuracy is improved, but system complexity and measurement difficulty increase significantly
Solution Approach 1:
The patent replaces complex traditional radar and telemetry systems with quantum entanglement-based measurement. Instead of using multiple antennas, transponders, and signal processing equipment to track probe position and velocity, the system uses entangled particles whose quantum correlations provide direct, precise measurement of kinematic properties without the associated system complexity.
Solution Approach 2:
The patent changes the fundamental measurement parameter from classical electromagnetic signals to quantum entangled states. By measuring correlations in quantum states rather than classical signal returns, the system achieves precise kinematic measurement with simpler apparatus, as quantum entanglement inherently encodes positional and velocity information.
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 live updates and precise tracking of kinematic properties, facilitating real-time communication and control between ground and space-based personnel, and potentially enabling faster-than-light travel by maintaining entanglement across vast distances.
Implementation Method 1
at least four first entangled clocks configured to periodically emit photons, wherein a quantum state of each of the at least four first entangled clocks is entangled with a quantum state of a corresponding second entangled clock of the at least four second entangled clocks
Implementation Method 2
a first plurality of photo detectors corresponding to the at least four first entangled clocks, wherein the plurality of first photo detectors is configured to detect photons
Data Source
AI summary
Disclosed is an apparatus for measuring a kinematic property of a first object relative to a second object. The apparatus includes a first communicator associated with a first object and a second communicator associated with a second object. The first communicator includes a first frame and at least four first entangled clocks disposed on the first frame. Yet further, the first communicator includes a first plurality of photo detectors corresponding to the at least four first entangled clocks. Further, the first communicator includes a first processor communicatively coupled to the first plurality of photo detectors. Further, the first communicator includes a first power. The second communicator includes a second frame and at least four second entangled clocks disposed on the second frame. Yet further, the second communicator includes a second plurality of photo detectors. Moreover, the second communicator includes a second power supply.