Quantum transceiver antenna and method for construction
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Solution Overview
Problem
Conventional antennas are limited by classical physics, requiring separate antennas for each frequency, are large and impractical for compact devices, susceptible to interference, and cannot operate non-line-of-sight, leading to connectivity gaps and inefficiencies in modern communication systems.
Innovation Solution
A quantum transceiver antenna (QTA) using electromagnetic Torus Fields and antenna pixel elements that generate overlapping electromagnetic lensing structures, enabling simultaneous transmission and reception across multiple frequencies, operating non-line-of-sight through various materials and environments.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If conventional antennas operate at fixed frequency with fixed wavelength, then the antenna can be designed with simple structure, but the antenna cannot operate at multiple frequencies simultaneously
Solution Approach 1:
The antenna is divided into multiple discrete antenna elements, each capable of operating at different frequencies. This segmentation allows the antenna system to handle multiple frequencies simultaneously by activating only the required elements, thereby achieving frequency versatility without proportionally increasing overall structural complexity.
Solution Approach 2:
The antenna system is designed with multiple antenna elements that can serve different frequency bands. By configuring elements with varying lengths and orientations, a single antenna structure achieves multi-functionality across multiple frequency ranges, eliminating the need for separate dedicated antennas for each frequency.
2Adaptability or versatility
If conventional antennas are designed for line-of-sight operation, then the antenna structure can be simplified, but the antenna cannot operate in non-line-of-sight conditions
Solution Approach 1:
Different antenna elements are positioned and oriented to serve specific spatial zones and propagation conditions. Elements are strategically placed to handle line-of-sight, non-line-of-sight, reflected, and diffracted signals independently, allowing the system to adapt to various operating environments without requiring a completely different antenna structure.
Solution Approach 2:
The antenna system utilizes three-dimensional spatial arrangement of multiple elements, incorporating vertical and horizontal diversity. This dimensional approach enables the antenna to capture signals from different directions and propagation paths, providing non-line-of-sight capability while maintaining a compact overall structure.
3Volume of moving object
If conventional antennas use fixed length and fixed ratio design, then the manufacturing process can be simplified, but the antenna cannot be integrated into compact mobile devices
Solution Approach 1:
Multiple antenna elements are arranged in a nested or compact configuration where shorter elements are positioned within or alongside longer elements. This nesting approach enables multiple functional elements to coexist in a reduced volume, making the antenna suitable for integration into compact mobile devices while maintaining manufacturability through standardized assembly processes.
4Reliability
If separate antennas are used for transmission and reception at each frequency, then the antenna performance can be optimized, but the system complexity and power consumption increase
Solution Approach 1:
Multiple antenna elements are combined into a single integrated antenna system that can simultaneously perform transmission and reception across multiple frequencies. The elements share common support structures, feeding networks, and control mechanisms, reducing overall system complexity and power consumption while maintaining optimized performance for each frequency band.
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
QTA provides seamless, low-power, high-gain wireless connectivity, reducing interference and latency, allowing operation in diverse terrains and structures, and overcoming multipath issues, thus enhancing communication efficiency and adaptability.
Implementation Method 1
The resonance of the antenna pixel elements organizes the EM and RF signals into coherent patterns for both transmission and reception
Implementation Method 2
The antenna pixel elements are configured to generate an electromagnetic Torus Field using electromagnetic (EM) and radio frequency (RF) signals
Implementation Method 3
The Torus Field produces field effects comprising one or more independent, overlapping electromagnetic lensing structures, formed by interference and resonance patterns within one or more antenna pixel matrix arrays
Data Source
AI summary
A Quantum Transceiver Antenna (QTA) is described which is a scalable, thin-film, bi-synchronous, multifrequency resonance antenna, made up of a layered matrix of antenna pixels of uniform size and shape, with voids and nulls in its pattern. On the QTA, electromagnetic signals gain coherence as toroidal geometries, that function as tunable, electromagnetic lenses, to simultaneously resolve and concentrate gain in the full spectrum of radio frequency signals. QTA transceives both particles and waves, and operates using quantum principles, including quantum tunneling whereby solid materials appear invisible, enabling non-line of sight communications, imaging, detection, Q-Tricity, immunity to multipath interference, and ground planes. One QTA replaces disparate antennas in a cell phone/electronic device and operates wirelessly with space-based platforms and terrestrial networks, plug and play, with low impedance, less power, at magnitudes of gain only possible using quantum principles. QTA is frequency dynamic providing mesh networks, IOT, Edge, AI connectivity, and emergency response interoperability solutions.