Prime Polygon Reflectors for Ground-Free Multiple-Reflection Absorption
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Solution Overview
Problem
Existing technologies struggle to effectively capture or diminish electromagnetic energy within specified frequency ranges without inverting the waveform and do not efficiently utilize absorptive media for multiple reflections, particularly in applications like high-rise buildings where electrical grounding is challenging.
Innovation Solution
The use of prime polygon reflectors with absorptive media that cause multiple internal reflections, allowing incident energy to pass through the media multiple times, maintaining non-inverted waveforms and enhancing absorption efficacy.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Loss of energy
If traditional electromagnetic shielding methods are used, then electromagnetic energy can be blocked, but the waveform is inverted and absorption efficacy is reduced
Solution Approach 1:
The patent employs a polygonal (curved/non-linear) reflector geometry instead of traditional flat or simple curved surfaces. This polygonal shape creates multiple internal reflection paths that control the waveform behavior, allowing energy absorption while maintaining waveform integrity through controlled even-numbered reflections.
Solution Approach 2:
The invention creates periodic multiple reflections within the polygonal cavity, where electromagnetic energy undergoes repeated reflections off the surfaces. This periodic interaction with the absorptive coating and reflective surfaces enhances absorption efficacy while the even number of reflections maintains waveform non-inversion.
2Loss of energy
If absorptive media is used for electromagnetic energy reduction, then energy absorption improves, but multiple reflections are not efficiently utilized
Solution Approach 1:
The absorptive coating is nested within the polygonal reflector cavity structure. The coating is applied to the internal surfaces of the polygonal geometry, creating a nested configuration where the absorptive media is positioned to intercept multiple reflection paths of electromagnetic energy, significantly increasing absorption efficiency.
Solution Approach 2:
The polygonal cavity design ensures continuous multiple reflections of electromagnetic energy across the absorptive coating surfaces. Rather than a single pass, the energy undergoes repeated interactions with the absorptive media, maintaining continuous useful absorption action that enhances overall efficacy.
3Object-affected harmful factors
If electromagnetic shielding is implemented in high-rise buildings, then electromagnetic interference is reduced, but electrical grounding becomes challenging
Solution Approach 1:
The polygonal reflector with absorptive coating is a passive structure that functions independently without requiring external grounding connections. The electromagnetic energy absorption and waveform control are achieved through the geometric configuration and material properties alone, making the system self-sufficient and suitable for applications where grounding is difficult.
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
The prime polygon reflectors significantly reduce electromagnetic energy by ensuring non-inverted reflections and increased absorption, providing effective electromagnetic interference reduction without the need for electrical grounding.
Implementation Method 1
Geometric shapes based on the prime polygon have reflective surfaces that cause multiple internal reflections of incident waveform energy
Implementation Method 2
When used in conjunction with absorptive media, coatings, or linings, the waveform energy is forced to pass through the absorptive media multiple times, thereby increasing effectiveness of the media, coating, or lining
Data Source
AI summary
Presently disclosed are additional forms of prime polygon reflectors. In its various forms it is a device of predetermined geometric shape with aspects and scalable dimensions derived from a prime number and its mathematical square root. Geometric shapes based on the prime polygon have reflective surfaces that cause multiple internal reflections of incident electromagnetic energy. Arrayed prime polygon reflectors reduce passage of electromagnetic energy within bands that vary with reflector size and do not require an electrical ground. When used in conjunction with absorptive media, multiple internal reflections cause multiple passes through the absorptive media. When used with solar absorptive media, prime polygon reflectors are operable as solar panels. Prime polygon reflector arrays are operable to reduce reflected radar energy and can be used with or without absorptive media.