Dielectric Plate Metal Applicators for Electromagnetic Shielding
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Solution Overview
Problem
Existing devices for protecting biological objects from electromagnetic radiation emitted by electric and power devices are ineffective due to insufficient polarization, stray currents, and unbalanced applicator effects, leading to inadequate absorption and neutralization of high-frequency radiation.
Innovation Solution
The device features a dielectric plate with additional metal applicators in specific shapes and orientations, including quadrangles and triangles, which enhance polarization and reduce electromagnetic radiation by creating areas of elevated field strength to interact with and suppress harmonic components of the external radiation, along with a dielectric material coating to maintain applicator integrity.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Device complexity
If metal applicators are connected to each other on the dielectric plate, then the device structure is simplified, but stray currents increase and the balance of applicator effects is disrupted
Solution Approach 1:
The applicators are divided into separate groups that do not contact each other. Specifically, the first group includes applicators on the first effective surface, while the second group includes applicators on the second effective surface. This segmentation prevents the formation of continuous conductive paths that would generate stray currents, while still allowing each group to function independently for electromagnetic radiation shielding.
2Device complexity
If additional dielectric plate is added to the device, then the spatial volume increases, but undesired energy fluxes are generated that decrease effectiveness
Solution Approach 1:
The additional dielectric plate is removed from the device structure. The invention achieves its shielding function using only a single dielectric plate with metal applicators arranged on its two effective surfaces. This extraction eliminates the source of undesired energy fluxes while maintaining the essential shielding capability through optimized applicator configuration.
3Device complexity
If one eight-beam applicator is used to neutralize high-frequency radiation, then the device structure is simplified, but the power is insufficient for effective neutralization
Solution Approach 1:
Multiple applicators with different beam configurations (three-beam, four-beam, five-beam, six-beam, and eight-beam stars) are combined on the dielectric plate. This merging of multiple applicator types creates a composite shielding system that distributes the neutralization power across multiple elements, effectively addressing high-frequency radiation that a single applicator cannot handle alone.
4Ease of manufacture
If metal ties are magnetized in one direction, then the manufacturing is simplified, but the ties are demagnetized during use decreasing effectiveness
Solution Approach 1:
The metal ties with magnetization functionality are completely removed from the device structure. The invention achieves its electromagnetic shielding function through the configuration of metal applicators on the dielectric plate alone, eliminating the need for magnetized components that would require complex manufacturing and suffer from demagnetization during use.
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 configuration significantly reduces electromagnetic radiation exposure to biological objects by maximizing polarization and absorption, improving the device's effectiveness in neutralizing electromagnetic radiation across various frequency ranges.
Implementation Method 1
fails to ensure a necessary polarization degree of electromagnetic radiation created by an external radiation source
Implementation Method 2
creating areas of elevated field strength to interact with and suppress harmonic components of the external radiation
Implementation Method 3
insufficient absorption of the external electromagnetic radiation to which a biological object is exposed
Data Source
Figure 1
Figure 2
AI summary
The invention relates to the protection of biological objects such as humans, animals, etc. against exposure to electromagnetic radiations, which accompany the operation of electric and power devices, and may be practiced at home and in everyday life. A device for protection against exposure to energy comprises a dielectric plate 1 , an effective surface whereof includes metal applicators in the shape of a five-beam star 2, a six-beam star 3 and an eight-beam star 4, a triangle 5, and an n-beam saw-toothed polygon 6 arranged thereon. In addition, the effective surface of the dielectric plate 1 is provided with twenty-ohe additional metal applicators 7 to 27 in the shape of quadrangles and twelve additional metal applicators 28 to 39 in the shape of triangles all the applicators being arranged on the effective surface of the dielectric plate 1 as can be seen in Fig. 2, and the dielectric plate 1 is coated with a dielectric material layer 40. This invention provides reduction in an electromagnetic radiation, which accompanies the operation of electric and power devices, due to increase in polarization degree thereof with the aid of the device in accordance with the invention.