KR101935231B1

KR101935231B1 - Bed blocking electromagnetic waves with a very small wire mesh and metal sheet

Info

Publication number: KR101935231B1
Application number: KR1020160043176A
Authority: KR
Inventors: 오현석; 오경석
Original assignee: 오현석; 오경석
Priority date: 2016-04-08
Filing date: 2016-04-08
Publication date: 2019-01-04
Also published as: KR20160045648A

Abstract

The present invention relates to a bed fabricated by using a fine grid metal net and a metallic thin plate to shield electromagnetic waves harmful to the human body to provide comfortable sleeping and health of human being. , Particularly a bed capable of providing a comfortable and comfortable sleeping environment in areas such as a high-voltage line buried area, various industrial sites, and the like where there is a great risk of electromagnetic wave emission.
In the conventional bed, the electromagnetic waves emitted from the lower portion of the bed, that is, the electric wires used in the lower layer in the case of the underground buried high-voltage line or the multi-layer building, were defenseless, and the electric heaters around the bed, In addition, sleep disturbance and headache, such as causing damage to the human body, which is also a factor to provide a safe and comfortable sleep by providing a bed by blocking these electromagnetic waves.

Description

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to an electromagnetic wave shielding bed using a fine grid metal net and a metallic thin plate,

The present invention relates to a bed fabricated by using a fine grid metal net and a metallic thin plate to shield electromagnetic waves harmful to the human body to provide comfortable sleeping and health of human being. The present invention relates to a bed capable of providing a comfortable and comfortable sleeping area by blocking harmful electromagnetic waves not only in areas where there is a high risk of electromagnetic wave emission such as a high-voltage line buried area, various industrial sites, and even in daily life of people.

As the industry develops, the number of IT devices used around us is increasing, and the interest in the environment is increasing.

However, there are few alternatives related to the human body protection due to harmfulness of electromagnetic waves, and there is an increasing tendency in the world to appeal to sleeping due to electromagnetic waves.

Particularly, electric heating and heating mats, mats and the like are very serious electromagnetic emission, and transmission towers and high-voltage lines are continuously installed near residential areas.

In accordance with this tendency, technologies relating to electromagnetic shielding beds have been filed and registered as patents or utility models. One example of this is disclosed in Utility Model Publication No. 20-2010-0006243. This invention relates to a heat storage structure using heat generated from an electrothermal heater, more specifically, a heat storage structure for a bed that enables a long heat source to be maintained and a heat storage heat so that electricity can be stopped to interrupt the electromagnetic wave It is.

However, in the above-mentioned electromagnetic wave preventing heat storage bed using heat storage, the generation of electromagnetic waves due to the power cut-off required for the preheating of the bed is stopped while sleeping, but the electromagnetic waves are continuously emitted during the preheating time, There is a problem that it can not be done.

Also, there is no design of a bed considering the interruption of electromagnetic waves generated from a lamp on the bed, a heating element around the bed, and an electronic product.

SUMMARY OF THE INVENTION Accordingly, the present invention has been made keeping in mind the above problems occurring in the prior art, and it is an object of the present invention to provide a sleeping room which is capable of shielding all electromagnetic waves transmitted from a bed, The purpose is to construct a bed that can be provided.

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to a bed capable of effectively controlling and blocking electromagnetic waves using a fine grid-like metal net and a metallic thin plate of a specific shape. First, as shown in Fig. 1, it is possible to block or filter electromagnetic waves of a specific wavelength in a specific direction if gratings made of metal wires of a size smaller than several millimeters are arranged in one direction. However, in the conventional bed, a bed using such electromagnetic wave shielding technology has not been put to practical use yet.

In the present invention, a shape in which a metal lattice in an arbitrary direction within 0.5 mm in thickness and a metal lattice in a direction perpendicular to the metal lattice are defined as a double wire-grid as shown in [Fig. 2].

In order to achieve the above object, the electromagnetic shielding bed according to the present invention, which is composed of a top plate, a bottom plate, a left and a right plate, and a front plate and a rear plate, A metal micro-lattice network made of metal such as aluminum or the like or a metal micro-lattice structure using a metal fine grid network, and the electromagnetic wave It is a structure that blocks the influence.

Also, the two left and right plates and two front and rear plates are respectively fitted and inserted into the insertion grooves designed for the four metallic pillars, and the top plate allows the four rounded corners to be superimposed on the arcuate grooves of the four pillars, And the upper part of the four plates such as the right plate and the front and rear plates are inserted into the inner surface of the upper plate so as to seal the infiltration space of electromagnetic waves.

Here, the front and rear surfaces are designed to have a structure that can be opened and closed in the form of a roll screen, thereby facilitating access.

On the other hand, a wing plate for blocking electromagnetic waves from entering the gap, that is, between the front plate and the bottom plate is added.

In addition, in order to freely open and close the inside of the bed,

The electromagnetic wave shielding bed composed of six plates according to the present invention as described above has the following advantages

It is designed to physically block the harmful electromagnetic waves, which effectively blocks the electromagnetic waves from the lower part of the bed, as well as the electromagnetic wave from the upper part of the bed or the electric power from the surrounding high-voltage line, By intercepting the transmitted electromagnetic waves , It is possible to provide convenience as a well-being bed which is comfortable and comfortable, and which is also beneficial to health.

The metal shielding structures such as the column and the six surfaces are designed to be assembled in an overlapping manner, so that there is no gap between the connection portions.

There is an advantage that the electromagnetic wave inflow from the clearance which can be generated on the normal entry and exit surface is strengthened by using the wing plate.

Unidirectional lattice of fine metal lines
- When an electromagnetic wave passes through a unidirectional fine metal lattice, electromagnetic waves in a direction perpendicular to the lattice remain.
Bi-directional lattice of fine metal lines
- When the electromagnetic wave passes through the bidirectional fine metal lattice (metal pair lattice), omni-directional electromagnetic waves are shielded.
- a perspective view showing an electromagnetic wave shielding bed - a plan view showing the structure of the column (C) and the upper plate (1) - Floor plan showing the structure, shape and groove position of the lower plate - a cross-sectional view of the top and bottom plates; - Structure showing the position of the mattress on the lower plate and the position of the handle

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, the present invention will be described in detail with reference to the drawings.

3 to 7 are an exploded view and a plan view of an electromagnetic wave blocking bed according to an embodiment of the present invention.

The electromagnetic shielding bed according to the embodiment of the present invention is composed of an upper plate 1, a lower plate 4, a left plate 2, a right plate 3, a front plate 5, a thick plate 6 and a column C The upper plate 1, the lower plate 4, the left plate 2, the right plate 3, the front plate 5, the thick plate 6 and the column C are separated from each other.
The upper plate 1, the lower plate 4, the left plate 2, the right plate 3, the front plate 5, and the rear plate 6 constituting the electromagnetic wave shielding bed according to the embodiment of the present invention can shield electromagnetic waves And a metallic fine grating network which can be formed on the substrate.
Here, the metallic fine grating network may be a network structure in which the closed lines or polygons formed by the metal lines are repeatedly arranged in a state that the metal line is formed of a closed curve or a polygon.
In the present invention, when the metallic fine line lattice network has a two-way lattice structure, the two-way lattice structure can be regarded as a double lattice structure. In this case, The closed curve or the polygon which is a figure of the circles or polygons constitutes an array structure repeatedly arranged to have a lattice network structure. In such a closed curve or array of polygons, The diameter is defined as the number of the lattice.
At this time, the number of characteristics of the lattice corresponding to the diameter of the circle having the smallest area among the circles surrounding the closed curve or the polygon which is the minimum basic unit in the closed curve or polygon array is set to be equal to or smaller than the wavelength length of the electromagnetic wave to be shielded .
It is preferable that a pitch between the closed curve or the polygon is equal to or smaller than the wavelength of the electromagnetic wave to be shielded in the closed curve of the metallic fine grating network or the arrangement of the polygons.
Also, it is preferable that the thickness of the metal wire, that is, the line width of the metal wire in the metallic fine mesh network is equal to or smaller than 1/2 of the pitch.
That is, the pitch between the closed curve or the polygon in the X-axis and Y-axis directions of the closed curve or the polygons of the metallic fine grating network is equal to or smaller than the wavelength of the electromagnetic wave to be shielded, The line width of the metal wire is equal to or smaller than 1/2 of the pitch.
In addition, it is preferable that the pitch between the closed curve or the polygon in the metallic fine grating network is a value within a range of greater than 0 mm and less than 3 mm, and the number of characteristics of the grating in the metallic fine grating network is determined according to the wavelength of the electromagnetic wave to be shielded .
The closed curve or polygon may be one of a square, a triangle, a circle, and a hexagon.
It is preferable that the line width of the metal line is a value within a range of greater than 0 mm and less than 0.5 mm, which is the thickness of the metal line forming the closed curve or the polygon.
In addition, the metallic line constituting the metallic fine grating network may be composed of one selected from silver, copper, gold, aluminum, nickel, chromium, platinum and palladium.
The metallic fine grating net is used alone to form the upper plate 1, the lower plate 4, the left plate 2, the right plate 3, the front plate 5 and the thick plate 6, The upper plate 1, the lower plate 4, the left plate 2, the right plate 3, the front plate 5, and the lower plate 5 are bonded to each other, And a thick plate (6).
Here, the separate supporting structure may be a film, a cloth made of fiber, or other structure of other materials.

The upper plate 1, the lower plate 4, the left plate 2, the right plate 3, the front plate 5 and the rear plate 6 of the metallic fine grating net are connected to the adjacent plates The left plate 2 and the right plate 3 are fitted and assembled from above into the groove G1 formed in the conductive column C, The upper plate 5 and the thick plate 6 are made of a roll screen attached to the upper plate 1 and slide along the groove G1 formed in the column C so that the lower end of the groove slides in the groove 55 And 66 so that electromagnetic waves can be blocked from flowing.
3 to 5, the left and right sides of the left and right plates 2 and 3 or the front and rear plates 5 and 6 are inserted and mounted on the four columns C, respectively, as shown in FIGS. (Denoted by reference numeral " G1 " in Fig. 4).

As shown in FIG. 4, circular grooves G2 are formed on the upper surfaces of the four pillars C so that rounded corners of the upper plate 1 can be inserted and mounted.

5, the four corners of the lower plate 4 are formed into an arcuate shape so as to be inserted by inserting the column C, and a groove having a columnar sectional shape (the lower plate 4 in FIG. CC ') is formed to a depth of about 10 cm.

As shown in Fig. 3, the lower plate 4 is provided with four grooves 22, 33, 55, and 66 that can be fitted with the lower end portions of the left and right plates 2 and 3, the front plate 5, ).

And the columns C are fitted in the four column grooves CC of the lower plate 4.

The left and right side plates 2 and 3 and the front and rear plates 5 and 6 are inserted into the groove G1 of the column C mounted thereon 2,3 and the lower end portions of the front and rear plates 5 and 6 are inserted into the grooves 22, 33, 55 and 66 formed in the lower plate 4, respectively. The left and right plates 2 and 3 and the front plate 5 and the back plate 6 are assembled so as to connect between the adjacent two columns C by way of the mounting structure and the mounting method described above, The left and right plates 2 and 3 and the front plate 5 and the rear plate 6 are separated from each other in order to clearly show that the groove G1 is formed in the column C. [ In the case of the left plate 2 and the right plate 3 and the front plate 5 and the thick plate 6 as described above, the left and right side portions in the drawing are inserted into the groove G1 Assembled.

The upper plate 1 is covered and covered with the arc-shaped groove G2 of the column C assembled with the above and the upper end portions of the four plates 2, 3, 5, and 6.

The front plate 5 and the rear plate 6 are formed in a roll-sulle shape so that they can be easily inserted and removed. The front plate 5 and the rear plate 6 are pulled toward the lower plate 4 from the upper side and inserted into the groove portions 55 and 66 of the lower plate 4 to be closed.

A leather handle is attached to the inside and outside of the lower end of the front and rear plates 5 and 6 to facilitate opening and closing thereof.
Preferably, the lower end of the front plate 5 and the lower plate 6 and the lower plate 4 are made of an electrically conductive structure, and the front plate 5 and the rear plate 6, The interval between the lower end of the lower plate 6 and the lower plate 4 is preferably 0.5 mm or less.

Further, the wing plate P is attached to the lower ends of the front plate 5 and the rear plate 6 at the entrance surface, that is, at the interface between the front plate 5 and the rear plate 6 and the lower plate 4, It is also an advantage to have. 7, the front plate 5 and the bottom plate 4 and the front plate 6 and the bottom plate 4 are formed so as to block the gap between the rear plate 6 and the bottom plate 4 so that the vane plate P can block electromagnetic wave inflow. (5) and the lower plate (6), respectively.

While the present invention has been described in connection with what is presently considered to be practical exemplary embodiments, it is to be understood that the invention is not limited to the disclosed embodiments, but, on the contrary, is intended to cover various modifications and equivalent arrangements included within the spirit and scope of the appended claims. will be. Therefore, the embodiments disclosed in the present invention are not intended to limit the scope of the present invention but to limit the scope of the technical idea of the present invention. The scope of protection of the present invention should be construed according to the claims, and all technical ideas within the scope of equivalents should be interpreted as being included in the scope of the present invention.

1: top plate 2: left plate
3: right plate 4: bottom plate
5: Plate 6: Plate
C: Pillar CC: Pillar groove of bottom plate
22: Left plate insertion groove 33: Lower right plate insertion groove
55: Insert the front plate into the lower plate 66: Insert the plate into the lower plate
P: wing plate attached to front and back plate L: leather handle

Claims

Wherein the top, bottom, left, right, front, and back plates constituting the bed are made of a metallic fine grid network capable of shielding electromagnetic waves, the metallic fine grid network is composed of a metal wire and the metal wire is a closed curve or a polygon Wherein the metal mesh has a plurality of closed curved lines or polygons formed by the metal lines repeatedly arranged in a circumferential direction of the metal fine grid network, And the pitch of the closed curve or the polygon in the arrangement of the closed lines or polygons of the metallic fine grid network in the X axis direction and the Y axis direction is set to be equal to or smaller than the wavelength length of the electromagnetic wave to be shielded, Is equal to or smaller than the wavelength of the electromagnetic wave to be shielded, Wherein a line width of a metal line in the metallic fine mesh network is equal to or smaller than 1/2 of the pitch,
The upper plate 1, the lower plate 4, the left plate 2, the right plate 3, the front plate 5 and the thick plate 6 of the metallic fine grating net are connected to the joining face portions In such a way that they are in contact with each other without separation,
The left plate 2 and the right plate 3 are fitted and assembled from above into a groove G1 formed in the conductive column C,
The front plate 5 and the rear plate 6 are formed by a roll screen having an upper end attached to the upper plate 1 and sliding along a groove G1 formed in the column C, (55, 66) so as to block the introduction of electromagnetic waves.

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The method according to claim 1,
Wherein the closed curve or polygon is one of a square, a triangle, a circle, and a hexagon.

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The method according to claim 1,
Wherein the metallic line constituting the metallic fine grating network is made of one selected from silver, copper, gold, aluminum, nickel, chromium, platinum and palladium.

The method according to claim 1,
The metallic fine grating net is used alone to form the upper plate, the lower plate, the left plate, the right plate, the front plate, and the back plate,
Wherein the metallic fine grating net is adhered to a separate supporting structure to produce a sheet, and the sheet comprises the upper plate, the lower plate, the left plate, the right plate, the front plate, and the back plate.

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The method according to claim 1,
The lower end of the front plate 5 and the lower plate 6 and the lower plate 4 are made of a conductive body structure and the front plate 5 and the rear plate 6 are closed, And the distance between the lower end and the lower plate (4) in the closed state is within 0.5 mm.

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The method according to claim 1,
The front plate 5 and the rear plate 6 serving as the entry and exit surfaces are provided on the lower plate 4 so as to block the gap between the lower plate 5 and the lower plate 4 so that the electromagnetic wave from the interface with the lower plate 4 can be blocked. And a wing plate (P) is attached to the electromagnetic wave shielding member.

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