KR200218765Y1 - Structure of x-ray illuminator for medical treatment - Google Patents

Abstract

The present invention relates to the structure of the X-ray view box to use the semiconductor light emitting spores that emit light, the structure of the X-ray view box is simplified due to the use of the semiconductor light emitting spores and the production is easy and the X-ray view The overall thickness of the box is thin, and the current is reduced as a sufficient amount of light is emitted from the semiconductor light emitting spores even with a small amount of current.

To this end, the present invention, in order to read the photographed X-ray (X-RAY) film, while forming the appearance and one side is opened, the glass coupled to one side of the open body (11) In the X-ray view box 10 provided with 14, the light emitting spores 100 emitting light by electric current are coupled to one surface of the open body 11 while being located behind the glass 14. .

Description

Structure of Medical X-ray View Box {STRUCTURE OF X-RAY ILLUMINATOR FOR MEDICAL TREATMENT}

The present invention relates to a medical X-ray view box, and more specifically, to simplify the structure of the X-ray view box, the thickness of the medical X-ray view box to reduce the current, and to reduce the current will be.

In general, a medical X-ray view box is a device for checking and reading an image of an X-ray photographed film to explain a patient's condition in a hospital hospital.

1 and 2, the structure of the X-ray view box 10 is provided with a main body 11 having one surface open while forming an exterior to be installed on a wall of a proper position in the hospital. In the main body 11, at least one fluorescent lamp 12 emitting light by the supplied power is coupled.

The white acrylic plate 13 through which the light of the fluorescent lamp 12 is transmitted is fixedly coupled to the front surface of the main body 11, that is, the open surface of the main body 11. The glass 14 which contacts the X-ray film a is laminated | stacked on the front surface.

That is, laminating the glass 14 on the front surface of the acrylic plate 13 prevents dust and other foreign substances, etc., caused by static electricity on the acrylic plate 13 from being attached to the acrylic plate 13, and also By preventing discoloration of the acrylic plate 13 is to maintain the shape and function of the acrylic plate 13 for a long time to clearly observe the X-ray film (a) and to extend the service life.

Connected to the fluorescent lamp 12, a ballast for lighting the fluorescent lamp 12, a glow discharge tube, and DC power supplied from the outside to the X-ray view box 10 as an AC power suitable for use in the X-ray view box 10 The illustration of components and circuits such as an inverter to be converted is omitted in general.

The front of the main body 11 is connected to the fluorescent lamp 12 is provided with a switch 15 for turning on / off the current so that the fluorescent lamp 12 flashes.

When power is supplied to the X-ray view box 10 in a state where the X-ray view box 10 having the above structure is installed inside a hospital, that is, on a wall of a suitable location indoors, that is, the DC power supplied from the outside may cause an inverter. While passing through, it is converted into AC power, and the current converted into AC power is transmitted to the fluorescent lamp 12 through the ballast.

At this time, the fluorescent lamp 12 blinks according to the operation of the switch 15, that is, ON / OFF. That is, when the switch 15 is placed in the ON state, the fluorescent lamp 12 is turned on and the light is turned on. The emitted light is emitted to the white acrylic plate 13 coupled to the front surface of the main body 11 of the x-ray view box 10.

The entire light of the acrylic plate 13 is brightened by the light emitted from the fluorescent lamp 12, and thus is inserted into the front surface of the glass 14 laminated to the front surface of the acrylic plate 13 to photograph the patient's condition. Since the image of the X-ray film (a) appears clearly, the image photographed on the X-ray film (a) is read.

As such, as the X-ray film (a) is read, the patient's or guardian's condition is confirmed and explained.

However, in order to read the X-ray film, such a conventional X-ray view box is provided with a fluorescent lamp that emits light in the main body, an acrylic plate that is brightened by the light emitted by the fluorescent lamp, a stabilizer for stabilizing a power supply, and an inverter for converting DC into AC. Since the structure of the X-ray view box is not only complicated, the thickness of the overall X-ray view box is thickened by at least one fluorescent lamp coupled to the main body, and the cost of manufacturing the X-ray view box is high. .

In addition, as the fluorescent lamp is used to read the X-ray film, not only the amount of current supplied to the fluorescent lamp is large, but also when the number of the fluorescent lamps is large, there is a problem that the amount of current increases exponentially.

The present invention has been made to solve the above problems, the use of the light emitting spores to emit light by using the light emitting spore simplifies the structure of the X-ray view box due to the use of the light emitting spores The purpose of the present invention is to reduce the thickness of the semiconductor light emitting spores as the thickness thereof becomes thinner and a small amount of current emits light.

In order to achieve the above object, the present invention is provided with a body coupled to one surface of the open body and the body is formed on one side and the appearance to read the photographed X-ray film (X-RAY) In the x-ray view box, the structure of the x-ray view box is located on the rear of the glass and the light emitting spores that emit light by electric current is coupled to one surface of the open body.

1 is a perspective view showing a general medical x-ray view box.

Figure 2 is a cross-sectional view of a conventional medical x-ray view box.

Figure 3 is a perspective view of the present invention medical x-ray view box.

Figure 4 is an exploded perspective view showing a medical x-ray view box of the present invention.

Figure 5 is a cross-sectional view showing a cross section of the present invention medical x-ray view box.

Figure 6 is an exploded perspective view showing a light emitting spore of the subject innovation x-ray view box.

Figure 7 is another embodiment showing the structure of the present invention medical x-ray view box.

* Description of the symbols for the main parts of the drawings *

10: X-ray view box 11: body

12: fluorescent lamp 13: acrylic plate

14: glass 15: switch

100: light emitting spores 110: light emitting

120: conductor 130: connection

140: detection sensor 150: control unit

160: tinfoil

Hereinafter, an embodiment of the present invention will be described in detail with reference to FIGS. 3 to 6.

Since the X-ray view box has been mentioned in the conventional configuration, overlapping portions thereof will be omitted, and the same reference numerals will be used for the same structure.

3 is a perspective view showing a medical x-ray view box of the present invention, Figure 4 is an exploded perspective view showing a medical x-ray view box of the present invention, Figure 5 is a cross-sectional view showing a cross-sectional view of the medical x-ray view box of the present invention, Figure 6 An exploded perspective view showing the spores of an X-ray view box.

In the present invention, the X-ray view box 10 for reading the photographed X-ray film is installed.

One surface of the open body 11 of the X-ray view box 10 is located behind the glass 14 to emit light by a current supplied to the X-ray view box 10, that is, semiconductor light emitting Spores (ELECTRO LUMINESCENCE, EL) are combined.

As illustrated in FIG. 6, the light emitting spores 100 are provided with a light emitting body 110 that emits light by a current supplied to the front surface of the light emitting spores 100, and a light emitting body 110 is formed by a current on the rear surface of the light emitting body 110. A conductor 120 through which the current flows is coupled to transmit a current to the light emitter 110 to emit light.

The conductor 120 is connected to the wire (b) for transmitting a current to the conductor 120 to emit light from the light emitting unit 110, the conductor 120 is a current to the whole of the conductor 120 A plurality of connection parts 130 are connected to one end of each of the wires b to be transmitted.

The inner edge of the main body 11 is located on the front of the light emitting spore 100 and detects the presence or absence of the X-ray film (a) that is fitted to the front of the X-ray view box 10 and the presence or absence of the X-ray film (a) In accordance with the plurality of detection sensors 140 to supply and cut off the current to the light emitting spores 100 is installed.

The main body 11 receives the detection signal of the detection sensor 140, that is, supply and cut off the current to the light emitting spores 100 according to the presence or absence of the X-ray film (a) detected by the detection sensor 140 The control part 150 which controls so that it may be provided is provided.

Another embodiment of the present invention, as shown in Figure 6, on the back of the light emitting spores 100 to prevent the light of the light emitting unit 110 from leaking to the rear of the conductor 120 and the light emitting unit 110 The tinfoil 160 is coupled so that the light emitted from the light emitting unit 110 emits more and more.

The operation of the present invention configured as described above is as follows.

First, the light emitting spores 100 combined with the light emitting body 110 and the conductor 120 are coupled to one surface of the open body 11, that is, the front surface of the body 11, and then the conductor 120 of the light emitting spores 100. In order to transfer the current supplied from the outside to the X-ray view box 10, wires (b) through which + current and-current flow, respectively, are installed.

In addition, since the transparent glass 14 is coupled to the front surface of the light emitting spore 100, the glass 14 prevents dust and foreign matters from being attached by the static electricity and the X-ray film photographing the patient's state ( When the a) is inserted into the front surface of the X-ray view box 10, it is not directly in contact with the light emitter 110 of the light emitting spore 100, thereby preventing scratches on the light emitter 110.

Since a plurality of detection sensors 140 are installed at the inner edge of the main body 11 so as to be positioned at the front of the light emitting unit 110 of the light emitting spores 100, each of the detection sensors 140 has a front surface of the X-ray view box 10. Whether the X-ray film (a) is inserted into or not, that is, whether the X-ray film (a) is detected, and transmits the detected signal to the control unit 150, the control unit 150 emits light spores according to the detected signal Supply and cut off current to (100).

In other words, the plurality of detection sensors 140 are installed and the front surface of the glass 14 coupled to the front surface of the X-ray view box 10 to which the light emitting spores 100 are coupled, that is, the front surface of the light emitting spores 100. When the X-ray film (a) is photographed to read the patient's state is inserted into the X-ray film (a) is detected by each sensor 140.

Then, the detected signal is sent to the controller 150, and according to the transmitted signal, the controller 150 sends a control signal to supply current to the light emitting spores 100, so that the light emitting spores 100 emits light. Will be released.

As such, as each control sensor 140 detects the X-ray film (a), and together with the control signal to supply a current to the light emitting spores 100 of the X-ray view box 10 with the control unit 150 A current is supplied to the conductor 120 of the light emitting spore 100 through a wire b, and a current flows through the entire conductor 120 receiving the supplied current.

The current flowing through the conductor 120 is transmitted to the light emitter 110 of the light emitting spore 100, and thus the light emitter 110 emits light by the current transmitted, and the light emitted from the light emitter 110 Since the front is radiated forward, the front surface of the light emitter 110 becomes bright.

That is, the image of the X-ray film (a) photographing the state of the patient sandwiched on the front surface of the glass 14, which is the front surface of the light emitter 110 is illuminated by the light emitted from the light emitter 110 in the X-ray film (a) The patient's condition is accurately read through the x-ray film (a) because the areas and dark areas appear clearly and distinctly.

In this case, when the reading of the X-ray film (a) is completed and the X-ray film (a) is removed from the X-ray view box 10, the X-ray film (a) and each sensor 140 fall.

Accordingly, each of the detection sensors 140 transmits a signal that the X-ray view box 10 is not present in the X-ray view box 10 to the control unit 150, and the control unit 150 emits light spores 100 according to the transmitted signal. Since it generates a control signal to block the current sent to the current is supplied to the conductor 120 of the light emitting spore 100 is cut off at the same time the light emitting unit 110 does not emit light.

As described above, according to the presence or absence of the X-ray film (a) on the front of the X-ray view box 100, the light emitting spores 100 not only emits light or not, but the light emitting spores 100 emitting the light are thin plates. Due to this, the overall thickness of the X-ray view box 100 is slim, and sufficient light is emitted from the light emitter 110 of the light emitting spore 100 even when the amount of current supplied to the light emitting spore 100 is small.

On the other hand, another embodiment of the present invention, as shown in Figure 6, since the silver foil 160 is coupled to the entire surface of the conductor 120 of the light emitting spores 100 by the current sent to the conductor 120 ( When the light is emitted from 110, the light is not only prevented from leaking to the rear of the X-ray view box 10 by the silver foil 160 but also reflected in front of the X-ray view box 10.

Therefore, the light emitted from the light emitting unit 110 and the light emitted from the front of the X-ray view box 10 are combined together with the light reflected in front of the X-ray view box 10. As a lot of light is radiated, the image of the X-ray film (a) becomes clearer and clearer, so that the X-ray film (a) is easily read and uses a small amount of current.

Here, the light emitting spores 100 are used not only in the medical X-ray view box 10 but also in various products such as an eye measuring plate and a drawing plate for measuring eyesight, that is, checking and reading an image of a certain product in a bright state, or measuring Any product can be used as long as it is required for such purposes as exhibitions and exhibitions.

As described above, the present invention combines a light emitting spore consisting of a light emitting body and a conductor on the front of the X-ray view box, so that the structure of the X-ray view box is simple and simplified, so that manufacturing is easy and manufacturing cost is reduced. The light emitting spores have an effect of thinning the overall thickness of the X-ray view box.

In addition, as the light emitter of the light emitting spores emits enough light to read the X-ray film photographing the patient's condition, the amount of current used is lower than that of the conventional X-ray view box using a fluorescent lamp. There is also.

That is, since the current supplied to the light emitting spores consumes only about 30% of the current supplied to the fluorescent lamp, the current consumption in the X-ray view box is reduced, thereby not only saving energy but also providing a product, that is, X-ray view. There is also an effect of improving consumer purchasing power and reliability of the box.

Claims (4)

In the X-ray view box provided with a body to form an appearance and open on one side, and glass coupled to one side of the open body to read the photographed X-ray film, The structure of the x-ray view box is located behind the glass and coupled to the light emitting spores emitting light by electric current on one surface of the open body. The method of claim 1, The light emitting spores are located on the front surface and emit light, a conductor coupled to the rear surface of the light emitting body to transmit current to the light emitting body, and coupled to the conductor to connect an electric wire to transfer external current to the conductor. The structure of the x-ray view box, characterized in that consisting of the connecting portion to be connected. The method of claim 1, The inner edge of the main body of the X-ray view box characterized in that a plurality of detection sensors for detecting the presence or absence of the X-ray film to supply and block the current to the light emitting spores according to the presence or absence of the X-ray film rescue. The method of claim 1, The rear surface of the light emitting spores and the structure of the x-ray view box, characterized in that the silver foil is combined to prevent the light from leaking to the rear of the light emitting spores to further emit light toward the front of the light emitting spores.