KR101206967B1 - Thermotherapy Bed - Google Patents

Abstract

The present invention is configured to include a body 1100 is provided with a heat treatment device 1010, a cover 1250 sliding and covering the heat treatment device 1010 and a guide groove formed for sliding in the body 1100. It relates to a sliding thermal treatment device, characterized in that.
According to the present invention, when the heat treatment device is not used, the lower bed member can be slid so as to overlap the body, so that space utilization is easy, and when the heat treatment device is used, the lower bed member can be easily deployed in a sliding manner. Effect occurs.

Description

Sliding heat treatment device {Thermotherapy Bed}

The present invention relates to a sliding thermal therapy device used in thermal therapy.

Conventionally, it is possible to alleviate acute or chronic pain caused by muscles and nerve tissues of the spinal region caused by long-term work in an improper position or by habitualizing such a position for a long time, and improves blood circulation of the body or momentary stiffness. In order to relieve the heat treatment bed to move along the body parts to improve the blood circulation through the stimulation caused by heat in the pain-producing area is widely used.

Conventional thermal therapy apparatus used for such a thermal therapy is a problem that takes up a lot of space even when not used is formed in the form of a general bed that is not folded.

The technical problem to be achieved by the present invention is to provide a heat treatment device having a form that reduces the space occupied when not in use.

Another technical problem to be achieved by the present invention is to provide a heat treatment device in which the structural deformation is very simple while the space to be occupied is reduced.

The present invention is the body 1100 is provided with a heat treatment device 1010,

A cover 1250 that slides and covers the thermotherapy device 1010 and

Guide grooves formed for sliding in the body 1100

It provides a sliding thermal treatment device characterized in that it comprises a.

And the present invention is the body 1100 is provided with a heat treatment device 1010,

A cover 1250 that slides and covers the thermotherapy device 1010 and

Guide grooves formed for sliding in the cover 1250

It also provides a thermal treatment of the sliding method characterized in that it comprises a.

The cover 1250 includes a frame moving along the guide groove, and the body 1100 includes a frame moving along the guide groove.

Guide protrusions are formed on the body 1100, rollers are provided on the guide protrusions, heat generating members are formed on the cover 1250, and rollers are formed on the cover 1250.

The guide groove may be formed in any one of a frame, an upper portion, a side portion, and a lower region of the heat treatment apparatus, and a fixing portion may be formed in the guide groove or the frame.

The fixing part may be formed of any one of a step, a protrusion, a recess, or a solenoid member, a bearing may be formed in the guide groove or the frame, and an electrode terminal is formed at a lower end of the heat treatment apparatus, and A terminal portion connected thereto may be formed at the lower end.

The heat generating member of the cover may be operated even when the cover is closed through the terminal.

On the other hand, the present invention is the body 1100 is provided with a heat treatment device 1010,

A lower bed member 1200 which is slid from the body 1100 and changes the length of the bed while being deployed or overlapped;

Body terminal portion 1600 formed in the lower portion of the body 1100

It also provides a sliding thermal treatment device comprising a.

The body terminal portion 1600 is formed with a body power terminal 1602, a body temperature sensor terminal 1604 and a body opening sensor terminal 1606, the lower bed member in the state that the lower bed member is fully deployed from the body The lower bed upper terminal portion 1210 may be formed to be in contact with the body terminal portion 1600.

The lower bed member has a lower bed lower terminal portion 1230 formed to contact the body terminal portion 1600 in a state where the lower bed member is completely overlapped with the body, and the lower bed upper terminal portion 1210 has limit switches (both sides) on both sides. 1218 may be provided to cut off power applied to the lower bed lower terminal portion 1230 when the body terminal 1600 and the lower bed upper terminal portion 1210 are in contact with each other.

An upper power terminal 1212, an upper temperature sensor terminal 1214, and a fully open sensor terminal 1216 are formed at the upper terminal portion 1210 of the lower bed, and the body terminal portion 1600 is a terminal formed in the body 1100. A housing 1610, a terminal cover 1620 covering the terminal housing 1610, a cover elastic member 1630 mounted on the terminal housing 1610 to elastically support the terminal cover 1620, and a terminal. It may be configured to include a terminal protruding outward through the terminal holes 1624 formed in the upper surface of the cover 1620.

According to the present invention, when the heat treatment device is not used, the lower bed member can be slid so as to overlap the body, so that space utilization is easy, and when the heat treatment device is used, the lower bed member can be easily deployed in a sliding manner. Effect occurs.

1 is a perspective view showing a state in which the heat treatment device of the present invention is deployed.
Figure 2 is a schematic diagram schematically showing only the sliding structure in the heat treatment device of Figure 1;
3 is a front view of an automatic sliding structure using an electromagnet.
4 is a front view of an automatic sliding structure to which a cylinder structure is applied.
5 is a front view of an automatic sliding structure to which a gear structure is applied.
6 is a front view of an automatic sliding structure to which the spring structure is applied.
7 is a front view showing a state where a manual stopper structure is formed.
8 is a front view showing a state in which an automatic stopper structure is formed.
9 is a schematic view showing that the wheel is mounted on the rod frame.
10 is a schematic view showing that a cloth member having a predetermined thickness is formed around a rod frame.
11 is a schematic view showing a plurality of bearing structures formed around the guide groove.
Figure 12 is a schematic view showing that the guide groove of the body formed on both sides of the body of the present invention.
Figure 13 is a schematic view showing that the guide groove of the body formed in the middle of both sides of the body of the present invention.
Figure 14 is a schematic view showing that the guide groove of the body formed in the lower side of both sides of the present invention.
Figure 15 is a schematic view showing that the guide protrusion of the body formed on both sides of the body of the present invention.
Figure 16 is a schematic view showing that the guide protrusion of the body formed in the middle of both sides of the body of the present invention.
Figure 17 is a schematic view showing that the guide protrusion of the body formed in the lower side of both sides of the present invention.
18 is a schematic view showing a state in which a guide groove is formed in the lower center of the body.
19 is a perspective view of a sliding thermal treatment device in which no frame structure is formed.
20 is an enlarged cross-sectional view illustrating a portion of FIG. 19.
21 is a cross-sectional view showing that the mounting position of the roller in FIG. 19 is modified.
FIG. 22 is a cross-sectional view for illustrating a mounting structure of the inner needle roller in FIG. 1. FIG.
Figure 23 is a perspective view of the lower bed member superimposed on the body of the present invention.
24 is a perspective view of the lower bed member deployed in the body of the present invention.
25 is a perspective view showing a heat treatment apparatus mounted inside the body of FIG.
FIG. 26 is a top and side cross-sectional view of FIG. 25;
27 is a bottom view and a side view of the lower bed member of FIG. 24;
28 is an exploded perspective view of a body terminal part;
29 is a plan view, a front view, a bottom view and a side view of a body terminal part;

Hereinafter, exemplary embodiments of the present invention will be described in detail with reference to the accompanying drawings. In the drawings, the same reference numerals are used to designate the same or similar components throughout the drawings. In the following description of the present invention, a detailed description of known functions and configurations incorporated herein will be omitted when it may make the subject matter of the present invention rather unclear.

1 is a perspective view showing a state in which the heat treatment device according to the first embodiment of the present invention is deployed, and FIG. 2 is a schematic view schematically showing only a sliding structure in the heat treatment device of FIG. 1.

As shown in FIG. 1, the heat treatment device includes a body 1100 provided with a heat treatment device 1010, and a lower bed member 1200 that is slid and developed or overlapped in a connected state in the body 1100. .

The body 1100 includes a heat treatment apparatus 1010 and frames 1150 and 1160 supporting the heat treatment apparatus 1010. In addition, a guide groove 1180 is formed in the longitudinal direction between the heat treatment apparatus and the frame.

The thermal therapy apparatus includes a thermal therapy mat having a hollow in the long axis direction (the aforementioned length direction), a thermal therapy unit moving along the hollow in the thermal therapy mat, and moving means for moving the thermal therapy unit in the longitudinal axis direction. This allows the user to lie on the thermal therapy device to perform a thermal massage of the spine region.

The frames 1150 and 1160 include a left side frame 1150 and a right side frame 1160 and a center connection frame 1170 connecting between the left and right side frames 1150 and 1160. The central connection frame 1170 is formed of at least one to support the lower portion of the heat treatment device 1010.

The left side frame and the right side frame are manufactured in a substantially rectangular band shape as shown in the drawing. The left side frame and the right side frame include a side frame corresponding to the side of the heat treatment apparatus, a bottom frame supported on the bottom surface, and a connection frame connecting the side frame and the bottom frame. In this case, the frames may be combined after being manufactured as a single body or separately manufactured.

Here, it is effective that the side frame is made in a plate shape, and the bottom frame and the connecting frame are made in a rod shape.

Here, it is effective that the side frame is more protruding than the upper side of the thermotherapy device. Through this, the lower bed member is deployed to prevent the user from falling to the side by the side frame when receiving the heat treatment. In addition, when the lower bed member overlaps the heat treatment apparatus, the height of the side frame and the height of the lower bed member may be equalized within an error range (± 5%). This can be used as a thermal sofa or chair.

Here, the above-described configuration may be obtained by making the height of the side frame higher than the height of the heat treatment device or by controlling only the protrusion height of the side frame part.

The height of the side frame protruding from the upper side of the heat treatment device is effective to be 80 to 120% when the height of the lower bed member is 100%. This is because the protruding height may vary according to the height of the lower bed member, and the protruding height may vary according to the height of the guide groove in which the lower bed member is slid.

The lower bed member may slide along the guide groove of the present embodiment. The guide groove is formed in the space between the frame and the heat treatment device as shown in the figure. That is, one guide groove is formed between the left side frame and the heat treatment device, and the other guide groove is formed between the right side frame and the heat treatment device.

The guide groove may be manufactured in the form of a groove formed in a long axis direction on each of the facing surfaces of the frame and the heat treatment device. Of course, the present invention is not limited thereto, and may be formed on the inner surface of the frame facing the heat treatment device or on the outer surface of the heat treatment device facing the frame. That is, it may be formed on the outer surface of the treatment mat of the heat treatment device.

The lower bed member 1200 includes a rod frame 1270 moving along the guide groove 1180, and an upper cover 1250 provided between the rod frames.

Accordingly, the lower bed member 1200 of the lower frame member (1200) by moving (or sliding) in the front and rear direction along the guide groove (1180) by overlapping the body 1100, that is, the upper portion of the heat treatment device or It is developed outward from 1100.

The upper cover 1250 covers the upper portion of the thermal therapy apparatus 1010 when the lower bed member 1200 overlaps the body 1100 to protect the upper portion of the thermal therapy apparatus 1010.

The upper cover 1250 includes a cover part made of cloth, leather, and leather, and heat generating means located inside the cover part. The material of the cover unit is not limited thereto, and various materials may be used. The heat generating means may be located in front of the cover to heat the upper cover to a predetermined temperature. In this embodiment, a planar heating element is used as the heat generating means. Of course, the present invention is not limited thereto, and various heating means such as a heating wire may be used. Here, in the case of using a planar heating element or a heating wire, plate-like members for improving the efficiency of heat transfer and reducing the risk of fire may be inserted into the upper cover.

As such, since the heating means is provided on the upper cover, when the user expands the lower bed member to perform the thermal treatment of the spine region through the thermal treatment apparatus, the lower side, that is, the leg region may be warmed to reduce fatigue. In addition, in the present embodiment, even if the upper cover is superimposed on the upper side of the heat treatment apparatus, the fever means can be operated. This may give a warm feeling when the user uses the thermal therapy bed such as a sofa or a chair.

As mentioned above, the thermotherapy device is provided with a thermotherapy mat having a hollow. Of course, the protective cover is installed on the upper side of the mat, but due to the hollow there was a disadvantage that can not use the heat treatment device for other purposes.

In the present embodiment, when the heat treatment device is not used, the upper cover 1250 covers the upper portion of the heat treatment device 1010 so that the hollow is not exposed, so that the heat treatment device may be used as a heat sofa or a chair.

The lower bed member 1200 has a shape in which rear ends 1290 of both side rod frames 1270 are bent downwardly and integrated at the ground. That is, the rod frame has two groove frames corresponding to the guide grooves, and is unfolded. And a bottom frame placed on the bottom surface, the two groove frames, and a connecting frame connecting the bottom frames. In addition, if necessary, a protective frame may be provided between the groove frames to connect the two groove frames to facilitate the protection and assembly of the upper cover.

Therefore, the rear of the lower bed member 1200 is supported by the shape of the rear end 1290 of both rod frame 1270.

On the other hand, the sliding structure is capable of automatic / semi-automatic sliding and manual sliding structure. In other words, the user can directly slide the lower bed member, or the automatic and semi-automatic sliding.

The following describes an automatic / semi-automatic sliding structure of various modified forms.

Hereinafter, only the rod frame 1270 is shown when the lower bed member 1200 is shown in the drawings when necessary for the convenience of understanding. In addition, although the drawing shows that the guide groove is formed in the frame region, the present invention is not limited thereto. As described above, the guide groove may be formed in the heat treatment mat, and the guide groove may be formed in both the frame and the heat treatment mat. Can be.

The automatic sliding structure according to the first modification is a structure using an electromagnet, and FIG. 3 is a front view of the automatic sliding structure using an electromagnet. The electromagnet 1310 is installed at one side of the guide groove 1180 of the body 1100, and a current is applied to the electromagnet 1310 to pull the rod frame 1270 of the lower bed member 1200.

In this case, in order to facilitate the action of the electromagnet 1310, it is preferable to apply a material containing iron components easily pulled by the magnet to the tip 1271 of the rod frame 1270. Of course, a magnet or an electromagnet having a polarity opposite to that of the electromagnet may be disposed at the end of the rod frame.

The automatic sliding structure according to the second modification is a cylinder structure, and FIG. 4 is a front view of the automatic sliding structure to which the cylinder structure is applied. A cylinder 1320 and a piston 1330 are formed at one side of the guide groove 1180 of the body 1100 so that the piston 1330 is stretched based on the cylinder 1320 and pulls the tip 1271 of the rod frame 1270. Or pushing structures may be applied.

In this case, the piston 1330 is formed in a plurality of cylindrical shape, the shape of the cylindrical shape gradually decreases in the most centrally located part of the rod shape, the end of the rod is at the front end (1271) of the rod frame (1270) Connected. That is, the smallest cylinder, that is, the cylinder of the end and the tip of the rod frame 1270 may be connected. Therefore, when using a cylinder, the length of the guide groove can be as long as the length of the piston portion. In addition, the present modification is not limited thereto, and the piston 1330 may be inserted into the rod frame 1270 to operate. For this purpose a portion of the piston region other than the smallest cylindrical piston may be cut out. Through this, it is possible to prevent the length of the guide groove from increasing.

When sliding the lower bed member 1200 to be separated from the body 1100, fluid flows into the cylinder 1320 to expand the piston 1330.

When the lower bed member 1200 is coupled to the body 1100, the hydraulic pressure of the cylinder 1320 is reduced to reduce the piston 1330.

The automatic sliding structure according to the third modified example employs a gear structure, and FIG. 5 is a front view of the automatic sliding structure to which the gear structure is applied. A rod frame 1270 having a rack gear 1350 formed at the other side of the guide groove 1180 of the body 1100 and driven by a motor 1340, and a pinion gear 1360 engaged with the rack gear 1350. It may be configured to include).

When the rotation direction of the motor 1340 is clockwise, the lower bed member 1200 is moved outwardly from the body 1100, and when the counterclockwise direction is lower, the lower bed member 1200 is overlapped with the body 1100. Is moved.

The automatic sliding structure according to the fourth modification is a spring structure, and FIG. 6 is a front view of the automatic sliding structure to which the spring structure is applied. One side of the spring 1370 is fixed to one side of the guide groove 1180 of the body 1100 and the other side of the spring 1370 is fixed to one side of the rod frame 1270.

A lower step step 1137 is formed at one side of the rod frame 1270 to guide the lower step step 1137 in the state where the lower bed member 1200 is sufficiently moved to one side around the body 1100. ) So that the spring 1370 stops.

When the lower step 1371 is lifted up, the lower bed member 1200 is moved to overlap the body 1100 by the action of the spring 1370. In this modification, it is effective to increase the length of the guide groove as much as the length of the spring 1370.

In this case, the lower step may be applied not only to the automatic / semi-automatic sliding structure but also to the manual sliding structure.

In addition, in the case of using the automatic / semi-automatic sliding structure as described above, although not shown and detailed description, a separate control unit for enabling such driving may be further added.

In addition, the techniques of the above-described modifications may be combined with each other and applied to the present embodiment. In addition, some of the techniques of the above-described modification may be applied to other modifications.

Meanwhile, in the first embodiment, the stopper structure may be formed so that the lower bed member 1200 is not slid in a state where the lower bed member 1200 is positioned at one side and the other side of the guide groove 1180 of the body 1100.

7 is a front view showing a state where a manual stopper structure is formed.

As shown in FIG. 7, one side seating recess 1362 is formed downward at one side of the guide groove 1180 of the body 1100, and the other seating recess 1384 is formed downward at the other side of the guide groove 1180. .

The one seating recess 1382 and the other seating recess 1384 are inclined at portions facing each other. One side lower protrusion 1386 is formed at one side of the rod frame 1270 and the other side lower protrusion 1388 is formed at the other side. One seating recess 1382 or the other seating recess 1384 is inserted into the lower protrusion 1386, and the other seating recess 1384 is inserted into the other lower protrusion 1388.

That is, when the rod frame 1270 moves to the inside of the guide groove 1180 and the treatment device is folded, one lower protrusion 1386 of the rod frame 1270 is introduced (seated) into the one seating recess 1138 and the other lower portion thereof. The projection 1388 is drawn in (seed) to the other seating recess 1384.

In addition, when the rod frame 1270 moves to the outside of the guide groove 1180 and the treatment is developed, only one lower protrusion 1386 is inserted into the other seating recess 1384.

In this embodiment, the rod frame 1270 can be stably seated in the guide groove 1180 through the structure of the one seating recess 1382 and the other seating recess 1384.

That is, the lower bed member can be prevented from being unfolded or folded regardless of the user's intention. In addition, the protrusion is inserted into the concave portion, so that the user can fully confirm the point of view and the point of folding by sense or sound.

8 is a front view showing a state in which an automatic stopper structure is formed.

According to the present embodiment, solenoid valves 1396 and 1398 for elevating and elevating members 1332 and 1394 and elevating members 1332 and 1394 are provided at one end and the lower end of the guide groove 1180 as shown in FIG. 8. Is formed, the inlet grooves (1397, 1399) are formed in one end and the other end of the rod frame (1270), respectively.

The solenoid valves 1396 and 1398 are automatically operated when the inlet grooves 1397 and 1399 are positioned above the elevating members 1332 and 1394 by the control of a controller or by a control circuit already set. Members 1392 and 1394 are introduced into the inlet grooves 1397 and 1399.

In the state where the lower bed member 1200 is unfolded, one side solenoid valve 1396 is not operated so that one side elevating member 1332 is positioned at the bottom, and the other solenoid valve 1398 is operated to operate the other elevating member 1394. It may rise to flow into one side of the retracted groove (1397).

In addition, when the lower bed member 1200 is moved to overlap the thermal treatment apparatus, the operation of the other solenoid valve 1398 is also stopped by the control of the controller, and the other lowering member 1394 is lowered and the lower bed member 1200 is moved. Is moved to overlap the body 1100.

In addition, when the lower bed member 1200 is completely in contact with the predetermined position of the body 1100, one side solenoid valve 1396 and the other solenoid valve 1398 is operated to operate one side lowering member (1392) and the other side lowering The member 1394 is introduced into the one side inlet groove 1397 and the other side inlet groove 1399, respectively.

Therefore, according to this embodiment, when the lower bed member 1200 is unfolded or overlapped with the body 1100, the lower bed member 1200 is automatically stopped and fixed at a proper position. .

On the other hand, the present embodiment is configured as follows in order to minimize the noise and vibration generated by the rod frame 1270 moved in the guide groove 1180.

9 is a schematic view showing that the wheel frame is mounted on the rod frame, FIG. 10 is a schematic view showing a cloth member having a predetermined thickness around the rod frame, and FIG. 11 shows a plurality of bearing structures formed around the guide groove. Schematic diagram.

9, the wheel 1410 is mounted on the rod frame 1270 to move along the guide groove 1180. A urethane member 1412 is formed at an outer portion of the wheel 1410 to absorb noise and vibration by elasticity.

Of course, various materials other than the urethane member 1412 may be used, and the urethane member may not be used if necessary.

Here, wheels may be mounted on the inner and / or outer surface of the rod frame 1270. In this case, a wheel may be inserted into the guide groove 1180, and part or all of the rod frame 1270 may protrude out of the guide groove. Of course, both the wheel and the rod frame can be drawn into the guide groove. Here, when only the wheel is drawn into the guide groove, the size of the wheel may be smaller than the size of the rod frame. In addition, the wheel is mounted on the lower region of the rod frame, a portion of the wheel may be inserted into the inside of the rod frame. In this case, an opening groove in which the wheel is exposed may be formed in the lower region of the rod frame. Of course, the wheel arrangement of the above-described form can be configured in other regions (upper region and both side regions) other than the lower region of the rod frame. The wheel may be mounted on the inner region of the guide groove in which the rod frame moves.

In addition, the drawing shows that the wheel can be arranged in the entire section of the rod frame. However, the present invention is not limited thereto, and the wheels may be installed only at the front end region of the rod frame. This is because the front end region of the rod frame moves in contact with the front face of the guide groove. In addition, when the user manually slides the lower bed member, the other side of the lower bed member (ie, the area corresponding to the front end) is moved, so that the user can smoothly slide without installing the wheels in the entire section of the rod frame.

In this embodiment, as shown in FIG. 10, a cloth member 1414, such as carbon fiber, which has a very soft surface and is not easily worn around the rod frame 1270, may absorb noise and vibration due to friction. have. Of course, the present invention is not limited thereto, and the fabric member may be attached to an inner region of the guide groove.

In addition, in the present invention, as shown in FIG. 11, a plurality of bearing members 1416 are formed in the guide grooves 1180 such that the surface of the rod frame 1270 that is moved along the guide grooves 1180 may have the bearing members 1416. It may be arranged to be in contact.

As a result, the friction between the rod frame 1270 and the guide groove 1180 may be minimized.

On the other hand, the present invention can be formed in a variety of connection relationship between the body and the lower bed member will be described later. The following drawings are schematic descriptions, and the following techniques may be applied to the thermal treatment mat region of the aforementioned frame and thermal treatment apparatus.

FIG. 12 is a schematic view showing a first modified example in which the guide grooves of the body are formed on the upper sides of the body in this embodiment, and FIG. 13 is a schematic view showing a second modified example formed in the middle portions of the body both sides in the present embodiment. 14 is a schematic view showing a third modified example in which the guide grooves of the body are formed below both sides of the body in the present invention.

As shown in FIG. 12 (a) of the first modification, guide grooves 1180 are formed at both upper portions of the body 1100, and as shown in FIG. 12 (b), at both sides of the upper cover 1250 of the lower bed member 1200. The rod frame 1270 is formed, and the rod frame 1270 of the lower bed member 1200 may be coupled to the guide groove 1180 of the body 1100 as shown in FIG. 12 (c). That is, a guide groove may be formed in an upper portion of the thermal treatment mat, the frame, and any one of the regions between the thermal treatment mat and the frame of the body 1100.

As shown in FIG. 13A, the guide grooves 1181 may be formed toward the outside at both middle portions of the body 1101. Accordingly, the structure of the lower bed member may also be changed. That is, as shown in (b) of FIG. 13 (b), the connecting frame 1510 is formed from both sides of the upper cover 1250 of the lower bed member 1201 to the position where the guide groove 1181 is formed, and the tip of the connecting frame 1510 is formed. A rod frame 1271 may be formed in the rod frame 1271. As shown in FIG. 13 (c), the rod frame 1271 of the lower bed member 1201 may be coupled to the guide groove 1181 of the body 1101. In the present modified example, the guide groove may be formed on an upper portion of any one of a thermotherapy mat, a frame, and a region between the thermotherapy mat and the frame.

For example, when the technique of the modified example as shown in FIG. 13 is applied to the frame, when the body 1101 and the lower bed member 1201 overlap with each other when viewed from above, the body 1101 is not exposed but is lowered. Only the bed member 1201 is visible, thereby improving the appearance. In addition, the body can be stably protected in the overlapped state, and the user may not feel the coolness felt in the existing frame area when the user sits on the lower bed member.

In addition, as shown in FIG. 14A, the guide grooves 1182 may be formed downward from both sides of the body 1102. In addition, as shown in FIG. 14B, a connecting frame 1511 is formed from both sides of the upper cover 1250 of the lower bed member 1202 to the position where the guide groove 1182 is formed, and the front end of the connecting frame 1511 is formed. Rod frame 1272 may be formed in the. As illustrated in FIG. 14C, the rod frame 1272 of the lower bed member 1202 may be coupled to the guide groove 1182 of the body 1102.

This variant can also be formed in the frame and / or the thermal therapy mat as mentioned above.

On the other hand, according to another embodiment of the present invention, the guide protrusion may be formed on the body in the longitudinal direction of the body, and the lower bed member may have a structure in which a groove frame member is moved along the guide protrusion. That is, in the above embodiment, a guide groove is formed in the body, and the rod frame is moved inside the groove. However, in the following embodiment it will be described that the projection is formed in the body, the guide groove may be formed in the rod frame region. Each technique of the descriptions of the following embodiments may be used in different descriptions, and some techniques may be used, and the technique of the first embodiment described above may be applied to the second embodiment. In addition, some techniques of the second embodiment may be applied to the first embodiment.

15 is a schematic view showing that the guide protrusion of the body according to the second embodiment of the present invention is formed on both sides of the body, Figure 16 is a schematic view showing that the guide protrusion of the body according to the second embodiment is formed in the middle of both sides of the body 17 is a schematic view showing that the guide protrusions of the body according to the second embodiment are formed on both lower sides of the body.

As shown in FIG. 15 (a), the body 1103 includes guide protrusions 1183 protruding from both sides. As shown in FIG. 15B, the lower bed member 1203 is provided with a groove frame 1273 on both sides of the upper cover 1250. As shown in FIG. 15C, the groove frame 1273 of the lower bed member 1203 is in contact with the guide protrusion 1183 of the body 1103 to move (slide). Here, it is effective that the groove frame does not fall out of the body until the lower bed member is fully developed by the structure of the protrusion and the groove. In addition, the guide protrusion may be formed in a frame, a heat treatment mat, and an area between the frame and the heat treatment mat. If the guide protrusion is formed in the region between the frame and the heat treatment mat (that is, the region on both sides of the frame and the heat treatment mat), two grooves inside the groove frame may be formed. Of course, the number of such groove frames may vary depending on the number of guide protrusions. In addition, the guide protrusion may be formed in a point shape, or these points may extend in a line shape or may be formed in a line shape.

In the drawings, the groove frame member is shown in the form in which the entire rod is bent. However, the present invention is not limited thereto, and some regions of the rod frame may be bent or cut.

As illustrated in FIG. 16A, guide protrusions may be formed at both middle portions of the body 1104. Accordingly, as shown in FIG. 16B, the connecting frame 1514 is formed from both sides of the upper cover 1250 of the lower bed member 1204 to the position where the guide protrusion 1184 is formed, and the front end of the connecting frame 1514 is formed. A groove frame 1274 member may be formed in the groove. As shown in FIG. 16C, the groove frame 1274 of the lower bed member 1204 may move while being in contact with the guide protrusion 1184 of the body 1104.

As shown in FIG. 17A, the guide protrusions may be formed at both lower sides of the body 1105. In FIG. 17B, a connecting frame 1515 is formed from both sides of the upper cover 1250 of the lower bed member 1205 to a position where the guide protrusion 1185 is formed, and a groove frame 1274 is formed at the front end of the connecting frame. The member may be formed. As shown in FIG. 17C, the groove frame 1274 of the lower bed member 1205 is moved while contacting the guide protrusion 1185 of the body 1105.

18 is a schematic view showing a state in which a guide groove is formed in the lower center of the body according to the third embodiment of the present invention.

As illustrated in FIG. 18, in the present embodiment, a guide groove is formed inside the hollow of the heat treatment mat, and a flight frame introduced into the hollow and the guide groove may be provided in the lower bed member. In this case, when the lower bed member overlaps, the hollow of the heat treatment mat may be completely blocked to protect the heat treatment ceramics inside the hollow part.

Of course, the present invention is not limited thereto, and a plate-shaped guide groove is formed in the upper region of the heat treatment mat, and a plate-shaped frame drawn into the plate-shaped guide groove may be provided in the lower bed member.

In addition, the present embodiment may not use a frame in the body.

FIG. 19 is a perspective view illustrating a sliding thermal treatment device in which a frame structure according to a third embodiment of the present invention is not formed, and FIG. 20 is an enlarged cross-sectional view illustrating a portion of FIG. 19.

The embodiment may be formed as a sliding thermal treatment device having no frame structure as shown in FIG. 19, rather than a sliding thermal treatment device having a frame structure described with reference to FIGS. 1 to 18.

The technique of this embodiment can be applied to the above-mentioned embodiments. In addition, duplicate description is abbreviate | omitted in description of the above-mentioned embodiment.

The thermotherapy device according to the present embodiment includes a heat treatment device and a cover portion covering the heat treatment device.

The thermal therapy apparatus includes a thermal therapy mat 2100 having guide grooves 2120 formed at both sides in a length direction, and a thermal therapy ceramic part that moves along the hollow of the thermal therapy mat to massage the spine region of the user.

The cover part is provided in a shape surrounding the upper surface and the side surface of the heat treatment mat 2100, and the roller 2210 and the rotating shaft 2220 of the roller 2210 which are moved along the guide groove 2120 in the guide groove 2120. It is configured to include a cover 2200 formed.

In addition, a handle 2110 may be provided at the front end of the heat treatment device.

When the user pulls the handle 2110 and opens the heat treatment mat 2100 in a sliding manner based on the cover 2200 as shown in FIG. 19, the user receives the heat treatment, and when the heat treatment ends, covers the heat treatment mat 2100. (2200) Stored after retracting inward to reduce the total volume.

The roller 2210 is rotated along the guide groove 2120 when the thermal treatment mat 2100 is introduced into or taken out of the cover 2200, so that the insertion and exit of the thermal treatment mat 2100 may be performed flexibly.

The roller 2210 is connected to the guide groove 2120 is a guide having a larger diameter than the step groove 2122 and the step groove 2122 into the heat treatment mat 2100, as shown in Figure 20 (a) A groove 2120 is formed, and the roller 2210 is connected in a manner that is moved in the guide groove 2120 or guides without the step grooves 2122 to the inside of the heat treatment mat 2100 as shown in FIG. A groove 2120 is formed, and the roller 2210 is connected in such a manner that the roller 2210 is moved in the guide groove 2120. In this case, it is effective that the side region of the thermal therapy mat is made of plastic or synthetic resin material. That is, it is preferable to be made of a material that can minimize the impact resistance and frictional force due to the movement of the roller.

In the case of this embodiment, the roller is located inside the guide groove as shown in Figs. 20 (a) and 20 (b). Then, the roller is connected to the side of the cover. Here, the cover has an upper cover body to cover the top of the heat treatment mat and a side cover body to cover the side. The roller is fixedly coupled to the inner side of the side cover body. Of course, as in the above-described embodiments, a portion of the side cover body may protrude and slide inwardly of the guide groove.

The guide groove may be manufactured in the form of a groove having an outer surface as shown in FIG. At this time, the method as shown in Figure 20 (a) is characterized in that the roller is firmly configured so as not to be separated from the guide groove compared to the method as shown in Figure 20 (b).

21 is a cross-sectional view showing that the mounting position of the roller in FIG. 19 is deformed.

In this embodiment, the guide grooves 3210 are formed on both side walls of the cover 3200 as shown in FIG. 21, and the rollers 3120 are rotated around the rotation shaft 3110 on both sides of the body 3100 to provide the guides. It may be arranged to move in the groove 3210.

22 is a cross-sectional view illustrating a mounting structure of a bed inner roller of FIG. 1.

22 is a structure in which the wheel 1410 is provided to be movable only inside the body 1100. Portions of the guide groove 1180 to which the wheel 1410 is moved are formed in the frames 1150 and 1160.

And the shape of the guide groove 1180 is formed horizontally again after inclined downward from the lower portion of the body 1100. In addition, since the height of the lower bed member 1200 is formed to be smaller than the height of the guide groove 1180, the sliding inclined surface 1189, which is the downwardly inclined portion, may have the lower bed member 1200 fully developed in the body 1100. When the height of the guide groove 1180 and the height of the lower bed member 1200 is formed to maintain the horizontal.

The sliding slope surface 1189 is formed below the thermal treatment apparatus 1010 as well as the guide groove 1180.

Figure 23 is a perspective view of the lower bed member superimposed on the body according to the first embodiment, Figure 24 is a perspective view of the lower bed member deployed in the body, Figure 25 is a thermal treatment apparatus mounted inside the body of Figure 24 26 is a perspective view illustrating a plan view and a side cross-sectional view of FIG. 25.

23 and 24, the omission of the outer cover covering the body 1100 and the lower bed member 1200 will be omitted. Referring to FIG. 23, the lower bed member 1200 will be placed on the body 1100 without the thermal treatment bed. In this state, the thermotherapy bed can be used as a sofa.

FIG. 24 illustrates a case in which a heat treatment bed is used, and the patient receives the heat treatment by pressing the heat treatment bed while the lower bed member 1200 is deployed in the body 1100.

Looking at the thermal therapy apparatus 1010 formed in the thermal therapy bed through FIGS. 25 and 26, the thermal therapy device 1010 is a ceramic mounting portion 1120 equipped with a ceramic 1112 is moved in the longitudinal direction of the thermal therapy mat While being treated as a patient, a moving member 1130 such as a chain for moving the ceramic mounting portion 1120 is formed in the center along the longitudinal direction of the body 1100. In addition, a guide rail shape guide part 1140 for guiding the movement of the ceramic mounting part 1120 is formed at both lower ends of the movement paths of the ceramic mounting part 1120 in the longitudinal direction of the body 1100. Here, the guide portion is preferably formed in the frame of the body.

In addition, the acoustic member 1110 is provided on both sides of the upper portion of the thermal therapy mat spaced apart from the moving space of the ceramic mounting part 1120, that is, the part where the head of the patient is located, and the patient receiving the thermal treatment as well as the thermal treatment. Music therapy can also be effective.

On the other hand, the lower portion of the heat treatment mat body body portion 1600 is formed at a position spaced apart from the moving space of the ceramic mounting portion 1120.

A body power supply terminal 1602, a body temperature sensor terminal 1604, and a body opening sensor terminal 1606 are formed in the body terminal 1600 of the heat treatment mat.

27 is a bottom view and a side view of the lower bed member of FIG. 24, FIG. 28 is an exploded perspective view of the body terminal portion, and FIG. 29 is a plan view, a front view, a bottom view, and a side view of the body terminal portion.

The lower bed member 1200 includes a lower bed upper terminal portion 1210 and a lower bed member 1200 which are formed to contact the body terminal portion 1600 in a state where the lower bed member 1200 is fully deployed in the body 1100. The lower bed lower terminal portion 1230 is formed to be in contact with the body terminal 1600 in a state that is superimposed on the body 1100.

The lower bed upper terminal portion 1210 has an upper power terminal 1212 and an upper temperature sensor terminal at positions corresponding to the body power terminal 1602, the body temperature sensor terminal 1604, and the body open sensor terminal 1606 in order. 1214 and the fully open sensor terminal 1216 is formed.

In addition, the lower bed upper terminal portion 1210 is provided with a limit switch 1218 on both sides to cut off the power applied to the lower bed lower terminal portion 1230 when the body terminal portion 1600 and the lower bed upper terminal portion 1210 contact. Play a role.

The present invention is provided with a heating element (1224) formed of a heating wire such as nichrome wire in the lower bed member (1200) is provided so that the heat is also transmitted to the leg portion of the patient, which connects power to the heating element (1224) And a role of sensing and controlling the temperature of the heating element 1224.

Although the device for supplying power to the heating element 1224 and the device for sensing and controlling the temperature may be mounted on the lower bed member 1200, the present invention is to supply power to the heating element 1224 power unit of the body 1100 In charge of, the function of sensing and controlling the temperature is also performed through the body 1100 and the remote control.

When the body power terminal 1602 and the upper power terminal 1212 is in contact with each other, a current is transmitted from the body 1100 to the lower bed member 1200.

When the body temperature sensor terminal 1604 and the upper temperature sensor terminal 1214 are in contact with each other, the temperature of the heating element 1224 of the lower bed member 1200 is sensed and transmitted to the control unit of the body 1100.

When the body opening sensor terminal 1606 and the full opening sensor terminal 1216 contact, the lower bed member 1200 transmits the development from the body 1100 to the control unit of the body 1100.

The control unit controls the thermal treatment device 1010 of the body 1100 to operate.

Therefore, in the state where the body opening sensor terminal 1606 and the full opening sensor terminal 1216 are not in contact with each other, the heat treatment device 1010 of the body 1100 is not operated by the control unit, and the ceramic mounting unit 1120 The conductor 1122 is also positioned at the lowermost region so as not to contact the lower bed member 1200.

In the present invention, since the lower bed member 1200 is superimposed on the body 1100 in the state in which the thermal therapy apparatus is not used, the body opening sensor terminal 1606 and the full opening sensor terminal 1216 are in contact with each other. In the non-state state, the conductor 1122 of the ceramic mounting portion 1120 is positioned in the lower region.

The lower area refers to an area corresponding to the lowest position in the structure in which the conductor 1122 is moved up and down.

In addition, the patient slides the lower bed member 1200 to the outside based on the body 1100 in order to operate the heat treatment device, so that when the lower bed upper terminal part 1210 contacts the body terminal part 1600, the body power supply terminal 1602 and The upper power supply terminal 1212 is connected so that a current is transmitted from the power supply of the body 1100 to the heating element 1224 of the lower bed member 1200.

In addition, the body temperature sensor terminal 1604 and the upper temperature sensor terminal 1214 is connected, the temperature of the heating element 1224 is detected and transmitted to the body 1100, the body opening sensor terminal 1606 and the fully open sensor terminal. 1216 is connected to the control unit to operate the thermotherapy device (1010).

On the other hand, when the connection between the body temperature sensor terminal 1604 and the upper temperature sensor terminal 1214 proceeds earlier than the connection between the body power terminal 1602 and the upper power terminal 1212 to prevent the spark generated In order to achieve the present invention, the following configuration is formed.

First, as shown in FIG. 27, the length of the upper power supply terminal 1212 is formed longer than the length of the upper temperature sensor terminal 1214, and then the upper end of the upper power supply terminal 1212 based on the upper end of the lower bed member 1200. By mounting the upper position of the upper temperature sensor terminal 1214 and the same, it is formed so that the lower position of the upper power supply terminal 1212 is located below the lower position of the upper temperature sensor terminal 1214.

As a result, when the lower bed member 1200 slides to the outside of the body 1100, the upper temperature sensor terminal 1214 contacts the body temperature sensor terminal 1604 after the upper power terminal 1212 contacts the body power terminal 1602. ),

Second, the upper height of the body power terminal 1602 is formed higher than the upper height of the body temperature sensor terminal 1604 by varying the mounting height of the terminals formed in the body terminal 1600 as shown in Figure 29 lower bed member 1200 ) Is moved downward along the sliding inclined surface (1189), the contact between the upper power supply terminal 1212 and the body power supply terminal 1602 between the upper temperature sensor terminal 1214 and the body temperature sensor terminal (1604). Proceed faster than contact.

Third, after the contact between the upper temperature sensor terminal 1214 and the body temperature sensor terminal 1604 by programming in advance, the upper power supply terminal 1212 so that the effect of the contact occurs after a predetermined time, that is, preferably 5 seconds. The upper power supply terminal 1212 and the body power supply terminal (12) and the body power supply terminal 1602 even if the contact between the upper temperature sensor terminal 1214 and the body temperature sensor terminal 1604 occurs at the same time or is delayed by 4 seconds. The effect of the contact between 1602 is generated more quickly than the effect of the contact between the upper temperature sensor terminal 1214 and the body temperature sensor terminal 1604.

The present invention has the effect of preventing the occurrence of sparks by building the three stable systems as described above.

On the other hand, the present invention uses an elastic structure to form a structure that the terminals of the body terminal portion 1600 can be easily contacted.

That is, the body terminal part 1600 may be mounted to the terminal housing 1610 formed in the body 1100, the terminal cover 1620 covering the terminal housing 1610, and the terminal housing 1610. ) And a terminal which protrudes outward through the terminal holes 1624 formed on the upper surface of the terminal cover 1620.

In addition, the terminal housing 1610 is formed with a cylindrical elastic member seating part 1615 to which the lower portion of the ring spring-shaped cover elastic member 1630 is seated.

A cover protrusion 1622 is formed on the terminal cover 1620, and the terminal cover 1620 is lifted up and down by the cover elastic member 1630 on the terminal housing 1610 so that the cover is not separated from the terminal housing 1610. A projection stopper portion 1612 defining a moving section of the projection 1622 is formed.

As a result, the terminal cover 1620 is elastically supported by the cover elastic member 1630 when the terminal cover 1620 is moved downward by the contact of the terminals.

Therefore, when the terminals of the lower bed member 1200 moved downward along the sliding inclined surface 1189 are in contact with the body terminal portion 1600, the impact force is absorbed and the terminals of the body terminal portion 1600 protrude quickly. The effect that contact is made is produced.

In addition, as shown in FIG. 28, two holes 1624 in the width direction are formed in the terminal cover 1620 in the length direction, so that a total of 12 holes 1624 are formed.

In addition, the terminals are coupled to the terminal cover 1620 through the holes 1624. Here, one body power supply terminal 1602 is described as an example, and the remaining five terminals have the same coupling structure.

The body power supply terminal 1602 has a thin and long plate shape in which a central portion 1603 is curved in a semicircular shape, and a flat fixing portion 1605 is formed at one end thereof and a flat non-fixing portion 1607 is formed at the other end thereof.

A central portion 1603 of the body power supply terminal 1602 is exposed above the terminal cover 1620, and the fixing portion 1605 and the non-fixing portion 1607 are formed in the same width direction of the terminal cover 1620. The fixing part 1605 is inserted into the terminal hole 1624 and is fixed to the inner side of the terminal cover 1620 by screwing or the like, and the non-fixing part 1607 is positioned in an unfixed state.

Therefore, when the upper power terminal 1212 is in contact with the body power terminal 1602, the central portion 1603 is in contact with the non-fixing portion 1607 based on the fixing portion 1605 to move in a state maintaining the elastic force downward do.

According to the present invention, since the terminal cover 1620 is elastically moved, and the body power terminal 1602 itself is elastically moved, a sufficient absorption force and a restoring force are generated for the rapidity of the contact and the impact upon the contact.

In addition, the position of the fixing part 1605 is located below the non-fixing part 1607 at the bottom of the body 1100.

Because, when the lower bed member 1200 is deployed in the body 1100, the lower bed upper terminal portion 1210 of the lower bed member 1200 is in contact with the body terminal portion 1600 by the sliding inclined surface (1189), When the lower bed member 1200 slides in the overlapping direction with the body 1100, the lower bed upper terminal portion 1210 of the lower bed member 1200 rubs against the body terminal portion 1600 along the sliding slope surface 1189. When the remarks 1607 are located below the fixing part 1605 by being moved, the center part 1603 is deformed in the sliding direction of the lower bed part 1200 by friction with the lower surface of the lower bed part 1200. This is because the government part 1607 may be separated from the hole 1624 and may be exposed to the upper portion of the terminal cover 1620.

The body power terminal 1602 is formed to have a length greater than the length of the center portion 1603 of the body power terminal 1602 and is longer than the length of the center portion 1603 of the body temperature sensor terminal 1604, thereby increasing the degree of curvature. The top height of the body is formed to be higher than the top height of the temperature sensor terminal (1604) so that the second feature for preventing the spark is generated.

On the other hand, the lower bed lower terminal portion 1230 is formed with a lower bed slope surface 1236 to correspond to the sliding slope surface (1189).

The lower power supply terminal 1232 and the lower power terminal 1232 and the lower temperature sensor terminal 1234 are formed in the lower bed lower terminal unit 1230, and the lower power supply terminal 1232 is in the state in which the lower bed member 1200 overlaps the body 1100. The lower temperature sensor terminal 1234 is in contact with the power supply terminal 1602 is connected to the body temperature sensor terminal 1604 to cause the heating element 1224 to generate heat.

Through this, in the present invention, the user can use the lower bed member 1200 as a sofa in a state in which the lower bed member 1200 is not deployed, and in this case, the heating element 1224 generates heat and can be used as a thermal sofa. Is generated.

The fully open sensor terminal is not formed in the lower bed lower terminal portion 1230 because the lower bed lower terminal portion 1230 is in contact with the body terminal portion 1600 only when the lower bed member 1200 overlaps the body 1100. to be.

In addition, the lower bed member 1200 has a shape in which a wire line for transferring current to the heating element 1224 is branched from one line to the lower bed upper terminal portion 1210 line and the lower bed lower terminal portion 1230 lie.

Accordingly, a current flows in the lower power terminal 1232 of the lower bed lower terminal portion 1230 in a state where the lower bed upper terminal portion 1210 is in contact with the body terminal portion 1600, and the lower bed lower terminal portion 1230 is the body terminal portion. Even in contact with the 1600, a current flows in the upper terminal portion 1210 of the lower bed.

Due to this structural feature, the lower bed upper terminal part 1210 is in contact with the body terminal part 1600, since the lower bed member 1200 is in a deployed state, so that the lower bed lower terminal part 1230 may be in contact with the hands of patients or children. There is a risk of electric shock due to exposure to location. The lower bed lower terminal portion 1230 is in contact with the body terminal portion 1600 because the lower bed member 1200 is overlapped with the body 1100 so that the lower bed upper terminal portion 1210 is not in contact with the hands of patients or children. There is no risk of electric shock.

Therefore, in the present invention, when the lower bed upper terminal portion 1210 is in contact with the body terminal portion 1600, the limit switch 1218 is operated to cut off the current flowing in the lower bed lower terminal portion 1230 to the safety of patients or children Prevent accidents

According to the present invention as described above, when the heat treatment device is not used, the lower bed member can be slid so as to overlap the body, so that space utilization is easy, and when the heat treatment device is used, the lower bed member is easily deployed in a sliding manner. The effect can be produced.

The above description is merely illustrative of the technical idea of the present invention, and those skilled in the art to which the present invention pertains may make various modifications and changes without departing from the essential characteristics of the present invention. Therefore, the embodiments disclosed in the present invention are intended to illustrate rather than limit the scope of the present invention, and the scope of the technical idea of the present invention is not limited by these embodiments. The scope of protection of the present invention should be construed according to the following claims, and all technical ideas falling within the scope of the same shall be construed as falling within the scope of the present invention.

1010: heat treatment device 1100: body
1150, 1160: side frame 1180: guide groove
1200: lower bed member 1250: upper cover
1270: rod frame 1410: wheels

Claims (20)

Body 1100 is provided with a heat treatment device 1010,
A lower bed member 1200 which is slid from the body 1100 and changes the length of the bed while being deployed or overlapped;
A cover 1250 formed on the lower bed member 1200 and covering an upper portion of the heat treatment device 1010 when the lower bed member 1200 overlaps the body 1100;
Guide grooves formed for sliding in the body 1100
Sliding heat treatment device, characterized in that comprising a. Body 1100 is provided with a heat treatment device 1010,
A lower bed member 1200 which is slid from the body 1100 and changes the length of the bed while being deployed or overlapped;
A cover 1250 formed on the lower bed member 1200 and covering an upper portion of the heat treatment device 1010 when the lower bed member 1200 overlaps the body 1100;
Guide grooves formed for sliding in the cover 1250
Sliding heat treatment device, characterized in that comprising a. The method according to claim 1,
Sliding heat treatment device, characterized in that the cover (1250) comprises a frame which is moved along the guide groove. The method according to claim 2,
Sliding heat treatment device, characterized in that the body (1100) includes a frame which is moved along the guide groove. The method of claim 4,
Guide protrusions are formed on the body (1100), the thermal treatment device of the sliding type, characterized in that the roller is provided on the guide protrusion. The method according to any one of claims 1 to 5,
Sliding heat treatment device, characterized in that the heating member is formed on the cover (1250). The method according to any one of claims 1 to 5,
The cover 1250, the sliding thermal treatment device, characterized in that the roller is formed. The method according to any one of claims 1 to 5,
And the guide groove is formed in any one of a frame, an upper portion, a side portion, and a lower region of the thermal treatment apparatus. delete The method according to any one of claims 1 to 5,
The thermal treatment apparatus of the sliding type, characterized in that any one of the step, protrusion, concave or solenoid member is formed in the guide groove or frame. The method of claim 10,
Sliding heat treatment device, characterized in that the bearing is formed in the guide groove or frame. The method of claim 6,
Electrode terminal is formed on the lower end of the heat treatment device, the thermal treatment device of the sliding type characterized in that the terminal portion connected to the upper and lower ends of the cover is formed. The method of claim 12,
And a heating member of the cover is operated even when the cover is closed through the terminal. Body 1100 is provided with a heat treatment device 1010,
A lower bed member 1200 which is slid from the body 1100 and changes the length of the bed while being deployed or overlapped;
A cover 1250 formed on the lower bed member 1200 and covering an upper portion of the heat treatment device 1010 when the lower bed member 1200 overlaps the body 1100;
Body terminal portion 1600 formed in the lower portion of the body 1100
Sliding heat treatment device comprising a. The method according to claim 14,
The body terminal unit 1600 is a sliding thermal treatment device, characterized in that the body power terminal (1602) and the body temperature sensor terminal (1604) and the body opening sensor terminal (1606) is formed. The method according to claim 14,
The lower bed member is a sliding thermal treatment device, characterized in that the lower bed member is formed in contact with the body terminal portion 1600 in a fully deployed state from the lower bed member (1210). 18. The method of claim 16,
The lower bed member is a sliding thermal treatment device, characterized in that the lower bed member is formed to be in contact with the body terminal portion 1600 in a state where the lower bed member is completely superimposed on the body. 18. The method of claim 17,
Limit switch 1218 is provided on both sides of the lower bed upper terminal portion 1210 to cut off power applied to the lower bed lower terminal portion 1230 when the body terminal 1600 and the lower bed upper terminal portion 1210 are in contact with each other. Sliding heat treatment device. 18. The method of claim 16,
The lower bed upper terminal portion 1210 is a sliding thermal treatment device, characterized in that the upper power terminal 1212, the upper temperature sensor terminal 1214 and the fully open sensor terminal 1216 is formed. The method according to any one of claims 14 to 19,
The body terminal part 1600 may include a terminal housing 1610 embedded in the body 1100, a terminal cover 1620 covering the terminal housing 1610, and a terminal cover 1620 mounted to the terminal housing 1610. And a cover elastic member 1630 for elastically supporting the terminal, and terminals protruding outward through terminal holes 1624 formed in the upper surface of the terminal cover 1620.

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