KR102293853B1 - Vibration dampener and temperature control system comprising the same - Google Patents

Abstract

The present invention provides a fixing part, a vibration-proof material fixed to the fixing part and absorbing vibration, a first sleeve fixed to the inside of the vibration-proofing material, and contacting the fixing part and the first sleeve part for absorbing heat, It provides a vibration-proof ball including a heat-conducting mesh module for dissipating the heat absorbed in the first sleeve.

Description

Vibration dampener and temperature control system comprising the same

The present invention relates to a vibration isolator, and more particularly, to a vibration isolator capable of maximizing internal disturbance and heat dissipation generated by a reaction wheel and a CMG in order to improve the operation precision of a satellite system.

A spacecraft that is exposed to a vacuum environment in space, such as a satellite, is applied with various vibration-proof systems to reduce internal/external vibration. In particular, in the case of a passive anti-vibration system, it is relatively easy to develop, is relatively lightweight, and has a low unit cost, so it is being used in most satellite systems.

Equipment that requires the use of passive vibration isolators, such as reaction wheel, CMG, and optical equipment, are those that generate their own vibrations or that need to block external vibrations for precision orientation.

These devices continuously generate thermal energy inside during operation, and conduction and radiation are the only paths that can dissipate the thermal energy generated by the equipment in a vacuum environment in space.

In the case of passive vibration isolators, viscoelastic materials such as rubber are mostly used. Since most rubbers have very low thermal conductivity, heat is continuously accumulated in the equipment that generates thermal energy, which causes fatal defects in the equipment.

Recently, research is in progress to increase the thermal conductivity of the passive vibration isolator to dissipate the heat generated by the equipment.

SUMMARY OF THE INVENTION An object of the present invention is to provide an anti-vibration tool capable of maximizing internal disturbance and heat dissipation generated by a reaction wheel and a CMG in order to improve the operation precision of a satellite system.

The objects of the present invention are not limited to the above-mentioned objects, and other objects and advantages of the present invention not mentioned may be understood by the following description, and will be more clearly understood by the examples of the present invention. Moreover, it will be readily apparent that the objects and advantages of the present invention may be realized by the means and combinations thereof indicated in the claims.

According to one aspect of this embodiment, the present invention is a fixing part formed in a plate shape, fixed to the upper end of the fixing part, a vibration-proof material that absorbs vibrations generated from an external device, is fixed inside the vibration-proof material, and absorbs heat and a first sleeve and the fixing part and the first sleeve to provide a vibration isolator including a heat-conducting mesh module for dissipating heat absorbed in the first sleeve.

Preferably, the vibration-proof material has an inner side opening so that the first sleeve and the heat-conducting mesh module are coupled, the upper end is formed in a smaller cylindrical shape than the lower end, and the vibration-proof material is adhered to the fixing part and the first sleeve It is characterized in that it is fixed in this way.

Preferably, the fixing portion forms a symmetrical groove on both sides of the body portion, the body portion is formed in a plate shape with an open center so that the heat conductive mesh module is in contact with the first sleeve therein, and the fixing portion is the A first fixing groove fixed to an external device and a second fixing groove formed at an inner lower end of the body portion, to which the heat conductive mesh module is fixed, are included.

Preferably, the fixing part is in fixed contact with the vibration-proof material, and further includes a protrusion for preventing separation of the vibration-proof material, and the protrusion is formed to protrude 0.5 to 1 times the thickness of the side contact portion of the vibration-proof material. .

Preferably, the heat-conducting mesh module is in contact with a lower portion of the first sleeve, a second sleeve formed to be cylindrically opened, and a lower end of the second sleeve, and a mesh for dissipating heat absorbed by the second sleeve. It includes a moving part formed in the shape.

Preferably, the second sleeve includes a moving coupling groove that is in contact with the inner side of the moving unit and is fixed to the moving unit, and the second sleeve has heat conduction higher than that of the first sleeve.

Preferably, the moving part is formed by coupling a plurality of metal wires to each other in the mesh-shaped fan tooth shape, and the width of the moving part in contact with the second sleeve is narrower than the width of the part in contact with the fixing part. characterized in that

Preferably, the first sleeve and the second sleeve are formed of at least one of aluminum and copper, and the moving part is formed of a copper wire woven in a plurality of layers.

Preferably, it further comprises a temperature control device for controlling the temperature generated by the external device, wherein the temperature control device is a thermocouple for measuring the temperature generated by the external device and the heat-conducting mesh according to the measured temperature Includes a power supply line that supplies power to the module.

Preferably, the temperature control device receives feedback through the thermocouple to maintain a preset temperature, and controls the power supplied to the thermal conductive mesh module through the feedback to maintain the temperature constant. .

According to another embodiment of the present invention, the present invention is a fixing part formed in a plate shape, fixed to the upper end of the fixing part, a vibration-proof material for absorbing vibrations generated from an external device, is fixed to the inside of the vibration-proof material, heat The first sleeve and the fixing part and the first sleeve for absorbing the vibration is generated in the vibration isolator by the external device and a heat-conducting mesh module that is in contact with the first sleeve and radiates the heat absorbed by the first sleeve. It proposes a vibration-proof temperature control system including a temperature control device for controlling the temperature.

Preferably, the heat-conducting mesh module is in contact with a lower portion of the first sleeve, a second sleeve formed to be cylindrically opened, and a lower end of the second sleeve, and a mesh for dissipating heat absorbed by the second sleeve. It includes a moving part in the form of a moving part, the second sleeve is in contact with the inside of the moving part and includes a moving coupling groove fixed to the moving part, and the moving part is a mesh-shaped fan-shaped shape in which a plurality of metal wires are coupled to each other. characterized in that it is formed.

Preferably, the temperature control device includes a thermocouple for measuring a temperature generated by the external device and a power supply line for supplying power to the thermal conductive mesh module according to the measured temperature, the temperature control device is a preset It receives feedback through the thermocouple to maintain the temperature, and controls the power supplied to the thermal conductive mesh module through the feedback to keep the temperature constant.

The vibration isolator according to the present invention has the advantage of improving the durability of the equipment by absorbing vibrations generated in the equipment and dissipating heat by using a vibration isolator made of a conical rubber and a heat conductive mesh module made of a metal material.

In addition, the vibration isolator according to the present invention has the advantage of overcoming the heat dissipation limitation of the vibration isolator made of rubber by using a heat conductive mesh module made of a metal material for heat conduction.

In addition to the above-described effects, the specific effects of the present invention will be described together while describing specific details for carrying out the invention below.

1 is a view showing a vibration isolator according to an embodiment of the present invention.
2 is an exploded view showing a vibration isolator according to an embodiment of the present invention.
3 is a partial view showing a thermal conductive mesh module included in the vibration sphere according to an embodiment of the present invention.
4 is a view showing the movement direction of the column using the vibration isolator according to an embodiment of the present invention.
5 is a view showing a temperature control device of the vibration isolator according to an embodiment of the present invention.
6 is a view showing a temperature control path through the temperature control device of the vibration proof ball according to an embodiment of the present invention.

In order to fully understand the present invention, the operational advantages of the present invention, and the objects achieved by the practice of the present invention, reference should be made to the accompanying drawings illustrating preferred embodiments of the present invention and the contents described in the accompanying drawings. The present invention may be embodied in several different forms, and is not limited to the described embodiments. In addition, in order to clearly explain the present invention, parts irrelevant to the description are omitted, and the same reference numerals in the drawings indicate the same members.

Throughout the specification, when a part "includes" a certain component, it does not exclude other components unless otherwise stated, but may further include other components. In addition, terms such as “…unit”, “…group”, “module”, and “block” described in the specification mean a unit that processes at least one function or operation, which is hardware, software, or hardware. and a combination of software.

The vibration-proof ball 100 secures thermal conductivity by combining a mesh module, and by connecting a thermocouple and a power source to the mesh module, performance can be maintained in a low-temperature environment. In order to overcome the thermal conductivity limit of the rubber vibration isolator 100 , a metal material having high thermal conductivity is added between the input end and the output end of the rubber.

Vibration sphere 100 may be a heat conduction by combining a mesh module with a general conical string rubber vibration sphere.

Although the thermal conductivity limitation was overcome by applying a copper strap (thin plate) with high thermal conductivity between the existing input and output terminals, the vibration isolator 100 overcomes the limitation of heat conduction by adding a copper mesh to the rubber vibration isolator itself. (Thermocouple) and the thermal resistance characteristics of copper can be used to prevent the deterioration of the rubber's vibration-proof performance that occurs in a low-temperature environment.

The vibration-proof sphere 100 can maintain or adjust the optimum temperature of the rubber even in a low-temperature environment by improving the limit of heat conduction of the rubber-type vibration-proof sphere.

The invention of the vibration isolator 100 is a rubber passive vibration isolator that reduces the internal disturbance generated by the reaction wheel and CMG in order to improve the operation precision of the satellite system, and minimizes the displacement of the optical equipment from the external disturbance. In addition to its role, it is possible to overcome the limitation of heat dissipation of the existing passive vibration isolators made of rubber by adding a copper mesh module with a heat conduction structure.

The anti-vibration sphere 100 may increase thermal conductivity and thermal resistance by adjusting the layer of the copper mesh module. The anti-vibration sphere 100 can adjust the layer according to the amount of heat of the heat source, and the vibration-proof sphere can be applied to various equipment. The layer control of the vibration isolator 100 is not necessarily limited to adjusting according to the amount of heat of the heat source.

The mesh module of the vibration isolator 100 has lower rigidity than a general metal plate, and since the rigidity is constant in all directions, it is easier to predict the vibration absorption performance.

The vibration isolator 100 may maintain a constant temperature of the rubber vibration isolator by combining a temperature control device including a thermocouple and a power supply line with a copper mesh module.

The anti-vibration sphere 100 may be used for equipment that needs to reduce vibration of equipment used in a vacuum environment, equipment that requires additional conductivity in addition to convection in the global atmospheric environment, equipment that needs to use a vibration isolator in a low-temperature environment, and the like.

1 is a view showing a vibration isolator according to the present invention, Figure 2 is an exploded view showing the vibration isolator according to the present invention.

Referring to FIG. 1 , the vibration-proof sphere 100 may include a fixing part 110 , a first sleeve 120 , a vibration-proof material 130 , and a heat-conducting mesh module 140 . The anti-vibration sphere 100 may omit some of the various components exemplarily shown in FIGS. 1 and 2 or may additionally include other components.

The fixing part 110 may be formed in a plate shape. The fixing part 110 may be made of a metal material, and may support and fix the vibration-proof material 130 like the first sleeve 120 .

Here, the fixing part 110 may have a plate shape in which the heat conductive mesh module 140 is inserted and the center is opened so as to be in contact with the first sleeve 120 , but is not limited thereto.

In addition, the fixing part 110 may form a protrusion (not shown) for preventing the separation of the vibration damper 130 . The protrusion may be coupled to and in fixed contact with the vibration damper 130 .

Here, the protrusion height of the protrusion may be 0.5 to 1 times the thickness of the side contact portion of the vibration isolator 130 , but is not limited thereto.

Specifically, when the protrusion height of the protrusion is less than 0.5 times the thickness of the side contact portion of the vibration isolator 130, the possibility of separation due to the load or vibration of the equipment to which the vibration isolator 130 is coupled increases, and the thickness of the side contact portion of the vibration isolator 130 is 1 If it is larger than a ship, the possibility of separation of the anti-vibration material 130 is lowered, but the effective portion thereof is insufficient and the manufacturing cost may increase. Accordingly, the protrusion height of the protrusion may be 0.5 to 1 times the thickness of the side contact portion of the vibration isolator 130 .

Referring to FIG. 2 , the fixing part 110 may include a body part 112 , a first fixing groove 114 , and a second fixing groove 116 . The fixing unit 110 may omit some of the various components exemplarily illustrated in FIG. 2 or may additionally include other components.

The body 112 may be formed in a plate shape with an open center so that the heat conductive mesh module 140 is in contact with the first sleeve 120 therein.

The first fixing groove 114 forms symmetrical grooves on both sides of the body part 112 , and the fixing part 110 may be fixed to an external device.

The second fixing groove 116 is formed at the inner lower end of the body portion 112 , and the heat conductive mesh module 140 may be fixed thereto.

The first sleeve 120 is fixed to the inside of the vibration damping material 130 and can absorb heat.

The first sleeve 120 may be made of a metal material having thermal conductivity, and may transfer absorbed heat to the thermal conductive mesh module 140 .

Here, the first sleeve 120 may have a sleeve shape, for example, a cylindrical shape, and may be in contact with the heat conductive mesh module 140 .

An upper portion of the first sleeve 120 may be formed to protrude to facilitate fixed contact with the vibration isolator 130 .

The vibration isolator 130 may be made of a rubber material, and may absorb vibrations of the combined equipment.

That is, the vibration damper 130 may be formed in a conical shape, but is not limited thereto.

In addition, when the vibration-proof material 130 is disposed between the protrusion of the fixing unit 110 and the inner surface of the first sleeve 120 , it can be fixed between the fixing unit 110 and the first sleeve 120 in an adhesive manner. have.

A step may be formed in the upper portion of the vibration isolator 130 so that the inner surface of the first sleeve 120 and the protruding upper portion are in fixed contact.

The vibration isolator 130 may have an inside opening so that the first sleeve 120 and the heat conductive mesh module 140 are coupled, and the upper end may be formed in a smaller cylindrical shape than the lower end.

The vibration-proof material 130 may be fixed to the fixing part 110 and the first sleeve 120 in an adhesive manner.

Referring to FIG. 2 , the heat conductive mesh module 140 may include a second sleeve 142 and a moving part 144 . The thermal conductive mesh module 140 may omit some of the various components exemplarily illustrated in FIG. 2 or may additionally include other components.

The second sleeve 142 may be in contact with the lower portion of the first sleeve 120 and may be formed to have a cylindrical opening.

The second sleeve 142 includes a moving coupling groove that is in contact with the inside of the moving unit 144 and fixed to the moving unit 144 , and the second sleeve 142 performs heat conduction more than that of the first sleeve 120 . can have

The second sleeve 142 may have the same sleeve shape as the first sleeve 120 , and may have the same thermal conductivity or high thermal conductivity as compared to the first sleeve 142 .

According to an embodiment of the present invention, the second sleeve 142 has been described as having higher thermal conductivity than the first sleeve 142 , but may have the same thermal conductivity as the first sleeve 142 , and is not necessarily limited thereto. it is not

Specifically, the second sleeve 142 may be formed to have a higher thermal conductivity than that of the first sleeve 120 in order to dissipate heat absorbed by the first sleeve 120 to the fixing unit 110 .

The second sleeve 142 may come into contact with the first sleeve 120 , re-absorb the heat absorbed by the first sleeve 120 , and transfer it to the moving unit 144 .

According to an embodiment of the present invention, the first sleeve 120 and the second sleeve 142 may be formed of at least one of aluminum and copper, and the moving part 144 is formed of a copper wire woven into a plurality of layers. may be, but is not necessarily limited thereto.

The second sleeve 142 may include a moving coupling groove in contact with the inside of the moving unit 144 to be fixed to the moving unit 144 . The movable coupling groove may be formed as a groove in the shape of the upper end of the moving part 144 , but is not limited thereto, and may be formed in a shape in which the second sleeve 142 and the moving part 144 can be coupled.

The moving part 144 may be formed by coupling a plurality of metal wires to each other in a mesh-shaped fan-shaped shape, and the width of the portion in contact with the second sleeve 142 is greater than the width of the portion in contact with the fixing unit 110 . can be narrow.

The moving part 144 may be in contact with the lower end of the second sleeve 142 , and may be formed in a mesh shape that radiates heat absorbed by the second sleeve 142 .

The moving unit 144 may be formed of a copper wire in a fan shape woven into a plurality of layers as described above, and may be attached to and contacted with the second sleeve 142 and the fixing unit 110 .

That is, the moving unit 144 may transfer heat to the fixing unit 110 through the second sleeve 142 , thereby dissipating heat.

In the moving part 144 , a width of a portion in contact with the second sleeve 142 may be narrower than a width of a portion in contact with the fixing unit 110 .

Accordingly, the space formed by the moving unit 144 may radiate heat transferred to the moving unit 144 into the air.

As a result, the heat conductive mesh module 140 may dissipate heat by moving the heat absorbed in the first sleeve 120 to the fixing part 110 through the second sleeve 142 and the moving part 144 .

As such, the heat conductive mesh module 140 can overcome the heat dissipation limit of the vibration damping material 130 , and has an advantage in that it is easy to combine with the fixing part 110 and the first sleeve 120 .

That is, as shown in FIG. 2 , the heat conductive mesh module 140 may be fixedly attached to the fixing unit 110 and the first sleeve 120 .

According to an embodiment of the present invention, the heat conductive mesh module 140 may be formed in a form in which the moving parts 144 stacked in several layers are adhered to the aluminum second sleeve 142 . The heat conductive mesh module 140 may be formed to be attached to the moving part 144 and the fixed part 110 of the vibration proofing sphere 100 , respectively.

The lower end of the first sleeve 120 is in contact with the upper end of the second sleeve 142 included in the heat conductive mesh module 140 , and the fixed part 110 is the moving part 144 included in the heat conductive mesh module 140 . can be in contact with

According to an embodiment of the present invention, the vibration-proof sphere 100 may have the first sleeve 120 disposed in the middle, and both the moving part 144 and the fixing part 110 may be fixed with the vibration-proof rubber in an adhesive manner.

Figure 3 is a partial view showing the heat-conducting mesh module included in the vibration isolator according to the present invention.

Referring to FIG. 3 , the heat conductive mesh module 140 may include a second sleeve 142 and a moving part 144 .

First, FIG. 3 shows the second sleeve 142 and the moving part 144 in a partially cut state to explain the shape.

The second sleeve 142 may be formed in a cylindrical shape as described above, and may have a hat shape with an upper end protruding in order to increase a contact area between the first sleeve 120 and the moving part 144 .

That is, the protruding upper end of the second sleeve 142 may absorb the heat of the first sleeve 120 and transfer it to the moving unit 144 .

In addition, the outer portion of the second sleeve 142 may be adhered to the moving part 144 , so that the heat of the first sleeve 120 may be quickly absorbed.

The moving part 144 may be formed of a copper wire woven in a plurality of layers, that is, a wire made of a metal material having high thermal conductivity.

That is, since the moving part 144 is formed of a metal wire in a mesh shape, the heat dissipation effect can be maximized.

Since the moving part 144 is formed in a conical shape, heat can be moved smoothly. In addition, the width of the part in contact with the second sleeve 142 of the moving part 144 may be narrower than the width of the part in contact with the fixing part 110 .

Accordingly, the space formed by the moving unit 144 may radiate heat transferred to the moving unit 144 into the air.

According to an embodiment of the present invention, the fixing unit 110 and the moving unit 144 may be formed in the form of a metal sleeve made of a material having high thermal conductivity. For example, the fixing unit 110 and the moving unit 144 may be formed of an aluminum material, but is not limited thereto.

The moving part 144 may be formed in the same conical shape as the fixing part 110 , and a width of a portion in contact with the second sleeve 142 may be narrower than a width of a portion in contact with the fixing part 110 .

4 is a view showing the direction of movement of heat using the vibration isolator according to the present invention.

Referring to FIG. 4 , the vibration isolator 100 may be coupled between the device 200 and the lower structure 210 .

Here, the device 200 is a device capable of generating heat and vibration, and may be any one of a reaction wheel and a CMG in order to improve operation precision of a satellite system, but is not limited thereto.

That is, the heat-conducting mesh module 140 included in the vibration-proof sphere 100 transfers heat transferred through the first sleeve 120 in contact with the device 200 to the lower structure 210 to which the fixing unit 110 is fixed. can heat up.

In detail, the heat conductive mesh module 140 may transfer heat absorbed (transferred) to the first sleeve 120 to the fixing unit 110 through the second sleeve 142 and the moving unit 144 .

In this case, the fixing unit 110 may dissipate heat generated in the device 200 by transferring heat to the combined lower structure 210 .

As shown in FIG. 4 , the vibration isolator 130 of the vibration isolator 100 absorbs the vibration generated in the device 200 to reduce micro vibrations, and the heat conductive mesh module 140 of the vibration isolator 100 includes the first sleeve. In contact with 120 , heat generated in the device 200 may be dissipated.

As such, the vibration isolator 100 can absorb vibrations generated in the device 200 and radiate heat, thereby improving the reliability of the device 200 .

5 is a view showing a temperature control device of the vibration isolator according to an embodiment of the present invention.

Referring to FIG. 5 , the anti-vibration sphere 100 may further include a temperature control device 300 . The temperature control device 300 includes a thermocouple 150 and a power supply line 160 . The temperature control device 300 may omit some of the various components exemplarily illustrated in FIG. 5 or may additionally include other components.

The temperature control device 300 may control a temperature generated by an external device.

The thermocouple 150 may measure a temperature generated by an external device.

According to an embodiment of the present invention, the thermocouple 150 generates thermoelectric power according to the temperature with the vibration isolator 100 by the thermoelectric effect, and may be formed of a material for using the thermoelectric power.

The power supply line 160 may supply power to the thermal conductive mesh module 140 according to the temperature measured through the thermocouple 150 .

The temperature control device 300 may receive feedback through the thermocouple 150 to maintain a preset temperature, and may maintain a constant temperature by adjusting the power supplied to the thermal conductive mesh module 140 through the feedback.

According to an embodiment of the present invention, the temperature control device 300 including the thermocouple 150 and the power supply line 160 may be combined with the heat conductive mesh module 140 to constantly maintain the temperature of the vibration proofing sphere 100 . have.

6 is a view showing a temperature control path through the temperature control device of the vibration-proof ball according to an embodiment of the present invention.

Referring to FIG. 6 , the temperature control device 300 may receive feedback from the thermocouple 150 to maintain a temperature set in the temperature control device 300 .

The temperature control device 300 may be configured as a close-loop system for supplying power to the thermal conductive mesh module 140 through feedback received from the thermocouple 150 , but is not limited thereto.

In the close-loop system, the output affects the input, and the output can change in real time according to the input. Specifically, the close-loop system enables the control to keep the temperature constant in real time by the output of controlling the temperature through the power supply line 160 through the input of the temperature measured through the thermocouple 150. have.

Even if all the components constituting the embodiment of the present invention described above are described as being combined or operated in combination, the present invention is not necessarily limited to this embodiment. That is, within the scope of the object of the present invention, all the components may operate by selectively combining one or more. In addition, although all the components may be implemented as one independent hardware, some or all of the components are selectively combined to perform some or all of the functions of the combined hardware in one or a plurality of hardware program modules It may be implemented as a computer program having In addition, such a computer program is stored in a computer readable media such as a USB memory, a CD disk, a flash memory, etc., read and executed by the computer, thereby implementing the embodiment of the present invention. The computer program recording medium may include a magnetic recording medium, an optical recording medium, and the like.

The above description is merely illustrative of the technical idea of the present invention, and various modifications, changes, and substitutions are possible within the range that does not depart from the essential characteristics of the present invention by those of ordinary skill in the art to which the present invention pertains. will be. Accordingly, the embodiments disclosed in the present invention and the accompanying drawings are for explaining, not limiting, the technical spirit of the present invention, and the scope of the technical spirit of the present invention is not limited by these embodiments and the accompanying drawings. . The protection scope of the present invention should be construed by the following claims, and all technical ideas within the scope equivalent thereto should be construed as being included in the scope of the present invention.

100: anti-vibration

Claims (13)

a fixing part formed in a plate shape;
a vibration-proof material fixed to the upper end of the fixing unit and absorbing vibrations generated from an external device;
a first sleeve fixed to the inside of the vibration-proof material and absorbing heat; and
A heat-conducting mesh module in contact with the fixing part and the first sleeve and dissipating heat absorbed by the first sleeve,
The thermal conductive mesh module,
a second sleeve that is in contact with a lower portion of the first sleeve and is formed to have a cylindrical opening; and
and a moving part in contact with the lower end of the second sleeve and formed in a mesh shape to dissipate heat absorbed by the second sleeve. According to claim 1,
The vibration-proof material has an inside opening so that the first sleeve and the heat-conducting mesh module are coupled, and is formed in a cylindrical shape with an upper end smaller than the lower end,
The vibration isolator, characterized in that fixed to the fixing part and the first sleeve in an adhesive manner. According to claim 1,
The fixing part,
a body portion formed in a plate shape with an open center so that the heat-conducting mesh module is in contact with the first sleeve;
a first fixing groove forming symmetrical grooves on both sides of the body portion, the fixing portion being fixed to the external device; and
Formed on the inner lower end of the body portion, the vibration-proof ball comprising a second fixing groove to which the heat conductive mesh module is fixed. 4. The method of claim 3,
The fixing part is in fixed contact with the vibration-proof material, further comprising a protrusion for preventing the separation of the vibration-proof material,
The protrusion part is formed to protrude 0.5 times to 1 times compared to the thickness of the side contact part of the vibration isolator. delete According to claim 1,
The second sleeve includes a moving coupling groove that is in contact with the inside of the moving unit and fixed to the moving unit,
The second sleeve is vibration isolator, characterized in that having a heat conduction greater than that of the first sleeve. 7. The method of claim 6,
The moving part is formed by coupling a plurality of metal wires to each other in the shape of a fan-shaped mesh, and is in contact with the second sleeve from the inside of the upper end, and is in contact with the fixing part from the outside of the lower end,
The moving part is a vibration isolator, characterized in that the width of the portion in contact with the second sleeve is narrower than the width of the portion in contact with the fixing portion. According to claim 1,
The first sleeve and the second sleeve are formed such that the second sleeve has a thermal conductivity greater than or equal to that of the first sleeve, and is formed of at least one of aluminum or copper,
The moving part is a vibration damper, characterized in that formed of a copper wire woven in a plurality of layers. According to claim 1,
Further comprising a temperature control device for controlling the temperature generated by the external device,
The temperature control device,
a thermocouple for measuring the temperature generated by the external device; and
Vibration protection including a power supply line for supplying power to the thermal conductive mesh module according to the measured temperature. 10. The method of claim 9,
The temperature control device receives feedback through the thermocouple to maintain a preset temperature, and controls the power supplied to the heat-conducting mesh module through the feedback to maintain the temperature constant. A fixing part formed in a plate shape, a vibration-proof material fixed to the upper end of the fixing part and absorbing vibrations generated from an external device, a first sleeve fixed to the inside of the vibration-proofing material, and absorbing heat, and the fixing part and the first sleeve 1 is in contact with the sleeve, the vibration-proof ball comprising a heat-conducting mesh module for dissipating the heat absorbed in the first sleeve; and
and a temperature control device for controlling the temperature generated in the anti-vibration sphere by the external device,
The thermal conductive mesh module,
a second sleeve that is in contact with a lower portion of the first sleeve and is formed to have a cylindrical opening; and
and a moving part in contact with the lower end of the second sleeve and formed in a mesh shape to dissipate heat absorbed by the second sleeve. 12. The method of claim 11,
The second sleeve includes a moving coupling groove that is in contact with the inside of the moving unit and fixed to the moving unit,
The moving part is a vibration-proof temperature control system, characterized in that formed by coupling a plurality of metal wires to each other in the shape of the mesh-shaped fan. 12. The method of claim 11,
The temperature control device,
a thermocouple for measuring the temperature generated by the external device; and
Includes a power supply line for supplying power to the thermal conductive mesh module according to the measured temperature,
The temperature control device receives feedback through the thermocouple to maintain a preset temperature, and controls the power supplied to the thermal conductive mesh module through the feedback to maintain the temperature constant. system.

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