KR102557438B1 - Massage module having thermomassage function - Google Patents

Abstract

The present invention relates to a massage module having a thermal function capable of transmitting heat to the body through a massage that performs a massage function by applying vibration or pressure to a user's body part. The massage module according to the present invention includes a massage unit that applies pressure and heat to the user's body, and the massage unit includes a support shaft member made of a thermally conductive material fixedly installed to the unit bracket; a heating member that transfers heat to the support shaft member; a cushion member having an opening into which the support shaft member is inserted is formed in the center and rotatably installed on an outer surface of the support shaft member to apply pressure to a user's body; a ring-shaped insert member made of a thermally conductive metal material and inserted into an inner circumferential surface of the opening of the cushion member; and a reinforcing washer that has a ring shape and is inserted into the support shaft member and adheres to one or both sides of the cushion member in an axial direction to resist torsional stress applied to the cushion member.

Description

Massage module having a heating function {MASSAGE MODULE HAVING THERMOMASSAGE FUNCTION}

The present invention relates to a massage module, and more particularly, to a massage module having a thermal function capable of transferring heat to a user's body through massage that performs a massage function by applying vibration or pressure to a body part of a user.

Recently, as the standard of living increases and the population ages, interest in massage devices is increasing as more and more people suffer from muscle paralysis or muscle pain due to lack of exercise and stress.

As a result, various functions and high-performance massage devices are emerging to satisfy the needs of users, away from simple massage functions.

A chair-type massage device (hereinafter referred to as a 'massage chair') is configured to massage each part of the body that is in direct contact with the chair, that is, the neck, back, waist, buttocks, arms, legs, and feet with a mechanical massage module and/or an air-expandable air cell module.

In general, a massage chair is equipped with an elevating massage module mounted on the back, so that the elevating massage module performs a massage operation of tapping or kneading the body while moving up and down from the neck to the waist or thighs.

Recently, research is being conducted to maximize a massage effect by providing heat to the body through a massage such as a roller or a ball provided in a massage module.

In this way, in order to provide heat through massage of the massage module, it is necessary to additionally install heating and heat transfer components in the massage module. If the heat and heat transfer components are not properly disposed, the overall structure becomes complicated, and problems such as deterioration in durability of various parts of the massage module occur.

Republic of Korea Patent Publication No. 10-2021-0007795 Republic of Korea Patent No. 10-1479521 Republic of Korea Patent No. 10-1832907

An object of the present invention is to provide a massage module that can also perform a function of providing heat to the body when the massager performs a massage operation of tapping or kneading the body, and can improve durability of various components that perform the massage operation and the heating function.

Massage module according to the present invention for achieving the above object, and the module base installed in the massage device; a massage drive unit installed on the module base to provide at least one of vibration, linear motion, rotational motion, and power for massage position adjustment for body massage; a unit bracket connected to the massage driving unit; and a massage unit installed on the unit bracket to apply pressure and heat to the user's body, wherein the massage unit includes: a support shaft member made of a thermally conductive material fixedly installed to the unit bracket; a heating member that transfers heat to the support shaft member; a cushion member having an opening into which the support shaft member is inserted is formed in the center and rotatably installed on an outer surface of the support shaft member to apply pressure to a user's body; a ring-shaped insert member made of a thermally conductive metal material and inserted into an inner circumferential surface of the opening of the cushion member; and a reinforcing washer that has a ring shape and is inserted into the support shaft member and adheres to one or both sides of the cushion member in an axial direction to resist torsional stress applied to the cushion member.

According to one aspect of the present invention, the reinforcing washer may include a first reinforcing washer installed in close contact with one side of the cushion member facing the unit bracket, and a second reinforcing washer disposed between the other side of the cushion member and the end of the support shaft member.

The massage module of the present invention, in the form of a ring, is inserted into the support shaft member and installed, and is in close contact with the outer surface of the first reinforcing washer adjacent to the unit bracket to prevent wear and deformation of the first reinforcing washer. It may further include a first protective member.

In addition, the massage module of the present invention may further include a heat transfer cover made of a thermally conductive material installed between the outer surface of the first protective member and the unit bracket to receive heat from the support shaft member and transfer heat to the user's body.

A cover guard accommodating and concealing the end of the unit bracket is formed at an edge of the heat transfer cover along a circumferential direction, and an outer surface of the cover guard may be formed as a curved surface inclined downward toward the unit bracket.

The support shaft member includes a cylindrical body portion, one end of which is fixedly coupled to the unit bracket, and a flange portion formed to protrude outward in a radial direction from the other end of the body portion.

The heating member may be inserted and installed inside the space formed in the support shaft member.

The heating member may include a heater that generates heat by power supplied from an external control module, a temperature sensor for measuring a temperature for controlling the operation of the heater, and a bimetal that automatically cuts off power supply to the heater when the temperature sensor is heated to a certain temperature or more when the temperature sensor fails, and resumes power supply to the heater when the support shaft member cools below a certain temperature.

The insert member may include a circular ring-shaped inner portion exposed to the outside along an inner circumferential surface of the opening of the cushion member, an insert portion formed to protrude along an outer circumferential direction of the inner portion and inserted into the cushion member, and having a plurality of through holes arranged along the circumferential direction to allow a portion of the cushion member to be inserted, and protruding ribs arranged at predetermined intervals along the circumferential direction of the insert portion.

According to the present invention, when performing a massage operation by exercising the massage unit, power is applied to the heating member to heat the support shaft member, and heat is transferred to the cushion member adjacent to the outer surface of the support shaft member to provide heat. At this time, since one side or both sides of the cushion member in the axial direction is supported by the reinforcing washer, even if torsional stress is generated in the cushion member during the kneading operation of the massage unit, the cushion member is not deformed and the shape is maintained relatively constant. Therefore, deformation, damage, or separation of the cushion member can be prevented.

1 is a perspective view showing an embodiment of a massage chair as a massage device to which a massage module according to the present invention is applied.
Figure 2 is a perspective view showing a massage module according to an embodiment of the present invention.
Figure 3 is a perspective view of a massage unit constituting a massage module according to an embodiment of the present invention.
Figure 4 is an exploded perspective view of the massage unit shown in Figure 3;
Figure 5 is a cross-sectional view of the massage unit shown in Figure 3;
6 is a perspective view of an insert member constituting the massage unit shown in FIG. 3;
7 is a perspective view of a first protection member constituting the massage unit shown in FIG. 3;
Figure 8 is a block diagram showing the configuration and operation of the heating member constituting the massage unit shown in Figure 3.

The embodiments described in this specification and the configurations shown in the drawings are only one preferred example of the disclosed invention, and there may be various modifications that can replace the embodiments and drawings in this specification at the time of filing of the present application.

Hereinafter, with reference to the accompanying drawings, a massage module and a massage chair having the same will be described in detail according to the following embodiments. Like symbols in the drawings indicate like components.

Referring to FIG. 1, a massage chair 1 may include a body massage part 2 that forms an area to accommodate at least a portion of a user's body, massages the user's body, and a leg massage part 3 that massages the user's legs.

The body massage unit 2 has a backrest and a seat so that the user can comfortably lean on the back and head of the user. Inside the backrest and the seat, the massage module 10 capable of massaging the user's body, such as the shoulder, back, waist, buttocks, and thighs, is configured to move along the guide rail 5 by means of a transfer device.

Referring to FIG. 2, the massage module 10 includes a module base 11 installed in a massage device, a massage drive unit 12 that provides power for at least one of vibration, linear motion, rotational motion, and massage position adjustment for body massage, a unit bracket 13 connected to the massage drive unit 12, and a massage unit 100 installed on top and bottom of the unit bracket 13 to apply pressure and heat to the user's body. .

The module base 11 is moved up and down by a transfer device inside the backrest of the massage chair 1. A plurality of massage units 100 are symmetrically installed at the front of the module base 11, and a massage driving unit 12 for operating the massage units 100 is installed at the rear of the module base 11. The massage drive unit 12 vibrates the massage unit 100 back and forth or rotates it in a linear, circular or elliptical shape to provide power for performing a tapping massage operation or a kneading massage operation. The massage drive unit 12 may be configured by applying the configuration of a massage drive device that provides power for kneading and tapping operations of a massage unit and adjusting a massage position (depth) in a massage module configured in a known massage chair.

For example, the massage drive unit may include a plurality of motors and a power transmission mechanism for transmitting power of each motor to the unit bracket 110. The power transmission mechanism may be configured by properly combining a cam, a gear, a timing belt, a link device, and the like.

The unit bracket 13 is made of a substantially 'V' shaped metal plate, and is connected to the massage drive unit 12 to receive power and move forward and backward and left and right.

In this embodiment, two massage units 100 are coupled to the top and bottom of the unit bracket 13, but the number and position of the massage units 100 coupled to each unit bracket 13 can be applied in various ways as needed.

All of the plurality of massage units 100 installed in the unit bracket 13 may have a massage function and a heating function, but differently, only some of the plurality of massage units 100 may have both a massage function and a heating function.

As shown in Figs. 175), a heat transfer cover 180, a fixing bracket 190, and a fastening member 195.

More specifically, the massage unit 100 includes a support shaft member 110 made of a thermally conductive material fixedly installed at the end of the unit bracket 13, a heating member 120 installed to transfer heat to the support shaft member 110, a cushion member 130 rotatably installed on the outer surface of the support shaft member 110 to apply pressure to the user's body, and an inner circumferential surface of the opening in the center of the cushion member 130 An insert member 140 made of a heat-conductive metal material that is inserted and installed, a bearing member 150 installed between the inner circumferential surface of the insert member 140 and the outer surface of the support shaft member 110 to rotatably support the insert member 140 and the cushion member 130 with respect to the support shaft member 110, and being in close contact with both sides of the cushion member 130 in the axial direction to the cushion member 130. A first reinforcing washer 161 and a second reinforcing washer 162 that resist applied torsional stress, a first protection member 170 that is in close contact with the outer surface of the first reinforcing washer 161 to prevent wear and deformation of the first reinforcing washer 161, and a second reinforcing washer 162 disposed between the second reinforcing washer 162 and the flange portion 112 of the support shaft member 110. A second protective member 175 preventing wear and deformation of the first protective member 170, a heat transfer cover 180 made of a thermally conductive material installed between the outer surface of the first protective member 170 and the unit bracket 13, a fixing bracket 190 coupled on the opposite side of the heat transfer cover 180 with the unit bracket 13 interposed therebetween, and a fastening hole formed on the fixing bracket 190, the unit bracket 13, and the heat transfer cover 180. It includes a fastening member 195 fastened to one end of the support shaft member 110 by sequentially passing through (191, 13a, 183).

The support shaft member 110 functions as a rotational shaft of the cushion member 130 having a massage function and at the same time functions as a support structure for supporting the above-mentioned components with respect to the unit bracket 13. One end (axially inner end) is fixedly coupled to the unit bracket 13 by a fastening member 195 to the cylindrical body 111, and the other end (axially outer end) of the body 111 is radially outer. It includes a flange portion 112 formed to protrude into. The support shaft member 110 may be made of a metal material having excellent thermal conductivity such as aluminum so as to enable heat transfer to the insert member 140 and the cushion member 130 .

A plurality of tap holes 114 having threads formed on the inner circumferential surface are provided at the inner end of the body portion 111 of the support shaft member 110 in the axial direction to fasten the fastening member 195 made of bolts or screws. In addition, a heater chamber 113 is concavely formed in the center of the body portion 111 so that the heating member 120 can be inserted and installed therein.

The heating member 120 includes a heater 121 that is inserted into the heater chamber 113 formed in the body 111 of the support shaft member 110 and generates heat by power supplied from the control module 200 of the massage device, a temperature sensor 122 that measures the temperature for controlling the operation of the heater 121, and a failure or malfunction of the temperature sensor 122 when the support shaft member 110 is heated above a certain temperature. To cut off the power supply to the heater 121, and when the support shaft member 110 is cooled to a certain temperature or less, the bimetal 123 is included so that the power supply to the heater 121 is resumed. In addition, a waved heater spring 124 may be installed on one side of the heater 121 to increase heat transfer performance and prevent vibration by bringing the heater 121 into close contact with one side of the heater chamber 113 . A PTC (Positive Temperature Coefficient) heater may be used as the heater 121, but it is not limited thereto and may be configured by applying various known heaters.

The cushion member 130 is formed in the form of a roller or ball in which an opening into which the support shaft member 110 is inserted is formed in the center, and is made of a material having excellent elasticity and thermal conductivity, such as silicon, to provide a soft massage finish to the user. At the same time, it is possible to provide the user with heat transmitted from the support shaft member 110.

The insert member 140 is inserted into the inner circumferential surface of the opening of the cushion member 130 to transfer heat from the support shaft member 110 to the cushion member 130 and simultaneously maintains the shape of the cushion member 130 . The insert member 140 is made of a metal material having excellent thermal conductivity and has a circular ring shape as a whole. The insert member 140 and the cushion member 130 may be integrated using an insert injection molding method.

As shown in FIG. 6, the insert member 140 includes a circular ring-shaped inner portion 141 installed to be exposed to the outside along the inner circumferential surface of the opening of the cushion member 130, and an insert portion 142 formed to protrude along the circumferential direction on the outer circumferential surface of the inner portion 141 and inserted into the cushion member 130. In order to increase the contact area between the insert member 140 and the cushion member 130 and prevent separation between the insert member 140 and the cushion member 130, a plurality of through holes 143 are arranged along the circumferential direction so that a portion of the cushion member 130 can be inserted into the insert portion 142, and a plurality of protruding ribs 1 44) are arranged. The protruding rib 144 is integrally formed with the inner part 141 as well.

The inner portion 141 of the insert member 140 is inserted into the outer surface of the bearing member 150 installed on the outer surface of the support shaft member 110 and rotates along the outer surface of the bearing member 150.

The bearing member 150 is designed to rotatably support the insert member 140 and the cushion member 130 with respect to the support shaft member 110, and a known sintered bearing made of a thermally conductive material such as copper. It can be configured by applying an oilless bearing. Heat generated from the support shaft member 110 is transferred to the insert member 140 through the bearing member 150 .

The first reinforcing washer 161 and the second reinforcing washer 162 are each inserted into the groove 132 concavely formed on both sides of the cushion member 130 in the axial direction of the cushion member 130, and come into close contact with both sides of the cushion member 130 in the axial direction to reinforce the strength of the cushion member 130. Here, the one disposed in close contact with one side of the cushion member 130 facing the unit bracket 13 is referred to as the first reinforcing washer 161, and the other side of the cushion member 130 and the support shaft member 110. The one disposed between the flange portion 112 at the end is referred to as the second reinforcing washer 162 and will be described. In this embodiment, the first reinforcement washer 161 and the second reinforcement washer 162 are installed in close contact with both sides of the cushion member 130 in the axial direction, but only one of the first reinforcement washer 161 and the second reinforcement washer 162 may be installed in close contact with one side of the cushion member 130.

The first reinforcing washer 161 and the second reinforcing washer 162 are made of a resin material having excellent wear resistance and durability, such as acetal polyoxymethylene (POM), and the cushion member 130 performs a kneading operation. It functions to resist torsional stress generated and prevent the cushion member 130 from being torn or damaged. The first reinforcing washer 161 and the second reinforcing washer 162 are circular ring-shaped washers having an 'L'-shaped cross section, and are inserted into the groove 132 concavely formed on both sides in the axial direction of the cushion member 130. As such, if the first reinforcing washer 161 and the second reinforcing washer 162 are made of washers having an L'-shaped cross section rather than a simple flat washer, Compared to the flat washer, the force resisting the torsional stress of the cushion member 130 is further increased.

The inner periphery of the first reinforcing washer 161 and the second reinforcing washer 162 is preferably spaced apart from the outer surface of the body portion 111 of the support shaft member 110 by a predetermined distance, which means that the heat of the support shaft member 110 is directly transferred to the first reinforcing washer 161 and the second reinforcing washer 162 so that the first reinforcing washer 161 and the second reinforcing washer 162 melt. This is to prevent deterioration or thermal deformation.

The first reinforcing washer 161 and the second reinforcing washer 162 rotate together with the cushion member 130 . Therefore, between the first reinforcing washer 161 and the heat transfer cover 180, the first reinforcing washer 161 is prevented from being worn and deformed and functions to support the end of the support shaft member 110. The first protective member 170 in the form of a circular ring may be installed in close contact with the first reinforcing washer 161. The first protective member 170 may also be made of a resin material having excellent wear resistance and durability, such as acetal polyoxymethylene (POM). In addition, as shown in FIG. 7, the first protective member 170 has a plurality of ribs 171 arranged along the circumferential direction to minimize the contact area between the first reinforcing washer 161 and the first protective member 170. In addition to supporting the first reinforcing washer 161, the outer surface of the end of the support shaft member 110 can be firmly supported.

Also between the second reinforcement washer 162 and the flange portion 112 of the support shaft member 110, a ring-shaped second protection member 175 may be installed to prevent wear and deformation due to rotation of the second reinforcement washer 162. The second protection member 175 prevents wear of the second reinforcing washer 162 and prevents the second reinforcing washer 162 from directly contacting the flange portion 112 so that heat is transferred to the second reinforcing washer 162 through the flange portion 112 to prevent thermal deformation or damage. To this end, the second protective member 175 is made of a resin material having excellent abrasion resistance and durability and almost no thermal conductivity.

The heat transfer cover 180 is made in the form of a plate made of a metal material having excellent thermal conductivity, and is installed between the outer surface of the first protective member 170 and the end of the unit bracket 13 to receive heat from the support shaft member 110 and transfer heat to the user's body. A plurality of fastening holes 183 corresponding to the tap hole 114 formed in the body portion 111 of the support shaft member 110 are formed through the heat transfer cover 180 .

The central portion of the heat transfer cover 180 is in contact with the end of the body portion 111 of the support shaft member 110 to receive heat, and the edge portion protrudes outward from the end of the unit bracket 13 to transfer heat to the body while in direct or indirect contact with the user's body part. At this time, in order to prevent the edge of the heat transfer cover 180 from causing pain and discomfort to the user, a cover guard 182 is formed along the circumferential direction at the edge of the heat transfer cover 180, and the outer surface of the cover guard 182 is a unit bracket 13. It is made of a downwardly inclined curved surface. In this way, since the outer surface of the cover guard 182 is made of a curved surface, the occurrence of pain or discomfort when the cover guard 182 applies pressure to the user's body can be suppressed.

The cover guard 182 also functions to conceal while accommodating the end of the unit bracket 13 together with the fixing bracket 190.

The fixing bracket 190 is coupled to one side of the end of the unit bracket 13. A plurality of fastening holes 191 through which fastening members 195 pass through are formed in the fixing bracket 190 . Also, a plurality of fastening holes 13a are formed through the unit bracket 13 to correspond to the fastening holes 191 of the fixing bracket 190.

Therefore, when the fastening hole 191 of the fixing bracket 190, the fastening hole 13a of the unit bracket 13, the fastening hole 183 of the heat transfer cover 180, and the tap hole 114 of the support shaft member 110 are aligned with each other and the fastening member 195 made of a bolt or screw is inserted and fastened, the fixed bracket 190, the heat transfer cover 180, and the support shaft member 110 are unit bra It is firmly fixed to the ket (13).

The massage module 10 having the configuration as described above operates as follows.

When a user inputs a command to perform a massage and a heat function through a control panel of a massage device or an input window of a portable mobile communication terminal (also referred to as a 'smart phone'), the massage drive unit 12 of the massage module 10 is operated by the control module 200 of the massage device. Accordingly, while the massage unit 100 moves up and down and left and right, the cushion member 130 massages the user's body while kneading or tapping it.

At this time, when power is applied from the control module to the heater 121, the heater 121 generates heat and the support shaft member 110 is heated. Heat from the support shaft member 110 is transferred to the insert member 140 through the bearing member 150 and then transferred to the cushion member 130 to transfer heat to the user's body. At the same time, the heat of the support shaft member 110 is also transferred to the heat transfer cover 180, and the heat is transferred when the cover guard 182 of the heat transfer cover 180 applies pressure to the body.

In this way, when the heating member 120 of the massage unit 100 is operated to provide heat to the user through the cushion member 130 and the heat transfer cover 180, as shown in FIG. 8, the temperature sensor 122 of the heating member 120 measures the temperature of the support shaft member 110 in real time and transmits a temperature information signal to the control module 200. The control module cuts off the power supply to the heater 121 when the temperature measured by the temperature sensor 122 reaches the target temperature, and when the temperature measured by the temperature sensor 122 cools down to a certain temperature, the heater 121 is supplied with power to generate heat, thereby maintaining the temperature of the support shaft member 110 within a predetermined temperature range.

When the temperature sensor 122 fails and does not operate, the bimetal 123 automatically cuts off the power supply from the control module to the heater 121 when the support shaft member 110 is heated above a certain temperature, and resumes the power supply from the control module to the heater 121 when the support shaft member 110 cools down to a certain temperature or less to perform the heating function.

The massage module 10 of the present invention as described above may provide heat through the cushion member 130 by applying power to the heating member 120 when performing a massage operation by exercising the massage unit 100. At this time, since both sides of the cushion member 130 in the axial direction are supported by the first reinforcing washer 161 and the second reinforcing washer 162, even if torsional stress is generated in the cushion member 130 during the kneading operation of the massage unit 100, since the cushion member 130 is not deformed and the shape is maintained relatively constant, deformation, damage, or separation of the cushion member 130 can be prevented.

Although preferred embodiments of the present invention have been described above, the present invention can use various changes, modifications, and equivalents. It is clear that the present invention can be equally applied by appropriately modifying the above embodiment. Therefore, the above description does not limit the scope of the present invention, which is defined by the limits of the following claims.

1: massage chair 2: body massager
3: leg massager 4: control panel
5: guide rail 10: massage module
11: module base 12: massage drive unit
13: unit bracket 13a: fastening hole
100: massage unit 110: support shaft member
111: body part 112: flange part
113: heater chamber 114: tap hole
120: heating member 121: heater
122: temperature sensor 123: bimetal
124: heater spring 130: cushion member
132: groove 140: insert member
141: inner part 142: insert part
143; Through hole 144: protruding rib
150: bearing member 161: first reinforcing washer
162: second reinforcing washer 170: first protection member
175: second protection member 180: heat transfer cover
182: cover guard 183: fastener
190: fixed bracket 191: fastening hole
195: fastening member 200: control module

Claims (9)

A module base installed in the massage device;
a massage drive unit installed on the module base to provide at least one of vibration, linear motion, rotational motion, and power for massage position adjustment for body massage;
a unit bracket connected to the massage driving unit; and
a massage unit installed on the unit bracket to apply pressure and heat to the user's body;
including,
The massage unit,
a support shaft member made of a thermally conductive material fixedly installed to the unit bracket;
a heating member inserted into the space formed in the support shaft member to transfer heat to the support shaft member;
a cushion member having an opening into which the support shaft member is inserted in the center and rotatably installed on an outer surface of the support shaft member to apply pressure to a user's body;
An insert member including an inner circumferential portion inserted into the inner circumferential surface of the opening of the cushion member and exposed to the outside along the inner circumferential surface of the opening of the cushion member, and an insert portion formed to protrude from the outer circumferential surface of the inner circumferential portion along the circumferential direction and inserted into the cushion member; and,
a reinforcing washer in the form of a ring, inserted into the support shaft member, and being in close contact with one or both sides of the cushion member in an axial direction to resist torsional stress applied to the cushion member;
Massage module having a heating function comprising a. The massage module of claim 1, wherein the reinforcing washer includes a first reinforcing washer installed in close contact with one side of the cushion member facing the unit bracket, and a second reinforcing washer disposed between the other side of the cushion member and the end of the support shaft member. The massage module according to claim 2, further comprising a first protective member inserted into the support shaft member in a ring shape and closely attached to the outer surface of the first reinforcing washer to prevent wear and deformation of the first reinforcing washer. The massage module according to claim 3, further comprising a heat transfer cover made of a thermally conductive material installed between the outer surface of the first protection member and the unit bracket to receive heat from the support shaft member and transfer the heat to the user's body. The massage module according to claim 4, wherein a cover guard accommodating and concealing the end of the unit bracket is formed at an edge of the heat transfer cover along a circumferential direction, and the outer surface of the cover guard is formed of a curved surface inclined downward toward the unit bracket. The method of claim 2, wherein the support shaft member includes a cylindrical body portion fixedly coupled to the unit bracket at one end, and a flange portion formed to protrude outward in a radial direction from the other end of the body portion,
A massage module having a heating function with a ring-shaped second protective member installed between the second reinforcing washer and the flange portion to prevent abrasion and deformation of the second reinforcing washer. delete The massage module having a heating function according to claim 1, wherein the heating member includes a heater that generates heat by power supplied from an external control module, a temperature sensor that measures a temperature for controlling the operation of the heater, and a bimetal that automatically cuts off power supply to the heater when the support shaft member is heated above a certain temperature when the temperature sensor fails, and resumes power supply to the heater when the support shaft member cools below a certain temperature. The massage module having a heating function according to claim 1, wherein a plurality of through holes are arranged along a circumferential direction so that a portion of the cushion member can be inserted into the insert portion of the insert member, and a plurality of protruding ribs are arranged at predetermined intervals along the circumferential direction of the insert portion.