TWI623309B - Hot recharge type moxibustion device - Google Patents

Abstract

The utility model relates to a hot recharge type moxibustion device, which is provided with a heat-dissipating device for providing skin surface heat and assisting massage or massage, and a heat-dissipating body is combined with a heat-distributing unit, and the outer end of the heat-distributing unit is a working end, and the inside is provided with a The heat transfer unit that breaks into the heat energy, the external heat source is quickly invaded by the heat transfer unit and the passivation effect is buffered and discharged afterwards, so that the working end diverges the warm heat wave suitable for skin-friendly, and the contact heat is assisted when the working end massages and massages. Work to activate the body's blood.

Description

Hot recharge type moxibustion apparatus

A hot recharge type moxibustion device is a moxibustion device for providing hot massage to human skin. The heat moxibustion device is mainly provided with a heat transfer unit which can be externally inserted into the heat and buffered and released. The heat transfer unit can be directed The heat is slowly diverged to the working end, so that the heat emitted by the working end of the system is warm and suitable for skin contact.

If the massage of human skin is applied with heat, it can quickly activate the micro-vessels or promote blood circulation in the massage area. Therefore, the moxibustion device used for massage is designed, such as the sputum heat wave scraping of Taiwan’s early patent No. 92201840 filed by the applicant. The bulk device has a heat diffusion plate on the body port, and the heat source is directly obtained by a heater on one side, and the heat conduction path structure of the diarrhea scraper of the patent No. 103204476 is improved, and the electric heating element is in a very close path through a heat conduction plate. The heat wave is transmitted outward, and the heat wave generated by the electric heat conversion can be applied to the working end of the massage, and the heat energy transmission path between the electric heater and the working end is short, so the heat energy of the rapid heating of the electric heater is quickly transmitted to the working end surface, however, Due to contact with the skin, the temperature of the working surface can only be warm, otherwise it will burn the skin, and the heat transfer of the short path will be rapidly increased due to the energization of the electric heater and the heat will be quickly transmitted to the working surface due to the short transmission path. In order to make the temperature of the working surface, during use, the surface of the working end will be burnt at some time when the electric heating is heated due to temperature control.

The hot recharge type moxibustion apparatus of the invention mainly comprises a heat transfer unit inside the moxibustion apparatus, and the inside is loaded with a heat storage material, the whole heat transfer unit can be filled by an external heat source, and the heat storage material of the heat storage material can be buffered. The surface of the working end of the heat-dissipating unit slowly radiates a warm temperature, providing a contact-type hot compress when the skin is massaged, and the main purpose of assisting the massage heat effect.

The second object of the present invention is that the heat transfer material contains a high specific heat heat storage material, and the heat storage material self-heat balance acts to buffer the heat energy that is infused, and slowly radiates heat to the working end of the heat dissipation unit.

The third object of the present invention is that the heat transfer unit is a built-in space directly formed by integrally forming a heat dissipation unit including a heat transfer plate body, and the heat storage material is filled, and the inner port provided at the other end is sealed by a flap cover. .

The fourth object of the present invention is that the heat transfer unit is a can body, which is provided with a heat storage material for forming a content area inside a can body, and the front and rear ends are formed by sealing two end plates, and the whole is placed in heat dissipation. In the built-in space of the unit.

The fifth object of the present invention is that the end cap and the cap are thermally conductive, and the outer surface thereof can be combined with an electric heating element.

The sixth object of the present invention is that the heat transfer unit is provided with a heat storage material provided by a content area provided by a can body, and a partition is arranged at a gap between the inner shoulder portion, and an electric heating element is sandwiched between the end plate and the partition plate. Wherein the electric heating element is a heat storage material, and the heat is directed to the working end of the heat dissipation unit, or the heating element is a multi-guide heat, a direction to the working end of the heat dissipation unit, and the other direction is two-way with the content area of the heat transfer unit. Handed.

10‧‧‧Warm moxibustion

20‧‧‧Resistance body

21‧‧‧ housing

22‧‧‧ lumen

23‧‧‧Intersection

30‧‧‧Hot divergence unit

31‧‧‧ enclosure

32‧‧‧ Built-in space

33‧‧‧Docking Department

34‧‧‧heat transfer plate

35‧‧‧Scratch

36‧‧‧Internal port

37‧‧‧Working end

40‧‧‧heat transfer unit

41‧‧‧ cans

42‧‧‧Ending board

43‧‧‧The opponent's end plate

44‧‧‧Content area

45‧‧‧ Thermal storage materials

46‧‧‧Baffle

47‧‧‧Seal cover

50‧‧‧External heat source

51‧‧‧Transmission surface

60‧‧‧Electrical components

61‧‧‧temperature control device

62‧‧‧Wire

63‧‧‧Power coupling device

64‧‧‧Power coupler

65‧‧‧Electrical switch

The first picture shows the appearance of the warm moxibustion device.

Figure 2 is a perspective view of the structure of the heat transfer unit.

Figure 3 is a schematic diagram of the operation of the heat transfer unit for exchanging external heat source of the moxibustion apparatus.

Figure 4 is a schematic diagram of the heat transfer unit for obtaining heat from the outside of the warm moxibustion apparatus.

Figure 5 is a schematic diagram of the heat transfer unit directly contacting the electric heating element to obtain thermal energy.

Figure 6 is a schematic diagram of a power coupling device with a power coupling device.

Figure 7 is an exothermic graph of the system during a thermal massage operation.

Figure 8 is a schematic view showing the electric heating element interposed inside the heat transfer unit of the present invention.

Figure 9 is a schematic view showing the direction in which the heat transfer unit completed in Fig. 8 is located inside the heat dissipation unit.

Figure 10 is one of the schematic diagrams of the heat transfer unit completed in Figure 8 located inside the heat dissipation unit.

Figure 11 is a schematic view showing the heat transfer unit of the present invention directly formed by the internal space of the heat dissipation unit.

For the implementation structure and working mode of the present invention, please refer to the following description. First, please refer to FIGS. 1 and 2: The moxibustion device 10 of the present invention is a heat-resistant body 20 that can be grasped by the palm of the hand. One end is combined with a heat dissipating unit 30, and a heat transfer unit 40 is provided with a heat refilling and buffering heat. The outer end ring of the heat dissipating unit 30 is provided with a scraping port 35. The heat transmitting plate body 34 is provided, and the scraping port 35 is provided. The heat transfer plate body 34 is externally formed as a working end 37. The working end 37 is externally obtained by the heat transfer unit 40, and the heat transferred is radiated in a warm manner. The heat source of the heat transfer unit 40 is directly or externally Indirectly.

Referring to FIG. 2 again, the heat transfer unit 40 of the present invention is terminated by a front end and a second end of the can body 41 by the end plate 42 and the opponent end plate 43 respectively, and the content area 44 is formed inside, and the content area is formed. 44, the heat storage material 45 is disposed, the heat storage material 45 is a high specific heat material, is simply water, and is formed into a circular heat transfer unit 40 after the end, wherein the end plate 42 and the opponent end plate 43 have heat. Leading effect.

The content area 44 provided in the heat transfer unit 40 is provided with the heat storage material 45. The heat storage material 45 can be heated before being sealed, and then filled in the high heat state through the end plate 42 and the opponent end plate 43. After sealing, the inside of the content area 44 is formed with a negative pressure, the negative pressure has a temperature rising effect during balanced use, avoids the problem of high pressure gas explosion, and the phase change point of the water liquid is related to the pressure, if the heat storage material 45 is In the water liquid, a negative pressure is formed in the interior, and the water liquid is not easy to freeze. Even if the expansion rate of the ice is 1:1.1 per unit volume, the encapsulated can body 41 is relatively resistant due to the presence of negative pressure beforehand. Pressing, and balancing the space for expansion, so that the independently formed heat transfer unit 40 does not burst due to external temperature turbulence, and the practice is used. If the heat storage material 45 is clean water, the intrusion temperature can be set below the boiling point, so the heat The transfer unit 40 does not have a problem of inflation internal pressure.

Referring to FIG. 3 again, the heat transfer unit 40 completed as shown in FIG. 2 is combined with the heat blocking body. 20 and the space inside the heat dissipation unit 30, the heat transfer unit 40 is internally loaded with the heat storage material 45, the two ends are sealed by the end plate 42 and the opponent end plate 43, and the outer end of the end plate 43 is thermally conductive. Combined with the inner surface of the heat transfer plate body 34, the heat transfer plate body 34 functions as a two-way heat conduction, and the heat transfer unit 40 obtains the operation of the heat source, and the conductive surface 51 of the external heat source 50 can be guided indirectly by the heat transfer plate body 34. After the thermal energy is generated, the heat transfer unit 40 is transferred to the heat transfer plate 34 via the opponent end plate 43 after the heat transfer unit 40 is in thermal energy, so that the heat wave of the working end 37 of the heat dissipation unit 30 generates a heat wave. Auxiliary.

After the heat transfer unit 40 is filled with heat from the outside, it is released from one end thereof, and if the external heat energy is rapidly charged, it is stowed by the internal heat storage material 45, and the heat balance acts to buffer the high temperature of the rapid intrusion. The cushioning is particularly advantageous for the timing of performing the skin-friendly massaging operation, and the heat accumulated by the heat-storing material 45 is released by one end of the heat sink, the release path is in the direction of the opponent end plate 43, and the heat-storing material 45 is sealed with the opponent. The inner surface of the end plate 43 is fully intimate, and the body of the heat storage material 45 is also released toward the opponent end plate 43 due to thermal energy, and there is a phenomenon of high and low temperature difference, and the body of the heat storage material 45 re-heats itself, and also produces The effect is tempered, and the heat is moderated to dissipate the heat from the opponent's end plate 43.

The opponent end plate 43 is bonded to the working end, and the heat transfer unit 40 is entirely enclosed inside the warm moxibustion device 10, so that the heat dissipation path is directed to the direction of the opponent end plate 43.

Referring to FIG. 4 again, the heat-resisting body 20 extends from the outer end of the housing 21, and has an inner cavity 22 formed therein. The inner ring of the port is provided with a joint portion 23, and the rear end of the heat-distributing unit 30 is butted. The portion 33 can be combined with the joint portion 23 in a dry manner. After the heat dissipating unit 30 is removed, the end plate 42 is used to have a heat conduction effect, and the conductive surface 51 of the external heat source 50 can be reversely contacted. The heat wave generated by the conductive surface 51 is indirectly guided to the inside of the heat transfer unit 40 via the end plate 42. After the heat transfer unit 40 is full of heat energy, the heat dissipation unit 30 is reversely combined with the heat blocking body 20, and the heat transfer unit 40 The heat contained in the heat transfer plate 34 is transferred to the heat transfer plate 34, and the heat transferred from the heat transfer plate 34 is transferred to the heat transfer plate body 34 and the scraping port 35 according to the heat balance. The working end 37 is diverged, and the heat transfer unit 40 is located inside the heat dissipating unit 30, and the heat is mainly transmitted directly or indirectly from the appearance of the heat dissipating unit 30. However, when the massage operation is performed, the structure contacting the skin is mainly heat transfer. The working body 37 of the plate body 34 and the scraping port 35 is externally shaped, so the working end 37 is the main heat transfer end, wherein the heat transfer plate body 34 serves as a heat transfer path, and the body acts as the last buffering heat energy.

Referring to FIGS. 5 and 6, the heat transfer unit 40 of the present invention is disposed inside the heat dissipation unit 30, and the opponent end plate 43 is disposed on the inner side surface of the heat transfer plate body 34, and the inner end end plate is closed. The outer surface of the 42 can be combined with an electric heating element 60. The electric heating element 60 is operated by a temperature control device 61 to obtain working electric power from a wire 62. The electric wire 62 is disposed inside the inner cavity 22 of the heat-resisting body 20, and the end plate is used. 42 The external surface is adjacent to the electric heating element 60. The electric energy measurement generated by the electric heating element 60 is directly obtained by the heat transfer unit 40, and is fully inserted by the built-in heat storage material 45. The electric heating element 60 generates a high temperature of electric heating, and the heat storage material is used. After collecting the stowage, the bulk of the heat accumulating material 45 is thermally balanced and homogenized, so that the released temperature is warm.

The electric wire 62 is connected to a power coupling device 63 located on the outer surface of the heat-resisting body 20, the power coupling device 63 can provide a plug of a power coupler 64, and the power coupler 64 guides external power. The electric coupling device 63 is connected to provide the internal electric heating work of the moxibustion device 10. After the internal heat of the moxibustion device 10 is satisfied, the electric power connector 64 can be removed to form a wireless massage operation, and the electric power coupling device 63 is formed. The circuit is operated by an electrical switch 65 to command the electric heating element 60 to operate.

Referring to FIG. 7 (in conjunction with the foregoing figures), the warm moxibustion apparatus 10 according to the present invention is inserted into the tropical zone by the heat transfer unit 40 by the high thermal energy directly or indirectly introduced from the outside. First, the operation of the internal heat balance is transferred by the heat transfer unit 40, and the heat sink end will be hot. The thermal energy of the transfer unit 40 is released to the working end 37 of the system, and a plurality of thermal conductivities are formed due to the thermal conduction state of the structural body, so that the heat transferred by the heat transfer unit 40 passes through the time coordinate to form a slow working end 37 The appearance.

The working curve of this figure measures the curve L1 as the curve of the equilibrium ambient temperature under static setting, and L2 is the working curve of the skin temperature during the skin-friendly massage time course, when the system performs the hot massage operation, the system The actual data contained in the room is 25.6 degrees at room temperature, and the temperature is raised to 85.6 degrees by the warming moxibustion machine for 10 minutes to the initial temperature of the massage operation. The operation curve L2 is gradually decreased according to the time, and the time course is about to block the heat for 20 minutes. The curve is moderated, because the surface temperature of the massaged skin has been absorbed by the skin and absorbed by the skin cells. At this time, the surface temperature of the skin has been higher than the earlier temperature, and the temperature load of the system is reduced. The temperature resistance curve after 20 minutes of the body is moderated and the rate of decline is moderated.

The other temperature data measurement phase is the part of the body of the system heat transfer unit heat transfer unit 40, and the average data of the comprehensive calculation is measured by a plurality of massage and massage operations, and the curve indicates that at least the heat release time is in the warm moxibustion device 10 After a minute, the temperature can be used as the skin-friendly temperature during the slow-motion massage operation. In addition, the system can also shorten the hot-charge time according to the user's needs, and can reduce the maximum temperature of the initial hot work.

Referring to FIG. 8 again, the heat transfer unit 40 of the present invention is further embodied by a can body 41. The outer end is sealed by a pair of hand-sealed end plates 43 and a partition 46 is disposed at the inner shoulder to block. The sealing portion forms a content area 44 for receiving the heat storage material 45. The partition 46 has a heat guiding function, and an electric heating element 60 is coupled to the surface thereof, and an end plate 42 is sealed at the outer end, and the end plate 42 is sealed. At the same time, the inner surface and the upper surface of the partition 46 form a clamping function to combine the electric heating element 60, the electric heating element 60 has a bidirectional heating function, and a temperature control device 61 is integrally coupled to the electric heating element 60, which can be adjacent to the sensing temperature. For electric heating element 60 Control of work.

Referring to FIG. 9 again, the heat transfer unit 40 completed by FIG. 8 is electrically connected between the partition plate 46 and the end plate 42. The system firstly follows the effect of heat balance. When the low temperature path is transmitted, the heat generated by the electric heating element 60, that is, transmitted to the heat storage material 45 via the partition 46, the heat energy absorbed by the heat storage material 45 is transmitted to the heat transfer plate via the set end plate 43 provided. 34, the temperature is diverged at the outer end of the working end 37 of the heat diverging unit 30, wherein the temperature of the electric heating element 60 due to the rapid conduction of electric power is buffered by the heat accumulating material 45, so that the surface of the working end 37 is at a slow rate. The heat is slowly dissipated to reach a warm temperature requirement.

Referring to FIG. 10 again, the position of the heating element 60 can be directed toward the heat transfer plate 34, the temperature generated is transmitted to the heat transfer plate 34 via the end plate 42, and the other direction is transmitted through the partition plate 46. The heat transfer material 45 is transferred to the heat storage device 30 so as to be heated rapidly at the working end of the heat dissipation unit 30, and the total heat generation portion of the electric heating element 60 is transmitted to the heat storage material 45, and thus is transmitted to the heat transfer plate via the end plate 42. The temperature of the body 34 does not rapidly increase to the blanching temperature, which is in accordance with the rapid use. After the heat accumulating material 45 is fully charged, the temperature is reversely transmitted through the structural body of the electric heating element 60, and then transmitted to the end plate 42. Dissipated through the heat transfer plate 34, the electrical operation of the electric heating element 60, as well as the concepts of Figures 5 and 6, may depend on the timing of operation of the electric heating element 60 and whether or not the power is used offline.

Referring to FIG. 11 again, the structure of the heat transfer unit 40 provided in the moxibustion apparatus 10 of the present invention can be directly formed by the interior of the integrally formed heat dissipation unit 30. The heat dissipation unit 30 can be made of mineral material such as mineral material. The ceramic body, the finished body can be glazed and smoothed, and the enclosure 31 and the heat transfer plate 34 are used to end the enclosure, and a built-in space 32 is formed inside, and the inner port 36 at the other end is sealed by a flap 47 to accommodate heat storage. The material 45 is obtained by the heat energy of the heat storage material 45, and can be modeled as shown in FIG. The heat transfer plate 34 is indirectly indirectly obtained by the heat transfer plate body 34, and the heat transfer plate body 34 has the function of secondary buffering heat energy output, or the seal cover 47 has a heat conduction function, and can be used as a heat receiving surface. Or the surface of the surface may be combined with an electric heating element 60, which is controlled by a temperature control device 61, obtains working power via the electric wire 62, directly obtains thermal energy by electrothermal action, and the working timing of the electric heating element 60 is the same. It can be operated as the concepts of Figures 5 and 6.

The warm moxibustion device provided by the invention has a heat transfer unit inside, and the heat transfer unit can inject external heat source into the heat energy, and the internal heat storage material can be used as thermal energy stowage and buffer release, and the heat is slowly satisfied. Slowly diverging to the working end of the moxibustion apparatus, so that the working end creates a warm heat wave suitable for skin contact, avoiding burning when hot, and meeting the skin temperature requirement during massage and massage, the heat transfer unit directly In the hot way, the heat source can be directly obtained through the combined electric heating element, and after being fully loaded with the heat source, it is slowly radiated to the working end, and the structure body can be a single monomer shape, or can be directly formed by the inside of the enclosure of the heat dissipation unit. The space for storing the heat storage material allows the heat energy of the heat storage material to directly contact the enclosure and be released to the outside generation. For an innovative design, please ask the examiner Mingjian and give the patent as an early prayer.

Claims (7)

The utility model relates to a hot recharge type moxibustion device, which is a moxibustion device for providing hot massage of human skin, comprising: a heat-resisting body providing a hand grip; a heat-dissipating unit having a heat transfer effect, a back end and the above-mentioned heat-blocking body Combined, the outer end is a working end, and a built-in space is formed inside; a heat transfer unit with a heat storage material inside is located in the built-in space, and the working energy is externally introduced and diverged toward the working end. The heat transfer unit is a single unit, and is provided with a tank body, and a content area is formed therein for the heat storage material to be accommodated. The hot recharge type moxibustion apparatus according to claim 1, wherein the heat dissipating unit is an integrally formed structure, the back end is provided with a butting portion, and the outer port is separated by a heat transfer plate, the heat transfer plate body It is combined with one end of the above heat transfer unit to have a heat conduction relationship. The hot-charged moxibustion apparatus according to claim 1, wherein the heat transfer unit is sealed at the two ends by an end plate having a heat transfer effect and a pair of hand-sealed end plates. The hot-charged moxibustion apparatus according to claim 3, wherein the end plate has a heat transfer effect, and the surface is combined with an electric heating element, and the heat energy generated by the electric heating element is transmitted to the stored heat storage material. The hot-charged moxibustion apparatus according to claim 1, wherein the outer end of the heat transfer unit is sealed by a heat-conducting opponent end plate, and a heat-transmissive partition is disposed at the inner shoulder position. The heat storage material is sealed, and an end plate is attached to one end of the tank body, and an electric heating element is sandwiched between the partition plate and the end plate. The electric heating element according to claim 5 or 6 is connected to the electric power coupling device located in the body of the heat-resisting body via the associated electric wire, and the electric power coupling device is connected to the working electric power by the external electric power connector. The hot-charged moxibustion apparatus according to claim 5, wherein the outer surface of the end plate is thermally coupled with the inner side of the heat transfer plate provided by the heat dissipating unit, so that the electric heating element is located in the content area and the heat. Between the plates, and the electric heating element has bidirectional thermal conductivity.