TW201800068A - Hot compression eye mask - Google Patents

Abstract

A hot compression eye mask has a body, a heat conducting film and a heating element. The heat conducting film is mounted on the body and the heating element is mounted on the heat conducting film. The heating element is connected to a controller, the controller is connected to a connecter. User use the connecter to connect a power bank, the eye mask provides an uniform hot compression to human's eyes to release the stress of the eyes.

Description

Hot eye mask

A construction of an eye shield, and more particularly to a thermal eye mask having a heating function to warm the eyes around the eyes during use.

Some people are sensitive to light. If there is light in the environment during sleep, even a weak night light or moonlight outside the window will make such light-sensitive people unable to sleep, resulting in a large quality sleep. decline.

In order to improve the above-mentioned sleep quality problems, some people use eye masks during sleep, shield the eye masks in front of the eyes when sleeping, and shield the light in the environment with the eye mask so that the eyes do not feel low light, thus improving sleep. quality.

In order to increase the effect of eye care, some eye masks are blended with far-infrared materials as the eye mask body. However, such eye masks do not really have a heat source, have limited heat generation, do not have the effect of heat application, and cannot use the structure of heat to promote blood circulation and improve. The effects of metabolism can not alleviate eye fatigue.

The existing eye mask lacks a heat-generating design and does not provide the effect of hot eyes. To this end, the present invention is provided with a heat-generating structure in the eye mask to achieve the effect of hot applying the eye and improving the metabolism of the eye.

In order to achieve the effects of the above invention, the present invention provides a thermal eye mask comprising an eye mask body, a heat generating module coupled to the eye mask body, and a control module, wherein:

The heat generating module is provided with a heat conducting film, and the heat conducting film is coupled to the eye mask body, and a heating element is coupled to one side of the heat conducting film. The control module is provided with a controller electrically connected to the controller. The device is electrically connected to a connector.

Further, the heat generating module of the present invention is provided with a flexible circuit board, a part of the flexible circuit board is overlapped with the heat conductive film, and the heat generating component is thermally resisted at the stack of the flexible circuit board and the heat conductive film. The wire is formed, the outer end of the flexible circuit board extends outside the eyecup body, the controller is disposed on the flexible circuit board, and the connector is formed at an outer end of the flexible circuit board.

Further, the present invention coats a fabric around the heat generating film group and around the control module, and the outer end of the connector exposes the surface of the fabric.

Further, the control module of the present invention is provided with a temperature sensing component, and the temperature sensing component is electrically connected to the controller.

Further, the controller of the present invention executes a time-out mode, and after the controller is connected to the power source, the timing mode is executed to turn off the power of the heating element at a set time.

Further, the controller of the present invention performs a continuous heating mode, which continuously detects the set number of intermittently connected power sources within a set time, and continuously turns on the heating element to continue to generate heat after detecting the set number of times.

Preferably, the heat conductive film of the present invention is a graphite heat conductive film or a metal heat conductive film.

Preferably, the heat conductive film of the present invention comprises a graphite heat conductive film combined with a metal heat conductive film.

Preferably, the surface of the eyecup body of the present invention comprises a far infrared ray releasing material.

Further, the eye mask body of the present invention is made of a cold feeling fiber.

When the user uses the present invention, the eye mask body is worn over the front of the user's eyes, and the connector is connected to a power source, and the controller controls the heat generation of the heat generating component, and the heat generating component is emitted toward one side of the heat conductive film. The heat source is rapidly conducted to the respective corners of the thermally conductive film to produce a heat application effect around the eyes of the user.

The utility model has the advantages that when the user wears the eye mask body, the heat conduction efficiency of the heat conductive film is good, so that the heat generating component only contacts the portion of the heat conductive film, so that the heat generated by the heat generating component can be quickly transmitted to the whole. The heat-conducting film can heat the eyes of the user, promote blood circulation of the eyes, improve metabolism, and relieve the fatigue of the eyes of the user.

Moreover, since the temperature of the thermal conductive film is uniform, there is no problem that heat is concentrated in one place, and the user can be prevented from being burnt. There is no wire inside the thermally conductive film, so there is no problem of leakage itself. The flexible film has the property of being deflected, so that the heat conductive film can be adapted to the curved shape of the face as the shape of the eye cover body is bent.

According to the present invention, the eye mask body can be configured to include a far-infrared ray releasing material or a cold sensation fiber, and the far infrared ray releasing material can provide the function of the far ray of the eye mask body, and the cold sensation fiber is in the When the connector is not plugged in, the heat conductive film does not generate heat, and provides a cool and comfortable use effect of the user's eyes.

In order to understand the technical features and practical effects of the present invention in detail, it can be implemented in accordance with the contents of the specification, and further described in detail with reference to the preferred embodiments shown in the drawings.

As shown in FIG. 1 to FIG. 3, the present invention provides a thermal eye mask, comprising a mask body 10, a heat generating module 20 coupled to the eye mask body 10, and a control module 30 coupled to the heat generating module 20, and A power supply 40, wherein:

The eye mask body 10 includes an inner layer cloth 11 and an outer layer cloth 12, and the eye mask body 10 can be woven by special functional fibers, for example, the eye mask body 10 can be selectively provided with a far infrared ray releasing material or Made of a cold-feeling fiber, the bottom side of the periphery of the inner layer cloth 11 is sewn to the bottom side of the periphery of the outer layer cloth 12 and thereby forms an interlayer 13 therebetween, on the top side of the periphery of the inner layer cloth 11 A sandwich opening 131 is formed between the top sides of the outer periphery of the outer cover 12, and the interlayer opening 131 is in communication with the interlayer 13. A strap 14 is coupled between the left and right edges of the eyecup body 10, and the strap 14 is The middle portion is disconnected and provided with a joint structure 15 in the disconnected portion. In the preferred embodiment, the joint structure 15 is a devil felt structure, and a mouthpiece 16 is formed adjacent to the strap 14 at the side of the eye mask body 10, which The opening 16 communicates with the interlayer 13.

The heat generating film 21 is provided with a heat conductive film 21 which is a long rectangular body and is disposed in the interlayer 13 of the eye mask body 10. The heat conductive film 21 includes a graphite heat conductive film 211 and a metal heat conduction. The film 212, when the heat conductive film 21 is heated, the graphite heat conductive film 211 and the metal heat conductive film 212 can conduct heat to each corner of the heat conductive film 21 quickly and uniformly, and the graphite heat conductive film 211 can emit far infrared rays. .

The heat generating module 20 is provided with a flexible circuit board 22 which is a laterally extending strip shape, and a portion other than the right end portion of the flexible circuit board 22 is overlapped with the heat conductive film 21 on the flexible circuit board 22 A heat-emitting film 21 is overlapped with a high-impedance conductive line to form a heat-generating component 221, and a right end portion of the flexible circuit board 22 is outwardly passed through the interlayer 13 through the interlayer 13 on the flexible circuit board 22 The right end forms a connector 222 which, like the preferred embodiment, is a USB connector.

The control module 30 is coupled to the flexible circuit board 22 and located between the heating element 221 and the connector 222. The control module 30 is provided with a controller 31 and a temperature sensing component on the flexible circuit board 22. 32 and an overcurrent sensing circuit 33, wherein the temperature sensing component 32 is disposed adjacent to the heating component 221, and the heating component 221, the connector 222, the temperature sensing component 32, and the overcurrent sensing circuit 33 respectively The controller 31 is electrically connected, and the controller 31 executes a timing mode. After the power is connected, the controller 31 executes the timing mode to turn off the power of the heating element 221 for a set time, and the controller 31 performs a continuous heating mode. It continuously detects the set number of times that the power is intermittently connected within a set time, and continues to turn on the heating element 221 after detecting the set number of times to continue to generate heat.

The power supply 40 is provided as a mobile power source and is located outside the eyecup body 10, and a power connection line 41 is coupled between the power source 40 and the connector 222, so that the power source 40 provides the controller 31. The power required to operate the heating element 221 .

When the present invention is used, as in the first embodiment of the foregoing preferred embodiment, the power supply 40 is first connected to the connector 222 with a power connection line 41, at which time the controller 31 turns on the function of the timing mode, followed by the strap 14 The eyelid body 10 and the thermally conductive film 21 are placed in front of the user's eyes by bypassing the user's head and bonding the bonding structure 15.

Next, the controller 31 that executes the timing mode controls the heat generation of the heat generating element 221 and limits the time during which the heat generating element 221 generates heat, for example, 15 minutes, to prevent the user's eyes from being injured due to prolonged heat application. Since the heat conduction efficiency of the heat conductive film 21 is good, the heat source emitted from the heat generating element 221 toward the heat conductive film 21 can be quickly conducted to each corner of the heat conductive film 21 to produce a heat application effect on the user's eyes. And because the temperature of the hot pack is uniform, there is no problem that heat is concentrated in one place, and the user can be prevented from being burnt.

The heat conductive film 21 can emit far infrared rays when heated, in addition to the contact heat conduction heat transfer film 211, and the eye mask body 10 can include a far infrared ray releasing material on the surface, and the structural design allows the user to match Wearing the present invention has the effect of heat application of far infrared rays, which can further promote blood circulation around the eyes of the user, improve metabolism, and relieve eye fatigue.

When the temperature sensing component 32 detects that the temperature of the heating element 221 is too high, the controller 31 stops the heating element 221 to continue heating the thermal conductive film 21, and when the overcurrent sensing circuit 33 detects a current overload, the controller 31 Control power off or adjust current output. Since the heat conductive film 21 can be flexed, the deformation of the eye mask body 10 can be matched with the shape of the user's face, and since there is no electric wire inside the heat conductive film 21, no leakage occurs, which creates a safety problem. The design of the control module 30 using DC power supply can also avoid electromagnetic damage caused by electromagnetic waves.

When it is required that the heat conductive film 21 continues to generate heat and the eye mask body 10 is provided with the function of warming the package, the connector 222 and the power connection line 41 are inserted and removed a certain number of times, for example, three times within a certain period of time, for example, 10 seconds. That is, the controller 31 detects that the power supply is intermittently connected three times within 10 seconds, that is, the controller 31 can perform the continuous heating mode, and the heating element 221 is controlled to cooperate with the heat conducting film 21 to continue heating, so that the eye mask body 10 can be warmed. The warmth of the warm pack.

When the user needs to clean the eye mask body 10, the power cable 41 is unplugged from the connector 222, and then the heat conductive film 21, the heat generating module 20, and the control module 30 in the eyecup body 10 are collectively separated by the interlayer opening 131. The connector 222 is firstly taken into the interlayer 13 from the opening 16 and then taken out together with the heating module 20, and then the user can directly clean the eyecup body 10, After the eyecup body 10 is dried, the heat generating module 20 and the control module 30 are reinserted into the eyecup body 10 from the sandwich opening 131 for reuse.

In addition to the foregoing preferred embodiment, the heat conductive film 21 and the flexible circuit board 22 of the heat generating module 20 are disposed outside the interlayer 13 of the eye mask body 10, and may also be sewn, pasted, and deviled. The heat conductive film 21 and the flexible circuit board 22 are fixed on the surface of the eye mask body 10, and the heat conductive film 21 can also function as a heat application. In this case, the eye cover body 10 can be free of the interlayer 13, so that it is easier to process and can be processed. The overall thickness of the invention is reduced. Further, in addition to the graphite heat conductive film 211 and the metal heat conductive film 212, the heat conductive film 21 may be used alone as the heat conductive film 21 by using the graphite heat conductive film 211 or the metal heat conductive film 212 alone.

In addition to the preferred embodiment of the present invention, in addition to the control module 30 on the flexible circuit board 22, the control module 30 may be formed on the external circuit board except the temperature sensing component 32. a control device (in this case, the heating element 221 and the temperature sensing element 32 are electrically connected to the connector 222 respectively), so that the externally located control device and the aforementioned power source 40 pass through the connector 222 and the heating element 221 and the The temperature sensing element 32 is electrically connected, so that the controller 31 of the externally located control device can control the heating element 221 to generate heat, and the temperature sensing element 32 detects whether the heating element 221 is overheated.

In the present invention, except that the heat conductive film 21, the flexible circuit board 22, the heat generating element 221, the control module 30 coupled to the flexible circuit board 22, and the connector 222 are all in a bare form, as shown in FIG. The surface of the heat conductive film 21, the flexible circuit board 22, the heat generating component 221, the connector 222, and the surface of the control module 30 of the heat generating module 20 may be covered with a fabric A, and the connector 222 may be The outer end exposes the surface of the fabric A so that the connector 222 can be connected to a power source. Since the heat generating module 20 and the control module 30 are covered with the fabric A, and the fabric A and the eye mask body 10 are similar in material, the heating module 20 and the control module 30 of this type are easily modularized. The eye mask body 10 that is integrally stitched or bonded to different forms is easy to process.

The above description is only the preferred embodiment of the present invention, and is not intended to limit the scope of the claims of the present invention, and other equivalent changes or modifications which are not departing from the spirit of the present invention should be included in the present invention. Within the scope of the patent application.

10‧‧‧ eye mask body
11‧‧‧ Inner layer cloth
12‧‧‧ outer cloth
13‧‧‧Mezzanine
131‧‧‧Mezzanine opening
14‧‧‧Tie straps
15‧‧‧Combination structure
16‧‧‧ wearing a mouth
20‧‧‧heating module
21‧‧‧ Thermal film
211‧‧‧ graphite thermal film
212‧‧‧Metal heat conductive film
22‧‧‧Soft circuit board
221‧‧‧heating components
222‧‧‧Connector
30‧‧‧Control Module
31‧‧‧ Controller
32‧‧‧Temperature sensing components
33‧‧‧Overcurrent sensing circuit
A‧‧‧fabric
40‧‧‧Power supply
41‧‧‧Power cable

BRIEF DESCRIPTION OF THE DRAWINGS Figure 1 is a perspective view of a preferred embodiment of the present invention. 2 is a schematic plan view of a heating module and a control module according to a preferred embodiment of the present invention. 3 is a block diagram of a control module in accordance with a preferred embodiment of the present invention. 4 is a schematic view of a fabric wrapped around a heating module and a control module in accordance with a preferred embodiment of the present invention.

10‧‧‧ eye mask body

11‧‧‧ Inner layer cloth

12‧‧‧ outer cloth

13‧‧‧Mezzanine

131‧‧‧Mezzanine opening

14‧‧‧Tie straps

15‧‧‧Combination structure

16‧‧‧ wearing a mouth

20‧‧‧heating module

21‧‧‧ Thermal film

222‧‧‧Connector

40‧‧‧Power supply

41‧‧‧Power cable

Claims (10)

A thermal mask comprising a goggle body, a heat generating module coupled to the eyecup body, and a control module, wherein: the heat generating module is provided with a heat conducting film, the heat conducting film being bonded to the eye mask body, and the heat conducting film One side is combined with a heating element, and the control module is provided with a controller electrically connected to the controller, the controller being electrically connected to a connector. The thermal eye mask of claim 1, wherein the heat generating module is provided with a flexible circuit board, a part of the flexible circuit board is overlapped with the heat conductive film, and the heat generating component is on the flexible circuit board and the heat conductive film. The overlapping portions are formed by a heat-resisting wire, the outer end of the flexible circuit board extends outside the eyecup body, the controller is disposed on the flexible circuit board, and the connector is formed on the flexible circuit board Outer end. The thermal eye mask of claim 2, wherein the control module is provided with a temperature sensing component, and the temperature sensing component is electrically connected to the controller. The heat shield of claim 2, wherein the controller executes a certain time mode, and after the controller is connected to the power source, the timing mode is executed to turn off the power of the heat generating component for a set time. The thermal eye mask of claim 4, wherein the controller performs a continuous heating mode, which continuously detects the set number of intermittently connected power sources within a set time, and continuously turns on the heating element to continue heating after detecting the set number of times. A thermal eye mask according to claim 1 or 2, wherein a fabric is coated around said heat generating film group and around said control module, and an outer end of said connector exposes a surface of said fabric. The thermal eye mask of any one of claims 1 to 5, wherein the heat conductive film is a graphite heat conductive film or a metal heat conductive film. The thermal mask of any one of claims 1 to 5, wherein the thermally conductive film comprises a combined graphite heat conductive film and a metal thermally conductive film. The thermal mask of any one of claims 1 to 5, wherein the surface of the mask body comprises a far infrared ray releasing material. The thermal eye mask of any one of claims 1 to 5, wherein the eyecup body is made of a cold feeling fiber.