CN209770841U

CN209770841U - Multifunctional mask instrument

Info

Publication number: CN209770841U
Application number: CN201821883771.XU
Authority: CN
Inventors: 菲利普·塞迪克
Original assignee: Intelstrade Trading Co Ltd
Current assignee: Intelstrade Trading Co Ltd
Priority date: 2017-11-16
Filing date: 2018-11-15
Publication date: 2019-12-13
Anticipated expiration: 2028-11-15
Also published as: CN209770842U; CN209770846U; CN209770843U; CN209770845U; CN209770847U; CN209770844U

Abstract

the utility model discloses a multi-functional facial mask appearance, comprising a main body, the main part has first side, second side, intermediate part, sets up inside light source, motor, the temperature control element of main part, and is used for control light source, motor and the user control of one or more among the temperature control element. The utility model discloses a multi-functional facial mask appearance can provide heat, cold, light and/or vibration therapy for user's skin, and is respond well.

Description

Multifunctional mask instrument

Technical Field

The utility model relates to a beauty instrument field particularly, especially relates to a multi-functional facial mask appearance that is fit for using on people's face and health.

Background

The beauty is good, people are all people, with the development of society and economic progress, people pay more attention to the beauty of the people, and more people, especially women and more men, frequently massage and beautify the face. Many beauty treatment programs take the health and appearance of the skin as an important aspect. As a person ages, his or her skin may wrinkle, sag, become rough, and/or appear with various spots or marks. It is well known that stimulation of skin cells by various means, for example by light therapy, vibration therapy and/or by hot and cold therapy, can have a positive effect on the skin. For example, such positive effects may include one or more of: increase collagen production, reduce skin inflammation, reduce acne, improve blood circulation, tighten skin, and/or destroy bacteria.

There are a variety of devices in the art that can provide light therapy, vibration therapy, heat therapy or cold therapy to the skin. However, these devices typically provide only one type of therapy. Furthermore, these devices are often located in a medical or cosmetic facility, and the use of such devices requires the assistance of another person to perform the required treatment.

In addition, applying various nutritive materials is also a common method of beauty. The existing method for coating each nutrient mask has the main defects that the mask is a static paste after use, and the effect of introducing nutrient components at fixed points and permeating and absorbing is not ideal; also has the LED plain noodles membrane that prior art CN201610116328.9 disclosed, still utilizes the refrigeration piece to realize the ice compress when carrying out phototherapy to the face through LED optical device, improves the effect of facial skin care. Chinese patent CN201510624612.2 proposed by the present applicant also proposes such a technique for skin care using blue LEDs. However, the above-mentioned techniques cannot produce an effective and targeted way of beating and massaging key points and key parts, so the effect of penetration and absorption of nutrient components is not ideal, which results in that the effects of removing freckles, chloasma, whelks and pockmarks, improving skin laxity, pouches and dark circles are not good, and the breeding of pathogens such as bacteria, fungi and mites cannot be prevented.

Accordingly, there is a need for improved skin care devices and methods of use thereof to provide multiple forms of treatment (i.e., one or more of light, vibration, heat, and/or cold therapy) so that an individual may be used quickly and easily outside the confines of a medical or cosmetic office, or may be used independently without assistance.

SUMMERY OF THE UTILITY MODEL

The utility model aims at overcoming the defects existing in the prior art and providing a multifunctional facial mask instrument combining the functions of illumination skin care, temperature control skin care and other functions.

The purpose of the utility model is realized through the following technical scheme:

A multifunctional mask machine, comprising:

A body having a first side, a second side disposed substantially opposite the first side, and a middle portion extending from the first side to the second side, the first side having a first surface, the second side having a second surface, the middle portion having a third surface;

The main body comprises a supporting component, a frame, a panel and a temperature exchange component which are fixed with each other,

The first side is made up of at least a portion of the panel,

Said second side being comprised of at least a portion of said temperature exchange member,

The main body is also fixedly provided with a light source, a motor and a temperature control element inside, the light source is used for emitting light to treat skin, and the light emitted by the light source irradiates to and penetrates out of the first side surface; the motor is used for vibrating the mask instrument; the temperature control element is used for generating heat to treat the skin and transmitting the heat to the first side;

And the middle part is provided with a user control part for driving and controlling the light source, the motor and the temperature control element.

Preferably, the panel includes an upper portion, the upper portion is made of metal, and the planar outer side of the upper portion is the first surface.

Preferably, the first surface is circular.

Preferably, the second side surface is at least partially made of metal, and the outer side of the second side surface is the second surface.

Preferably, the temperature exchange component includes a proximal end made of plastic disposed opposite the second surface, the proximal end of the temperature exchange component being secured to the support member.

Preferably, the intermediate portion is formed by an annular member disposed between and adjacent to the first and second side surfaces, the annular member being adapted to be held by a user.

Preferably, the annular member is made of silicone rubber, and is adjacent to and in contact with the support member, and an outer peripheral surface of the annular member is the third surface.

Preferably, the support member has a proximal end and a distal end, the distal end being closer to the temperature exchange component than the proximal end, the support member being disc-shaped.

Preferably, a groove is provided between the first side and the intermediate portion extending toward the second side, the groove being adjacent the proximal end of the support member, the groove surrounding the flat interior portion of the first side and being bounded at its bottom by the annular member and the frame, the groove including an upper opening adjacent the first surface.

Preferably, a locking mechanism is optionally embedded in the groove for fixing a face film on the first surface.

Preferably, the locking mechanism is a transparent ring structure.

Preferably, the locking mechanism includes an extension extending from a center thereof, the extension being disposed over a cutout defined by the mask gauge when the locking mechanism is placed within the recess.

Preferably, the light source is disposed on a controller and is composed of a group of light emitting diode lamps, and each single lamp in the group extends from the controller to the first side face.

Preferably, the frame is defined to have a light passage, and the light emitted from the light source passes through the frame and is directed toward the first side.

Preferably, the frame has a refraction ring, the light beam emitted from the light source is only emitted to the first side surface, and the refraction ring is located on a light channel between the light source and the first side surface and generates irregular refraction to the light beam.

Preferably, the controller is operatively connected to any one of the light source, the motor and the temperature control element, provides instructions to and controls each of these devices, and is operatively connected to and activated by the user control.

Preferably, the controller comprises a printed circuit board assembly and circuitry thereon.

Preferably, the controller is provided with an interface operatively connectable thereto, the interface being for communication with a second device.

Preferably, the second surface is provided with a protrusion group, and the protrusion group extends in a direction away from the second surface.

Preferably, each projection point of the set of projections is integrally formed with the temperature exchange member, or the set of projections may be attached to the temperature exchange member by mechanical attachment and/or by use of an adhesive.

Preferably, the panel is provided with a groove type cavity, a power supply is arranged in the cavity, and the power supply supplies power to the electric elements of the mask instrument.

Preferably, the frame includes an arm extending from the main body of the frame to the second side surface and including a recessed slot, the motor being fixed in the slot.

Preferably, the temperature control element is box-shaped and is arranged close to the proximal end face of the temperature exchange part.

Preferably, a sensor is further disposed inside the main body, the sensor is configured to detect a temperature of the mask device and is turned off when the mask device is overheated, the sensor is inserted into a proximal end surface of the temperature exchange member, and a detection head of the sensor extends toward the first side surface.

The beneficial effects of the utility model are mainly embodied in that: LED light emitted by an LED light source is uniformly irradiated after being refracted, and the micro motor drives the whole mask instrument to vibrate slightly, so that the absorption of nutrient substances on the mask can be enhanced, and the blood circulation of the face is promoted; the blue light of the LED can play a role in sterilization and inflammation diminishing to improve the surface skin, and has a good effect on treating acne and rosacea; the LED red light can promote the growth of skin collagen and carry out deep skin beauty; the facial mask is controlled by the temperature control element, so that hot compress and cold compress effects can be achieved, blood circulation can be promoted by hot compress, pores are fully opened, and essence can be absorbed conveniently; the cold compress can achieve the effect of tightening the skin; meanwhile, the product is made of silica gel, so that pathogens such as bacteria, fungi, mites and the like can be prevented from breeding, and the skin can be better protected.

Drawings

The technical scheme of the utility model is further explained by combining the attached drawings as follows:

Fig. 1 is a perspective view of a first exemplary multi-functional mask machine.

Fig. 2 is an exploded view of the multifunctional mask machine shown in fig. 1.

Fig. 3 is a front view of the multifunctional mask machine shown in fig. 1.

Fig. 3A is an end view of the multi-functional mask machine shown in fig. 3 after being slightly rotated.

Fig. 4 is a cross-sectional view of the multi-functional mask machine shown in fig. 3A taken along line 4-4.

Fig. 5 is an end view in another orientation of the multi-functional mask machine of fig. 1.

fig. 6 is a left side view of the multifunctional mask machine shown in fig. 1.

Fig. 7 is a right side view of the multifunctional mask machine shown in fig. 1.

Fig. 8 is a top view of the multifunctional mask machine shown in fig. 1.

Fig. 9 is a bottom view of the multifunctional mask machine shown in fig. 1.

Fig. 9A is a bottom view of the multifunctional mask machine of another embodiment.

Fig. 10 is a schematic network diagram of each component in the multifunctional mask apparatus according to the embodiment of the present invention.

Fig. 11A is a plan view of the beauty accessory of the illustrated example.

Fig. 11B is a perspective view of the beauty accessory shown in fig. 11A.

Fig. 12A is a perspective view of the beauty accessory shown in fig. 11A and the multi-functional mask machine shown in fig. 1 with the locking mechanism of the multi-functional mask machine removed and the first side of the multi-functional mask machine aligned with the beauty accessory.

Fig. 12B is a perspective view of the beauty accessory and the multi-function mask instrument shown in fig. 12A, the beauty accessory being in contact with the first side of the multi-function mask instrument and the locking mechanism being aligned with but not in contact with the first side of the multi-function mask instrument.

Fig. 12C is a top view of the beauty accessory and multifunctional mask apparatus shown in fig. 12A, wherein the mask is secured to the first side of the multifunctional mask apparatus by a locking mechanism.

Fig. 12D is a perspective view of the beauty accessory and the multifunctional mask machine shown in fig. 12C after being combined.

fig. 13 is a perspective view of a second exemplary multi-functional mask machine.

Fig. 14 is an exploded view of the multifunctional mask machine shown in fig. 13.

Fig. 15 is a front view of the multifunctional mask machine shown in fig. 13.

Fig. 15A is an end view of the multifunctional mask machine shown in fig. 13 rotated slightly.

Fig. 16 is a cross-sectional view of the multi-functional mask machine of fig. 15A taken along line 16-16.

Fig. 17 is an end view in another orientation of the multi-functional mask machine of fig. 13.

fig. 18 is a right side view of the multifunctional mask machine shown in fig. 13.

Fig. 19 is a left side view of the multifunctional mask machine shown in fig. 13.

Fig. 20 is a top view of the multifunctional mask machine shown in fig. 13.

Fig. 21 is a bottom view of the multifunctional mask machine shown in fig. 13.

Fig. 22 is a perspective view of a third exemplary multi-functional mask machine.

Fig. 23 is a front view of the multifunctional mask machine shown in fig. 22.

Fig. 24 is an end view in another orientation of the multi-functional mask machine of fig. 22.

Fig. 25 is a right side view of the multifunctional mask machine shown in fig. 22.

Fig. 26 is a left side view of the multifunctional mask machine shown in fig. 22.

fig. 27 is a top view of the multifunctional mask machine shown in fig. 22.

Fig. 28 is a bottom view of the multifunctional mask machine shown in fig. 22.

Fig. 29 is a flow chart of an example method of using a mask apparatus and a beauty accessory.

Fig. 30 is a flow chart of an exemplary method of verifying authenticity of a multi-functional mask machine.

The figures illustrate only various embodiments of the invention. One skilled in the art will readily recognize from the following discussion that alternative embodiments of the structures and methods illustrated herein may be employed without departing from the principles of the invention described herein.

Detailed Description

The present invention will be described in detail below with reference to specific embodiments shown in the drawings. However, these embodiments are not limited to the present invention, and structural, method, or functional changes made by those skilled in the art according to these embodiments are all included in the scope of the present invention.

As used herein, the terms "thermal therapy" and "hot compress therapy" refer to providing treatment to the skin of a user through contact of the skin with a portion of the cosmetic apparatus that is at a temperature above room temperature due to the function of the cosmetic apparatus.

As used herein, the terms "cold therapy" and "cold compress therapy" refer to the provision of treatment to the skin of a user by contact of the skin with a portion of the cosmetic apparatus that is at a temperature below room temperature due to the function of the cosmetic apparatus and/or at a temperature below the temperature at which it provides heat/heat treatment.

fig. 1,2, 3A, 4, 5, 6, 7, 8 and 9 illustrate a mask apparatus 2 according to an embodiment of the present invention. The mask pack apparatus 2 includes a body 10, the body 10 including a plurality of components (described below). The body 10 includes at least a first side 20, a second side 30, a middle portion 40 extending from the first side 20 to the second side 30, and a support member 14. Other components include light source 100, motor 80, and temperature control element 110.

The first side 20 is made up of at least a portion of a panel 62 (described in more detail below). More specifically, it is formed by an upper portion 66 of the panel 62 for contacting or abutting the face of the user. The upper portion 66 may be in direct or indirect contact with the user to provide therapy to the user. It will therefore be appreciated that reference to the first side 20 necessarily refers to the panel 62. In the illustrated embodiment, the face plate 62 is composed of a suitable material and provides at least some structural support for the mask apparatus 2 and its various components. In the present embodiment, the surface of the upper portion 66 is composed of metal; thus, in this embodiment, the first side 20 is at least partially constructed of metal. The first side 20 also defines a surface 22, the surface 22 being substantially circular and defined by the upper portion 66 of the panel 62. The surface 22 provides thermal and/or cold therapy to the user when the mask apparatus 2 is in use. It may also deliver vibrational therapy to the user.

The second side 30 is made up of at least a portion of a temperature exchange member 112 (described in more detail below). More specifically, it is made up of a portion of the temperature exchanging element 112 for contacting the user. It will therefore be appreciated that reference to the second side 30 necessarily refers to the temperature exchange member 112. In the illustrated embodiment, the temperature exchange member 112 defines a surface 32 composed of a suitable metal. The temperature exchange component 112 also provides structural support for the mask apparatus 2 and its various components. Thus, in the present embodiment, the second side 30 is at least partially composed of metal. The portion of temperature exchange member 112 that does not include surface 32 may be composed of plastic or any other suitable material. The portion made of plastic may include a proximal end 31 thereof disposed generally opposite the surface 32. The proximal end 31 may be attached or connected to the support member 14 and secured thereto as described below.

The intermediate portion 40 is formed by an annular member 41 disposed between and adjacent to the first side surface 20 and the second side surface 30. More specifically, the intermediate portion 40 is formed by an annular member 41 to facilitate handling by a user during use of the mask apparatus 2. In the case where the ring member 41 is held by a user, the first side 20 (or in some embodiments, the second side 30) is in contact with or adjacent to the user's skin. It will therefore be appreciated that reference to the intermediate portion 40 refers to the ring member 41. In an embodiment, the ring-shaped member 41 is adjacent to the first side 20 and the second side 30 and is composed of a material that can directly contact the skin. In this embodiment, the surface 42 of the ring member 41 (i.e., the intermediate portion 40) that will be in contact with the user is composed of silicone rubber and is adjacent to and in contact with the support member 14. In various embodiments, the ring member may be connected to the support member by an adhesive or one or more mechanical attachments. In some embodiments, the silica gel may be a medical grade and/or specially formulated, ultra-hygienic silica gel. In various embodiments, the annular member may have any suitable shape and, in fact, may not be annular.

The body 100 further includes a support member 14, the support member 14 having a proximal end 15 and a distal end 16, the distal end 16 being closer to the temperature exchange component 112 than the proximal end 15. The support member 14 is substantially disc-shaped and may be constructed of any suitable material, including plastic. The support member 14 is adapted to contact and/or connect with the proximal end 31 of the temperature exchange component 112 and to contact the annular member 41. The support member 14 and the temperature exchange component 112 collectively provide support for various components disposed within the mask apparatus 2 and assist in shaping the mask apparatus 2. In various embodiments, the support member may be attached to or directly connected with the temperature exchange component by a snap fit structure, adhesive, or mechanical attachment. In some embodiments, the support member and the temperature exchange component may also collectively define a channel for passage of a portion of the controller. And in another embodiment, either or both of the temperature exchange component and the support member may be in contact with or connected to one or both of the frame and/or the panel.

A skilled artisan will be able to select the appropriate shape, size and materials for the various parts of the subject and mask apparatus according to particular examples based on various considerations, including the desired functionality of the device and the body part for treatment. In one example, the entire body and/or various portions thereof may comprise plastic, aluminum, silicon, and/or any other suitable material. In another example, one or more of the first side, the second side, and/or the middle portion may have any suitable shape, including annular, spherical, circular, square, rectangular, cylindrical, conical, and pyramidal. In another embodiment, the first side can be constructed of any suitable material, including aluminum, aluminum alloys, zinc alloys, stainless steel, copper, ceramics, and other materials for thermal conduction. In another embodiment, the second side can be constructed of any suitable material, including aluminum, zinc alloys, aluminum alloys, stainless steel, copper, ceramics, and other materials for thermal conduction. In other embodiments, the middle portion may be constructed of any suitable material, including silicone, plastic, rubber, and other similar materials. In various embodiments, the annular member may be constructed of any suitable material, including plastic and/or metal. The first side, the second side, the middle portion, and the annular member may also have any suitable shape. Further, in various embodiments, the annular member or related portion of the temperature exchange member can be disposed anywhere on the mask apparatus, including adjacent to one or more of the first side, the second side, or the middle portion. The various parts of the mask apparatus may also have different sizes in different embodiments. For example, in various embodiments, the first side can have a diameter of between about 2 centimeters (cm) and about 20 cm, between about 4 cm and about 15 cm, between about 6 cm and about 10 cm. In other embodiments, the second side can have a diameter between about 2 cm and 20 cm, between about 4 cm and 15 cm, or between about 6 cm and 10 cm. In various embodiments, the height of the middle portion (extending from the first side to the second side) can be between about 2 centimeters to about 20 centimeters, between about 4 centimeters to about 15 centimeters, and between about 6 centimeters to about 10 centimeters.

As shown particularly in fig. 8, a groove 24 is provided between the first side 20 and the middle portion 40 extending toward the second side 30. The groove 24 is adjacent the proximal end 15 of the support member 14. The groove 24 surrounds the flat inner portion 23 of the first side 20 and is bounded at its bottom by the annular member 41 and the frame 82. The groove 24 includes an upper opening 26 adjacent the surface 22. In the illustrated embodiment, the upper opening 26 is substantially circular. Thus, the groove 24 defined by the first side 20 is substantially annular, although it abuts the cutout 29 collectively defined by the first side 20 and the intermediate portion 40 extending away from the inner portion 23. The recess 24 is adapted to receive and lock the locking mechanism 50 in place within the recess 24. In addition, the groove 24 is provided such that light emitted by a light source 100 arranged distally of the surface 22 can pass through the groove 24. A skilled artisan will be able to determine how to properly configure the recess according to a particular embodiment based on various considerations, including the desired shape and size of the recess and locking mechanism and whether or not the light source is included in the device. In other embodiments, the recess and/or its opening may be triangular, square, rectangular, pentagonal, or have any other shape. In other embodiments, one or both of the first side and the middle portion may form zero, one, two, three, or more than three grooves, either alone or in cooperation with each other. In various embodiments, the diameter of the groove may be between about 1 centimeter and about 5 centimeters, between about 5 centimeters and 4 centimeters, and between about 1 centimeter and about 3 centimeters. In various embodiments, the groove may have a height of between about 1 and 5 centimeters, a height of between about 5 and 4 centimeters, and a height of between about 1 and 3 centimeters.

The light source 100 is disposed within a cavity 12 (described below) defined by the body 10; specifically, the light source 100 is attached to the controller 70 (described in more detail below) and is made up of a set of lights 102 (including individual lights 102a, 102b, 102c, 102 d). Each individual light in the set 102 extends from the controller 70 toward the first side 20. The light source 100 is disposed adjacent the recess 24 and below the surface 22 such that, when activated, the light set 102 of the light source 100 emits light into the recess 24 and onto any material or body part adjacent the first side 20. In the illustrated embodiment, the light source 100 is comprised of a plurality of light emitting diode lamps (hereinafter "LED lamps") configured to emit one or more of blue, red, and/or green light. As mentioned above, these different types of light emissions have known benefits on human skin. For example, blue LED lamps help to destroy bacteria. Red LED lamps are well known to improve skin texture and tone, stimulate collagen, and accelerate skin healing. Green LED lamps are known to help reduce skin discoloration and tighten the skin. These and other lamps have other known benefits. A skilled artisan will be able to select an appropriate light source for a particular mask apparatus according to a particular example based on various considerations, including the size and shape of the apparatus and the type of light to be emitted by the light source. In another example, the light source can only emit one or more of blue, red, or green light. In alternative examples, the light source may also emit one or more of white light, black light, yellow light, violet light, pink light, cyan light, and orange light. In other embodiments, the light source may be comprised of any type of light, rather than LED light. In various embodiments, the light source may include one, two, three, four, five, six, seven, eight, or more individual lamps. In different embodiments, the light source may be attached to the controller or any other component by a physical attachment or adhesive; alternatively, the various lights may be arranged on the plurality of other components by any suitable mechanism. In some embodiments, a single light may emit only a single color; in other embodiments, a single light may emit one, two, three, four, or more colors. Moreover, in different embodiments, the lamp may have different shapes, including box-like, cylindrical, pyramidal, spherical, and other suitable shapes.

As described above, the locking mechanism 50 is configured to be inserted and received within the recess 24. The locking mechanism 50 is substantially annular and substantially transparent such that light emitted by the light source 100 passes through the locking mechanism 50 relatively unimpeded and onto a material or user adjacent the first side 20. When the locking mechanism 50 is disposed within the recess 24, the first side 54 of the locking mechanism 50 is disposed relatively closer to the surface 22 than the second side 56, the second side 56 being disposed closer to the base of the recess 24.

The locking mechanism 50 is configured to be repeatably inserted into the recess 24 and removed from the recess 24 so that a user of the mask apparatus 2 can insert or remove the locking mechanism 50 from the recess 24 at will. The locking mechanism 50 is securely received within the recess 24 without the aid of an additional mechanism or device. In addition, the locking mechanism 50 includes an extension 52 extending from its center, the extension 52 being disposed over the cutout 29 defined by the mask gauge 2 when the locking mechanism 50 is placed within the recess 24. The extension 52 is positioned above the cutout 29 so that the user can easily remove the locking mechanism 50 from the mask apparatus 2 by grasping the extension 52. The locking mechanism 50 is also configured such that when a cosmetic accessory (described below) is inserted into the recess 24, the locking mechanism 50 can still be safely inserted into the recess 24 and over a portion of the cosmetic accessory, holding the cosmetic accessory in place. A skilled artisan will be able to select an appropriate locking mechanism according to a particular example based on various considerations, including the shape and size of the groove to be locked in place and the cosmetic accessory. In other embodiments, the locking mechanism may be composed of any material, including plastic, silicone, or any other transparent, sturdy material. In various embodiments, the locking mechanism may not include an extension or may include two, three, or more extensions. In various other embodiments, the locking mechanism may have any shape, including conical, cylindrical, tapered, triangular, rectangular, and square. In alternative embodiments, adhesives or mechanical components may be used to secure the locking mechanism within the mask apparatus.

The surface 32 of the second side 30 is provided with a set of protrusions 34, the set of protrusions 34 extending away from the surface 32. In the illustrated embodiment, each raised point of the set of projections 34 is integrally formed with the second side 30 (and, thus, the temperature exchange member). Each of the raised points of the set of projections 34 is also constructed of the same material as the surface 32 in the illustrated embodiment. However, in other embodiments, the set of projections may be attached to the second side by any mechanical attachment and/or by using an adhesive. Alternatively, in other embodiments, some of the protrusions of the set of protrusions may be integrally formed with the second side and other protrusions may be attached to the second side.

As shown particularly in fig. 9, each raised point in the set of projections 34 includes an upper surface 34a having a diameter. In the illustrated embodiment, the diameters of the respective upper surfaces 34a are not equal. Generally, the diameter of the upper surface 34a of the raised points of the set of projections 34 near the central portion 36 of the surface 32 of the second side 30 is smaller than the diameter of the upper surface 34a of the raised points away from the central portion 36 and near the lower portion 46 of the intermediate portion 40. In addition, no raised points are provided on the central portion 36 of the second side 30. The raised points on the set of projections 34 help increase the surface area of the second side 30 to allow the mask apparatus 2 to more quickly and efficiently transfer heat from the mask apparatus 2 as desired. In various embodiments, however, the sets of projections may be formed of any material and may be arranged in any manner. A skilled artisan will be able to select the appropriate bump material and arrangement according to the particular example based on various considerations, including the size and shape of the second side and the desired functionality of the device. In various embodiments, the surface of the second side and/or the set of protrusions can be comprised of any suitable metal, including zinc alloys, aluminum alloys, stainless steel, copper, ceramics, and other materials for thermal conduction. In other embodiments, the set of protrusions may be coated with gold, nickel, platinum, and/or other similar materials. In various embodiments, the raised dots may be partially of one material and partially of another material. In various other embodiments, any portion of the second side can be provided with raised points, including between about 5% and 90% of the surface, between about 25% and 70% of the surface, and between about 40% and 55% of the surface of the second side. In addition, in another embodiment, the center portion may also be provided with a raised point, or, if it is not provided with a raised point, may include a logo or symbol. In various embodiments, one or more of the raised points of the set of projections may have a height of between about 0.1 millimeters ("mm") and 6 centimeters, a height of between about 2 millimeters and 3 centimeters, and a height of between about 5 millimeters and 1 centimeter. In various embodiments, one or more of the raised points of the set of projections may have a diameter of between about 0.01 millimeters and 5 centimeters, a diameter of between about 0.1 millimeters and 2.5 centimeters, and a diameter of between about 5 millimeters and 1 centimeter. In another embodiment, each of the protrusions of the set of protrusions is composed of silicone, and in addition, part or all of the second side surface may also be composed of silicone. In other embodiments, the second surface may be provided with sets of ridges, waves, cones, oval-shaped protrusions, and other suitable features.

In an alternative mask apparatus 2 'shown in fig. 9A, the surface 32' of the second side 30 'is provided with a set of undulating projections 34', the set of projections 34 'extending in a direction away from the surface 32' with undulating projections of different lengths. The wave-like projections of the wave-like projection group 34 'are composed of a metal, such as a zinc alloy, and serve to quickly and efficiently transfer heat from the first side 30' from the second side (not shown in the drawings) as desired; this aids in heat dissipation as the set of wave-like protrusions 34 'increases the surface area of the second side 30'. Alternatively, the wave-like projections of the wave-like projection group 34' may be composed of ceramic. The set of wave-like protrusions 34 ' is configured to ensure that a wave-free center 36 ' is formed in the middle of the second surface 32 '. A logo or symbol may be placed on the center 36'. In the illustrated embodiment, the undulating projections of the undulating projection set vary in length; however, in other embodiments, each of the undulating projections may have the same length. The number of wave-like protrusions of the wave-like protrusion groups may also vary according to different embodiments. A skilled artisan will be able to select the appropriate undulating raised material and arrangement according to the particular example based on various considerations, including the size and shape of the second side and the function of the device. In various embodiments, the undulating projections may be comprised of zinc alloy, aluminum alloy, copper, stainless steel, ceramic, or any other suitable material. In other embodiments, the undulating projections may be coated with gold, nickel, copper, or any other suitable material. In various embodiments, the undulating projections may be composed in part of one material and in other parts of another material. In various other embodiments, any portion of the second side can be provided with undulating projections comprising between about 5% to about 90% of the surface of the second side, between about 25% to about 70% of the surface of the second side, and between about 40% to about 55% of the surface of the second side. In addition, in another embodiment, the center may be provided with an undulating protrusion.

As described above, the main body 10 is provided with the cavity 12 for accommodating various components. The cavity 12 is collectively defined by the various components defining the first side 20, the second side 30, and the intermediate portion 40, including the face plate 62, the temperature exchange component 112, the frame 82, and the support member 14.

One component housed within the cavity 12 of the body 10 is a power supply 60. The power supply 60 is operatively connected to the mask apparatus 2 and provides power to the various components (e.g., the light source 100 and other components described below) so that they can operate effectively and properly. In the illustrated embodiment, the power source 60 is comprised of a rechargeable lithium ion battery, and the lithium ion battery may be recharged via a charging port, such as the DC power outlet 68 best illustrated in FIG. 5. The power source 60 is received in a face plate 62, the face plate 62 defining a recess 64 for storing the battery 60. The face plate 62 helps to conduct and/or remove heat from the temperature control element 110 (described below) to one or both of the first side 20 and the second side 30. The panel 62 also secures the power supply 60 within the mask apparatus 2. Further, as noted above, the panel 62 includes an upper portion 66, and the upper portion 66 defines at least a portion of the first side 22, including the surface 22. A skilled artisan will be able to select the appropriate power source and panel according to the particular example based on a variety of considerations, including the various components housed within the mask apparatus and the desired dimensions of the mask apparatus. In other embodiments, the power source may include one, two, three or more replaceable dry cells. In various embodiments, the power source may consist of a lithium polymer battery or a secondary battery. In various embodiments, the panels may be constructed of any suitable material, including aluminum, aluminum alloys, zinc alloys, copper, stainless steel, gold, silver, ceramics, and other suitable materials. In further embodiments, the light source may emit one or more of red, blue, pink, and/or green light to indicate that the power source is charging and/or remains fully charged; in one such example, the light source emits white light that rotates in a circular motion through the groove to indicate that the device is charging, and a fixed purple light is emitted from the device indicating that the device is fully charged. In other embodiments, a portion of the faceplate may be coated with a thermal film or paste that helps protect the power supply from the heat generated when the mask pack is in use. In various embodiments, the upper portion and/or surface of the panel may have a diameter of between about 2 centimeters and about 15 centimeters, between about 4 centimeters and about 12 centimeters, between about 6 centimeters and about 9 centimeters.

The power source 60 supplies power to the controller 70, and the controller 70 is also accommodated in the cavity 12 defined by the main body 10. Controller 70 is operatively connected to any of light source 100, motor 80, and temperature control element 110, provides instructions to each of these components, and controls these components. The controller 70 is activated by a user control 72, the user control 72 being disposed on the intermediate portion 40 and operatively connected to the controller 70. The controller 70 in the illustrated embodiment includes a printed circuit board assembly ("PCBA") and associated circuitry; however, in other embodiments, the controller may include any suitable component for controlling the mask apparatus, such as a printed circuit board ("PCB") or any other suitable computer or mechanism to communicate information. Further, the controller 70 may be operatively connected with the interface 90 to enable it to communicate with a second device (described in more detail below).

The user controls 72 consist of buttons that, when pressed, activate the mask apparatus 2. The repeated and/or specific types of use of the user controls 72 may allow the user to cycle through various modes of operation of the mask apparatus 2 (described in more detail below). For example, the potential vibration modes that may be activated by user controls 72 may include a low frequency mode, a high frequency mode, a random mode, and a variable frequency mode. Further, the user may select various lighting modes, heating modes, and cooling modes via user controls 72. A skilled artisan will be able to properly place user controls on the device and configure the user controls according to particular examples based on various considerations, including the number of desired modes and the materials comprising the body. In other embodiments, user controls may be provided on either side of the body. In different embodiments, the mask apparatus can include zero, two, three, or more than three user controls. In further embodiments, the user controls may include separate user controls for controlling individual components and/or actions.

The motor 80 is disposed within the main body 10 and is operatively connected to the power source 60 and the controller 70. The motor 80 is disposed within a frame 82 within the body 10. The frame 82 serves to support the motor 80 and to keep the motor 80 fixed in a specific position inside the main body 10, as well as to provide structural support to the mask apparatus 2. Specifically, frame 82 includes an arm 84 that defines a slot 86 for positioning motor 80. Arm 84 (and slot 86) extends from body 83 of frame 82 to second side 30 and allows an inner surface (not shown) of arm 84 to secure and hold motor 80 in place. The motor 80 is disposed substantially adjacent to the first side 20 so that its vibrations are efficiently transmitted to the user through the first side 20. At least a portion of the frame 82, including its proximal end 88, is constructed substantially of a transparent plastic. Accordingly, the proximal end 88 of the frame 82 may allow light generated by the light source 100 to pass relatively unimpeded through the proximal end 88 and the surface 89 of the frame 82.

A controller 70 powered by the power source 60 provides instructions to the motor 80. In various embodiments, a high or low frequency motor 80 can be used to generate pulses that vibrate the mask pack apparatus. The motor 80 in this embodiment is used to generate a series of frequencies that can provide beneficial treatment to the skin. When the mask apparatus 2, and in particular the first side 20, is applied to a body, such as the face or neck, the motor 80 provides vibrations to the skin. A skilled artisan will be able to select the appropriate motor, frame and vibration range based on a variety of considerations, including the size and shape of the mask apparatus and the desired vibration intensity of the device. Examples of suitable vibration frequency ranges include vibration frequencies between approximately 80 hertz ("Hz") and approximately 200 Hz, vibration frequencies between approximately 100 Hz and approximately 180 Hz, and vibration frequencies between approximately 120 Hz and approximately 150 Hz. In another embodiment, the mask apparatus can include two or more motors. In another embodiment, the motors may be randomly arranged. In other embodiments, the frame may be omitted. In various embodiments, the frame may not include slots or arms, but rather the device may be completely contained within its body. In some embodiments, there may be more than one motor; in embodiments that include multiple motors, the motors may differ from each other in frequency output.

The controller 70 also controls an interface 90, which interface 90 is a component of the controller 70. The interface 90 enables the mask apparatus 2 to communicate with a second device, such as a personal computer, tablet, cell phone, or other electronic device (not shown). Using the interface 90, the mask apparatus 2 can send information to other devices so that the other devices can collect data related to the use of the mask apparatus 2. Further, the mask apparatus 2 can receive control signals from another device that can instruct the mask apparatus 2 to turn on or off, increase or decrease speed, switch to a different vibration, illumination, heating or cooling mode, and/or switch to a desired mode preset by the user or other instructions recommended by the other device. The interface 90 can be a wired interface or a wireless interface, such as a wireless transceiver that transmits control signals between the mask apparatus 2 and a second device. A skilled technician will be able to select the appropriate interface based on various considerations, including the device with which the mask apparatus will communicate and the size and shape of the body. In some embodiments, the interface is a radio frequency ("RF") transceiver for transmitting and receiving radio frequency signals between the mask apparatus and other devices. One example of a radio frequency transceiver that may be used is a low power 2.4 GHz radio frequency transceiver. In various embodiments, the mask apparatus can also include an antenna for transmitting and receiving signals between the mask apparatus and other devices. In these examples, the interface may wirelessly transmit information between the mask apparatus and another device using bluetooth, wireless networks, infrared, laser, visible light, acoustic energy, or other methods. In another embodiment, the controller may communicate with another device to confirm the authenticity of the mask pack apparatus, as described more fully below in fig. 30.

In some embodiments, the mask pack instrument is connected to the network through a second device. In other embodiments, the mask apparatus may be directly connected to a wireless network or cellular telephone network, and may be connected to the second device in any of the ways described. Thus, the mask apparatus may be controlled by a personal computer, tablet computer, cell phone, or other suitable electronic device. An example of such a design is shown in fig. 10.

Fig. 10 is a network diagram illustrating components of a mask apparatus (e.g., mask apparatus 2) according to an example embodiment. In this embodiment, the mask apparatus includes a controller, such as controller 70; a motor, such as motor 80; a light source, such as light source 100; a temperature control element, such as temperature control element 110; and an interface, such as interface 90. As described above, the mask apparatus may be connected to a network or other electronic devices through a personal computer, a tablet computer, a mobile phone, or may be directly connected to a wireless network or a mobile phone network. Therefore, the mask device can be controlled by a personal computer, a tablet computer, a mobile phone or other electronic devices through the above mechanisms, and transmit and/or receive data with the personal computer, the tablet computer, the mobile phone or other electronic devices through the above mechanisms. The interface may be wired or wireless and may include any of the above described. A skilled artisan will be able to determine how to properly connect the mask apparatus with other devices based on a variety of considerations, including the desirability of doing so and the connection of the devices that would be beneficial. In some embodiments, the mask apparatus may not include an interface and, therefore, may not communicate with other devices. In different embodiments, the mask device can only transmit data to other devices; it may not receive any data and cannot be controlled by other devices in the described embodiment.

The data communicated by the mask machine in connection with one or more of the personal computer, tablet, cell phone or other electronic device may include, for example, the number of times the mask machine is used, the duration of use of the mask machine for various purposes, the settings of the mask machine that the user prefers, and various other types of information relating to the use of the mask machine.

As noted above, the mask apparatus 2 further includes a temperature control element 110, which in the illustrated embodiment is operatively connected to the power source 60 and the controller 70. Thus, the temperature control element 110 receives power from the power source 60 and operational instructions from the controller 70. In various embodiments, any suitable material and/or component may comprise the temperature control element, and examples of suitable materials that may comprise the temperature control element include copper alloys, polyimides, ceramics, and other suitable materials. In some embodiments, the temperature control element may be formed from a positive temperature coefficient thermistor.

The temperature control element 110 is substantially box-shaped and is disposed adjacent to a temperature exchange member 112 within the cavity 12 of the body 10. The temperature exchange member 112 helps to secure the temperature control element 110 in a relative position within the mask apparatus 2. The temperature control element 110 is also disposed sufficiently adjacent the first side 20 so that its heat absorption and/or release can readily flow toward and/or away from the upper portion 66 of the face plate 62. In the illustrated embodiment, the temperature exchange component 112 can act as a heat sink, helping to prevent the mask apparatus 2 from overheating; however, in other embodiments, any suitable element or component may constitute the temperature exchange component. A skilled artisan will be able to select an appropriate temperature control element and an appropriate temperature exchange member according to a particular example based on various considerations, including the constituent materials of the first and second sides of the body and the desired function of the mask apparatus. In various embodiments, one or more heat sinks may be used with the temperature exchanging component. In alternative embodiments, the temperature exchange member may be composed of any suitable material, including copper, copper alloys, aluminum, diamond, stainless steel, ceramics, and other suitable materials. In various other embodiments, the temperature control element and the temperature exchange member and their respective components can have any suitable shape, including spherical, box-shaped, oval, pyramidal, circular, triangular, rectangular, and/or circular arc-shaped. In various embodiments, the temperature exchange member may be composed of one or more of an aluminum alloy, a ceramic, stainless steel, and/or other suitable materials.

The temperature control element 110 can absorb heat and/or release heat from the first side 20 and the second side 30 of the mask apparatus 2 upon receiving instructions from the controller 70. The temperature control element 110 is comprised of different types of conductors, which enables it to absorb or release heat at the ends of the various devices as directed by the controller 70 based on the various types of electronic signals emitted and/or the electric fields generated by the various components of the mask apparatus 2. This allows the portions of the temperature control element near the ends of the first side 20 and the second side 30 to absorb and/or release heat as directed by the controller 70 based on the direction of current flow to the various components provided by the mask apparatus 2.

In operation, the power supply 60 and the controller 70 provide current, power, and direction of travel to the temperature control element 110 through the electrical circuit connections between the power supply 60 and the controller 70 and the temperature control element 110. Upon receiving the command and current, the temperature control element 110 can absorb heat from its distal end 109 and release it through its proximal end 108 onto the first side 20, which causes the first side 20 to be at a higher temperature than it would be if the mask apparatus 2 were not operating. Such release provides a hot compress treatment for the user. The temperature control element 110 may also absorb heat through its proximal end 108 and transfer heat from the first side 20 through its distal end 109, particularly through the temperature exchange member 112. This allows the first side 20 to be at a lower temperature than it would be when the mask apparatus 2 is not operating (or in some embodiments, when heat is released through the first side end to provide heat therapy). Thereby providing the user with cold compress therapy.

In more detail, when a user requires a thermal treatment, the temperature control element 110 absorbs heat through its distal end 109 and releases the heat through its proximal end 108 toward the panel 62 adjacent thereto, and then conducts and transfers the heat to the surface of the first side 20. Conversely, when the user wishes to perform a cold compress treatment, the temperature control element 110 absorbs heat through its proximal end 108 and releases it through its distal end 109 towards the temperature exchange member 112 adjacent to it. By transferring heat from the first side 20, the temperature of the first side 20 is lower than when the mask apparatus 2 is not in use (and/or when heat therapy is being provided). In either instance, the user may directly or indirectly contact the first side 20 by using a cosmetic accessory as a medium between the skin and the mask apparatus 2.

In various embodiments, the temperature control element can heat the surface of the first side to a temperature of between about 70 degrees Fahrenheit ("° F") and about 150 ° F, or between about 75 ° F and about 125 ° F, or between about 80 ° F and about 100 ° F. The temperature control element can cool the surface of the first side to a temperature between about 30 ° F and about 80 ° F, or between about 40 ° F and about 70 ° F, or between about 50 ° F and about 60 ° F. In alternative embodiments, the temperature control element may also be in direct contact with or directly adjacent to the first side and/or the face plate. In some embodiments, the temperature-control element may comprise one or both of an N-type semiconductor and a P-type semiconductor, which may form a mechanism for absorbing and/or releasing heat from the proximal and distal ends of the temperature-control element.

The temperature exchanging part 112 serves to safely and properly process the surplus heat generated from the temperature control element 110 when the mask machine 2 provides hot and cold compress treatment. One way this can be done is by transferring the heat generated by the temperature control element 110 to the surface 32 of the second side 30, which second side 30 is comprised of a portion of the temperature exchange member 112, as described above. As previously discussed, the set of projections 34 of the second side 30 provides additional surface area (relative to a flat surface) to more quickly and efficiently transfer the heat from the first side 20 in the form of air or fluid. This may be done, for example, when providing cold compress therapy.

A skilled artisan will be able to select an appropriate temperature control element according to a particular example based on various considerations, including the side to be treated by the mask machine for hot or cold compress, and the shape and size of the device. In other embodiments, the temperature control element may be used to heat the second side of the body for application to human skin, rather than the first side. In various embodiments, the temperature control element can transfer heat from the body through a first side of the temperature control element rather than a second side of the temperature control element. In various other embodiments, the temperature control element can dissipate heat to the intermediate portion.

In an alternative embodiment, the mask apparatus may cool only the first side of the mask apparatus and heat only the second side of the mask apparatus. In such embodiments, both sides of the device may provide treatment to the human skin, either directly or indirectly. Additionally, in another embodiment, the first side may be heated and the second side may be cooled. In another alternative, the temperature control element can heat and cool the first side and/or can heat and cool the second side, depending on the mode in which the mask apparatus is located and the instructions received by the temperature control element from the controller. In another embodiment, the temperature control element may simply emit heat in one or more directions; in such an embodiment, it may not be possible to cool the sides.

A first temperature sensor 120 and a second temperature sensor 122 (hereinafter collectively referred to as "sensors 120, 122") are also provided within the main body 10. The sensors 120, 122 are substantially pill-shaped and include tails 120a, 122a, respectively. The sensors 120, 122 are operatively connected to the power supply 60 and the controller 70 and are used to measure the temperature of the mask apparatus 2 and report the temperature to the controller 70. If one of the sensors 120, 122 detects that the temperature of the mask apparatus 2 exceeds a certain threshold, it will send that information to the controller 70, and the controller 70 will activate the "off" function of the device to protect its user from the potential effects of the heating device (e.g., burning the skin). In this case, the mask machine 2 will stop operating; such a stop operation may be permanent or temporary. Two sensors 120, 122 are provided to ensure that in the event of a failure of the first sensor 120 or the second sensor 122, the mask apparatus 2 still has sensors that can operate to detect its temperature and shut down the mask apparatus 2 if necessary. In the illustrated embodiment, each of the first sensor 120 and the second sensor 122 is comprised of a negative temperature coefficient thermistor; however, in other embodiments, the first sensor and the second sensor may be comprised of any suitable components. A skilled artisan will be able to select the appropriate first and second sensors according to the particular example based on various considerations, including the particular temperature control element used and the size and shape of the device. In various embodiments, the sensor may be composed of any suitable material, including various semiconductors, copper, and other suitable materials. In other embodiments, the mask gauge may include zero, one, three, or more than three sensors. In various examples, one or both sensors may instruct the controller to stop operation of the device when the sensors detect temperatures in excess of about 120 ° F, about 150 ° F, and about 180 ° F.

Various cosmetic accessories may be used with the mask apparatus 2. An exemplary beauty accessory includes one or more masks 200, as shown in fig. 11A and 11B. However, in other embodiments, other types of cosmetic accessories may be used. The mask, such as mask 200, is a cosmetic used to coat, fill or delaminate various slurries, liquids, compounds and the like. Masks are well known in the cosmetic industry, primarily in the form of a mask that covers almost the entire face of the user. They stay on the user's face, allowing materials and/or serum or cosmetics to contact the face for a longer time and be absorbed by the user's skin. On the other hand, the illustrated mask 200 only contacts a portion of the user's face and only contacts the face for a short period of time, i.e., when the skin care device 2 is in use.

The heating, cooling, vibration, and/or light generated by the mask apparatus 2 helps the components of the mask 200 to be absorbed by the skin more quickly than if the components of a conventional mask were placed on the face for a longer period of time. In various examples, the mask can be composed of a cloth, a mesh, various microfibers, a silicone, a combination of one or more of these, and/or other suitable materials. In further examples, the mask may be coated, contain, include, or otherwise incorporate one or more of the following materials and/or compounds, alone or in combination: water, glycerin, butylene glycol, diethylene glycol, caprylic/capric triglyceride, ethyl cetyl hexanoate, cobalt diglyceride decanoate coating, hydroxyacetophenone, panthenol, allantoin, cetyl oligomer, sorbitol oligomer, ammonia alcohol, caprylic/capric glyceride, niacinamide, carbomer, various acrylates, dipotassium carbomer glycyrrhizinate, tocopherol acetate, ethyl hexanoate, tremella sporangia extract, xanthan gum, simon seed oil, flos Caraganae Sinicae, purslane extract, xyloside, non-hydroxy alcohol, 3-oxyethyl ascorbic acid, glucose, 1, 2-hexanediol, pearl extract, purslane extract, hydrogenated lecithin, ceramide 3, butylene glycol, decyl coconut shell, glycerin-26, shea butter, polyethylene glycol-100 stearate, polysorbate 60, sodium bicarbonate, Trimethylamine, carnosine, hydrolyzed collagen, palmitoyl tripeptide-5, and other suitable compounds.

The mask 200 can be placed on the surface 22 of the first side 20 and locked onto the mask apparatus 2 by using the locking mechanism 50, and once the mask 200 is placed on the mask apparatus 2, the locking mechanism 50 is placed on the mask 200 for locking. The mask 200 has a relatively thin circular shape. The mask 200 also includes a tab 202 extending from the body of the mask 200, which allows a user to easily grasp the mask 200. When the locking mechanism 50 is secured to the mask apparatus 2, the locking mechanism 50 secures one portion of the masks 200 within the recess 24 and another portion of the masks 200 atop the inner portion 23 of the first side 20, in this manner locking one of the masks 200.

fig. 12A, 12B, 12C, 12D respectively show a combined schematic view of a mask (e.g., mask 200) and mask apparatus 2. Fig. 12A shows the mask gauge 2 with the locking mechanism 50 separated from the recess 24 and the mask 200 positioned adjacent the first side 20 of the mask gauge 2 but not in contact with the first side 20 of the mask gauge 2. Fig. 12B shows the mask 200 in contact with the first side 20 and adjacent the recess 24, with the locking mechanism 50 disposed over but not in contact with the first side 20. Fig. 12C and 12D each show the mask 200 in contact with the first side 20, partially disposed within the recess 24, and secured to the first side 20 by the locking mechanism 50, which itself is partially disposed within the recess 24.

In use, as shown in fig. 12A, 12B, 12C, 12D, a user can contact the mask (e.g., mask 200) with the first side 20 and lock the mask in place via the locking mechanism 50. The user then presses the user control 72 of the mask apparatus 2 to activate the device. The mask apparatus 2 then signals the user that the device is ready for use. One way of displaying the signals that the mask apparatus 2 has been able to use is to emit light through the light source 100. Light source 100 may be configured to emit light for a period of time (one second, two seconds, three seconds, etc.) to indicate that it is ready for use; it may also emit a certain color or sequence of colors to show that the device is ready for use. In various other embodiments, the light source may emit light in a rotational manner such that a particular light or light beam follows a path to show that the device is ready for use. Optionally, once the device is activated, the user may press and/or hold down the user controls 72 for a period of time to ensure that the mask apparatus 2 can communicate with a second device, such as a cell phone. An example of such a communication is a series of flashing lights that light up 3 seconds after the user presses the user control for a long time. Confirming that the mask pack apparatus 2 is in communication with the second device may be another form of illumination of the light source 100.

In one example, after activation of the device, the user may select a certain mode, program, or therapy for the skin care device to perform. The user can press the user control multiple times, cycling the mask apparatus through the selectable therapies, and displaying this process to the user through the light source. In an example embodiment, pressing the user control upon activation may cause the device to cycle through green, red, and/or blue light in a certain sequence. Other colors of light may also be emitted at this time. In such embodiments, the user may press the user control again (or stop pressing the control) when the device emits a particular light corresponding to the therapy that the user wishes the device to perform (the user may find this information in a manual or by trial and error). The device will then execute the selected treatment mode. In another embodiment, a particular treatment mode may be selected by providing additional buttons on the mask apparatus that allow the user to cycle through the various treatment modes. In various embodiments, a particular treatment method may be selected by using a second device (e.g., a cell phone) that communicates and transmits information with the mask apparatus. In other embodiments, the speed and/or rotation pattern of the light emitted by the light source may display various selectable treatment modes to the user.

Once the user selects a particular therapy, the mask apparatus 2 will perform one or more of providing a heating therapy or a cooling therapy, emitting various types of light and/or vibrations. The mask apparatus 2 performs any of the instructions for these therapies by contacting or placing various portions of the device on the skin for any duration, as described above. In addition, these treatments may or may not be provided with a cosmetic accessory when applied to the skin.

Examples of various treatment modes are included below. The treatment modalities described below are merely illustrative in nature and do not limit the disclosure in any way. The following treatment modes may include the use of a mask in conjunction with the device; thus, it is assumed that the mask used in each treatment mode is fixed on or partially within the mask apparatus before the treatment mode is selected. However, there are other examples where the mask is not used. In addition, various mask machines can perform many other treatment modes not described below.

In each example therapy mode, the user presses a user control of the mask apparatus, such as a user control of the mask apparatus. This activates the mask apparatus. Optionally, the user may press the user control for a long time next, approximately 3 seconds; doing so would confirm that the mask apparatus is able to communicate with the second device by a flash of light emitted by the light source (e.g., light source) for about 3 seconds. The user then selects the first example treatment mode by pressing the user control at the appropriate time or in the appropriate manner, as described above. At this point, with the exemplary treatment mode enabled, the user will place the mask apparatus near or in contact with his or her skin. Thus, various example treatment modes will treat the user's skin through the following heating, cooling, lighting and/or vibration modes.

After selecting the first treatment mode, the light source will first emit red light and heat the first side of the mask apparatus simultaneously. This will last approximately thirty seconds. Next, the mask machine will simultaneously heat the first side, glow red, and vibrate for about sixty seconds. Thereafter, the mask apparatus will simultaneously vibrate and emit red light for about thirty seconds. This may be repeated for several cycles; in various treatment modes, one, two, three, four, five or more cycles may be used. When the signals of the vibration of the three motors before the stop appear, the mask instrument stops operating. The deactivation of the skin care device can occur automatically at the end of the treatment mode or by operating a user control.

In various embodiments, the first example treatment mode may consist of any number of actions performed in any order. For example, the light source may emit any one of green, blue, pink, or red light, and may emit the light continuously; it may also emit light at any suitable time interval, including 1,2, 3, 5, 10, 15, 20, 30, 60, or any other suitable interval of seconds. Further, the first treatment mode may include periods when the device is not operating in emitting light, heat, cold, or vibration. Various exemplary first treatment modes may include any suitable number of cycles. Further, in other exemplary first treatment modes, the motor may generate vibrations and/or pulses at any frequency and for any suitable length of time, including between about 5 and 180 seconds, between about 30 and 150 seconds, and between about 60 and 120 seconds.

As described above, the second example treatment mode may also be selected via a user control. After selecting the second treatment mode, the mask apparatus will simultaneously emit red light and heat the first side of the mask apparatus. This will last approximately thirty seconds. Next, the mask machine will heat the first side and emit red light simultaneously, and vibrate or pulse for about 60 seconds. Thereafter, the device will emit green light while vibrating for about thirty seconds. When the signals of the vibration of the three motors before the stop appear, the mask instrument stops operating. The deactivation of the skin care device can occur automatically at the end of the treatment mode or by operating a user control. Optionally, the motor can be restarted next, and the mask machine can be allowed to generate vibration and/or pulsation for an additional 30 seconds; the intensity of the vibrations and/or pulsations may diminish over time.

In various embodiments, the second example treatment mode may consist of any number of actions performed in any order. For example, the light source may emit any one of green, blue, pink, or red light, and may emit the light continuously; it may also emit light at any suitable time interval, including 1,2, 3, 5, 10, 15, 20, 30, 60, or any other suitable interval of seconds. Further, the second treatment mode may include periods when the device is not operating in emitting light, heat, cold, or vibration. Various exemplary second treatment modes may also include any suitable number of cycles. Further, in other exemplary second treatment modes, the motor may generate vibrations and/or pulses at any frequency and for any suitable length of time, including between about 5 and 180 seconds, between about 30 and 150 seconds, and between about 60 and 120 seconds.

As described above, the third example treatment mode may also be selected via a user control. After the third treatment mode is selected, the mask apparatus will simultaneously emit blue light and heat the first side of the mask apparatus. This will last approximately sixty seconds. Next, the mask machine will cool the first side and emit blue light simultaneously, and generate vibrations for about 30 seconds. Finally, the mask apparatus will cool the first side simultaneously, emit red and blue light, and vibrate for about 30 seconds. Deactivation of the skin care device can occur automatically at the end of the treatment mode or by manipulating user controls. Optionally, the motor can be restarted later to allow the mask machine to generate an additional 30 seconds of vibration and/or pulsation.

In various embodiments, the third example treatment mode may consist of any number of actions performed in any order. For example, the light source may emit any one of green, blue, pink, or red light, and may emit the light continuously; it may also emit light at any suitable time interval, including 1,2, 3, 5, 10, 15, 20, 30, 60, or any other suitable interval of seconds. Further, the third treatment mode may include periods when the device is not operating in emitting light, heat, cold, or vibration. Various exemplary third treatment modes may also include any suitable number of cycles. Further, in other exemplary third treatment modes, the motor may generate vibrations and/or pulses at any frequency and for any suitable length of time, including between about 5 and 180 seconds, between about 30 and 150 seconds, and between about 60 and 120 seconds.

As described above, the fourth example treatment mode may also be selected via a user control. After the fourth treatment mode is selected, the light source will first emit red light, cool and vibrate the first side of the mask apparatus simultaneously. This will last approximately thirty seconds. Next, the mask machine will emit red light simultaneously and cool and vibrate the first side for about 30 seconds. The motor will now vibrate at a low frequency. Thereafter, the mask apparatus will simultaneously emit blue light, cool and vibrate the first side for about 30 seconds. When the signals of the vibration of the three motors before the stop appear, the mask instrument stops operating. Deactivation of the mask meter can occur automatically at the end of the treatment mode or by operation of a user control. Optionally, the motor can then be restarted and the mask machine allowed to generate an additional 30 seconds of vibration and/or pulsation.

In various embodiments, the fourth example treatment mode may consist of any number of actions performed in any order. For example, the light source may emit any one of green, blue, pink, or red light, and may emit the light continuously; it may also emit light at any suitable time interval, including 1,2, 3, 5, 10, 15, 20, 30, 60, or any other suitable interval of seconds. Further, the fourth treatment mode may include periods when the device is not operating in emitting light, heat, cold, or vibration. The various exemplary fourth treatment modes may also include any suitable number of cycles. Further, in other exemplary fourth treatment modes, the motor may generate vibrations and/or pulses at any frequency and for any suitable length of time, including between about 5 and 180 seconds, between about 30 and 150 seconds, and between about 60 and 120 seconds.

as described above, the fifth example treatment mode may also be selected via a user control. After the fifth treatment mode is selected, the mask apparatus will simultaneously emit red light, heat the first side of the mask apparatus, and vibrate at a high frequency. This will last approximately thirty seconds. The mask machine will then simultaneously heat the first side, glow red, and vibrate or pulse for about 60 seconds. During this time the motor will vibrate at a low frequency. Next, the mask machine will generate a vibration for 30 seconds, which gradually decreases in intensity over the period of time. When the signals of the vibration of the three motors before the stop appear, the mask instrument stops operating. Deactivation of the mask meter can occur automatically at the end of the treatment mode or by operation of a user control.

In various embodiments, the fifth example treatment mode may consist of any number of actions performed in any order. For example, the light source may emit any one of green, blue, pink, or red light, and may emit the light continuously; it may also emit light at any suitable time interval, including 1,2, 3, 5, 10, 15, 20, 30, 60, or any other suitable interval of seconds. Further, the fifth treatment mode may include periods when the device is not operating in emitting light, heat, cold, or vibration. The various exemplary fifth treatment modes may also include any suitable number of cycles. Further, in other exemplary fifth treatment modes, the motor may generate vibrations and/or pulses at any frequency and for any suitable length of time, including between about 5 and 180 seconds, between about 30 and 150 seconds, and between about 60 and 120 seconds.

As described above, the sixth example treatment mode may also be selected via a user control. After the sixth treatment mode is selected, the mask apparatus will simultaneously emit red light and heat the first side of the mask apparatus. This will last approximately thirty seconds. Next, the mask apparatus will simultaneously heat the first side, vibrate, and emit red light for about thirty seconds. After this, the mask machine will simultaneously emit green light and vibrate for about thirty seconds. Next, the mask machine will generate a vibration for 30 seconds, which gradually decreases in intensity over the period of time. When the signals of the vibration of the three motors before the stop appear, the mask instrument stops operating. Deactivation of the mask meter can occur automatically at the end of the treatment mode or by operation of a user control.

In various embodiments, the sixth example treatment mode may consist of any number of actions performed in any order. For example, the light source may emit any one of green, blue, pink, or red light, and may emit the light continuously; it may also emit light at any suitable time interval including 1,2, 3, 5, 10, 15, 20, 30, 60, or any other suitable number of seconds. Further, the sixth treatment mode may include periods when the device is not operating in emitting light, heat, cold, or vibration. The various exemplary sixth treatment modes may also include any suitable number of cycles. Further, in other exemplary sixth treatment modes, the motor may generate vibrations and/or pulses at any frequency and for any suitable length of time, including between about 5 and 180 seconds, between about 30 and 150 seconds, and between about 60 and 120 seconds.

Various other examples of treatment modes may also exist. In this mode, the various mask apparatuses may emit light, heat and/or cool, and vibrate/pulsate in any order, at any intensity, and at any time.

Fig. 13, 14, 15a, 16, 17, 18, 19, 20, and 21 show another example mask apparatus 4. This mask machine is similar to the mask machine 2 shown in fig. 1 to 9 except as described below. Thus, the mask apparatus 4 includes at least a body 300, a first side 302, a second side 304, a middle portion 306, a controller 307, a light source 308, a power source 309, a motor 310, a temperature control element 312, a temperature exchange member 313, user controls 314, a frame 315, a charging port 316, a first temperature sensor 317, a second temperature sensor 318, and a locking mechanism 319.

In the illustrated embodiment, the first side 302 includes a contact member 320 having a surface 322, the surface 322 to be contacted by a user when using the mask apparatus 4. The contacts 320 are constructed of metal in the illustrated embodiment and are used to deliver hot and/or cold compress therapy to the user. The portion of the face mask apparatus 4 that the user contacts to receive treatment is not the portion of the face plate 324 that houses the power source 326, unlike the face mask apparatus 2 described above, in which the face 22 of the first side 20 is defined by the upper portion 66 of the face plate 62, and the user contacts the face 22 to receive heating and/or cooling treatment. For clarity, although in the illustrated embodiment the contacts 320 may be substantially disposed adjacent to the panel 324, these components are not integrally formed. A skilled artisan will be able to select the appropriate contacts according to a particular embodiment based on various considerations, including the size and shape of the components housed within the mask apparatus. In various embodiments, the contact may be composed of any suitable material, including one or more of aluminum, aluminum alloys, zinc alloys, copper, stainless steel, gold, silver, ceramics, and other suitable materials. In other embodiments, a portion of the contact may be coated with a thermal film or paste. In various embodiments, the contact surface diameter is between about 1 cm and about 15 cm, between about 2 cm and about 10 cm, and between about 3 cm and about 6 cm.

The contact 320 also includes a first leg 328 and a second leg 330 located on a distal end 332 of the contact 320 opposite the user contacting surface 322. The first bracket 328 and the second bracket 330 form a chamber 334, and a temperature control element 312 is disposed within the chamber 334. The temperature control element 312 is positioned within the chamber 334 such that the temperature control element 312 is directly adjacent to the surface 322 for user contact to receive heat and/or cold therapy. Because the contacts 320 are in close proximity to the surface 322, this arrangement allows for efficient and effective delivery of hot and/or cold compress therapy to the user through the surface 322. A skilled artisan will be able to select the appropriate contact based on various considerations, including the shape and size of the temperature control element. In other embodiments, an intermediate connection may be provided between the contact member and the temperature control element. In various embodiments, the contact may include zero, one, three, or more than three legs. In alternative embodiments, the contact member may not define a chamber, and the temperature-control element may be secured to the contact member by an adhesive, a mechanical attachment, or some other mechanism.

Finally, in the illustrated embodiment, the temperature exchange member 313 is directly attached to the frame 315 or is coupled to the frame 315. This embodiment does not include the support member included in the mask instrument 2.

Fig. 22, 23, 24, 25, 26, 27 and 28 illustrate another example mask apparatus 6. This mask machine 6 is similar to the mask machine 4 shown in fig. 13 to 21 except as described below. Thus, the mask apparatus 6 includes at least a body 400 having a first side 402, a second side 404, a middle 406, a light source (not shown), a motor (not shown), a temperature control element (not shown), a user control 410, a charging port 411, and a locking mechanism 412.

In this embodiment, the mask device 6 is partially covered with a silicone housing 414. More specifically, the silicone shell 414 extends to form a portion of the second side 404 and the middle portion 406. The outer surface 418 of the silicone shell 414 includes at least a portion of the surface of the second side 404 and the intermediate portion 406. The silicone housing 414 is a unitary component in the illustrated embodiment.

The silicone housing 414 also defines a cutout 415 in a central portion 424 of the second side 404. The cutout 415 is substantially circular. The central portion 424 is substantially circular in shape and allows the temperature exchange member 416 to be touched by a user; in particular, the second outer surface 422 of the second side 404 includes a portion of the temperature exchange member 416 that may be contacted by a user. Temperature exchange component 416 may be composed of any of the materials described above for temperature exchange component 112. A logo or symbol may also be provided on the temperature exchange member 416.

An outer surface 418 of the silicone shell 414 that forms a portion of the second side 404 defines a set of protrusions 426 that extend from the first side 402. In the illustrated embodiment, each of the set of protrusions 426 is integrally formed with the second side 404 (i.e., the silicone housing 414). Each of the raised points of the set of projections 426 is also constructed of the same material as the outer surface 418 in the illustrated embodiment. However, in other embodiments, the set of protrusions may be attached to the second side and/or the silicone housing by any mechanical attachment and/or by using an adhesive. Or in other embodiments, some of the raised points of the set of projections may be integrally formed with the second side and/or silicone shell, and the remainder may be attached to the second side and/or silicone shell.

Each raised point of set of projections 426 includes an upper surface 426a having a diameter. In the illustrated embodiment, the diameters of the various upper surfaces 426a are not uniform. Generally, the diameter of the upper surface 426a of the set of projections 426 proximate the central portion 424 is smaller than the diameter of the upper surface 426a of the set of projections 426 distal from the central portion 424. However, in various embodiments, the set of projections may be composed of any material and may have any arrangement. A skilled artisan will be able to select the appropriate bump material and arrangement according to the particular example based on various considerations, including the size and shape of the second side and the function of the device. In various embodiments, the raised dots can be comprised of any suitable material. In other embodiments, the raised dots may be coated with gold, nickel, platinum, and/or other similar materials. In various embodiments, a portion of the raised points may be formed from one material and the remainder of the raised points may be formed from another material. In other embodiments, any portion of the second side can be provided with raised points, including between about 5% and 90% of the surface, between about 25% and 70% of the surface, and between about 40% and 55% of the surface of the second side. In various embodiments, one or more of the raised points of the set of projections may have a height of between about 0.1 millimeters and 6 centimeters, a height of between about 2 millimeters and 3 centimeters, and a height of between about 5 millimeters and 1 centimeter. In various embodiments, one or more of the raised points of the set of projections may have a diameter of between about 0.01 millimeters and 5 centimeters, a diameter of between about 0.1 millimeters and 2.5 centimeters, and a diameter of between about 5 millimeters and 1 centimeter.

In addition, the mask pack apparatus 6 shown in fig. 22 to 28 includes a temperature control element that cannot provide cooling therapy. Indeed, in the illustrated embodiment, the temperature control element can only heat the first side 402 of the device by releasing heat to the first side 402, and cannot reduce its temperature. However, the mask machine 6 is still capable of emitting vibrations through the motor and a number of different colors of light (including red, green and blue) through the light source 408. However, in various embodiments, the temperature control element is capable of reducing the temperature of the first side 402 and thereby providing cold compress therapy to the first side 402.

Fig. 29 is a flow chart of an example method 500 of using a mask apparatus and a beauty accessory (e.g., mask 200). By demonstrating this approach with a mask apparatus and cosmetic accessory, a user's body, such as the face and/or neck, can be treated. The method may also be used to treat any part of the human body.

An initial step 502 includes contacting a cosmetic accessory (e.g., mask 200) with a first side of a mask apparatus, such as the first side 20 of the mask apparatus 2. In various other approaches, any suitable cosmetic accessory and/or mask apparatus may be selected, including mask apparatus 4 and/or mask apparatus 6. In a different approach, one or more cosmetic accessories may be placed in contact with the first side simultaneously.

Another step 504 includes securing the mask 200 to the first side 20 of the mask apparatus 2 via a locking mechanism (e.g., locking mechanism 50). The locking mechanism 50 is placed over the mask 200 and inserted into a recess (e.g., recess 24) along with a portion of the mask 200. In various other embodiments, the mask can be secured to the mask apparatus 2 by any physical mechanism or by an adhesive.

Another step 506 includes activating the mask apparatus 2 by pressing a user control (e.g., user control 72) to prepare the mask apparatus 2 for use.

another step 508 includes selecting an appropriate treatment mode, such as one, two, three, four, five, or six of any of the treatment modes described above, or any other appropriate treatment mode. The treatment mode may be selected via the user control 72. The indication of the selection of a particular treatment mode may be communicated to the user by a light source (e.g., light source 100) that may emit different patterns, colors, or flashes to indicate various treatment modes.

Another step 510 includes placing the mask apparatus 2 in contact with or adjacent to the user's skin. This is done so that the mask apparatus 2 can treat the skin by light emitted by the light source 100, vibration and/or pulsation emitted by the motor (e.g., motor 80), and/or hot and/or cold treatments generated by the temperature control element (e.g., temperature control element 110).

Another step 512 includes deactivating the mask meter 2. The mask machine 2 will indicate the activation of the deactivation command by a certain number of vibrations lasting a certain time, or a certain pattern of vibrations, or by emitting a certain number of lights lasting a certain time in a certain pattern, or by emitting one or more lights of a certain color. Deactivation of the mask meter 2 can occur automatically at the end of the treatment mode or by operation of the user controls 72.

It is noted that while it is advantageous to perform the method 500 in the order illustrated and described. However, any other order is suitable.

Fig. 30 is a flow chart of an example method 600 of verifying authenticity of a mask pack instrument. The method can be executed to identify the authenticity of a specific mask instrument.

An initial step 602 includes connecting a connectable mask apparatus having a controller (e.g., mask apparatus 2 having controller 70) with a second device, such as a personal computer, tablet, server, and/or mobile phone. However, in other embodiments, any suitable mask gauge and/or controller may be used, including mask gauge 4 and/or mask gauge 6. The connection may be via wireless or wired connection.

Another step 604 includes having the second device select a particular test to be performed by the mask pack apparatus. These tests may include one or more of a motor test, a battery test, a temperature control element test, and/or a light source test in various embodiments. However, in other embodiments, any suitable test may be performed.

Another step 606 includes performing one or more tests selected in step 604.

Another step 608 includes determining that the test performed by the mask meter and/or its controller in step 606 failed. In this case, the mask pack apparatus will be prevented from sending information related to the mask pack apparatus to the second device. In other embodiments, the mask pack apparatus may be temporarily or permanently disabled after a failure to perform a test.

another step 610 includes determining that the skin care device and/or its controller has passed the test performed in step 606.

Another step 612 includes sending data from the mask pack instrument to a second device. The transmitted data typically consists of information about the mask apparatus and may include one or more of the following: a chip ID of the mask pack instrument, information about a battery of the mask pack instrument, a media access control ("MAC") address of the mask pack instrument, and/or a serial number of the mask pack instrument. However, in any embodiment, any relevant information may be communicated to the second device.

Optionally, another step 614 includes sending data from the second device to the additional device. The additional devices may include one or more of: personal computers, tablets, mobile phones, databases, servers, and/or other suitable devices.

It is noted that although it is advantageous to perform the method 600 in the order illustrated and described. However, any other order is suitable.

In all examples, the mask apparatus and its various components can be constructed of any suitable materials, including known and later developed materials. The skilled artisan will be able to select the appropriate material for a particular example based on a variety of considerations, including the size and shape of the mask apparatus, the motor housed by the mask apparatus, the power source housed by the mask apparatus, and the particular temperature control element used.

It should be understood that although the present description refers to embodiments, not every embodiment contains only a single technical solution, and such description is for clarity only, and those skilled in the art should make the description as a whole, and the technical solutions in the embodiments can also be combined appropriately to form other embodiments understood by those skilled in the art.

Claims

1. Multi-functional facial mask appearance, its characterized in that: comprises that

The first side is made up of at least a portion of the panel,

2. The multifunctional mask instrument according to claim 1, wherein: the panel includes an upper portion, the upper portion being formed of metal, the first surface being outside a plane of the upper portion.

3. The multifunctional mask instrument according to claim 1, wherein: the first surface is circular.

4. The multifunctional mask instrument according to claim 1, wherein: the second side surface is at least partially made of metal, and the outer side of the second side surface is the second surface.

5. The multifunctional mask instrument according to claim 1, wherein: the temperature exchange component includes a proximal end made of plastic disposed opposite the second surface, the proximal end of the temperature exchange component being secured to the support member.

6. The multifunctional mask instrument according to claim 1, wherein: the middle portion is formed by an annular member disposed between and adjacent to the first and second side surfaces, the annular member being adapted to be hand-held by a user.

7. The multifunctional mask instrument according to claim 6, wherein: the annular member is made of silicone rubber, is adjacent to and contacts the support member, and has an outer peripheral surface as the third surface.

8. The multifunctional mask machine according to claim 7, characterized in that: the support member has a proximal end and a distal end, the distal end being closer to the temperature exchange component than the proximal end, the support member being disc-shaped.

9. The multifunctional mask machine according to claim 8, characterized in that: a groove extending toward the second side is disposed between the first side and the intermediate portion, the groove adjacent the proximal end of the support member, the groove surrounding the flat interior portion of the first side and being defined at its bottom by the ring member and the frame, the groove including an upper opening adjacent the first surface.

10. The multifunctional mask machine according to claim 9, characterized in that: a locking mechanism is optionally embedded in the groove for fixing a mask on the first surface.

11. The multifunctional mask machine according to claim 10, wherein: the locking mechanism is a transparent annular structure.

12. The multifunctional mask machine according to claim 10, wherein: the locking mechanism includes an extension extending from a center thereof that is disposed over a cutout defined by the mask apparatus when the locking mechanism is placed within the recess.

13. The multifunctional mask instrument according to claim 1, wherein: the light source is arranged on a controller and consists of a group of light-emitting diode lamp tubes, and each single lamp in the lamp group extends from the controller to the first side face.

14. The multifunctional mask machine according to claim 13, wherein: the frame is defined to have a light passage, and the light emitted from the light source passes through the frame and is directed toward the first side.

15. The multifunctional mask machine according to claim 14, wherein: the frame is provided with a refraction ring, the light beam emitted by the light source only irradiates towards the first side face, and the refraction ring is positioned on a light channel between the light source and the first side face and generates irregular refraction on the light beam.

16. The multifunctional mask machine according to claim 15, wherein: the controller is operatively connected to any of the light source, the motor, and the temperature control element, provides instructions to and controls each of these devices, and is operatively connected to and activated by the user control.

17. The multifunctional mask machine according to claim 16, wherein: the controller includes a printed circuit board assembly and circuitry thereon.

18. The multifunctional mask machine according to claim 17, wherein: the controller is provided with an interface which can be in operation connection with the controller, and the interface is used for communicating with a second device.

19. the multifunctional mask instrument according to claim 1, wherein: the second surface is provided with a protruding group, and the protruding group extends towards the direction far away from the second surface.

20. The multifunctional mask machine according to claim 19, wherein: each projection point of the set of projections may be integrally formed with the temperature exchange member, or the set of projections may be attached to the temperature exchange member by mechanical attachment and/or by use of an adhesive.

21. The multifunctional mask instrument according to claim 1, wherein: the face plate is provided with a groove type cavity, a power supply is arranged in the cavity, and the power supply supplies power to the electric elements of the face mask instrument.

22. The multifunctional mask instrument according to claim 1, wherein: the frame comprises an arm, the arm extends to the second side face from the main body of the frame and comprises a concave slot, and the motor is fixed in the slot.

23. The multifunctional mask instrument according to claim 1, wherein: the temperature control element is box-shaped and is arranged on the proximal end face of the temperature exchange part in a clinging mode.

24. the multifunctional mask instrument according to claim 1, wherein: the temperature control device comprises a main body and is characterized in that a sensor is further arranged in the main body, the sensor is used for detecting the temperature of the mask instrument and is closed when the mask instrument is overheated, the sensor is inserted into a near end face of the temperature exchange component, and a detection head of the sensor extends towards the first side face.