TWI764747B - Filter gas conditioning mask - Google Patents

Abstract

The filter gas conditioning mask of the present invention provides a conditioning mask that mixes the molecules of a gaseous molecule divergent element in the absorbing and draining beam through the cutting and physical effects of breathing airflow when it is worn and used, and covers the corresponding nostrils on the filtering surface. The grid interval of the position is combined with a gaseous molecular diffusing element that contains gaseous molecular diffusing elements. The surface diffusing element of the gaseous molecular diffusing element is gradually released and mixed in the drawn and drained flow beam through the shearing effect of the drawn airflow generated by the inhalation. Provides user inhalation awareness.

Description

Filter gas conditioning mask

The present invention filters the gas conditioning mask, and through the shearing effect of the breathing airflow flowing through the nostrils, the gaseous molecule diffusing element containing the gaseous molecule can be gradually released.

The structure currently used in medical-grade protective masks is based on an outer cover layer on the outside, an adsorption layer for catching bacteria on the inner layer, and an inner layer with an affinity for the skin and water absorption on the inside, which are formed by heat sewing to form a mask. The main body provides filtration of external air during use to maintain the health of the respiratory tract.

In response to the needs of the user's spiritual side, there is an aromatic distribution mechanism implemented on the mask body, such as the aromatic mask provided by Taiwan Patent M604644, which utilizes the printing of totems on the surface of the outer covering layer 11 in the form of ink blended with essence. After the fragrance is printed, it is exposed to the air in a large area, and when it is worn and used, the surface is exposed to the air flow, so that the fragrance is easy to escape quickly.

There is another Taiwan patent M544947 case, which has a storage bag with an external opening in the main body, and an inner fragrance bag is provided in the middle. The M597666 case also has an opening on the side of the interlayer of the mask body, which can be put into a traditional Chinese medicine bag, and the M588551 case is the same in The body of the mask is provided with an opening to be filled with fragrant sheets. The M569233 case has a bag filled with tea leaves in the body. The designs of the above-mentioned cases can provide effective aroma release, but the opening in the interlayer will affect the internal components. The effect of layers on filtration efficiency.

And the M531294 case uses the main body of the essential oil ball, and the essential oil ball can be expanded by the capillary through the water-absorbing sheet. The patent M531296 case uses the same mechanism of the essential oil ball, and the M581481 uses the essential oil capsule method The case of M558091 also uses the essential oil capsule method. The essential oil is encapsulated by a crystal ball. When used, the whole ball is crushed by an external force, and all the essential oil inside is collapsed. Assuming that the granular spheres are in the form of tiny and fine particles, when they are installed in the interlayer, they must be supplemented by complex adhesive fixing methods, so structural stability cannot be obtained.

In the M594964 case, the essential oil is added to the filter layer in the middle. The design of this case will increase the expansion rate of the essential oil due to the capillary action of the filter layer, and the essential oil is fluid. After the storage time after production, it will penetrate into the outer cover layer and the inner and outer layers. It is also easy to scatter due to the expansion of the contact area of the essential oil. The above quotations have unfavorable filtering requirements, or the accumulated layer cloth and production costs, and the crystal ball is in the shape of a pellet, which completely bursts after being stressed, and the essential oil immediately collapses. Precise and effective control of the timing of use.

The present invention filters the gas and regulates the mask, in order to provide the wearing and use, through the cutting effect of the respiratory airflow flowing through the nostril covering surface, the gaseous molecules containing the gaseous molecules are gradually released. For a long time, the gaseous molecule divergent element is positioned in the inner interlayer, receiving clean gas, and positioned in the position of the grid interval, the main purpose of improving the gas molecule acquisition rate.

Another object of the present invention is that the diffusing element is attached to the surface of a grafting unit, and one side of the grafting unit is bonded to the width of the grid area defined by the inner interlayer.

The third object of the present invention is that the dispersing element is a natural plant, and the dispersing element is a stably processed fine particle, and the dispersing element can be absorbed by the human respiratory organs.

The fourth object of the present invention is that the dispersing element is a medicinal material with curative effect elements, including western medicine or traditional Chinese medicine, which can release medicinal gas molecules and have the function of conditioning the respiratory organs.

The fifth object of the present invention is that the gaseous molecular dispersing element is a cotton-sheet-like graft formed by laying a large number of yarns. The connecting unit is mixed with a diffusing element, and the shape of the sheet is easy to adhere to the grid area provided by the filter surface.

The sixth object of the present invention is that the grafting unit, which is formed by laying a plurality of yarns, is compounded with a dispersing element to form a gaseous molecular dispersing element, and the entire periphery can be encapsulated by a pod. The diffusing element inside the gaseous molecule diffusing element performs the diffusing operation.

The seventh object of the present invention is the grafting unit, which is in the shape of an encapsulation pod with a cladding layer, and the cladding layer is fractured by external force to produce fine cracks, which can gradually release exogenous elements.

The eighth object of the present invention is that the gaseous molecule dispersing element is a sheet-shaped encapsulating back pod with a back cover, combined with the inner layer and located on the inner side of the inner interlayer, and the inner notch provided in the encapsulating back pod is directed to the inner layer through the inner layer. The skin-friendly side is conductive, and a pair of sealing films can be sealed on the outer surface of the inner and inner layer relative to the opening space of the inner notch.

10: Mask body

11: Outer cover

12: Adsorption layer

13: inner layer

14: inner mezzanine

15: Cover the filter surface

16: Nose bridge strip

17: Grid setting interval

18: Open width curtain

19: Window hole

100: Laminated fabrics

180: Folding line

A: Outside air

R: through-flow energy

F: Drain current beam

20: Divergent element of gaseous molecules

30: dispersin

31: Natural Flavor Particles

32: Medicinal particles

33: Essential Oils

40: Grafting unit

41: Grafting agent

42: Encapsulating Pods

43: Cladding

44: Yarn

45: Cotton fabric

46: capillary fibers

47: Clamp cabin

48: Combine the bottom surface

420: Crack

450: fusion point

50: Fuse mechanism

51: Supply unit

52: Mixing Unit

53: Heating unit

54: Meltblown unit

55: Ingredients unit

60: Pod

61: Opening

62: Pod

63: Paste the film

64: Bonding Line

65: Open windows

66: Front grille

67: Back

70: airtight enclosure

80: Encapsulated Back Pod

81: Inner groove pool

82: Inner notch

83: Flat side

84: Sewing wire

85: To stick the sealing film

86: accommodating space

90: Auxiliary layer cloth

91: Planning interval

300: Pass on equipment

400: Coating Device

Fig. 1 is a front view of the position of the gaseous molecule divergent element of the present invention.

Figure 2 is a top view of the gaseous molecule dispersing element of the present invention sandwiched inside the mask body.

Fig. 3 is a three-dimensional schematic diagram of the distribution of the gaseous molecular divergent elements of the present invention.

Figure 3-1 is a schematic diagram of the production of the granular grafting agent on the dots of the laminated fabric of the present invention.

Fig. 4 is a structural diagram of a gaseous molecule dispersing element of the present invention.

Fig. 5 is one of the structural diagrams of the gaseous molecules of the present invention.

Fig. 6 is the second structural diagram of the gaseous molecule divergent element of the present invention.

Fig. 7 is a schematic diagram of the yarn drawing device of the present invention.

Fig. 8 is a schematic diagram of the yarn binding dispersant of the present invention.

Fig. 9 is the fourth structural diagram of the gaseous molecule divergent element of the present invention.

Fig. 10 is a schematic diagram of the encapsulation of dispersin of the present invention.

Fig. 11 is a schematic diagram showing the unsealing of the pod-encapsulated dispersin of the present invention.

Fig. 12 is a schematic diagram of the pod-encapsulated yarn of the present invention.

Fig. 13 is a schematic diagram showing the combination of the pods of the present invention on the inner side of the skin.

Fig. 14 is a schematic diagram showing the packaging of the mask body by the airtight envelope of the present invention.

Fig. 15 is a schematic diagram of the present invention with an encapsulating back pod to complete the gaseous molecular diffusion element.

Fig. 16 is a schematic diagram of the external lamination of the encapsulation back pod to the lamination film of the present invention.

Fig. 17 is a cross-sectional view of the inner side of the inner layer of the encapsulating back pod of the present invention.

Fig. 18 is a schematic diagram of the opening and closing operation of the encapsulation back pod receiving the sealing film of the present invention.

Fig. 19 is a schematic diagram of another stacking method of the laminated fabric of the present invention.

The present invention filters the air conditioning mask, in order to provide the wearing and use, through the breathing air flow linkage and physical effect, to mix the molecules of a gaseous molecular divergent element in the conditioning mask for filtering air, mainly by a layer of fabrics stacked The mask body formed by threading has a width corresponding to the nostril covering position, and is set as a grid interval, and a gaseous molecular diffusing element containing gaseous molecular diffusing elements, which is planarly combined with the inner interlayer facing it through the grafting unit. The position of the grid area defined by a stack of fabrics, wherein the gaseous molecular dispersing element is formed by a grafting unit with glue function, and a dispersing element is attached to its surface, wherein the dispersing element is a natural plant dried and crushed The fine-grained natural fragrance particles or medicinal material particles.

The grafting unit is dotted or linearly distributed in the grid area of the filter surface, and is further formed by the grafting unit with glue function, which is formed by mixing diffusive elements in a unit volume, and is coated on the laminated fabric by glue or printing. An inner inner layer faces the inner side of the inner interlayer, and corresponds to the position of the grid interval.

The starting method of the gaseous molecule diffusing element is triggered by the exhaled water vapor of the human body, and the diffusing element undergoes micro-hydrolysis to gradually release the molecules of the target component, or it is triggered by the heat exhaled from the human body.

The composition of the gaseous molecular diffusing element is formed by at least one grafting unit with an encapsulating pod, and the diffusing element is loaded inside.

The gaseous molecular diffusing element is a cotton sheet-like grafting unit formed by laying many yarns. In the yarn, the diffusing element is attached to form. The diffusing element is attached to the surface of the yarn and can also be fused on the surface of the yarn. inside.

The gaseous molecular diverging element is composed of a diffusing element attached to the yarn, and is generally encapsulated by a pod that can be combined with the grid set on the filter surface. The layer corresponds to the opening-hole combination area, and a window hole is provided to provide the separation of the sealing film and the conduction of the inside of the pod.

The gaseous molecule diffuser is encapsulated by a cover sheet-shaped back pod. An inner groove pool is recessed in the middle of the web. The open side of the inner groove pool is an inner notch, and the flat side is sewn on the inner layer. On the inner side of the interlayer, the inner groove pool is encapsulated by the combined inner and inner layers of cloth to form a accommodating space, and the diffusing element is filled in the accommodating space, and a pair of sealing films that can be peeled off with bare hands are separated from the inner and outer layers. Sealing is performed relative to the inner notch area, wherein the threading wire is continuous, and the area of the adhesive sealing film is larger than the area surrounded by the threading wire.

For the detailed structure of the present invention and its working mode, please refer to the drawings and descriptions as follows:

First, please refer to FIG. 1, the part of the mask body 10 that provides the shielding organ is a filter surface 15, and the filter surface 15 is defined as a grid area 17 for the area where the nostrils flow through, and the grid area 17 A gaseous molecule dispersing element 20 is laid on the position in a horizontal manner.

The position of the grid section 17 can be positioned on the flat-sheet open-width curtain 18, or the gaseous molecules The diverging elements 20 can be folded with the same texture, and the position defined by the grid section 17 can also cover the linear position of the folding line 180 , and the grid section 17 is the upper section of the filter surface 15 close to the nose bridge bead 16 .

Please refer to FIG. 2 again, the gaseous molecule dispersing element 20 of the present invention is a planar structure, which is arranged on the inner surface of the inner layer 13 opposite to the inner interlayer 14 of the laminated fabric 100 constituting the mask body 10, Living in the defined grid area, after the user wears it, the airflow drawn in from the nostrils gathers into a suction and drainage beam F, and the external air A outside the filter surface 15 is linked by the suction and drainage beam F to form a negative pressure. The negative pressure The vector is the flow energy R, which is collected and assembled into a draining current beam F after being screened by the filter surface 15, and part of the flow line of the flow energy R will cut through the surface of the gaseous molecule diverging element 20, and the gaseous molecule diverging element The gas molecules of the dispersing element 30 contained in the surface body 20 are taken away in the direction of the draining beam F. Since the dissipating element 30 is carried by the deep and shallow layers of the body of the dispersing element 20 of the gaseous molecules, the release rate can be obtained slowly and gradually. divergence.

The gaseous molecule diffusing element 20 really has the diffusing function of odor molecules, and the circulating energy R will gather the odor emitted by the gaseous molecular diffusing element 20 in the absorbing current beam F, so as to provide the user with inhalation olfactory perception, and the gaseous molecular diffusing element The number 20 is located in the barrier setting section 17 located in the nostril, so the released extrinsic molecules 30 are concentrated in the draining current beam F, which can be captured by the nasal cavity with a high probability.

Please refer to FIG. 3 again, the grid area 17 is a position close to the nose bridge bead 16 , and the gaseous molecular diverging element 20 is directly combined with the inner layer 13 of the inner interlayer 14 to be aligned with the inner surface of the grid area 17 . interval.

The outside air is first intercepted by the outer shielding layer 11 and the adsorption layer 12, and then enters the space of the inner interlayer 14 to form clean air and then cuts through the surface of the gaseous molecular dispersing element 20. Aroma molecules, in this state, act on the gas of the gaseous molecule emitting element 20, By virtue of the high filtration of the outer cover layer 11 and the adsorption layer 12, the effect of sterilization and clean odor can be achieved, and mixed flow of mixed odors can be avoided.

The above-mentioned gaseous molecular diffusing element 20 is combined with the inner surface of the inner layer 13 relative to the inner surface of the inner interlayer 14 at the position of the grid interval 17. Of course, it can also be combined with the surface of the adsorption layer 12 facing the inner layer 13 to be in the grid interval 17 position. The gaseous molecular dispersing element 20 is arranged on the inner surface of the inner layer 13 , so that the filtering efficiency of the adsorption layer 12 will not be interfered at all.

Please refer to Fig. 3-1 again, the present invention implements a point or line grafting agent 41 on a surface of a selected layered fabric 100, which can be sorted by transition sub-stations, and the roll-shaped fabric can be made from the original fabric. The surface of the traveling belt body proposed by the material is firstly coated with the grafting agent 41 in the planned planning interval 91 by a coating device 400. Before the surface of the coated grafting agent 41 monomer is not dry and solidified, there are still In the state of the adhesion ability, the dispersing element 30 is subsequently adhered by a transfer device 300, so that the dispersing element 30 can be attached to the three-dimensional surface of the grafting agent 41 that has a shape in advance, wherein the dispersing element 30 is powder or powder. The dispersing agent 30 can generate an impulse to apply the three-dimensional surface of the grafting agent 41, and the bottom surface of the grafting agent 41 is glued on the surface of the laminated fabric 100.

After the above-mentioned operations of the coating device 400 and the transfer device 300 , the overall arrangement of the gaseous molecular dispersing element 20 is completed after curing, and the curing is performed at room temperature to prevent heat from dislodging the internal components of the dissipating element 30 .

After the deployment of the gaseous molecular dispersing elements 20 of the above-mentioned laminated fabric 100 is completed, the laminated fabric 100 can be temporarily rolled into a roll, or directly stacked in the lamination procedure of each cloth material in the mask manufacturing process.

Please refer to FIG. 4 again, the gaseous molecular diffusing element 20 is selected to be combined on the web of a laminated fabric 100, wherein the laminated fabric 100 is preferably selected on the inner surface of the inner layer 13 to form the gaseous molecular diffusing element One of the embodiments of 20 is to use the grafting unit 40 with adhesion efficiency, to form a grafting agent 41 after adhering the inner and inner layers 13 on one side, and laying the shape before the surface body of the grafting agent 41 is not cured. The particulate natural fragrance particles 31 or medicinal material particles 32 are formed to form the gaseous molecular dispersing element 20 .

The grafting agent 41 is implemented (please match as shown in Fig. 3), in the standard interval of the grid area 17, with discrete or array coordinate positions, by dot-like gluing or printing gluing, forming a multi-point type The distribution is combined in the specified grid interval 17, the bottom surface of the grafting agent 41 is combined with the fibers of the inner layer 13, and the remaining exposed surfaces are fed with the diffusing element 30 by sticking or pressure introduction. The diffusing element 30 is essentially fine. The powdered natural herbs or woods have particles of target ingredients that can be absorbed by the human respiratory organs. The particles can be spice particles 31 or medicinal particles 32. After dispersing elements 30 are respectively arranged on the surface of most grafting agents 41, the gaseous molecules are completed. The dispersing element 20 is a whole, wherein the grafting agent 41 is curable and shaped.

The spacing value of the discrete distribution can be equidistant, or distributed at a distance of proportional series, and by this spacing, the flow energy R streamline of the respiratory airflow can be provided, which can pass through any redundant grid in the interval 17. If the space is printed by gluing, the film (grafting agent 41) can be applied by transfer or screen printing. In addition to dots, it can also be printed as a single-sided coating. The section of the grid section 17 is either mesh, or line, or any combination of patterns, and there are blank spaces in the width to provide airflow therethrough.

Please refer to FIG. 5 again, the grafting unit 40 implemented by the gaseous molecular dispersing element 20 uses the grafting agent 41 to have an adhesive effect. The dispersing element 30 is mixed before distribution, and the mixing is determined according to the dispersing rate of the dispersing element 30. The mixing ratio of the grafting agent 41 and the dispersing element 30, after mixing, by its fluidity according to the distribution method shown in Figure 3, the distribution is completed by dot-like injection or any pattern printing method, and after curing, the grafting unit 40 of the mixture is applied. Inside and outside, that is, there are diffusing elements 30 distributed, and when the external airflow is cut, the diffusing elements 30 will be slowly released.

If the above-mentioned dispersing element 30 is the medicinal material particles 32, the forming basis can be a suitable filler such as starch. Similar or natural glue such as honey, etc., and then through the grafting agent 41 to bond the position of the attached grid section 17 .

Please refer to FIG. 6 again, the gaseous molecule dispersing element 20 of the present invention is implemented again, in order to use the encapsulation pod 42 whose body is a sheet, the inner cladding layer 43 includes a clamping compartment 47, and the bottom is a joint bottom surface 48 , the combined bottom surface 48 is designed to be combined with the inner surface of the inner layer 13, and the set compartment 47 is filled with a dispersing element 30, which is a powdered natural fragrance particle 31, a medicinal material particle 32, or a liquid essential oil. 33. This activation method can be achieved by encapsulating the body of the pod 42 or at least the hydrolysis of the cladding 43, and being moistened by exhaled water vapor, so that it produces a membrane hole state and releases the internal components.

Another activation method is to encapsulate the body of the pod 42 by gluing the structure, which can be torn by external force, so at least the cladding 43 can be cracked through the force of finger pulling to break the crack 420, and the crack 420 is in the shape of a slit, providing The internal diffusing element 30 is gradually released to the outside, and because the crack 420 is in the shape of a torn slit, the odor molecules of the internal diffusing element 30 are limited by the crack 420 and slowly released to the outside.

If the dispersing element 30 is a liquid essential oil 33, capillary fibers 46 can be simultaneously filled in the encapsulating pod 42, and the capillary fibers 46 can adsorb the liquid essential oil 33 in space, and can temporarily block the essential oil 33 seeps to the outside, and the odor molecules that occur are also released to the outside through the crack 420. The crack 420 also produces a pressure difference due to the small gap, and slightly seeps out of the essential oil 33, but also due to the micro-gap interference of the crack 420, Therefore, the release of the essential oil 33 is also slow.

The above-mentioned encapsulating pod sheet 42 has a cladding layer 43 that can be torn by finger pressure on its surface. The encapsulating pod sheet 42 is essentially an airtight and impermeable adhesive material such as a general crystal sphere, and has elastic recovery ability. The cracks 420 are formed, and the opposing fine slit groove surfaces will recover and close due to the elastic ability, so the shape of the cracks 420 is a fine slit, which can effectively contain the liquid essential oil 33 in the compartment 47. Therefore, after activation, the The inner essential oil 33 will not collapse immediately, resulting in a long-term gradual release, which is conducive to the long-term wearing of the mask program cooperation.

Furthermore, the breaking method of the cladding layer 43 can be carried out by a general crushing or tearing method. Even if it is operated by crushing, because the enveloping pod sheet 42 is in the shape of a sheet, its area perpendicular to the crushing force is very large. At the moment when the cladding 43 is broken again, most of the volume of the essential oil 33 inside is avoided due to the flat space of the pod 47, and will not be squeezed out in the same direction due to the burst pressure. In addition, the flat area of the enveloping pod 42 can be larger than Finger presses the area of the force point, so the essential oil 33 is intended to be avoided by spreading laterally on one side, and the material of the cladding 43 is a material that can be torn by an oblique component force, and its tensile strength is less than the combination with the inner layer 13. the bottom surface, which can be more easily torn.

Please refer to Figures 7, 8, and 9 again, the predecessor of the grafting unit 40 of the present invention can be converted into a plurality of assembled yarns 44, and the yarns 44 are formed by a hot working method through a fuse mechanism 50, The fuse mechanism 50 is provided with a supply unit 51 for inserting plasticizing raw materials for forming the yarn 44, a batching unit 55 for inserting selected dispersants 30, uniformly mixed by a mixing unit 52 and then heated by the heating unit 53 for heat fusion , and then extruded by a melt-blown unit 54. After the yarn 44 is extruded by the melt-blown unit 54, its cross-section can be thick, and the subsequent processing method of thermal drawing (not shown in the figure) can be used to draw the yarn 44. The yarn 44 stretches its length and at the same time refines its cross-section into a filamentous material.

Please refer to FIG. 8 again, the yarn 44 formed by the above-mentioned hot extrusion and drawing has at least dispersant 30 distributed on its surface.

Please refer to FIG. 9 again, most of the yarns 44 formed by drawing are mixed into a sheet-like cotton fabric 45 to form the gaseous molecular dispersing element 20, and at least the surface of the yarn 44 is formed with dispersing elements 30, or in the gap of the mixed weaving, the dispersing element 30 is additionally laid. Since the yarn 44 is a hot-melt plasticized material, it is fixedly combined with the inner layer 13 by the welding point 450 for hot-melting.

The dispersing element 30 can be natural fragrance particles 31 or medicinal material particles 32, or liquid essential oils 33. The dispersing element 30 can be added through the mixing shown in Fig. 7, or after the cotton sheet fabric 45 is completed, including interweaving gaps on the overall surface.

Please refer to Figures 10 and 11 again, the present invention further provides a pod 60 with a pod 62 formed inside and an opening 61 formed on the front surface. The opening 61 is sealed by the sealing film 63, and the periphery is combined The wire 64 can be heat sewed, the back surface 67 is bonded to the outer surface of the inner layer 13, and the interior of the pod 62 provides a storage of the diffusing element 30 to form the gaseous molecular diffusing element 20.

The above-mentioned pod body 60 can be a glued air-tight material, or a fiber woven product, and the body can contain fine natural fragrance particles 31, medicinal material particles 32, or liquid essential oils 33 according to the material, and the package body is provided with a front grid plate. 66. The front grid plate 66 is provided with an opening 61 to conduct the interior. When the front grid plate 66 is put out before use, the outer surface of the front grid plate 66 is sealed by the sealing film 63.

The sealing film 63 set on the pod 60 is to close the opening 61 in advance. After the sealing film 63 is opened, the opening 61 is exposed, so that the diffusing element 30 inside the pod 62 can be diffused outward through the opening 61, basically. The diffusing element 30 accumulated in the upper interior is blocked by the front grille 66 and the small openings 61, and the sealing film 63 is sealed and enclosed inside the pod 62. Before the sealing film 63 is not opened, The dispersant 30 may be hermetically sealed within the pod 62 .

Please refer to FIG. 12 again, the gaseous molecular dispersing element 20 of the present invention is encapsulated with a pod 60, and the inside of the pod 60 can be laid with a cotton fabric 45 integrated with the yarn 44 of the dispersing element 30, then the front grid The panel 66 can be opened with large openings 65 to provide exposure of the inner batt fabric 45.

Please refer to Fig. 13 again, the encapsulation of the pod 60 is implemented. The direction of the combination of the pod 60 and the mask body 10 can also be designed to be embedded in the inner layer 13. The inner layer 13 is previously defined as a grid area. At the position of 17, there is a window hole 19, and the periphery of the pod body 60 is a space arranged by a bonding line 64. Whether it is the structural design of Figure 11 or Figure 12, the pod body 60 can be set on the inner side of the inner layer 13, so Assume The bonding line 64 is attached to the inner side of the inner layer 13. The width of the window hole 19 is larger than that of the sealing film 63, so the sealing film 63 can be peeled off and removed from the window hole 19, and the pod is lifted out. The front of the pod 60 is exposed, and the pod 60 can directly radiate the radiating element 30 carried by the pod 60 as shown in FIG. 11 or FIG. 12 .

Please refer to FIG. 14 again, the overall appearance of the mask body 10 completed in the above-mentioned various ways can be hermetically sealed by a hermetically sealed body 70, which can be in the shape of an aluminum foil and is subjected to vacuum pressure the packaging body.

Please refer to Figures 15, 16 and 17 again, another implementation of the present invention is to use an encapsulation back pod 80 which can be combined with the inner layer 13 and is formed of an impermeable and airtight material, which is positioned on the inner layer 13 and adsorbs The space position of the inner interlayer 14 of the layer 12, the center of the encapsulation back pod 80 is recessed with an inner groove pool 81 for the storage of the diffusing element 30, and the surrounding is that the flat side 83 is attached to the inner side of the complete inner layer 13 and is located in the inner interlayer. 14 space, and is thermally bonded from the back to the inner surface of the inner layer 13 through the threading wire 84 to encapsulate the inner groove pool 81 recessed inward from the center of the back pod 80, and the inner surface of the inner layer 13 is opposite to each other. An accommodating space 86, the accommodating space 86 is provided for storing the dispersing element 30, the dispersing element 30 can be in a powder state or a liquid state, and the dispersing element 30 in a liquid state can be absorbed by the capillary fibers 46, and the dispersing element 30 is in a liquid state The thread line 84 can also form a closed line shape. The periphery of the inner groove pool 81 is the inner slot 82, including the area of the thread line 84 enclosed by the frame, which is facing away from the inner surface of the complete inner layer 13.

The encapsulation back pod 80 is concave with an inner groove pool 81, which provides the storage of the dispersing element 30, and the contracted structure is that the inner groove 82 of the inner groove pool 81 is covered by the inner side of the inner lining layer 13 that fits. , so the diffusing element 30 is blocked by the inner layer 13 and will not drop to the outer surface of the inner layer 13 .

Please refer to FIG. 18 again, the listed areas of the inner notch 82 and the threading wire 84 correspond to the inner surface of the inner layer 13 , and the formed inner notch 82 that can be exposed to the outside includes the threading wire 84 , which can be formed from one side. The sealing property whose area is larger than the area of the frame edge of the threading wire 84 is sealed to the sealing film 85. The pair of sealing films 85 are separated by the area of the entire inner layer 13 and cover the inner layer 13, the threading wire 84 and the inner groove. Space for mouth 82.

The sealing film 85 is connected to the inner layer 13 to cover the area space of the threading wire 84 and the inner slot 82, so as to protect the odor molecules inside the gaseous molecule dispersing element 20 from dissipating outside before use. 80 is provided with an inner groove pool 81, and the inside is provided with the dispersing element 30 for storage, and the inner notch 82 of the encapsulating back pod 80 is blocked by the inner layer 13, so that the inner dispersing element 30 will not fall out. The space of the slot 82 is sealed by a pair of sealing films 85. Before the pair of sealing films 85 are opened, the diffusing element 30 can be protected from the inside and the outside.

If the dispersing element 30 is in a liquid state, the threading wire 84 can be in the shape of a continuous line with a width. After the hot-melting operation, the threading wire 84 and the jointed inner layer 13 are a pair of stick welding The wire-belt structure is formed so that a closed-width wire-belt is formed on the outside of the inner layer 13, and the wire-belt-shaped surface facing outward after sintering can be used for the sealing object of the sealing film 85 to be adhered and sealed by the sealing film 85 to maintain The liquid dispersing element 30 is sealed and sealed before use.

The above-mentioned encapsulation back pod 80 is implemented as a gaseous molecular dispersing element 20, the internal dispersing element 30 is blocked by the inner and inner layer 13, the inner notch 82 is set to the outside through the inner and inner layer 13, and the outer surface of the inner and inner layer 13 is then peeled off by a peelable pair of stickers. The sealing film 85 is sealed, and the operation of opening and use is to peel off the sealing film 85. The inner groove 82 of the inner groove pool 81 faces the passage of the capillary or pore of the inner and inner layer 13, and the inner groove is separated. The diffusing element 30 contained in the pool 81 is released from the corresponding opening.

With this structure, before opening, the surface of the skin-friendly side of the inner layer 13 can be seen to be attached to the sealing film 85 in a sheet shape. After peeling off the sealing film 85 during use, the outer surface of the inner layer 13 is a complete one. Woven into a web.

In the above implementation, the release state of the dispersing element 30 is based on its properties. If it is the essential oil 33, it can be slowly released by its volatile properties. If it is filled and shaped, it will be hydrolyzed and cracked to expose the odor. Molecules, the hydrolysis operation can gradually decompose fragrance or medicinal molecules by the action of water vapor exhaled by the human body, or by catalytic cracking of exhaled air temperature, so as to provide users with inhalation perception.

Please refer to Fig. 19 again, the present invention provides a kind of effective and safe blocking foreign matter, and the air inhaled by the user is clean and mixed with additional odor molecules, and an auxiliary layer of cloth 90 is made of the material. The area of the planned section 91 of the cloth 90 is combined with the gaseous molecular diffusion element 20, which is transferred by the grafting unit 40. The implementation of the grafting unit 40 can be similar to the method of Fig. 3-1 to form an array The distribution of the shape is completed by the subsequent implementation of the compounding of the dispersing element 30, and the auxiliary layer cloth 90 of the gaseous molecular dispersing element 20 is completed, which is spaced between the outer shielding layer 11 and the adsorption layer 12. In this structure, if the dispersing element 30 is in powder state, part of it will be detached by external force, and after the detachment, the detached powder can be blocked by the outer shielding layer 11 and the adsorption layer 12 through the filtration of the adsorption layer 12 . In the outer interlayer, through the high-density filtration or adsorption of the adsorption layer 12, the dust will not enter the inner and inner layer 13, which can completely block foreign matter from entering the respiratory organ.

The gaseous molecular dispersing element 20 distributed by the auxiliary layer cloth 90 can be implemented on the side of the auxiliary layer cloth 90 facing the outer shielding layer 11 or the side facing the adsorption layer 12. If the dispersing element 30 on the main body has debris Falling off, the adsorption layer 12 can be used as an external previous blocking as its basic goal, and the grafting units 40 are distributed in the planning interval 91. The interval shown in Fig. 3).

In the present invention, a grid interval is defined in the interval corresponding to the nostril breathing air flow path formed by the mask body and the filter surface, and the plane of the grid interval is combined with gaseous molecule divergent elements, and the gaseous molecules emit light. The dispersing element is a space position that can be combined with the inner side of the inner layer corresponding to the grid setting interval, and the gaseous molecular dispersing element is formed by combining the diffusing element with a grafting unit, and the grafting unit can be a grafting agent mixed with powdered natural spice particles or medicinal material particles bonded together It is fixed to form a gaseous molecular divergent element, or mixed with powdered natural fragrance particles or medicinal material particles through yarn to form a linear shape. Most of them are blended into a cotton sheet fabric. The present invention further implements a grafting unit with an encapsulated pod sheet in the liquid essential oil. , the interior provides liquid essential oil, and even contains natural fragrance particles, medicinal material particles powder state encapsulation, through manual fracturing to generate cracks and slowly release dispersant, and the use of a pod inclusion method, internal It contains natural fragrance particles, medicinal material particles and even essential oils, which can be opened by the sealing film to open the channel for the external release of the diffusing element, or it is further provided with an encapsulating back pod, which provides a storage for the diffusing element inside. The side is the opposite side of the inner interlayer that is attached to the inner layer, and a pair of sealing films are attached to the inner notch of the back pod through the cloth surface of the inner layer. These implementations provide an innovative mask that can be diffused and adjusted. The scent of the senses, or the medicinal materials with respiratory curative effect, and through the encapsulation method of the pod or the encapsulation of the back pod, the medicinal properties can be maintained or the aroma contained in it can not be radiated. It is an innovative structural design. And pray for the patent as soon as possible.

10: Mask body

11: Outer cover

12: Adsorption layer

13: inner layer

14: inner mezzanine

16: Nose bridge strip

17: Grid setting interval

100: Laminated fabrics

R: through-flow energy

20: Divergent element of gaseous molecules

40: Grafting unit

Claims (10)

A conditioning mask for filtering gas, which is used for wearing and using, through the linkage of breathing airflow and physical effects, to mix the molecules of a gaseous molecular divergent element in the conditioning mask for filtering air, comprising: The mask body formed by threading and joining, the laminated fabric is divided into an outer cover layer, an adsorption layer and an inner and inner layer in sequence from the outside to the inside, and the inner layer and the adsorption layer are opposite each other. The overlapping position is set as a grid setting interval; a gaseous molecular diffusing element containing the gaseous molecular diffusing element that can be triggered by the human respiratory airflow and gradually release the target component, is combined with the grid defined by the inner interlayer through the plane of the grafting unit A section is set to be fixed on the surface of the facing laminated fabric; wherein the gaseous molecular dispersing element is a fine particle that is dried and crushed from a natural plant. For the filtering gas conditioning mask described in the first item of the claimed scope, the gaseous molecular dispersing element can also be formed by adhering the gaseous molecular dispersing element on the surface of the grafting unit with glue function. For the filtering gas conditioning mask described in item 1 of the scope of application, the gaseous molecular dispersing element can also be formed by mixing a gaseous molecular dispersing element with a grafting agent with glue function in a unit volume. A conditioning mask for filtering gas, which is used for wearing and using, through the linkage of breathing airflow and physical effects, to mix the molecules of a gaseous molecular divergent element in the conditioning mask for filtering air, comprising: The mask body formed by threading and joining, the laminated fabric is divided into an outer cover layer, an adsorption layer and an inner and inner layer in sequence from the outside to the inside, and the inner layer and the adsorption layer are opposite each other. In the covering position, there is a grid setting section; a grafting unit composed of a plurality of yarns paved into a cotton fabric body, in the cotton fabric body, attached The gaseous molecular diffusing element, which is triggered by the human body's breathing airflow and gradually releases the target component, constitutes a gaseous molecular diffusing element. The gaseous molecular diffusing element is generally encapsulated by a pod that can be combined in the grid area. One side of the skin-friendly direction is provided with an opening. The filtration gas conditioning mask as described in item 4 of the scope of the application, wherein the dispersing agent is either fine particles of natural plants that are dried and crushed to retain the target ingredients, or an extracted essential oil. The filter gas conditioning mask described in item 4 of the scope of the patent application, wherein the inner layer corresponds to the facing section of the opening provided in the pod body, and a window hole is provided, and a sealing film is provided to seal the opening of the pod body, or peel off to conduct the inside of the pod. A conditioning mask for filtering gas, which is used for wearing and using, through the linkage of breathing airflow and physical effects, to mix the molecules of a gaseous molecule divergent element in the conditioning mask for filtering air, comprising: an outer cover layer, an adsorption layer , The mask body formed by the combination of the inner and the inner layers, the inner layer and the adsorption layer are paired with each other as an inner interlayer, and the inner interlayer corresponds to the nostril covering position, which is set as a grid interval; a gaseous molecule divergent element, combined with In the inner interlayer where the inner and inner layers are opposite to each other, the side is located in the position of the grid setting interval, and the gaseous molecular dispersing element further comprises: a cover sheet-shaped encapsulating back pod, and an inner groove pool is recessed in the middle of the web, The open side of the inner groove pool is an inner notch, the inner notch is connected to the flat side on the periphery, and the flat side is sewn to the inner layer and located on the inner side of the inner sandwich layer. Encapsulated into a accommodating space; a diffusing element is filled in the accommodating space; A pair of sealing films that can be peeled off with bare hands are used to seal the outer surface of the inner and inner layers relative to the inner notch area. The filtration gas conditioning mask as described in item 7 of the scope of the application, wherein the dispersing element is a natural plant that has been dried and crushed, and retains both fine particles of the target ingredient that can be absorbed by the human respiratory organs, or an extracted essential oil. Choose one of them. The filtering gas conditioning mask as described in item 7 of the scope of the patent application, wherein capillary fibers are stored in the accommodating space formed by the encapsulating back pod. As described in item 7 of the patent application scope, the air conditioning mask for filtering gas, wherein the gaseous molecule dispersing element is activated by triggering the exhaled gas of the human body, and the dispersing element undergoes microlysis to gradually release the molecules of the target component.

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