A multi-sensory sleep aid eye mask

Abstract

This utility model relates to the field of eye mask technology, specifically disclosing a multi-sensory sleep-aiding eye mask that can enhance sleep-inducing effects. It includes an eye mask body for wearing on the user's head, comprising a first side that conforms to the head and a second side facing away from the head. The first side has eye areas corresponding to the eyes and surrounding area, acupoint areas located on either side of the eye areas and corresponding to the temples, and a back-of-the-head area surrounding and corresponding to the back of the head. A far-infrared radiation layer is provided in the eye areas, and a mounting base is fixed in the acupoint areas. A scented pad that releases sleep-inducing active ingredients is detachably attached to the mounting base. This multi-sensory sleep-aiding eye mask, by incorporating a far-infrared radiation layer and scented pads, and physically blocking light through the eye mask body, can improve the sleep environment from multiple dimensions such as vision, temperature, and smell, achieving a synergistic effect of multiple senses, enabling the user to quickly enter a sleep state, and effectively enhancing the sleep-inducing effect of the multi-sensory sleep-aiding eye mask.

Description

Technical Field

[0001] This utility model relates to the field of eye mask technology, and in particular to a sleep-aiding eye mask with multi-sensory effects. Background Technology

[0002] An eye mask is a tool that physically blocks light, creating a dimmer environment for the eyes to reduce light stimulation and promote sleep. Depending on their function, eye masks are mainly divided into ordinary light-blocking eye masks, smart eye masks, and medical-grade steam eye masks. Smart and steam eye masks, due to their complex internal structures and the use of plastic parts to protect internal electrical components, are generally larger and heavier. This can cause discomfort when the user is lying down, as the eye mask can exert greater pressure on the eyes. Therefore, ordinary light-blocking eye masks remain the preferred choice for many consumers due to their small size, light weight, and ease of storage. However, ordinary light-blocking eye masks only provide light blocking and have limited functionality, making it difficult to coordinate the user's sleep environment from multiple sensory perspectives, resulting in a relatively insufficient sleep-aiding effect. When users have difficulty falling asleep, they may need to use sleep-aiding essential oils or eye heat therapy devices in the room, often requiring the purchase of multiple sleep aids, increasing their overall cost. Utility Model Content

[0003] Therefore, it is necessary to address the above-mentioned shortcomings by providing a multi-sensory sleep aid eye mask that can enhance sleep-aiding effects and reduce the cost of purchasing the product for users.

[0004] A multi-sensory sleep aid eye mask includes an eye mask body for wearing on a user's head. The eye mask body includes a first side that fits against the human head and a second side that faces away from the human head. The first side has eye areas corresponding to the eyes and the area around the eyes, acupoint areas located on both sides of the eye areas and corresponding to the temples, and a back-head area surrounding and corresponding to the back of the head. A far-infrared radiation layer is provided at the eye areas, and a mounting base is fixed at the acupoint areas. A scented tablet that can release sleep-aiding active ingredients is detachably attached to the mounting base.

[0005] In one embodiment, the far-infrared radiation layer includes at least one first far-infrared radiation protrusion fixed at the eye area and corresponding to an acupoint, and a plurality of second far-infrared radiation protrusions evenly distributed corresponding to both eyes and the periorbital area. The width or diameter of the first far-infrared radiation protrusion is greater than the width or diameter of the second far-infrared radiation protrusion, and the thickness of the first far-infrared radiation protrusion is greater than the thickness of the second far-infrared radiation protrusion.

[0006] In one embodiment, the first far-infrared radiation bump and the second far-infrared radiation bump are attached to the first surface by printing.

[0007] In one embodiment, the thickness of the first far-infrared radiation bump is 0.5mm-1mm, and the thickness of the second far-infrared radiation bump is 0.2mm-0.6mm.

[0008] In one embodiment, the multi-sensory sleep aid eye mask further includes an NFC chip for sensing with the NFC antenna of an external smart mobile terminal and enabling the external smart mobile terminal to play sleep aid audio; the NFC chip is housed within the eye mask body and corresponds to the back of the head; or the NFC chip is fixed on the second surface at a location corresponding to the back of the head, and a protective label is affixed to the surface of the NFC chip and fixedly connected to the second surface of the eye mask body.

[0009] In one embodiment, the mounting base is heat-pressed or bonded to the acupoint area, and the incense stick is bonded to the mounting base or fixedly connected by Velcro.

[0010] In one embodiment, the incense pad is in the shape of a disc, and the mounting substrate is in the shape of a disc or a racetrack; when the mounting substrate is in the shape of a disc, the diameter of the mounting substrate is larger than the diameter of the incense pad; when the mounting substrate is in the shape of a racetrack, the length of the mounting substrate is larger than the diameter of the incense pad.

[0011] In one embodiment, a pattern embossing area is provided on the side of the incense stick facing away from the mounting substrate.

[0012] In one embodiment, the lower part of the eye mask body is provided with a V-shaped or U-shaped notch in the area corresponding to the bridge of the nose, which is adapted to the shape of the bridge of the nose.

[0013] In one embodiment, the eye mask body is a ring structure, and at least the part of the eye mask body corresponding to the back of the head is made of elastic material; or the eye mask body is a strip structure, with a first side of one end of the eye mask body having a hook and loop fastener male side, and a second side of the other end of the eye mask body having a hook and loop fastener female side that mates with the hook and loop fastener male side.

[0014] This invention relates to a multi-sensory sleep-aiding eye mask. By incorporating a far-infrared radiation layer in the eye area and detachably attaching scented patches to acupoints, the user can improve their sleep environment visually by physically blocking light through the eye mask itself. The far-infrared radiation layer emits far-infrared rays under body temperature, resonating with molecules in human cells, water, and blood to generate an internal heat effect. This promotes microvascular dilation, accelerates blood circulation and metabolism, and improves the user's sleep state through temperature sensitivity. Furthermore, the absorption of sleep-aiding ingredients released by the scented patches can soothe the user's nerves and regulate their emotions. It also lowers cortisol levels and improves the user's sleep state through the sense of smell. In this way, it improves the sleep environment from multiple dimensions such as vision, temperature, and smell, achieving a multi-dimensional sensory synergy that allows users to quickly fall asleep and effectively enhances the sleep-aiding effect of the eye mask. This multi-sensory sleep-aiding eye mask can achieve multiple functions such as light blocking, release of aromatic substances, and internal heat effect to improve blood circulation. Only one multi-sensory sleep-aiding eye mask needs to be purchased to replace ordinary light-blocking eye masks, sleep-aiding essential oil release devices, and eye heat compress devices, achieving multiple uses with one mask. Users do not need to purchase multiple related products, reducing the user's purchase cost. Attached Figure Description

[0015] Figure 1 This is a rear view of a multi-sensory sleep aid eye mask in one embodiment of the present invention;

[0016] Figure 2 This is a front view of a multi-sensory sleep aid eye mask in one embodiment of the present invention;

[0017] Figure 3 This is a front view of the incense tablet in one embodiment of the present invention. Detailed Implementation

[0018] To make the above-mentioned objects, features, and advantages of this utility model more apparent and understandable, the specific embodiments of this utility model will be described in detail below with reference to the accompanying drawings. Many specific details are set forth in the following description to provide a full understanding of this utility model. However, this utility model can be implemented in many other ways different from those described herein, and those skilled in the art can make similar modifications without departing from the spirit of this utility model. Therefore, this utility model is not limited to the specific embodiments disclosed below.

[0019] Please combine Figure 1-3This invention provides a multi-sensory sleep aid eye mask that enhances sleep-inducing effects. The eye mask includes an eye mask body 100 for wearing on the user's head. The eye mask body 100 includes a first side that conforms to the user's head and a second side that faces away from the head. The eye mask body 100 is made of two layers of fabric sewn together, and has a cavity inside. The side of the inner fabric that conforms to the skin is the first side, and the side of the outer fabric that contacts the external environment is the second side. In actual production, an opening communicating with the cavity can be made in the inner fabric as needed, so that an external ice water bag can be inserted into the cavity through the opening to achieve an ice compress on the eyes; or a thickened cotton cloth or light-blocking cloth can be placed inside the cavity to improve the light-blocking effect of the eye mask body 100. In this embodiment, the outer layer of the eye mask body 100 is made of 74% nylon and 26% spandex, while the inner layer is made of 87% nylon and 13% spandex. This ensures that the first surface of the eye mask body 100 is relatively soft, improving wearing comfort, while also making the second surface relatively stiff to meet the shape requirements of the sleep-aid eye mask. In actual production, the eye mask body 100 can also be made of a fabric with good elasticity. For example, both the inner and outer layers of the eye mask body 100 can be made of a composite fabric of spandex, knitted cotton, elastic silk, or elastic memory foam.

[0020] In this embodiment, the first surface has an eye area 110 corresponding to the eyes and the area around the eyes, an acupoint area 120 located on both sides of the eye area 110 and corresponding to the temples, and a back-head area 130 surrounding and corresponding to the back of the head. In one embodiment, the eye mask body 100 has a ring structure, and at least the portion of the eye mask body 100 corresponding to the back-head area 130 is made of elastic material. Thus, during the wearing of the sleep aid eye mask, it can be worn by putting the sleep aid eye mask on the top of the head and pulling it down until the eye area 110 and acupoint area 120 of the eye mask body 100 cover the user's eyes and temples respectively. In another embodiment, the eye mask body 100 has a strip-shaped structure. The two ends of the eye mask body 100 can be detached or joined together. A first surface of one end of the eye mask body 100 is provided with a hook and loop fastener male surface 140, and a second surface of the other end of the eye mask body 100 is provided with a hook and loop fastener female surface 150 that mates with the hook and loop fastener male surface 140. Thus, when the hook and loop fastener male surface 140 and the hook and loop fastener female surface 150 are attached, the two ends of the eye mask body 100 together form the back head area 130. In other embodiments, the eye mask body 100 can be designed as an asymmetrical strip-shaped structure, so that the two sides of the eye area 110 are of different lengths. In this case, the longer end of the eye mask body 100 wraps around the back of the user's head and connects to the other end of the eye mask body 100 on the side of the user's head. In this case, the two ends of the eye mask body 100 can be joined together by snaps or other fasteners to avoid discomfort caused by the back of the head resting on the fasteners when the user is lying down.

[0021] In this embodiment, a far-infrared radiation layer 200 is provided at the eye area 110, and a mounting substrate 300 is fixed at the acupoint area 120. A scented sachet 400, capable of releasing sleep-aiding active ingredients, is detachably attached to the mounting substrate 300. The mounting substrate 300 provides a mounting portion for the scented sachet 400 on the acupoint area 120 on its first surface, thus achieving fixed mounting of the scented sachet 400 on the first surface. In one embodiment, the far-infrared radiation layer 200 is a single thin layer coated with far-infrared radiation powder on the eye area 110. In another embodiment, the far-infrared radiation layer 200 includes at least one first far-infrared radiation protrusion 210 fixed at the eye area 110 and corresponding to an acupoint, and a plurality of second far-infrared radiation protrusions 220 evenly distributed corresponding to both eyes and the periorbital area. In this way, by dispersing the far-infrared radiation protrusions to form the far-infrared radiation layer 200, the far-infrared radiation layer 200 can be prevented from breaking under external bending force or pressure when the far-infrared radiation layer 200 is thick, so as to ensure the reliability of the structure of the far-infrared radiation layer 200.

[0022] In this embodiment, at least one first far-infrared radiation protrusion 210 is provided at the location corresponding to the Yintang acupoint in the eye area 110. Traditional Chinese medicine theory holds that the Yintang acupoint is located on the Du meridian, which is known as the "Sea of ​​Yang Meridians," governing all the Yang energy in the body. Stimulating the Yintang acupoint can regulate the flow of Yang energy, promoting its smooth circulation and thus balancing Yin and Yang. When Yin and Yang are balanced, the flow of Qi and blood in the body is smoother, helping to improve sleep quality and achieving a calming and sleep-inducing effect. Furthermore, the heart governs the mind, and the Yintang area is closely connected to the heart. Stimulating the Yintang acupoint can improve restlessness by regulating the Qi and blood of the heart meridian, thereby aiding sleep. Modern medical theory suggests that stimulating the Yintang acupoint can regulate the function of the nervous system. Through nerve reflexes, it affects the excitation and inhibition processes of the cerebral cortex, alleviating the excitation state of the cerebral cortex and inducing the body to enter a relaxed state, promoting sleep. Simultaneously, this stimulation may also affect the endocrine system, prompting the body to secrete hormones that promote relaxation and sleep, such as melatonin. Furthermore, in this embodiment, three first far-infrared radiation protrusions 210 are respectively provided at the eye area 110, corresponding to the Yintang acupoint, Wangu acupoint, and Fengchi acupoint. In this way, the first far-infrared radiation protrusions 210 interact with the user's subcutaneous cells and tissues under the action of body temperature, and generate an internal heat effect, which can stimulate acupoints including the Yintang acupoint to achieve the effects of calming the liver and suppressing yang, calming the mind and soothing the nerves, thereby relieving insomnia.

[0023] The width or diameter of the first far-infrared radiation protrusion 210 is greater than the width or diameter of the second far-infrared radiation protrusion 220, and the thickness of the first far-infrared radiation protrusion 210 is greater than the thickness of the second far-infrared radiation protrusion 220, so as to enhance the effect of the far-infrared radiation layer 200 on the acupoints in the eye area 110. In one embodiment, the thickness of the first far-infrared radiation protrusion 210 is 0.5mm-1mm, and the thickness of the second far-infrared radiation protrusion 220 is 0.2mm-0.6mm. Preferably, the thickness of the first far-infrared radiation protrusion 210 is 0.8mm, and the thickness of the second far-infrared radiation protrusion 220 is 0.4mm.

[0024] The first far-infrared radiation bump 210 and the second far-infrared radiation bump 220 are attached to the first surface by printing. Specifically, the first far-infrared radiation bump 210 and the second far-infrared radiation bump 220 are attached to the eye area 110 of the first surface by printing far-infrared radiation powder. Far-infrared radiation powder can be excited by external energy (such as electric current or heat energy) to cause the molecules in the powder to vibrate and emit far-infrared rays. It includes ceramic far-infrared radiation powder (such as zirconium oxide, alumina, silicon carbide, etc., which are made into micron-sized particles by special sintering process and have high emissivity), carbon-based material far-infrared radiation powder (such as graphene, carbon fiber, carbon nanotubes, etc., which are used in composite radiation powder due to their high thermal conductivity and radiation properties), metal oxide far-infrared radiation powder (such as titanium oxide, iron oxide, etc., which are often mixed with other materials to optimize radiation performance), and composite powder far-infrared radiation powder (which uses a mixture of multiple materials (such as ceramic + carbon-based) to improve far-infrared emission efficiency through synergistic effect).

[0025] It is common knowledge in the industry that far-infrared radiation powder can emit far-infrared rays while absorbing heat and can promote and accelerate human metabolism. This has been verified by a large number of experiments and papers. For example, the article "Far-infraredemission properties of ceramic materials for biomedical applications at near-body temperature" (authors: K. Tanaka, Y. Ishikawa, T. Watanabe (2016), Journal of the European Ceramic Society, Volume, Issue, Page: 36(6), 1441-1448, DOI: 10.1016 / j.jeurceramsoc.2016.01.017) draws the key conclusion that "zirconia (ZrO2) and alumina (Al2O3) have far-infrared emissivity (8-14μm) of 0.85-0.92 at 35-40℃" and "the emission wavelength is highly matched with the human body absorption band (9.4μm), which can promote local blood circulation". The article "Low-temperature far-infrared radiation of graphene-based composites for wearable thermal therapy" (authors: X. Li, S. Chen, H. Zhang (2019), journal: ACS Applied Materials & Interfaces, volume, issue, page: 11(23), 21112-21120, DOI: 10.10121 / acsami.9b05432) draws the key conclusions that "graphene / polyurethane composites have a peak emissivity wavelength of 9.6 μm at body temperature (36℃), and the radiation power is 35% higher than that of traditional materials" and "when applied to wearable devices such as knee braces, they can significantly relieve arthritis pain." A research team at the State Key Laboratory of Novel Ceramics and Fine Processing at Tsinghua University has developed low thermal conductivity ceramic coating materials. By controlling the microstructure of oxide particles (such as porosity and grain boundary defects), they have achieved high emissivity (>90%) in the far-infrared band (8-14 μm). These materials have been applied to thermal control coatings for spacecraft and energy-saving equipment in industry. The graphene electrothermal film developed by Professor Lin Shisheng's team at Zhejiang University has increased the far-infrared emissivity to 92% through interface modification of multilayer oxide particles (such as Al2O3), and its sleep-promoting effect has been verified in medical tests. The relevant results were published in Small Science.

[0026] Furthermore, invention patent (202110432842.4) discloses a far-infrared ceramic powder, its preparation method, and its uses. It states that "far-infrared textiles can emit far-infrared rays of 4-14 μm at human body temperature, and this wavelength matches the far-infrared radiation wavelength of the human body, making it easily absorbed by the skin." In this invention patent, the far-infrared textiles are made from far-infrared ceramic powder. Invention patent (CN1123780A) also discloses a formula and preparation method for far-infrared ceramic powder. This involves sintering the original far-infrared ceramic powder to obtain a product with strong radiation efficacy at room temperature, which can be incorporated into textile materials to weave products suitable for human health and medical care, achieving the purpose of treating diseases. The far-infrared material independently developed by Tianjin Yuanheng Pharmaceutical and Health Products Co., Ltd. under the Science and Technology Commission's project "Research, Development and Application of Far-Infrared Ceramic Powder Materials" has a wavelength of 8-15 μm, which is close to the human body wavelength, when near body temperature. It exhibits stable performance and a high energy emissivity of 87-90%, achieving the purpose of improving human health.

[0027] It is evident that the use of metal oxides as far-infrared radiation powder, enabling it to radiate far-infrared rays at room temperature or human body temperature and have a positive impact on human health, is a consensus within the industry. Therefore, we will not delve into the radiation theory at the microscopic level here.

[0028] In this embodiment, the far-infrared radiation powder is a medical-grade therapeutic powder, which is sintered from materials such as zirconium oxide, aluminum oxide and zinc oxide. The crystal structure of the far-infrared radiation powder has strong emission characteristics in the 4-14um life light band, which can convert external heat (such as human body temperature) into life light waves. Its overall far-infrared emissivity can reach ≥0.90. In this embodiment, 3000-mesh far-infrared radiation powder is dispersed using transparent siloxane-based printing ink as a solvent to form a far-infrared radiation paste with a mass concentration of 20%. Then, a combination of screen printing and heat baking is used to coat the far-infrared radiation paste onto the eye area 110 of the first side (the area of ​​eye area 110 where no second far-infrared radiation bumps 220 need to be set can be covered with a film before printing). After multiple printings, several second far-infrared radiation bumps 220 with a thickness between 0.2mm and 0.6mm containing high-concentration radiation powder are formed in the eye area 110. Then, the film is removed, and another film is used to cover the area of ​​eye area 110 where no first far-infrared radiation bumps 210 need to be set. After multiple printings, first far-infrared radiation bumps 210 with a thickness of 0.5mm to 1mm are formed in the eye area 110. Of course, in other embodiments, the first far-infrared radiation bump 210 and the second far-infrared radiation bump 220, which are formed into a solid form by hot pressing, can be attached to the eye area 110 on the first surface. The far-infrared heating layer can also be made of other types of commercially available far-infrared radiation powder or far-infrared radiation materials, as long as it can radiate far-infrared rays under the action of human body temperature, which will not be elaborated here.

[0029] Furthermore, the lower part of the eye mask body 100 has a V-shaped notch 160 or a U-shaped notch that conforms to the shape of the bridge of the nose in the area corresponding to the bridge of the nose. By providing a V-shaped notch 160 or a U-shaped notch in the lower part of the eye mask body 100, the eye area 110 of the eye mask body 100 can fully fit the user's face when worn, avoiding the problem of the eye mask body 100 arching in the area of ​​the user's nose, which would prevent the first far-infrared radiation protrusion 210 and the second far-infrared radiation protrusion 220 from fitting the user's eyes properly. At the same time, it avoids light leakage in the lower part of the eye mask body 100, ensuring the light-blocking effect of the sleep aid eye mask.

[0030] Scented tablet 400 is used to store and slowly release sleep-aiding active ingredients, allowing the body to absorb these ingredients through skin contact and oral / nasal absorption. Scented tablet 400 is used as a consumable; when the sleep-aiding active ingredients in a single tablet are depleted, the tablet can be removed, and another tablet can be attached to the mounting substrate 300 to meet the user's needs. In this embodiment, the sleep-aiding liquid is attached to a sheet-like porous substrate to obtain scented tablet 400. A pattern embossing area 410 is provided on the side of scented tablet 400 facing away from the mounting substrate 300. This pattern embossing area 410 is a recess on the surface of the scented tablet 400, which provides a unique appearance and also serves as a storage area for the sleep-aiding liquid, increasing the amount of sleep-aiding liquid adhered to the sheet-like porous substrate.

[0031] The sleep aid solution comprises the following components by weight percentage: silicone oil 70%, jujube seed oil 17%, azone 3%, and lavender oil 10%. Azone, as a non-ionic penetration enhancer, can insert into the lipid bilayer of the stratum corneum, disrupting the orderly arrangement of fatty acids and cholesterol, increasing lipid fluidity by 30%-50% (International Journal of Pharmaceutics 2018). This further dilates intercellular channels, increasing the intercellular space of keratinocytes through solvation (from an average of 5 nm to 8-10 nm), thus creating penetration channels for lipid-soluble components. Jujube seed oil can prolong the sleep time of sodium pentobarbital by 37% and shorten the sleep latency by 22% (Chinese Journal of Traditional Chinese Medicine 2019). Under the action of azone, the transdermal absorption of jujube seed oil can be increased by 4-5 times (Chinese Journal of Hospital Pharmacy 2024). Lavender oil's main components are ester compounds composed of volatile substances such as linalool (20-45%) and linalyl acetate (30-45%), which have GABA receptor agonist effects and can lower cortisol levels. A 2023 study in *Nature Neuroscience* found that inhaling lavender aroma for 10 minutes can activate neural connections between the prefrontal cortex and amygdala, reducing anxiety scores by 28%. The French National Institute of Health (INSERM) confirmed that lavender essential oil's effect on improving alpha waves (8-12Hz) is 3.2 times that of a placebo. Silicone oil, typically polydimethylsiloxane (PDMS), is used as the primary solvent carrier. As a nonpolar polymer with weak van der Waals forces, PDMS can highly match oily compounds, forming a thermodynamically stable system and effectively serving as a solvent carrier for azone, jujube seed oil, and lavender oil. By selecting the above-mentioned ingredients for the sleep aid liquid, the transdermal absorption of the fat-soluble components, which are the core value of the classic Chinese herbal medicine jujube seed, and the respiratory absorption of the aromatic volatile substances in lavender are utilized, resulting in a better sleep aid effect.

[0032] Of course, in other embodiments, melatonin, natural plant extracts (such as lavender, valerian root, chamomile), amino acids (such as GABA, L-theanine), and minerals (such as magnesium) can be selectively mixed to prepare a sleep-aiding liquid. Depending on the viscosity of the sleep-aiding liquid, the sheet-like porous substrate can be soaked in the sleep-aiding liquid or treated by fumigation, spraying, or the sleep-aiding liquid can be coated onto the sheet-like porous substrate to achieve adhesion of the sleep-aiding liquid to the sheet-like porous substrate, thereby obtaining scented tablet 400. Other commercially available sleep-aiding liquids with sleep-aiding sustained-release function can also be used to adhere to the sheet-like porous substrate to obtain scented tablet 400. In other embodiments, aromatic Chinese medicinal materials can also be pressed or cut into sheets to obtain scented tablet 400. The composition of the sleep-aiding liquid is illustrated here only to demonstrate the sleep-promoting effect of the effective ingredients released by scented tablet 400 on the user. The specific composition of the sleep-aiding liquid or the specific composition of the aromatic substances are not within the scope of protection of this utility model and will not be described further here.

[0033] In one embodiment, the mounting base 300 is heat-pressed or bonded to the acupoint area 120, and the incense pad 400 is bonded (with glue) or fixedly connected to the mounting base 300 via Velcro. Preferably, the mounting base 300 is fixed to the acupoint area 120 by heat pressing, and the incense pad 400 is connected to the mounting base 300 via Velcro to reduce the difficulty of assembling and disassembling the incense pad 400. Further, in this embodiment, the incense pad 400 has a circular structure, and the mounting base 300 has a circular or racetrack-shaped structure; when the mounting base 300 has a circular structure, its diameter is larger than that of the incense pad 400; when the mounting base 300 has a racetrack-shaped structure, its length is greater than that of the incense pad 400, and the mounting base 300 extends along the circumference of the user's head (extending along the user's ear towards the user's eyes). By designing the mounting base 300 as a circular or racetrack-shaped structure larger than the scent pad 400, the position of the scent pad 400 on the mounting base 300 can be adjusted according to the user's head circumference during installation, ensuring that the scent pad 400 is aligned with the user's temples. Furthermore, in this embodiment, the scent pad 400 is attached near the temples, and when the sleep-aid eye mask is worn, it is placed in close contact with the temples. Since the skin thickness at the temples is approximately 0.5mm-0.6mm, it is thinner than other parts of the face, such as the cheeks, and the subcutaneous tissue is also looser. This area also has abundant blood vessels and nerves, making it a sensitive and vulnerable area of ​​the head, most conducive to transdermal absorption. Additionally, because the temples are close to the mouth and nose, it ensures that the aromatic sleep-aiding essential oils are promptly inhaled, achieving a sleep-aiding effect.

[0034] To further enhance the sleep-aiding effect, in one embodiment, the multi-sensory sleep-aiding eye mask also includes an NFC chip 500 for sensing with the NFC antenna of an external smart mobile terminal and enabling the external smart mobile terminal to play sleep-aiding audio; the NFC chip 500 is housed within the eye mask body 100 (within the cavity) and corresponds to the back of the head 130; or the NFC chip 500 is fixed to the second surface corresponding to the back of the head 130, and a protective label is affixed to the surface of the NFC chip 500 and fixedly connected to the second surface of the eye mask body 100. By setting the NFC chip 500 on the eye mask body 100, when the NFC function of the external smart mobile terminal (such as a mobile phone) is enabled, its built-in NFC antenna generates a high-frequency electromagnetic field. When the mobile phone approaches the NFC chip 500 on the eye mask body 100, the NFC chip 500 enters the sensing range of the mobile phone's NFC antenna, and the electromagnetic field powers the NFC chip 500 through electromagnetic induction, activating the NFC chip 500. In this way, by pre-writing information into the NFC chip 500, after the NFC chip 500 is activated, the phone's NFC antenna continuously sends radio frequency signals. The NFC chip 500 transmits stored data (such as URLs, text, and commands) back to the phone by modulating changes in the radio frequency field. The phone then plays corresponding sleep-aid audio based on the received information to promote sleep through music. In this embodiment, the NFC chip 500 has a diameter of 25mm. Covering the NFC chip 500 with a protective tag can achieve positioning and protection of the NFC chip 500, preventing it from falling off the eye mask body 100. In addition, during actual production, logos, slogans, supplier information, or promotional websites can be printed on the surface of the protective tag. When the NFC chip 500 is built into the eye mask body and fixedly attached to the inner surface of the eye mask body, logos, slogans, supplier information, or promotional websites can also be printed on the second surface of the eye mask body at the position corresponding to the NFC chip 500. Further details are omitted here.

[0035] This invention provides a multi-sensory sleep-aiding eye mask. By incorporating a far-infrared radiation layer 200 in the eye area 110 of the eye mask body 100 and detachably installing scented patches 400 in the acupoint area 120, the user can improve the sleep environment visually through physical light blocking provided by the eye mask body 100. The far-infrared radiation layer 200 emits far-infrared rays under the influence of body temperature, resonating with molecules in human cells, water, and blood to generate an internal heat effect, promoting microvascular dilation, accelerating blood circulation and metabolism, and improving the user's sleep state through temperature sensitivity. Furthermore, the scented patches 400 release far-infrared rays... The active sleep-aiding ingredients can soothe the user's nerves, regulate emotions, and lower cortisol levels. It also improves the user's sleep state through olfactory stimulation. Thus, it improves the sleep environment from multiple dimensions, achieving a synergistic effect of multiple senses, allowing the user to quickly fall asleep and effectively enhancing the sleep-aiding effect of the eye mask. This sleep-aiding eye mask offers multiple benefits, including light blocking, release of aromatic substances, and an internal heat effect to improve blood circulation. A single eye mask can replace ordinary light-blocking eye masks, sleep-aiding essential oil release devices, and eye heat therapy devices, achieving multiple uses in one mask. Users do not need to purchase multiple related products, reducing their purchase costs.

[0036] The technical features of the above embodiments can be combined in any way. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0037] The embodiments described above are merely illustrative of several implementations of this utility model, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the utility model patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this utility model, and these all fall within the protection scope of this utility model. Therefore, the protection scope of this utility model patent should be determined by the appended claims.

Claims

1. A sleep-aiding eye mask with multi-sensory effects, characterized in that, The device includes an eye mask body for wearing on a user's head. The eye mask body includes a first side that fits against the human head and a second side that faces away from the human head. The first side has an eye area corresponding to the eyes and the area around the eyes, an acupoint area located on both sides of the eye area and corresponding to the temples, and a back-head area that surrounds and corresponds to the back of the head. A far-infrared radiation layer is provided in the eye area, and a mounting base is fixed in the acupoint area. A fragrance that can release sleep-aiding ingredients is detachably attached to the mounting base.

2. The sleep-aiding eye mask with multi-sensory effects according to claim 1, characterized in that, The far-infrared radiation layer includes at least one first far-infrared radiation protrusion fixed at the eye area and corresponding to an acupoint, and a plurality of second far-infrared radiation protrusions evenly distributed corresponding to both eyes and the periorbital area. The width or diameter of the first far-infrared radiation protrusion is greater than the width or diameter of the second far-infrared radiation protrusion, and the thickness of the first far-infrared radiation protrusion is greater than the thickness of the second far-infrared radiation protrusion.

3. The sleep-aiding eye mask with multi-sensory effects according to claim 2, characterized in that, The first far-infrared radiation bump and the second far-infrared radiation bump are attached to the first surface by printing.

4. The sleep-aid eye mask with multi-sensory effects according to claim 2, characterized in that, The thickness of the first far-infrared radiation bump is 0.5mm-1mm, and the thickness of the second far-infrared radiation bump is 0.2mm-0.6mm.

5. The sleep-aiding eye mask with multi-sensory effects according to claim 1, characterized in that, It also includes an NFC chip for sensing the NFC antenna of an external smart mobile terminal and enabling the external smart mobile terminal to play sleep-aid audio; the NFC chip is housed in the body of the eye mask and corresponds to the back of the head; or the NFC chip is fixed on the second surface at the location corresponding to the back of the head, and a protective label is affixed to the surface of the NFC chip and fixedly connected to the second surface of the eye mask body.

6. The sleep-aiding eye mask with multi-sensory effects according to claim 1, characterized in that, The mounting base is heat-pressed or bonded to the acupoint area, and the incense stick is bonded to the mounting base or fixedly connected by Velcro.

7. The sleep-aiding eye mask with multi-sensory effects according to claim 1, characterized in that, The incense chip has a circular structure, and the mounting base has a circular or racetrack-shaped structure; when the mounting base has a circular structure, its diameter is larger than the diameter of the incense chip; when the mounting base has a racetrack-shaped structure, its length is larger than the diameter of the incense chip.

8. The sleep-aid eye mask with multi-sensory effects according to claim 1, characterized in that, The side of the incense stick facing away from the mounting substrate has a pattern embossing area.

9. The sleep-aid eye mask with multi-sensory effects according to claim 1, characterized in that, The lower part of the goggle body has a V-shaped or U-shaped notch in the area corresponding to the bridge of the nose, which is adapted to the shape of the bridge of the nose.

10. The sleep-aiding eye mask with multi-sensory effects according to claim 1, characterized in that, The eye mask body is a ring structure, and at least the part of the eye mask body corresponding to the back of the head is made of elastic material; or the eye mask body is a strip structure, with a hook and loop fastener male side on the first side of one end of the eye mask body, and a hook and loop fastener female side that mates with the hook and loop fastener male side on the second side of the other end of the eye mask body.

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