Soft eye mask and method of making the same

Abstract

The present application relates to a kind of soft eye patches and its preparation method, it includes flexible body, placement shell and electronic components, placement shell is at least provided with one, be arranged in the flexible body, and inside hollow placement space is provided, electronic components are provided with multiple and are arranged in placement space, the present application has the most existing in placement shell with hard structure, and other large area area of flexible body still keeps the original characteristic of flexible material, thereby avoid the multiple local hard point oppression caused by electronic components dispersedly tiled in prior art, significantly reduce foreign body sensation, improve the comfort of long time wearing;Meanwhile, electronic components are collected in placement shell, also obtain the physical protection of placement shell, can effectively resist heat energy and pressure impact in subsequent hot-pressing process, so as to effectively protect the effect of electronic components.

Description

Technical Field

[0001] This invention relates to the technical field of smart wearable devices, and in particular to a soft eye mask and its preparation method. Background Technology

[0002] Eye masks, as wearable devices worn around the eyes, were initially used primarily for simple physical care scenarios such as blocking light to aid sleep and providing hot or cold compresses to the eyes. In recent years, with the rapid development of smart wearable technology, eye masks have been endowed with more and more functions, such as built-in audio playback modules, EEG monitoring sensors, and smart alarm clock wake-up systems. Some high-end smart eye masks also integrate vibration motors. When the eye mask plays audio, it can synchronously convert the audio signal into a vibration signal. The vibration motor drives the eye mask shell to produce weak mechanical vibrations, which are then transmitted to the user's skin around the eyes and facial bones. This allows the user to hear the sound while simultaneously experiencing tactile feedback on their face corresponding to the rhythm or frequency of the audio, thus creating a more immersive multi-sensory interactive experience. To improve fit and portability, the main body of these smart eye masks is usually made of flexible materials (such as textiles, sponges, silicone, etc.) so that the eye masks can adapt to the facial contours of different users. They also have reserved space in the side areas (corresponding to the temples or temporal region) and the forehead area to integrate the electronic components required to realize the above-mentioned functions, such as control motherboards, rechargeable batteries, vibration motors, speakers, heart rate or brainwave sensors, etc.

[0003] In the prior art, the layout of the above-mentioned electronic components inside the soft eye mask is usually to spread all electronic components such as motherboard, battery, motor, and sensor in various functional areas of the eye mask. For example, the battery is placed on the side of one side of the eye mask, the motherboard is placed on the other side, and the motors are placed on the corresponding temples on both sides. Then, the upper and lower fabrics of the entire eye mask are fixed together by heat pressing or sewing.

[0004] However, because the aforementioned components are scattered in multiple different locations on the goggles, localized hard spots form at these scattered points. To prevent damage to the components from pressure, additional local reinforcement or protective padding layers are required at each component location. This not only significantly increases the overall thickness of the goggles and reduces their flexibility, but also causes users to experience pressure from multiple hard spots simultaneously when wearing them, severely affecting wearing comfort. Furthermore, during the goggles manufacturing process, the upper and lower fabric layers need to be bonded and fixed using a hot-pressing process. Since the electronic components are scattered throughout the goggles, all components within the entire goggles area are simultaneously subjected to the heat and pressure impact of the hot press during hot pressing. This can easily cause irreversible damage such as cracking of solder joints on the motherboard, battery deformation and leakage due to pressure, and damage to the internal precision structure of sensors, resulting in a low product yield. Summary of the Invention

[0005] In view of this, the purpose of the present invention is to provide a soft eye mask and its preparation method, so as to solve the technical problem that in the prior art, electronic components are dispersed inside the eye mask, which will cause multiple hard points of pressure when worn, and at the same time, the electronic components will be damaged during hot pressing.

[0006] This invention provides a soft eye mask, comprising: Flexible body; At least one housing is provided, which is disposed within the flexible body and has a hollow placement space inside; Electronic components, in multiple quantities, are arranged within a placement space; The flexible body is provided with an adhesive coating and hot pressing area and an empty space area. The adhesive coating and hot pressing area is located around the periphery of the flexible body, and the housing is located in the empty space area. The flexible body is coated with adhesive and hot-pressed in the adhesive coating and hot pressing area to seal it.

[0007] Optionally, the flexible body includes a flexible outer layer, a sponge layer, an electronic component layer, and a skin-friendly inner layer, which are stacked sequentially. When the soft eye mask is worn, the skin-friendly inner layer is placed on the face side, the placement shell is placed on the electronic component layer, and the sponge layer and the skin-friendly inner layer cover the placement shell.

[0008] Optionally, the flexible outer layer has an opening in the middle, and the flexible outer layer forms a nose bridge curve at the bridge of the human face to adapt to the human nose bridge.

[0009] Optionally, the adhesive sponge layer is configured in a three-dimensional shape to fit the face, and the opening in the center of the adhesive sponge layer corresponds to the opening in the flexible outer layer.

[0010] Optionally, the device also includes a vibration element, wherein multiple sets of vibration elements are disposed on the surface of the electronic component layer and correspond to different surface areas. The vibration elements are electrically connected to the electronic components via flexible cables, and the electronic component layer is configured to be flexible.

[0011] Optionally, the electronic components include: Power module; A circuit board, which is electrically connected to the power module, and an audio module and a control processing module are provided on the circuit board; The audio module is used to emit audio electrical signals. The control processing module is electrically connected to the audio module and is used to receive the audio electrical signals generated by the audio module and convert the audio electrical signals into vibration commands with different vibration frequencies. The vibration element is electrically connected to the control processing module. Each vibration element is used to generate vibration according to the vibration commands with different vibration frequencies to apply a force with corresponding vibration frequency and intensity to different facial areas of the target.

[0012] Optionally, the vibration element is provided in three groups, which are respectively configured as a first vibration element, a second vibration element and a third vibration element; The first vibrating element corresponds to the area between the eyebrows of a human face; The second vibrating element corresponds to the temple area of ​​the human face; The third vibrating element corresponds to the area below the eyes of the human face.

[0013] Optionally, the vibration frequency corresponding to the first vibrating element is greater than 20Hz and less than or equal to 60Hz; The vibration frequency corresponding to the second vibrating element is greater than 60Hz and less than or equal to 120Hz; The vibration frequency corresponding to the third vibrating element is greater than 120Hz and less than or equal to 250Hz.

[0014] Optionally, it also includes a sound output module, which is electrically connected to the control processing module, and the sound output module is used to output the audio electrical signal as audio.

[0015] The present invention also provides a method for preparing a soft eye mask, comprising the following steps: Cut the soft outer skin according to the shape mold to form a flexible outer layer; A three-dimensional adhesive sponge is placed on the flexible outer layer to form an adhesive sponge layer that conforms to the contour of the eyes; Place the electronic component layer, and install the vibration element, housing, and electronic components on the electronic component layer; Localized adhesive application and positioning to place a skin-friendly inner layer; The edge areas of the flexible body are sealed by heat pressing.

[0016] The technical solution of the present invention has the following advantages: The soft eye mask provided by this invention features a flexible body with at least one housing within it. Multiple electronic components are centrally housed within the hollow space of this housing. This prevents the rigid electronic components from being evenly distributed across the flexible body. Instead, the components, originally scattered throughout the eye mask, are concentrated within the housing. This means that the rigid structure of the soft eye mask is primarily located in one or more localized areas where the housing is situated, while the larger areas of the flexible body retain the original properties of the flexible material. When worn, the user only experiences the presence of the rigid structure in the area where the housing is located, while the majority of the flexible body's surface in contact with the face remains soft and flexible. This avoids the pressure sensation caused by multiple hard points in the prior art where electronic components are scattered and laid out, significantly reducing the feeling of foreign objects and improving comfort during extended wear. Furthermore, the centralized housing of the electronic components provides physical protection, effectively resisting heat and pressure impacts during subsequent hot-pressing processes, thus effectively protecting the electronic components. Attached Figure Description

[0017] To more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings used in the embodiments will be briefly introduced below. It should be understood that the following drawings only show some embodiments of the present invention and should not be regarded as a limitation on the scope. For those skilled in the art, other related drawings can be obtained based on these drawings without creative effort.

[0018] Figure 1 This is an explosion diagram of the soft goggles in this invention; Figure 2 This is a schematic diagram of the flexible outer layer in this invention; Figure 3 This is a schematic diagram of the electronic component layer in this invention; Figure 4 This is an exploded view of the housing in this invention; Figure 5 This is another schematic diagram of the electronic component layer in this invention; Figure 6 This is a functional block diagram of the soft eye mask in this invention; Figure 7 This is a step diagram illustrating the preparation method of the soft eye mask in this invention.

[0019] Explanation of reference numerals in the attached figures: 1. Flexible outer layer; 2. Adhesive sponge layer; 3. Electronic component layer; 4. Skin-friendly inner layer; 5. Housing; 51. Upper shell; 52. Lower shell; 6. Vibration element; 61. First vibrator; 62. Second vibrator; 63. Third vibrator; 7. Power module; 8. Circuit board; 9. Audio module; 10. Control and processing module; 11. Adhesive hot-pressing area; 12. Clearance area; 13. Flexible ribbon cable; 14. Sound output module. Detailed Implementation

[0020] The specific embodiments of the present invention will now be described in detail with reference to the accompanying drawings. Obviously, the described embodiments are merely some, not all, of the embodiments of the present invention. Based on the description of the present invention, all other embodiments obtained by those skilled in the art without inventive effort are within the scope of protection of the present invention.

[0021] Unless otherwise explicitly specified and limited, the terms "setup," "installation," and "connection" should be interpreted broadly. For example, they can refer to fixed connections, detachable connections, or integral connections; they can refer to mechanical connections or electrical connections; they can refer to direct connections or indirect connections through an intermediate medium. Those skilled in the art can understand the specific meaning of these terms based on the specific circumstances.

[0022] The terms “upper,” “lower,” “left,” “right,” “front,” “back,” “top,” “bottom,” “inner,” and “outer,” etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings, or the orientation or positional relationship commonly used when the product of the invention is in use. They are only for the convenience of description and simplification, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on the present invention.

[0023] The terms “first,” “second,” “third,” etc., are used merely to distinguish elements with similar properties, not to indicate or imply relative importance or a specific order.

[0024] The terms “include,” “comprising,” or any other variation thereof are intended to cover non-exclusive inclusion, which includes not only the elements listed but also other elements not expressly listed.

[0025] Example 1 Reference Figures 1-6As shown, the present invention provides a soft eye mask, including a flexible body, a placement shell 5, and electronic components. The flexible body is made of a flexible material to keep it soft and more comfortable for the user to wear. At least one placement shell 5 is provided. The placement shell 5 is disposed in the flexible body and has a hollow placement space inside. In this embodiment, two placement shells 5 are provided, which are symmetrically arranged on the flexible body. Multiple electronic components are provided, and all of the multiple electronic components are disposed in the placement space of the placement shell 5.

[0026] By setting a flexible body and placing at least one housing 5 within it, multiple electronic components are centrally located in the hollow space inside the housing 5. This prevents the rigid electronic components from being evenly distributed across the flexible body. Instead, the rigid electronic components, originally scattered throughout the eye mask, are centrally housed within the housing 5. This ensures that the rigid structure of the soft eye mask is mostly present in one or more localized areas where the housing 5 is located, while the other large areas of the flexible body retain the original properties of the flexible material. When wearing the mask, the user only feels the presence of the rigid structure in the localized area where the housing 5 is located, while the vast majority of the flexible body's contact area with the face remains soft and flexible. This avoids the pressure sensation caused by multiple localized hard points resulting from the dispersed and flat electronic components in existing technologies, significantly reducing the feeling of foreign objects and improving comfort during extended wear. Simultaneously, the centralized housing of the electronic components within the housing 5 provides physical protection, effectively resisting heat and pressure impacts during subsequent hot-pressing processes, thus effectively protecting the electronic components.

[0027] Specifically, the electronic components include power module 7 and circuit board 8, which are electrically connected. The electronic components are not limited to power module 7 and circuit board 8; other devices such as buttons, Bluetooth indicator lights, detectors, or connectors can also be included. This is not a unique limitation.

[0028] The housing 5 includes an upper housing 51 and a lower housing 52, which are fixed by screws or clips. The upper housing 51 and the lower housing 52 are assembled to form a placement space. The power module 7 is placed on the lower housing 52, and the circuit board 8 is placed on the upper housing 51. The power module 7 and the circuit board 8 are arranged vertically.

[0029] As a specific implementation, the flexible body is provided with an adhesive coating and hot pressing area 11 and an empty space area 12. The adhesive coating and hot pressing area 11 is located around the periphery of the flexible body, and the housing 5 is located in the empty space area 12. The flexible body is coated with adhesive and hot-pressed in the adhesive coating and hot pressing area 11. The adhesive coating and hot pressing area 11 and the empty space area 12 are spatially separated. The heat energy and pressure of the hot pressing operation only act on the periphery sealing area of ​​the flexible body, while the empty space area 12 where the housing 5 and its internal electronic components are located does not directly bear the hot pressure. During the hot pressing sealing process, the housing 5 is protected within the empty space area 12 and will not be subjected to direct thermal shock and pressure from the hot press. This avoids problems such as motherboard solder joint cracking, battery deformation under pressure, and sensor damage caused by full-surface hot pressing in the prior art, which greatly reduces the damage rate of electronic components during the manufacturing process and improves the product yield. At the same time, the periphery hot pressing sealing ensures the firm bonding of the eye mask edges and the integrity of the overall appearance.

[0030] Furthermore, refer to Figure 1 As shown, the flexible body includes a flexible outer layer 1, a sponge layer 2, an electronic component layer 3, and a skin-friendly inner layer 4. The flexible outer layer 1, the sponge layer 2, the electronic component layer 3, and the skin-friendly inner layer 4 are stacked in sequence. When wearing the soft eye mask, the skin-friendly inner layer 4 is placed on one side of the face, the housing 5 is placed on the electronic component layer 3, and the sponge layer 2 and the skin-friendly inner layer 4 cover the housing 5.

[0031] The flexible outer layer 1 is the outermost soft skin of the soft eye mask and is also the main outline that can be seen from the outside. It provides the integrity of the appearance of the eye mask and supports the overall outline. The flexible outer layer 1 is set in the shape of a long strip of eye mask with an opening in the middle. The flexible outer layer 1 forms a nose bridge curve at the bridge of the face to adapt to the bridge of the nose. The upper and lower edges of the flexible outer layer 1 are set with wavy edges. The nose bridge curve allows the eye mask to fit the three-dimensional outline of the bridge of the nose, avoiding light leakage or slippage caused by the nose bridge not fitting properly. This structural design allows the eye mask to integrate the functionality of electronic components while still retaining the basic performance of traditional eye masks in terms of light blocking and ergonomics, improving the stability of wearing and the sealing and light blocking effect.

[0032] The fitting sponge layer 2 is designed in a three-dimensional shape to fit the face. The opening in the center of the fitting sponge layer 2 corresponds to the opening in the flexible outer layer 1. The fitting sponge layer 2 is made of three-dimensional fitting sponge. By setting the fitting sponge layer 2 on the flexible outer layer 1, the fitting sponge layer 2 can cover the height difference near the bridge of the nose, eye sockets, and temples, making the eye mask fit more snugly and more closely to the face, thus improving the wearing comfort.

[0033] The electronic component layer 3 is mainly used to house the housing 5, thereby enabling it to support electronic components.

[0034] The skin-friendly inner layer 4 is located on the side closest to the face. The skin-friendly inner layer 4 mainly covers the housing 5 and electronic components, allowing the user to come into contact with a flexible material.

[0035] Furthermore, it also includes a vibration element 6, which is electrically connected to the power module 7. Multiple sets of vibration elements 6 are provided, each set on the surface of the electronic component layer 3 and corresponding to different facial areas. The vibration element 6 is electrically connected to the electronic components via a flexible ribbon cable 13. The electronic component layer 3 is made of flexible material, which allows the entire layer to bend and stretch even in areas where the housing 5 is not placed, maintaining the overall softness of the goggles. The flexible ribbon cable 13 can also bend with the goggles, so that the vibration element 6 does not form a solid plate, allowing the goggles to maintain their original flexibility.

[0036] Specifically, a flexible ribbon cable 13 is provided between the vibration element 6 and the power module 7. The power module 7 is electrically connected to the vibration element 6 through the flexible ribbon cable 13. The flexible ribbon cable 13 has the characteristics of being bendable and twistable, which can maintain a good electrical connection when the flexible body of the goggles is bent or stretched, and will not break or have poor contact due to repeated bending of the goggles. At the same time, the flat structure of the flexible ribbon cable 13 occupies very little thickness space, which is conducive to the thin and light design of the goggles.

[0037] As another implementation method, refer to Figure 4 and Figure 6 As shown, the circuit board 8 is equipped with an audio module 9 and a control processing module 10. The circuit board 8 serves as the core control unit, integrating the audio module 9 and the control processing module 10 onto the same substrate. This shortens the signal transmission path, which helps reduce electromagnetic interference to the audio signal during transmission and ensures the accuracy and real-time performance of vibration command conversion. The power module 7 supplies power to both the circuit board 8 and the vibration element 6, achieving unified power management. Furthermore, the vibration element 6 draws power directly from the power module 7 instead of being powered through the circuit board 8, avoiding the large current of the vibration element 6 during operation from interfering with the power supply of the audio module 9 and the control processing module 10 on the circuit board 8. This improves the electrical stability of the system and the purity of the audio signal.

[0038] The audio module 9 is used to emit audio electrical signals. The audio module 9 refers to an electronic component or circuit unit that can generate, decode or forward audio electrical signals, including a wireless receiving unit or a signal source unit with a wired interface. In this embodiment, the audio module 9 is set as a Bluetooth audio receiving chip, which is used to establish a wireless communication connection with an external audio source device to receive audio data emitted by the external audio source device, and output audio electrical signals after decoding the audio data.

[0039] The control processing module 10 is electrically connected to the audio module 9, receives the audio electrical signals generated by the audio module 9, and converts the audio electrical signals into vibration commands with different vibration frequencies. The control processing module 10 is usually set as a microcontroller or a more integrated digital information processor.

[0040] Vibration element 6 is electrically connected to control processing module 10. There are multiple sets of vibration element 6, each corresponding to a different facial area. Each vibration element 6 is used to generate vibration according to vibration commands of different vibration frequencies, so as to apply a force with corresponding vibration frequency and intensity to the target corresponding to different facial areas. The vibration command corresponding to each set of vibration element 6 corresponds to a vibration of different vibration frequencies. That is to say, the vibration frequency of each set of vibration element 6 is different.

[0041] The control processing module 10 converts the audio electrical signal into vibration commands at different frequencies. Multiple sets of vibration elements 6 correspond to different facial areas and work independently according to their respective vibration commands. This decomposes the full-band vibration energy that was originally concentrated and output by a single vibration element 6 into multiple frequency ranges and distributes them to different vibration elements 6 and different facial areas for output. Each vibration element 6 only needs to be responsible for the vibration output of a portion of the frequency band. Its single-point vibration intensity is significantly reduced compared to the intensity of a single point bearing the full-band vibration in the traditional solution. This avoids the numbness, tingling, or pressure discomfort caused by high-intensity vibration concentrated in the same facial area for a long time. It can reduce the intensity of single-point vibration and reduce local discomfort. At the same time, different facial areas feel vibrations of different frequencies, so that the user's overall tactile sensation is still obvious or even richer, and the wearing comfort is fundamentally improved, enhancing the vibration level.

[0042] Meanwhile, multiple sets of vibration elements 6 are provided, each corresponding to different facial areas, thereby enabling tactile sensation at multiple locations on the face, allowing users to feel vibrations at multiple locations on their face and enhancing their immersion.

[0043] In addition, the eye mask structure also includes a sound output module 14, which is electrically connected to the control processing module 10. The sound output module 14 is used to output audio signals. It is typically configured as a speaker or headphones, achieving simultaneous output of both auditory and tactile feedback. Users can hear the sound while simultaneously experiencing corresponding frequency vibrations on their face, creating an immersive experience that integrates sight, sound, and touch. The sound output module 14 and the vibration element 6 operate independently. Users can choose to activate only the sound, only the vibration, or both simultaneously, providing flexible usage modes and further enriching the product's application scenarios.

[0044] As one specific implementation method, refer to Figure 3 and Figure 4As shown, the vibration element 6 is provided in at least three groups, with each group of vibration elements 6 corresponding to one of the three areas of the face: the center of the forehead, the temples, and the area under the eyes. By strategically arranging different vibration elements 6 in the center of the forehead, the temples, and the area under the eyes, the vibration energy is distributed differently in different areas of the face, so that the vibration frequency and intensity experienced by each area are matched with its tissue characteristics, further optimizing the comfort and clarity of tactile sensation.

[0045] Specifically, the vibration element 6 is provided in three groups, namely a first vibrator 61, a second vibrator 62, and a third vibrator 63. The first vibrator 61 corresponds to the area between the eyebrows, the second vibrator 62 corresponds to the area around the temples, and the third vibrator 63 corresponds to the area under the eyes. Each group of vibration elements 6 has two elements: two first vibrators 61 are located between the eyebrows, two second vibrators 62 correspond to the temples, and two third vibrators 63 correspond to the areas under the eyes. Vibrating element 61, second vibrating element 62, and third vibrating element 63 cover three key sensory areas: the forehead, the temple, and the infraorbital region. Spatially, they form full coverage of the main sensitive areas around the eyes. The skin in the glabella region is thin and densely packed with nerve endings, making it most sensitive to vibration frequency and intensity. The subcutaneous tissue in the temple region is thick and close to the skull, providing good conduction and load-bearing capacity for vibration. The skin in the infraorbital region is soft and close to the sensory nerves of the eye, making it suitable for transmitting gentle tactile feedback. Placing these three areas ensures the best user experience.

[0046] Furthermore, the corresponding vibration frequency is greater than 120Hz and less than or equal to 250Hz. The first vibrator 61 corresponds to a vibration frequency greater than 20Hz and less than or equal to 60Hz, which is the low-frequency frequency. The second vibrator 62 corresponds to a vibration frequency greater than 60Hz and less than or equal to 120Hz, which is the mid-frequency frequency. The third vibrator 63 corresponds to a vibration frequency greater than 120Hz and less than or equal to 250Hz, which is the high-frequency frequency. The low-frequency vibration corresponds to the bass rhythm in music (such as drum beats and bass), with a large amplitude and strong penetration, which is suitable for conduction through skin tissue and bones. The first vibrator 61 is set in the brow area, which can use the bone conduction effect of the frontal bone to clearly transmit the low-frequency vibration to the entire craniofacial area, giving people a deep and powerful physical feeling. The mid-frequency vibration corresponds to the human voice and the main melody, with a moderate sense of rhythm. The second vibrator 62 is set in the temple area, which can use the rich blood vessels and nerve distribution in the temporal region to transmit clear and rhythmic tactile feedback. The high-frequency vibration corresponds to high-pitched instruments and detailed timbre, with a small amplitude but high delicacy. The third vibrator 63 is set in the under-eye area, which can use the fine tactile sensitivity of the under-eye skin to present light and agile tactile details.

[0047] By finely allocating different frequency bands, a layered tactile experience is created, characterized by deep and powerful low frequencies, clear and rhythmic mid frequencies, and light and delicate high frequencies. At the same time, the vibration intensity of each frequency band is within the acceptable comfort range of the corresponding area, avoiding the numbness, tingling, or pressure discomfort caused by high-intensity vibrations concentrated in the same facial area for a long time. Furthermore, different facial areas experience vibrations of different frequencies, fundamentally improving wearing comfort while maintaining or even enhancing the overall tactile experience.

[0048] In addition, the goggles structure also includes a PPG heart rate sensor and an IMU posture sensor. The PPG heart rate sensor is used to detect the user's heart rate or heart rate-related parameters, and the IMU posture sensor is used to determine the user's posture, enabling the goggles structure to meet more intelligent needs.

[0049] Example 2 Reference Figures 1-7 As shown, the difference between this embodiment and Embodiment 1 is that this embodiment provides a method for preparing a soft eye mask, including the following steps: S1, cut the soft outer skin according to the shape mold, ensuring that the edges are flat and the dimensions are accurate, to form the flexible outer layer 1, with a central opening in the flexible outer layer 1; S2, a three-dimensional fitting sponge is placed on one side of the flexible outer layer 1 to form a fitting sponge layer 2 that fits the contour of the eyes. The three-dimensional fitting sponge can cover the height difference near the bridge of the nose, eye socket, and temple, making the eye mask fit more snugly and more closely fit the face, thus improving the wearing comfort. S3, place the electronic component layer 3, and install the vibration element 6, place the housing 5 and electronic components on the electronic component layer 3; S4, localized glue application and positioning, place the skin-friendly inner layer 4. At this time, the glue does not need to be applied to the entire front, because applying glue to the whole piece will make the eye mask hard and will also destroy the soft feel. S5 heat-presses the edge area of ​​the flexible body to fix the multilayer, while only heat-pressing the edges so as not to affect the internal electronic components.

[0050] The centralized installation and positioning of electronic components are carried out before heat sealing, and heat sealing is only performed on the edge areas of the flexible body. The central electronic component area is hollowed out, forming a complete, low-damage system that matches the product structure. At the same time, multiple electronic components are centrally located in the hollow space inside the housing 5. At this time, the multiple rigid electronic components are not evenly distributed on the flexible body. The rigid electronic components that were originally scattered in various areas of the goggles are centrally stored in the housing 5. This means that most of the rigid structure of the soft goggles exists in one or more local areas where the housing 5 is located, while the other large areas of the flexible body are relatively free. The area where the material is placed retains the original properties of the flexible material. When wearing the device, only the local area where the housing 5 is located can feel the presence of the rigid structure, while most of the area of ​​the flexible body that comes into contact with the face remains soft and flexible. This avoids the pressure sensation caused by multiple local hard points due to the spread-out electronic components in existing technologies, significantly reducing the feeling of foreign objects and improving the comfort of wearing the device for a long time. At the same time, the electronic components are centrally stored in the housing 5 and are also physically protected by the housing 5. In the subsequent hot pressing process, they can effectively resist thermal and pressure impacts, thus effectively protecting the electronic components.

[0051] It should be noted that the various embodiments in this specification are described in a progressive manner, with each embodiment focusing on the differences from other embodiments. The same or similar parts between the various embodiments can be referred to each other.

[0052] The above description is merely a specific embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the scope of the technology disclosed in the present invention should be included within the scope of protection of the present invention.

Claims

1. A soft eye mask, characterized in that, include: Flexible body; At least one housing (5) is provided, which is located within the flexible body and has a hollow placement space inside; Electronic components, in multiple quantities, are arranged within a placement space; The flexible body is provided with a glue-coating and hot-pressing area (11) and a clearance area (12). The glue-coating and hot-pressing area (11) is located around the flexible body, and the housing (5) is located in the clearance area (12). The flexible body is glued and hot-pressed in the glue-coating and hot-pressing area (11) for sealing.

2. The soft eye mask as described in claim 1, characterized in that, The flexible body includes a flexible outer layer (1), a sponge layer (2), an electronic component layer (3), and a skin-friendly inner layer (4). The flexible outer layer (1), the sponge layer (2), the electronic component layer (3), and the skin-friendly inner layer (4) are stacked in sequence. When wearing the soft eye mask, the skin-friendly inner layer (4) is placed on one side of the face, and the placement shell (5) is placed on the electronic component layer (3). The sponge layer (2) and the skin-friendly inner layer (4) cover the placement shell (5).

3. The soft eye mask as described in claim 2, characterized in that, The flexible outer layer (1) has an opening in the middle, and the flexible outer layer (1) has a nose bridge curve at the bridge of the face to adapt to the bridge of the human nose.

4. The soft eye mask as described in claim 2, characterized in that, The adhesive sponge layer (2) is set in a three-dimensional shape to fit the face. The central opening of the adhesive sponge layer (2) corresponds to the opening of the flexible outer layer (1).

5. The soft eye mask as described in claim 2, characterized in that, It also includes a vibration element (6), which is provided in multiple sets and is respectively disposed on the surface of the electronic component layer (3) and corresponds to different facial areas. The vibration element (6) is electrically connected to the electronic component through a flexible cable (13), and the electronic component layer (3) is configured to be flexible.

6. The soft eye mask as described in claim 5, characterized in that, The electronic components include: Power module (7); Circuit board (8), which is electrically connected to the power module (7), and an audio module (9) and a control processing module (10) are provided on the circuit board (8). The audio module (9) is used to emit audio electrical signals. The control processing module (10) is electrically connected to the audio module (9) and is used to receive the audio electrical signals generated by the audio module (9) and convert the audio electrical signals into vibration commands with different vibration frequencies. The vibration element (6) is electrically connected to the control processing module (10). Each vibration element (6) is used to generate vibration according to the vibration commands with different vibration frequencies to apply a force with corresponding vibration frequency and intensity to different facial areas of the target.

7. The soft eye mask as described in claim 6, characterized in that, The vibration element (6) is provided in three groups, which are respectively set as the first vibration element (61), the second vibration element (62) and the third vibration element (63). The first vibrating element (61) corresponds to the area between the eyebrows of the human face; The second vibrating element (62) corresponds to the temple area of ​​the human face; The third vibrating element (63) corresponds to the area below the eyes of the face.

8. The soft eye mask as described in claim 7, characterized in that, The vibration frequency of the first vibrating element (61) is greater than 20Hz and less than or equal to 60Hz; The vibration frequency corresponding to the second vibrating element (62) is greater than 60Hz and less than or equal to 120Hz; The vibration frequency of the third vibrating element (63) is greater than 120Hz and less than or equal to 250Hz.

9. The soft eye mask as described in claim 6, characterized in that, It also includes a sound output module (14), which is electrically connected to the control processing module (10), and the sound output module (14) is used to output the audio electrical signal as audio.

10. A method for preparing a soft eye mask, characterized in that, Includes the following steps: Cut the soft outer skin according to the shape mold to form a flexible outer layer (1); A three-dimensional adhesive sponge is placed on the flexible outer layer (1) to form an adhesive sponge layer (2) that conforms to the contour of the eye. Place the electronic component layer (3), and install the vibration element (6), housing (5), and electronic components on the electronic component layer (3); Localized adhesive application and placement of the skin-friendly inner layer (4); The edge areas of the flexible body are sealed by heat pressing.

Images