Capsule strip with split lower layer unit, snore stopping pad and pillow

Abstract

The invention relates to a bag strip with a split type lower layer unit, a snore stopping pad and a pillow. A bag strip of an existing pillow is poor in use experience. The device comprises at least one longitudinally-arranged unit bag, each unit bag comprises a long-strip-shaped upper-layer unit and at least two longitudinally-arranged lower-layer units, a movable gap is reserved between every two adjacent lower-layer units, and each upper-layer unit is attached to the top face of the corresponding lower-layer unit in a communicated mode and shields the corresponding movable gap. The plurality of lower units are arranged below the upper layer unit, so that the movable gaps can be formed between the adjacent lower layer units, the pushing snore stopping effect is improved by improving the deformation performance of the bag strips, and the top surface of the upper layer unit can be utilized to form a larger smooth and continuous contact surface, so that the use comfort is improved.

Description

Technical Field

[0001] This invention relates to the field of bedding, specifically to a saddle pad, an anti-snoring pad, and a pillow. Background Technology

[0002] Existing pillows include a pillow body and an anti-snoring component. The anti-snoring component includes a control box external to the pillow body and an anti-snoring pad controlled by the control box. The anti-snoring pad is formed by assembling and assembling sac strips. The pillow body has an arc-shaped support surface with the same contour as its top surface. The anti-snoring pad is laid on the arc-shaped support surface, allowing independent adjustment of the contour of each area of ​​the pillow body's top surface, thereby pushing and moving the user's head and neck to improve airway patency and achieve the anti-snoring effect. Existing sac strips include multiple serially connected unit sacs. When there are many unit sacs, adjacent unit sacs can move freely, allowing the sac strip's posture to match and conform to the arc-shaped support surface through precise deformation. However, this also results in gaps between adjacent unit sacs, which cannot provide support for the user's head and neck, causing a foreign body sensation. Conversely, when there are few unit sacs, the bottom surface area of ​​each unit sac is large and continuous, resulting in poor flexibility in sac strip deformation and affecting the user experience. Summary of the Invention

[0003] To address the shortcomings of existing technologies, this invention provides a snoring pad, an anti-snoring mat, and a pillow with separate lower units. Multiple lower units are arranged below the upper unit, which not only allows for the creation of movable gaps between adjacent lower units to enhance the anti-snoring effect by improving the deformation performance of the snoring pad, but also utilizes the top surface of the upper unit to form a large, smooth, and continuous contact surface, thereby improving user comfort.

[0004] This invention is achieved through the following method: a sac strip with separate lower units, comprising at least one longitudinally arranged unit sac, each unit sac including an elongated upper unit and at least two longitudinally arranged lower units, with a reserved gap between adjacent lower units. The upper unit is in contact with and covers the top surface of each lower unit. Multiple lower units are arranged below the upper unit, utilizing the top surface of the upper unit to form a large-area, smooth, continuous upper support surface for the user's head and neck, providing effective support and improving comfort. Simultaneously, the bottom surface of the lower units forms multiple smaller-area lower support surfaces with reserved gaps, ensuring that each lower support surface can freely adjust its posture and match the curved support surface. This improved sac strip deformation performance ensures a pushing and anti-snoring effect.

[0005] Preferably, the bladder strip comprises at least two longitudinally arranged and interconnected unit bladders. The orientation of adjacent unit bladders can be adjusted relative to each other, and the air pressure inside adjacent unit bladders can be adjusted synchronously. This reduces the processing difficulty by connecting unit bladders in series, and also allows for the connection of unit bladders in series as needed to obtain a bladder strip that meets the length requirements.

[0006] Preferably, the bottoms of adjacent lower units within the sac strip are connected by air tubes so that the air pressure of the sac strip can be adjusted synchronously. The bottoms of adjacent lower units are connected by air tubes so that the air pressure of each lower unit can be adjusted synchronously through series connection. The lower units are interconnected with their corresponding upper units so that the air pressure in the upper units can also be adjusted synchronously with that in the lower units. This ensures that the air pressure in the sac strip is adjusted synchronously and effectively ensures that the functional areas corresponding to the top surface of the pillow and the sac strip can be adjusted up and down as a whole.

[0007] Preferably, the top surface of the upper unit forms a flat and continuous upper support surface, and the bottom surface of the lower unit forms a lower support surface, the sum of the areas of the lower support surfaces being smaller than the area of ​​the upper support surface. Because there are multiple lower units below the upper unit, this ensures that the upper support surface has a large area to provide stable support for the user's head and neck, while also ensuring that the lower support surfaces have a small area and a large number of units. This allows for easier modification of the contour of the bottom surface of the bladder strip without affecting the support effect, facilitating a better fit with the curved support surface for stable support.

[0008] Preferably, the upper unit is a single-layer structure, formed by stacking and bonding upper substrates. The lower unit is a multi-layer structure, formed by stacking and bonding lower substrates. The hardness of the upper substrate is less than that of the lower substrate. The upper unit serves to connect and position the lower unit below it, ensuring a fixed relative position and allowing for movement gaps. Its single-layer structure also reduces deformation resistance, allowing the sac strip to bend and deform freely. Furthermore, its flat top surface forms a continuous and smooth upper support surface, and sealing the upper end of the movement gap provides comfortable support for the user. The lower unit can overlap the curved support surface via its lower support surface and utilizes the movement gaps for posture adjustment, facilitating bending and deformation of the sac strip. Its multi-layer structure also increases the vertical deformation range, ensuring that the corresponding functional areas on the top surface of the pillow can be lifted to move the head and neck, thus preventing snoring.

[0009] Preferably, the vertical projection of the upper unit completely covers the vertical projection of the lower unit, ensuring that the upper support surface has a large area, thereby providing users with a smooth and continuous upper support surface and improving support comfort.

[0010] An anti-snoring pad includes a pad body, the pad body comprising at least eight pleats arranged equidistantly along the transverse direction of the head and neck. The pleats are arranged front-to-back, effectively reducing the width of the functional area, thus facilitating the movement of the head and neck to the lower lateral areas after being lifted by the functional area. The pleats are sequentially arranged along the transverse direction of the head and neck so that the anti-snoring pad can perform pushing and displacement operations on the head and neck located at any position on the top surface of the head and neck, effectively eliminating blind spots on the top surface of the head and neck and improving the reliability of anti-snoring.

[0011] A pillow includes a pillow body and an anti-snoring component. The anti-snoring component includes an anti-snoring pad. The top of the pillow body has a receiving cavity. The lateral projection of the receiving cavity is curved and undulating, and has the same contour as the top surface of the pillow body. The anti-snoring pad is inserted into the receiving cavity and conforms to the top and bottom walls of the receiving cavity through bending deformation. The anti-snoring pad deforms by inflating and deflating air and adjusts the contour of the top surface of the pillow body. A receiving cavity with the same contour as the pillow's top surface is set on the top surface of the pillow body. The top and bottom walls of the receiving cavity clamp and deform the anti-snoring pad, making the contour of the anti-snoring pad match the contour of the pillow's top surface. This ensures that the distance between each area of ​​the anti-snoring pad and the corresponding area of ​​the pillow's top surface remains constant, guaranteeing that the vertical deformation generated by the anti-snoring pad has the same deformation loss rate when transmitted to the pillow's top surface, effectively improving control precision. Furthermore, by reducing the distance between the anti-snoring pad and the pillow's top surface, it ensures that each area of ​​the pillow's top surface can deform flexibly with the anti-snoring pad, keeping the deformation loss rate within a small range. This allows the anti-snoring pad to push the head to move and stop snoring, improving the user experience. The deformation loss rate refers to the rate at which the vertical deformation amplitude of the anti-snoring sac is converted into the vertical deformation amplitude of the pillow's top surface.

[0012] Preferably, the front and rear portions of the pillow body are raised to form a front arc-shaped surface and a rear arc-shaped surface, respectively, and the top and bottom walls of the receiving cavity and the top surface of the pillow body have the same lateral projection profile. The front and rear arc-shaped surfaces can match and conform to the surface of the user's head and neck, thereby improving comfort and support. The anti-snoring pad shaped by the receiving cavity has the same lateral projection profile as the top surface of the pillow body, so that the support pad can conform to the surface of the user's head and neck when switching between inflation and deflation, ensuring comfort both when lying down and when the head and neck are pushed or moved.

[0013] Preferably, the receiving cavity is arranged horizontally through the pillow body, with the two sides of the anti-snoring pad exposed at the two ends of the receiving cavity, which facilitates the processing of the pillow body and also facilitates the disassembly and maintenance of the anti-snoring pad.

[0014] Preferably, a receiving groove is horizontally formed on the top sidewall of the pillow body, and a sealing block is provided at the opening of the receiving groove. The sealing block and the receiving groove enclose a receiving cavity. The opening of the receiving groove is formed on the sidewall of the pillow body and is sealed by the sealing block, so that the anti-snoring pad is completely inserted and hidden in the receiving cavity, which not only facilitates processing but also improves aesthetics.

[0015] Preferably, buffer pads are provided between the top wall of the receiving cavity and the top surface of the anti-snoring pad, and between the bottom wall of the receiving cavity and the bottom surface of the anti-snoring pad. These buffer pads are made of 3D material and are 1-2 cm thick. The buffer pad located above the anti-snoring pad can conform to the top surface of the anti-snoring pad through its own deformation, effectively reducing the height difference between adjacent anti-snoring sacs caused by inflation and deflation, thereby reducing the feeling of a foreign object. The buffer pad located below the anti-snoring pad can provide support and limit the anti-snoring pad through its own structural strength, preventing the vertical deformation caused by the inflation of the anti-snoring sac from canceling out the contraction deformation caused by the bottom of the pillow, effectively reducing the deformation and breakage rate.

[0016] Preferably, the anti-snoring component includes a control box externally mounted on the pillow body and equipped with bundled tubing, and a detection layer laid on the top surface of the pillow body. The bundled tubing includes circuit lines connected to the detection layer and airway lines independently connected to each pad. The control box senses the user's head and neck position through the detection layer and pushes and displaces the user's head and neck through the anti-snoring pad, thereby improving breathing smoothness.

[0017] Preferably, the detection layer is a flexible sensing fabric. The flexible sensing element can be fitted to the top surface of the pillow, ensuring that the user's head and neck can be sensed by the flexible sensing fabric in all areas of the top surface of the pillow, providing a basis for the control box to control the corresponding padding strips, and effectively reducing the feeling of foreign objects and improving lying comfort.

[0018] Preferably, the pillow body, anti-snoring pad, and detection layer are covered by a pillowcase. The pillowcase serves to cover and position the pillow body, anti-snoring pad, and detection layer, ensuring that the relative positions of each component are fixed.

[0019] The beneficial effects of this invention are as follows: Multiple lower units are arranged below the upper unit. The top surface of the upper unit forms an upper support surface with a large area, which is smooth and continuous and allows the user's head and neck to come into contact with it, providing effective support for the user's head and neck and improving user comfort. The bottom surface of the lower unit forms multiple lower support surfaces with a small area and reserved movement gaps, ensuring that each lower support surface can freely adjust its posture and match and fit the arc-shaped support surface. The pushing and snoring-stopping effect is ensured by improving the deformation performance of the bladder strip. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the structure of the capsule strip described in Embodiment 1;

[0021] Figure 2 This is a schematic diagram of the structure of the unit capsule described in Embodiment 1;

[0022] Figure 3 This is a schematic diagram of the disassembled structure of the unit capsule described in Embodiment 1;

[0023] Figure 4 This is a schematic diagram of the anti-snoring pad described in Example 2;

[0024] Figure 5 This is a schematic diagram of the disassembled structure of the pillow described in Example 3;

[0025] Figure 6 This is a side view of the pillow described in Example 3;

[0026] In the diagram: 1. Pillow body, 2. Cushion body, 3. Pouch strip, 4. Unit pouch, 5. Upper unit, 6. Lower unit, 7. Movement gap, 8. Trachea, 9. Upper substrate, 10. Lower substrate, 11. Receiving cavity, 12. Front arc surface, 13. Rear arc surface, 14. Control box, 15. Detection layer, 16. Pillowcase. Detailed Implementation

[0027] The essential features of the present invention will be further described below with reference to the accompanying drawings and specific embodiments.

[0028] Example 1:

[0029] This embodiment provides a sac strip.

[0030] like Figure 1 and 2 The illustrated snoring pad includes at least one longitudinally arranged unit snoring pad 4. Each unit snoring pad 4 includes an elongated upper unit 5 and at least two longitudinally arranged lower units 6. A gap 7 is provided between adjacent lower units 6. The upper unit 5 is in contact with and covers the top surfaces of each lower unit 6. Multiple lower units are arranged below the upper unit 5. The top surface of the upper unit 5 forms a large, smooth, continuous upper support surface that provides effective support for the user's head and neck, improving comfort. The bottom surfaces of the lower units 6 form multiple smaller lower support surfaces with reserved gaps 7, ensuring that each lower support surface can freely adjust its posture and match the curved support surface. This improved deformation performance of the snoring pad 3 ensures a pushing and snoring-relieving effect.

[0031] In this embodiment, the unit bladder 4 includes an elongated upper unit 5 and multiple lower units 6 arranged along the length of the upper unit 5. The vertical projection of the upper unit 5 completely covers the vertical projection of the lower units 6, such that the sum of the areas of the lower support surfaces is less than the area of ​​the upper support surface. The top surface of the upper unit 5 forms a flat and continuous upper support surface with a large area. This increases the contact area with the user's head and neck surface, improving comfort during snoring relief and preventing sleep disturbances caused by concentrated pressure on the head and neck surface. The bottom surface of the lower units 6 forms multiple lower support surfaces with smaller areas. This increases the total area of ​​the lower support surfaces, improving support stability, and also reduces the area of ​​each lower support surface, facilitating a better fit with the curved support surface. This ensures that the bladder strip 3 can fit with the curved support surface, thereby guaranteeing effective support for the bladder strip 3 and reducing deformation and breakage rates.

[0032] In this embodiment, the pouch strip 3 includes at least two longitudinally arranged and interconnected unit pouches 4. The unit pouches 4 can be mass-produced and spliced ​​together in series according to the preset length of the pouch strip 3, which facilitates large-scale production, reduces production costs, and facilitates splicing and connecting to form a pouch strip 3 that meets the usage requirements, thereby improving production efficiency. In a preferred embodiment, the pouch strip 3 has three unit pouches 4 connected in series through corresponding ends, which ensures that the pouch strip 3 can cover the pillow body 1 from front to back, and also reduces the workload of series assembly by limiting the number of unit pouches 4.

[0033] In this embodiment, the unit capsule 4 includes two longitudinally arranged lower units 6. Limiting the number of lower units 6 facilitates manufacturing and ensures that both ends of the upper unit 5 are supported by the corresponding lower units 6. During installation, the two lower units 6 located below the upper unit 5 are connected by an air pipe 8. Corresponding lower units 6 of adjacent upper units 5 are also linked by air pipes 8, ensuring that the bottoms of adjacent lower units 6 of the entire capsule 3 are connected by air pipes 8, allowing for synchronized adjustment of the capsule 3's air pressure. Each upper unit 5 is connected to its lower unit 6, and inflation / deflation is achieved through the lower units 6, effectively preventing the air pipes 8 from interfering with the lifting and lowering movement of the top of the unit capsule 4.

[0034] In this embodiment, the upper unit 5 is a single-layer structure, which can effectively connect to the lower unit 6 and has good deformation performance, allowing its two ends to move in tandem with the corresponding lower unit 6. This enables the unit bladder 4 to switch between an undeformed state where the centerlines of adjacent lower units 6 are parallel and a deformed state where the centerlines of adjacent lower units 6 intersect, thereby ensuring that the bladder strip 3 can achieve a matching fit with the arc-shaped support surface through deformation. The upper unit 5 is formed by stacking and bonding the upper substrate 9 (e.g., ...). Figure 3 As shown, the upper substrate 9 consists of two pieces, which are bonded together at the periphery to form the upper unit 5, which facilitates processing and ensures the sealing reliability of the upper unit 5.

[0035] In this embodiment, the lower unit 6 has a multi-layer structure, which facilitates the overall swinging of the lower unit 6 and adjustment of its midline posture, thereby cooperating with the deformation of the bladder strip 3. Furthermore, the independent deformation of each layer can be superimposed to ensure that the bladder strip 3 can form a raised deformation amplitude that meets the anti-snoring requirements. The lower unit 6 is formed by stacking and bonding the lower substrate 10, which facilitates mass production and allows for free control of the number of layers, thus obtaining a deformation amplitude that meets the usage requirements.

[0036] In this embodiment, the hardness of the upper substrate 9 is less than that of the lower substrate 10. The softer upper substrate 9 forms a support surface that allows for flexible contact between the user's head and neck, and its central bending deformation accommodates the relative posture changes of the lower units 6 on both sides, ensuring that the lower units 6 remain connected and can be adjusted in posture. The harder lower substrate 10 ensures that the lower units 6 can bulge in a preset direction after inflation, thereby transmitting a pushing force in that direction and improving the reliability of anti-snoring measures.

[0037] Example 2:

[0038] Compared to Embodiment 1, this embodiment provides an anti-snoring pad.

[0039] like Figure 4 The anti-snoring pad shown includes a pad body 2, which includes at least eight pads 3 arranged equidistantly along the transverse direction of the pillow body 1. The pads 3 are positioned along the width of the pillow body 1 to ensure that the user's head and neck can be pushed and displaced by the corresponding pad 3 when located in any functional area of ​​the pillow body 1, effectively eliminating blind spots and improving the reliability of anti-snoring.

[0040] In this embodiment, the pad strips 3 are always arranged in parallel to each other and are assembled to form an anti-snoring pad with a square vertical projection. It can be connected and positioned by connectors, or the pad strips 3 can be directly adhered to the top surface of the pillow body 1 for positioning. Both of these can be regarded as specific implementation methods of this embodiment.

[0041] The other structures and effects of the sac strip 3 described in this embodiment are the same as those in Embodiment 1, and will not be repeated here.

[0042] Example 3:

[0043] Compared to Embodiment 2, this embodiment provides a pillow.

[0044] like Figure 5The pillow shown includes a pillow body 1 and an anti-snoring component. The anti-snoring component includes an anti-snoring pad. The top of the pillow body 1 has a receiving cavity 11. The lateral projection of the receiving cavity 11 is curved and undulating, and has the same contour as the top surface of the pillow body 1. The anti-snoring pad is inserted into the receiving cavity 11 and conforms to the top and bottom walls of the receiving cavity 11 through bending deformation. The anti-snoring pad deforms and adjusts the contour of the top surface of the pillow body 1 by inflation and deflation. The top and bottom walls of the receiving cavity 11 and the top surface of the pillow body 1 have the same lateral projection contour. The top and bottom walls of the receiving cavity 11 are used to clamp and shape the anti-snoring pad, so that the anti-snoring pad has the same lateral projection contour as the top surface of the pillow body 1, thereby achieving a smaller deformation loss rate for each functional area that fluctuates within a small range.

[0045] In this embodiment, the front and rear edges of the top of the pillow body 1 are raised upwards to form an arc-shaped support portion, ensuring that the top surface of the pillow body 1 can match and fit the top surface of the user's head and neck, effectively improving the reliability and comfort of the support. The arc-shaped support surface is arranged parallel to the top surface of the arc-shaped support portion, which plays a supporting and shaping role for the anti-snoring pad, ensuring that the anti-snoring pad can bend and deform and is arranged parallel to the top surface of the arc-shaped support portion, ensuring that the anti-snoring pad has both comfort and reliability when pushing the user's head and neck to move.

[0046] In this embodiment, the front and rear parts of the pillow body 1 are raised to form a front arc-shaped surface 12 and a rear arc-shaped surface 13. By setting the front arc-shaped surface 12 and the rear arc-shaped surface 13, they fit the surface of the user's head and neck, thereby improving the support comfort.

[0047] In this embodiment, the receiving cavity 11 is arranged laterally through the pillow body 1, and the two ends of the receiving cavity 11 are exposed (e.g., Figure 6 As shown in the figure, this facilitates the removal and maintenance of the anti-snoring pad. Furthermore, a receiving groove is laterally formed on the top sidewall of the pillow body 1, and a sealing block is provided at the opening of the receiving groove. The sealing block and the receiving groove enclose a receiving cavity 11, which should also be considered a specific implementation of this embodiment.

[0048] In this embodiment, buffer pads are provided between the top wall of the receiving cavity 11 and the top surface of the anti-snoring pad, and between the bottom wall of the receiving cavity 11 and the bottom surface of the anti-snoring pad. The top and bottom surfaces of the anti-snoring pad are covered with adhesively bonded buffer pads to alleviate the uneven contours caused by the rise and fall of the anti-snoring sac, and this should also be considered a specific implementation of this embodiment. The buffer pads are made of 3D material with a thickness of 1-2 cm.

[0049] In this embodiment, the anti-snoring component includes a control box 14 externally mounted on the pillow body 1 and equipped with a bundled conduit, and a detection layer 15 laid on the top surface of the pillow body 1. The bundled conduit includes circuit lines connected to the detection layer 15 and airway lines independently connected to each pad strip 3. The control box 14 senses the position of the user's head and neck through the detection layer 15 and pushes and displaces the user's head and neck through the anti-snoring pad, thereby improving breathing smoothness.

[0050] In this embodiment, the pillow body 1, the anti-snoring pad, and the detection layer 15 are wrapped by a pillowcase 16. The pillowcase 16 serves to wrap and position the pillow body 1, the anti-snoring pad, and the detection layer 15, ensuring that the relative positions of each component are fixed.

[0051] In this embodiment, the detection layer 15 is a flexible sensing fabric. Alternatively, it can be a sleeping posture sensing strip that is set on the front edge of the pillow body 1 and exposed, which should also be considered as a specific implementation of this embodiment.

[0052] The other structures and effects of the anti-snoring sac described in this embodiment are the same as those in Embodiment 2, and will not be repeated here.

Claims

1. A sac strip with a split lower unit, comprising at least one longitudinally arranged unit sac (4), characterized in that, The unit capsule (4) includes an upper unit (5) in the shape of a long strip and at least two lower units (6) arranged longitudinally. An movable gap (7) is reserved between adjacent lower units (6). The upper unit (5) is attached to and connected to the top surface of each lower unit (6) and covers the movable gap (7).

2. A bag strip with a split lower unit according to claim 1, characterized in that, The sac strip (3) includes at least two longitudinally arranged and interconnected unit sacs (4).

3. A bag strip with a split lower unit according to claim 2, characterized in that, The bottoms of adjacent lower units (6) within the bag strip (3) are connected by an air tube (8) so that the air pressure of the bag strip (3) can be adjusted synchronously; or, the top surface of the upper unit (5) forms a flat and continuous upper support surface, and the bottom surface of the lower unit (6) forms a lower support surface, and the sum of the areas of the lower support surfaces is less than the area of ​​the upper support surface.

4. A bag strip with a split lower unit according to claim 1, characterized in that, The upper unit (5) is a single-layer structure, formed by stacking and bonding upper substrates (9). The lower unit (6) is a multi-layer structure, formed by stacking and bonding lower substrates (10). The hardness of the upper substrate (9) is less than that of the lower substrate (10). Alternatively, the vertical projection of the upper unit (5) completely covers the vertical projection of the lower unit (6).

5. An anti-snoring pad, comprising a pad body (2), characterized in that, The pad (2) includes the sac strips (3) as described in any one of claims 1-4, wherein there are at least eight sac strips (3) and they are arranged equidistantly in the transverse direction along the pillow body (1).

6. A pillow comprising a pillow body (1) and an anti-snoring component, characterized in that, The anti-snoring component includes the anti-snoring pad as described in claim 5. The top of the pillow body (1) is provided with a receiving cavity (11). The lateral projection of the receiving cavity (11) is curved and undulating, and is the same as the top surface contour of the pillow body (1). The anti-snoring pad is inserted into the receiving cavity (11) and matches and fits the top and bottom walls of the receiving cavity (11) through bending deformation. The anti-snoring pad deforms by inflation and deflation and adjusts the top surface contour of the pillow body.

7. A pillow according to claim 6, characterized in that, The front and rear parts of the pillow body (1) are raised to form a front arc-shaped surface (12) and a rear arc-shaped surface (13). The top and bottom walls of the receiving cavity (11) and the top surface of the pillow body (1) have the same transverse projection profile. Alternatively, the receiving cavity (11) is transversely arranged on the pillow body (1). Alternatively, the top side wall of the pillow body (1) is transversely opened with a receiving groove, and a sealing block is provided at the opening of the receiving groove. The sealing block and the receiving groove enclose the receiving cavity (11).

8. A pillow according to claim 6, characterized in that, A buffer pad is provided between the top wall of the receiving cavity (11) and the top surface of the anti-snoring pad, and between the bottom wall of the receiving cavity (11) and the bottom surface of the anti-snoring pad. The buffer pad is made of 3D material and has a thickness of 1-2cm.

9. A pillow according to any one of claims 6-8, characterized in that, The anti-snoring component includes a control box (14) externally placed on the pillow body (1) and having a bundled pipeline, and a detection layer (15) laid on the top surface of the pillow body (1). The bundled pipeline includes circuit lines connected to the detection layer (15) and airway lines independently connected to each sac strip (3).

10. A pillow according to claim 9, characterized in that, The detection layer (15) is a flexible sensing fabric; or, the pillow body (1), the anti-snoring pad and the detection layer (15) are wrapped in a pillowcase (16).

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