Double-layer intelligent snore stopping pillow

Abstract

The utility model relates to a double-layer intelligent snore stopping pillow which comprises a pillow inner, a pillowcase, an upper-layer air bag unit, a lower-layer air bag unit, a flexible fabric sensor, an air pipe sleeve and a controller. The pillow case is used for wrapping the pillow inner; the upper-layer air bag units and the lower-layer air bag units are regularly arranged on the inner upper layer and the inner lower layer of the pillow inner to form a double-layer air bag structure. By innovatively designing the double-layer air bag structure and adopting the high-sensitivity flexible fabric sensor and the high-sensitivity flexible fabric sensor array, snoring sound can be sensitively captured, moderate and severe snoring is effectively reduced, and the requirements of patients with different snoring degrees are met. Upper and lower layers of independent air bags and a supporting layer are arranged in the pillow inner; and each air bag is connected with an inflator pump device. The pillow core of the double-layer snore-stopping pillow adopts an innovative structural design, two layers of independent air bags are arranged in the pillow core, and each layer has a unique function, so that better sleep quality is provided and snore is reduced.

Description

TECHNICAL FIELD

[0001] The utility model relates to health monitoring technical field, concretely relates to a double -deck intelligence snore -stop pillow. BACKGROUND

[0002] According to the relevant report shows, the average sleep length of the people is shortened year by year in the past 10 years, and sleep quality is declining, such as insomnia, snoring, sleep apnea syndrome, Parkinson sleep disorder and so on sleep disorder incidence is rising rapidly. Snoring makes the sleeper body hypoxia, and blood oxygen content reduces, seriously affects the function of heart and brain, greatly improves the risk of series chronic diseases such as hypertension, heart disease; long time sleep apnea hypoxia, cannot get timely intervention treatment, will make the whole body multiple organ damage, harm the physical and mental health.

[0003] The snore -stop pillow product on the market is basically single -layer air bag structure at present, through monitoring the snoring condition of user, timely starting the air pump and giving the air bag of pillow ventilation, guiding the lateral turning of user's head to reduce snoring. Actually, the snore -stop pillow of this structure has narrow adaptation, cannot cover mild, moderate and severe snoring patients, and the product is limited by material and algorithm system, and there are some deficiencies in sensitivity, accuracy and the like.

[0004] Therefore, developing a high -sensitive, intelligent and non -inductive snore -stop equipment that can accurately and effectively improve the different snoring degree of light, medium and heavy has extensive practical significance and large market demand. CONTENT OF UTILITY MODEL

[0005] The utility model solves the technical problem to provide a double -deck intelligence snore -stop pillow.

[0006] The utility model solves the technical problem and adopts the technical scheme that:

[0007] A double -deck intelligence snore -stop pillow, including pillow core, pillowcase, upper layer air bag unit, lower layer air bag unit, flexible fabric sensor, air pipe cover and controller;

[0008] The pillowcase is used for wrapping up the pillow core;

[0009] The upper layer air bag unit and the lower layer air bag unit are regularly arranged and set up in the internal upper layer and internal lower layer of the pillow core, and form double -deck air bag structure;

[0010] The upper layer air bag unit includes a plurality of upper layer air bags, or a plurality of independent upper layer air bag subareas are divided on the upper layer air bag unit by flexible sealing technology, and the plurality of upper layer air bags or the plurality of upper layer air bag subareas are led out the pillow core and the pillowcase through independent air valve and soft air pipe and are communicated with the ventilation interface of the controller;

[0011] The lower airbag unit includes several lower airbags, or several independent lower airbag partitions are divided on the lower airbag unit by means of flexible sealing technology. The several lower airbags or the several lower airbag partitions are also led out of the pillow core and the pillowcase through independent air valves and soft air tubes, and are connected to the ventilation interface of the controller.

[0012] The air tube sleeve covers the plurality of soft air tubes for wrapping and storing the plurality of soft air tubes and wiring. The air tube sleeve passes through the pillowcase, connects the pillow core and the controller, and leads the controller out of the pillowcase.

[0013] The flexible fabric sensor is regularly arranged inside the pillow core or on the upper surface of the pillow core. It is used to collect and monitor the sleeper's breathing, snoring vibrations and other human vital signs data. The sensor is led out of the pillowcase and electrically connected to the controller through a wire.

[0014] The controller integrates an air pump module and a sensor data acquisition and processing module. The air pump module inflates and deflates several airbags in the upper and lower airbag units through the air inlet, the flexible air tube, and the air valve. The sensor data acquisition and processing module acquires and processes data with the flexible fabric sensor or other sensors through wires, and communicates with external mobile terminals or electronic terminals through the signal receiving and transmitting module.

[0015] Furthermore, a support layer is regularly provided between the lower airbag unit and the pillow core. An equal number of lower airbag positioning grooves are provided on the support layer at the positions of the lower airbags or the lower airbag partitions. The lower airbags or the lower airbag partitions are regularly installed and arranged in the lower airbag positioning grooves.

[0016] Alternatively, a support layer may be provided between the lower airbag unit and the upper airbag unit and the pillow core;

[0017] The support layer is used to support the lower airbag unit or the upper airbag unit, and is regularly arranged at the lower end of the lower airbag unit or the upper airbag unit.

[0018] Furthermore, the smart anti-snoring pillow also includes several flexible pressure sensors for detecting and identifying the sleeper's head. These flexible pressure sensors constitute the position sensor of the smart anti-snoring pillow. The flexible pressure sensors are regularly arranged at the upper end of the upper airbag unit, or regularly arranged on the upper surface of the pillow core located at the upper end of the upper airbag unit.

[0019] Furthermore, the upper front part of the pillow core is convex upward to form a neck support for supporting the neck, and the upper rear part is concave downward or flat to form a head support for supporting the head. The flexible fabric sensor is regularly arranged inside or on the upper surface of the neck support.

[0020] Furthermore, the tracheal sleeve is provided in two sets, forming an upper tracheal sleeve and a lower tracheal sleeve respectively. Several soft air tubes in the upper airbag unit are led out from the upper tracheal sleeve and connected to the controller, and several soft air tubes in the lower airbag unit are led out from the lower tracheal sleeve and connected to the controller.

[0021] Furthermore, the plurality of upper airbags or the plurality of upper airbags are arranged longitudinally inside the pillow core to form a plurality of rows of upper airbags, and the plurality of rows of upper airbags control and adjust the left and right height and shape of the anti-snoring pillow.

[0022] The lower airbags or the lower airbags are arranged in a matrix inside the pillow core to form several groups of lower airbags. The groups of lower airbags control and adjust the overall height and shape of the smart anti-snoring pillow; or the groups of lower airbags cooperate with the several rows of upper airbags to jointly control and adjust the left and right height and shape of the smart anti-snoring pillow.

[0023] Furthermore, the smart anti-snoring pillow also includes a front airbag, which is arranged laterally inside the pillow core and regularly positioned at the front end of the pillow core. The front airbag is led out of the pillow core and the pillowcase through an air valve and a soft air tube, and connected to the air interface of the controller, so that the air pump module inflates and deflates the front airbag to control and adjust the height and shape of the front airbag.

[0024] Furthermore, the controller is also equipped with a display screen, a power switch, a front airbag control button, a lower airbag unit control button, and an interface. The display screen is used to display the working status and parameter data of the smart anti-snoring pillow. The power switch is used to control the on / off status and function selection of the smart anti-snoring pillow. The front airbag control button is used to control the inflation and deflation of the front airbag. The lower airbag unit control button is used to control the inflation and deflation of the airbags in the lower airbag unit. The interface is electrically connected to an external power adapter or power bank via a data cable, thereby providing power to the smart anti-snoring pillow through the power adapter or power bank.

[0025] Furthermore, the flexible fabric sensor is regularly disposed on the upper surface of the front airbag, or regularly disposed on the upper surface of the pillow core located at the upper end of the front airbag.

[0026] The beneficial effects of this utility model are:

[0027] This invention, through its innovative double-layer airbag structure and the use of a highly sensitive flexible fabric sensor and its array, can sensitively capture snoring sounds and effectively reduce moderate and severe snoring, meeting the needs of patients with different levels of snoring. The pillow core contains two independent airbags and a support layer, each airbag connected to an inflation pump. The double-layer anti-snoring pillow features an innovative structural design with two independent airbags, each with its unique function, designed to provide better sleep quality and reduce snoring. This invention's double-layer intelligent anti-snoring pillow can inflate and deflate several upper airbags or both upper and lower airbags simultaneously without disturbing the user's sleep. This allows the upper airbags to gently push the head to the side, making the upper airway clearer and thus improving snoring. Attached Figure Description

[0028] Figure 1 This is a structural diagram of the present invention;

[0029] Figure 2 for Figure 1 Explosion state diagram;

[0030] Figure 3 for Figure 2 Explosion state diagram of another embodiment;

[0031] Figure 4 for Figure 1 Structure diagram of the controller;

[0032] in:

[0033] 1. Pillow core, 2. Tracheal sleeve, 3. Controller, 4. Upper airbag, 5. Front airbag, 6. Lower airbag, 7. Support layer, 8. Flexible fabric sensor, 9. Flexible pressure sensor.

[0034] 11. Top layer pillow core; 12. Middle layer pillow core; 13. Bottom layer pillow core;

[0035] 101. Neck support; 102. Head support; 1101. Head positioning area;

[0036] 1201, upper airbag positioning groove; 1202, groove; 1203, front airbag positioning groove;

[0037] 701, Lower airbag positioning groove; 301, Display screen; 302, Switch button; 303, Front airbag control button; 304, Lower airbag control button; 305, Interface. Detailed Implementation

[0038] 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.

[0039] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this invention pertains. The terminology used herein is for the purpose of describing particular embodiments only and is not intended to be limiting of the invention. The term "and / or" as used herein includes any and all combinations of one or more of the associated listed items.

[0040] like Figures 1-4 As shown, this utility model provides a double-layer intelligent anti-snoring pillow, including a pillow core 1, an air tube sleeve 2, a controller 3, several upper airbags 4, several lower airbags 6, and a flexible fabric sensor 8. The upper airbags 4 and lower airbags 6 are regularly arranged in the upper and lower inner layers of the pillow core 1, forming a double-layer airbag structure. The upper airbags 4 and lower airbags 6 are led out of the pillow core 1 through flexible air tubes and connected to the ventilation interface of the controller 3. The flexible air tubes leading out of the pillow core 1 are wrapped and stored in the air tube sleeve 2, which connects the pillow core 1 and the controller 3. The flexible fabric sensor 8 is also regularly arranged inside or on the upper surface of the pillow core 1, used to collect and monitor the sleeper's breathing, heart rate, snoring vibrations, and other vital signs data. The flexible fabric sensor 8 is led out of the pillow core 1 through wires and electrically connected to the controller 3 through the air tube sleeve 2.

[0041] Furthermore, several upper airbags 4 are regularly arranged inside the pillow core 1 to control the left and right height and shape of the pillow core 1. When the flexible fabric sensor 8 detects snoring vibration, it drives several upper airbags 4 to inflate and deflate without disturbing the user's sleep quality. This causes the upper airbags to gently push the head to turn to the side, making the upper airway smoother and thus improving the snoring effect.

[0042] Furthermore, several lower airbags 6 are regularly arranged inside the lower layer of the pillow core to control the overall height and shape of the pillow core 1. Users can adjust the height of the lower airbags 6 according to their needs, thereby adjusting the anti-snoring pillow to the optimal and most comfortable height and shape. At the same time, the lower airbags 6 can also work in conjunction with the upper airbags 4 to synchronously control the left and right height and shape of the pillow core.

[0043] Furthermore, this utility model of a double-layer intelligent anti-snoring pillow also includes a pillowcase for wrapping the pillow core 1. The pillowcase is made of a comfortable fabric, including but not limited to pure cotton, fiber composites, and other eco-friendly high-grade materials such as cotton fiber, Tencel, cashmere, camel hair, and linen, thereby allowing the anti-snoring pillow to have excellent breathability. The tracheal tube 2 passes through the pillowcase to lead out the controller 3, thus placing the controller 3 on the outside of the pillowcase.

[0044] Furthermore, Pillow Core 1 features an ergonomic design that provides comprehensive support for the head and cervical spine, gently distributing and transmitting pressure for a more comfortable sleep. Pillow Core 1 is made from soft, elastic materials, preferably memory foam or latex.

[0045] Furthermore, such as Figure 1 As shown, the upper front part of the pillow core 1 is designed to bulge upward to form a neck support part 101 for supporting the neck, and the upper rear part is designed to be recessed downward or flat to form a head support part 102 for supporting the head.

[0046] like Figure 2 As shown, the upper airbag 4 and the lower airbag 6 are arranged and installed inside the upper and lower layers of the pillow core 1. The pillow core 1 includes a top pillow core 11, a middle pillow core 12, and a bottom pillow core 13. After all the airbags, soft air tubes, sensors, and other components are installed inside the pillow core 1, the edges of the top pillow core, middle pillow core, and bottom pillow core are joined together by heat pressing, gluing, or sewing to form a single piece.

[0047] Furthermore, between the middle layer pillow core 12 and the top layer pillow core 11, there are a number of upper layer airbag positioning grooves 1201, which are equal in number to the number of upper layer airbags 4. The number of upper layer airbags 4 are regularly arranged and installed in the number of upper layer airbag positioning grooves 1201.

[0048] Furthermore, the upper end of the middle layer pillow core 12 is regularly provided with grooves 1202 for the soft air tubes of several upper layer airbags 4 to be led out. The soft air tubes of several upper layer airbags 4 are regularly led out from the grooves 1202 into the air tube sleeve 2, and further pass through the air tube sleeve 2 to connect with the ventilation interface of the controller 3.

[0049] Furthermore, several upper airbags 4 are arranged in independent zones and connected to TPE soft air tubes through air valves. Several TPE soft air tubes lead out of the pillow core 1 and connect to the ventilation interface of the controller 3. The controller 3 integrates an air pump module, which independently inflates and deflates the several upper airbags 4, thereby controlling the height and shape of the several upper airbags to control and change the height and shape of the pillow core and the smart anti-snoring pillow.

[0050] Furthermore, at least three sets of upper airbag positioning grooves 1201 and upper airbags 4 are provided between the middle layer pillow core 12 and the top layer pillow core 11. The three sets of upper airbag positioning grooves and upper airbags are regularly arranged along the left, middle and right sides of the pillow core. Preferably, in one embodiment, as shown... Figure 2 As shown, there are five sets of upper airbag positioning grooves and upper airbags, arranged parallel and equidistantly along the longitudinal direction of the pillow core. The more upper airbags there are, the higher the control precision of the pillow core, but the cost also increases. Therefore, strip-shaped airbags are preferred for the upper layer, arranged parallel longitudinally, allowing for control of the pillow core's lateral height and shape. Preferably, five rows of upper airbags are used, ensuring that the head can be turned laterally at different positions on the anti-snoring pillow, placing the head in the correct position and thus improving the upper airway and reducing snoring.

[0051] Furthermore, such as Figure 2 As shown, in order to effectively support the lower airbags 6, a support layer 7 is regularly provided at the upper end of the bottom pillow core 13. The support layer 7 is regularly provided with a number of lower airbag positioning grooves 701 equal to the number of lower airbags 6. The lower airbags 6 are regularly arranged and installed in the lower airbag positioning grooves 701.

[0052] Furthermore, the upper end of the support layer 7 is also regularly provided with grooves for the soft air tubes of several lower airbags to be led out. The soft air tubes of several lower airbags are regularly led out from the grooves of the support layer into the air tube sleeve 2, and further pass through the air tube sleeve 2 to connect with the air inlet of the controller 3.

[0053] Of course, when the top pillow core 11 and the middle pillow core 12 are made of porous latex or porous memory foam, the soft air tube of the air bladder can pass through the round holes of the porous latex or porous memory foam.

[0054] Furthermore, the soft air tube of the airbag is led out from the middle area of ​​the pillow core, and is led out from the side and back of the pillow core as much as possible. This can prevent the head and neck from crushing the soft air tube, causing blockage of the soft air tube, and affecting the inflation and deflation function of the airbag.

[0055] Furthermore, the support layer 7 is made of elastic plastic material, which can effectively support several lower airbags 6 and prevent the position of several lower airbags 6 from shifting. At the same time, it also provides a basis for shaping the snoring pillow.

[0056] Of course, a support layer can also be set between the upper airbags 4 and the middle pillow core 12 to provide some support for the upper airbags 4. When a support layer is set between the upper airbags 4 and the middle pillow core 12, the material used for the support layer should be as soft as possible to avoid compromising the overall comfort of the smart anti-snoring pillow.

[0057] Furthermore, such as Figure 2 As shown, the tracheal sleeve 2 is provided in two sets, forming an upper tracheal sleeve 201 and a lower tracheal sleeve 202. The soft air tubes of several upper airbags 4 are led out from the upper tracheal sleeve 201 and connected to the controller, and the soft air tubes of several lower airbags 6 are led out from the lower tracheal sleeve 202 and connected to the controller.

[0058] Furthermore, several lower-level airbags 6 are also arranged in independent zones, with a matrix-style zone arrangement being preferred. For example... Figure 2 As shown, in one embodiment, there are eight lower airbags 6 arranged in two rows, with four in each row.

[0059] like Figure 2 As shown, the present invention provides a double-layer intelligent anti-snoring pillow, which also includes a front airbag 5, which is arranged laterally between the middle pillow core 12 and the top pillow core 11. Therefore, a front airbag positioning groove 1203 for mounting and positioning the front airbag 5 is also regularly arranged between the middle pillow core 12 and the top pillow core 11.

[0060] Furthermore, the front airbag positioning slot 1203 is located at the neck support 101. When the front airbag 5 is installed inside the neck support 101, the height and shape of the front airbag 5 can be adjusted by the controller 3, thereby controlling the height and shape of the strip-shaped neck support 101, so that the neck support 101 can better fit the neck of different people and provide gentle support for the neck.

[0061] Furthermore, in order to effectively and accurately collect and monitor vital signs such as respiration, heart rate, and snoring vibrations, the flexible fabric sensor 8 is regularly installed on the upper end of the front airbag 5, or on the upper end of the neck support 101 at the top of the top layer of the pillow core. Figure 3 As shown, in one embodiment, the flexible fabric sensor 8 is installed on the upper end of the front airbag 5 and is encapsulated inside the pillow core 1 together with the front airbag 5.

[0062] The flexible fabric sensor 8 can monitor the vibration signals caused by the user's breathing and snoring in real time. Through the processing and algorithm of the detection system, it can accurately identify the user's snoring.

[0063] Furthermore, to improve the sensitivity of the flexible fabric sensor 8, the sensor structure has been innovatively modified by introducing laser-induced chemical doping technology onto the fabric substrate. By reducing the metal-semiconductor junction interface spacing and lowering the height of the Schottky barrier, a flexible sensor with good ohmic contact is fabricated. A position sensor is also built into the pillow core to detect the position of the headrest within the air bladder, facilitating precise control of the air bladder's inflation and deflation.

[0064] like Figure 3As shown, this utility model discloses a double-layer intelligent anti-snoring pillow, which also includes several flexible pressure sensors 9. These flexible pressure sensors form the pillow's position sensor. By collecting and processing the pressure data from these sensors, the specific position of the human head resting on the anti-snoring pillow and the upper airbag is determined, thus facilitating precise control of the inflation and deflation of the upper and lower airbags.

[0065] Furthermore, several flexible pressure sensors 9 are regularly installed on the upper ends of several upper airbags 4, or installed on the upper ends of the head support 102 at the locations of several upper airbags.

[0066] Furthermore, such as Figure 3 As shown, the upper end of the top layer pillow core 11 has several downwardly recessed grooves regularly arranged at the positions of several upper air bladders 4. Several flexible pressure sensors 9 can be attached to several top positioning areas 1101 at the upper end of the top layer pillow core 11.

[0067] Furthermore, the controller 3 of this utility model integrates an air pump module and a sensor data acquisition and processing module. The air pump module includes several air inlets, which are connected to several upper airbags, front airbags and several lower airbags through flexible air tubes, and control the inflation and deflation of the airbags.

[0068] Furthermore, the sensor data acquisition and processing module, including an ADC acquisition unit, a filtering unit, an amplification unit, an AD analog-to-digital conversion unit, and a data processing and analysis unit, is electrically connected to the flexible fabric sensor 8 and several flexible pressure sensors 9. The flexible fabric sensor 8 collects vibration signals caused by the user's breathing and snoring, while the flexible pressure sensors 9 detect the position of the user's head on the anti-snoring pillow. The collected analog signals are converted into electrical signals and output to the signal processing module. After filtering, amplification, and other processing by the internal analog circuitry of the signal processing module, they are converted into digital signals. Subsequently, the software module visualizes the data and outputs sleep reports. The software module uses a respiratory frequency domain separation algorithm to analyze and process the data, identify the user's snoring level, and uses machine learning algorithms to perform big data analysis on the user's sleep breathing, snoring, and other physiological signals, which can more sensitively identify sleep apnea events and assist in the diagnosis of sleep apnea syndrome (OSA).

[0069] Furthermore, the controller will immediately activate the air pump module according to the preset program algorithm to inflate or deflate the airbag, or automatically adjust the inflation volume of the airbag. The controller intelligently activates the inflation or deflation of single-layer / double-layer airbags based on the intensity of snoring, enabling them to work together.

[0070] Furthermore, the controller 3 also integrates a signal receiving and transmitting module, which includes a wireless transmission unit and a wired data transmission unit. The wireless transmission unit includes Wi-Fi and Bluetooth Low Energy chips, as well as a flash chip, for wireless data transmission and reception, with a preference for the relatively low-cost Wi-Fi and Bluetooth Low Energy chips. The wired data transmission unit includes a data interface chip for wired data transmission and reception, prioritizing the relatively low-cost and widely compatible USB 2.0 chip and data interface.

[0071] Furthermore, the controller 3 also integrates a power control module, which includes a power chip for voltage conversion and power distribution. The power control module drives the operation of the aforementioned air pump module, sensor data acquisition and processing module, signal receiving and transmitting module, and other related modules.

[0072] like Figure 4 The diagram shows the external structure of controller 3. To improve its usability, controller 3 also includes a display screen 301, a power switch 302, a front airbag control button 303, a lower airbag control button 304, and an interface 305. The display screen 301 is a TFT color screen used to display the air pressure status of each airbag inside the pillow core, the working status of each flexible sensor, and the inflation / deflation status and pressure of the airbags. The power switch 302 controls the entire smart anti-snoring pillow's on / off state. It also functions as a selection button for other functions; a long press turns the pillow on / off, while a single press or double press switches between functions. The front airbag control button 303 controls the inflation / deflation of the front airbag 5. The lower airbag control button 304 controls the inflation / deflation of the lower airbag 6. Interface 305 is used to electrically connect to an external power adapter or power bank to provide power to the smart anti-snoring pillow, or to directly connect to a computer or other devices to provide power to the smart anti-snoring pillow while communicating with it to collect data and control the airbags.

[0073] Furthermore, the mobile terminal includes mobile devices such as smartphones, tablets, and smartwatches. This invention's smart anti-snoring pillow can record the user's sleep data and snoring information. This data and information is transmitted wirelessly to the terminal (via Bluetooth Low Energy, Wi-Fi, satellite flash, 5G, etc.). Simultaneously, users can input their own information into the app to match a more suitable level of proactive intervention, and conveniently view their own or their family members' snoring patterns, including the frequency of snoring, snoring intensity, anti-snoring interventions, sleep duration, sleep quality, etc. It can also generate sleep reports to help users better understand their sleep status and take corresponding improvement measures.

[0074] The aforementioned upper and lower airbags can also be designed as a single unit. Using TPU flexible sealing technology, the upper airbag is divided into several independent sections. Each independent section is connected to the air interface of the controller through an air valve and a soft air tube leading out of the pillow core. The air pump module in the controller inflates and deflates each independent section of the upper airbag to drive the height and shape of each section of the upper airbag. The deformation of each section of the upper airbag then pushes the head to turn to the side.

[0075] Correspondingly, like the upper airbag, the lower airbag has several independent zones, and each independent zone is inflated and deflated separately.

[0076] The specific embodiments described above further illustrate the purpose, technical solution, and beneficial effects of this utility model. It should be understood that the above descriptions are merely specific embodiments of this utility model and are not intended to limit this utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this utility model should be included within the protection scope of this utility model.

Claims

1. A double-layer intelligent anti-snoring pillow, comprising a pillow core, characterized in that: Also includes: Pillowcase, upper airbag unit, lower airbag unit, flexible fabric sensor, air tube sleeve and controller; The pillowcase is used to wrap the pillow core; The upper airbag unit and the lower airbag unit are regularly arranged in the upper and lower inner layers of the pillow core to form a double-layer airbag structure. The upper airbag unit includes several upper airbags, or several independent upper airbag partitions are divided on the upper airbag unit by flexible sealing technology. The several upper airbags or the several upper airbag partitions lead out the pillow core and the pillowcase through independent air valves and soft air tubes, and are connected to the ventilation interface of the controller. The lower airbag unit includes several lower airbags, or several independent lower airbag partitions are divided on the lower airbag unit by means of flexible sealing technology. The several lower airbags or the several lower airbag partitions are also led out of the pillow core and the pillowcase through independent air valves and soft air tubes, and are connected to the ventilation interface of the controller. The air tube sleeve covers the plurality of soft air tubes for wrapping and storing the plurality of soft air tubes and wiring. The air tube sleeve passes through the pillowcase, connects the pillow core and the controller, and leads the controller out of the pillowcase. The flexible fabric sensor is regularly arranged inside the pillow core or on the upper surface of the pillow core. It is used to collect and monitor the sleeper's breathing, snoring, and other vital signs data. The sensor is also led out of the pillowcase and electrically connected to the controller via a wire. The controller integrates an air pump module and a sensor data acquisition and processing module. The air pump module inflates and deflates several airbags in the upper and lower airbag units through the air inlet, the flexible air tube, and the air valve. The sensor data acquisition and processing module acquires and processes data with the flexible fabric sensor through wires, and communicates with external mobile terminals or electronic terminals through the signal receiving and transmitting module.

2. The double-layer intelligent anti-snoring pillow according to claim 1, characterized in that: A support layer is regularly arranged between the lower airbag unit and the pillow core. An equal number of lower airbag positioning grooves are provided on the support layer at the positions of the lower airbags or the lower airbag partitions. The lower airbags or the lower airbag partitions are regularly installed and arranged in the lower airbag positioning grooves. Alternatively, a support layer may be provided between the lower airbag unit and the upper airbag unit and the pillow core; The support layer is used to support the lower airbag unit or the upper airbag unit, and is regularly arranged at the lower end of the lower airbag unit or the upper airbag unit.

3. The double-layer intelligent anti-snoring pillow according to claim 1, characterized in that: The smart anti-snoring pillow also includes several flexible pressure sensors for detecting and identifying the sleeper's head. These flexible pressure sensors constitute the position sensor of the smart anti-snoring pillow. The flexible pressure sensors are regularly arranged at the upper end of the upper airbag unit, or regularly arranged on the upper surface of the pillow core located at the upper end of the upper airbag unit.

4. The double-layer intelligent anti-snoring pillow according to claim 1, characterized in that: The upper front part of the pillow core is convex upward to form a neck support for supporting the neck, and the upper rear part is concave downward or flat to form a head support for supporting the head. The flexible fabric sensor is regularly arranged inside or on the upper surface of the neck support.

5. A double-layer intelligent anti-snoring pillow according to claim 1, characterized in that: The tracheal sleeve is provided in two sets, forming an upper tracheal sleeve and a lower tracheal sleeve respectively. Several soft tracheals in the upper airbag unit are led out from the upper tracheal sleeve and connected to the controller, and several soft tracheals in the lower airbag unit are led out from the lower tracheal sleeve and connected to the controller.

6. A double-layer intelligent anti-snoring pillow according to claim 1, characterized in that: The plurality of upper airbags or the plurality of upper airbags are arranged longitudinally inside the pillow core to form a plurality of rows of upper airbags, and the plurality of rows of upper airbags control and adjust the left and right height and shape of the anti-snoring pillow. The lower airbags or the lower airbags are arranged in a matrix inside the pillow core to form several groups of lower airbags. The groups of lower airbags control and adjust the overall height and shape of the smart anti-snoring pillow; or the groups of lower airbags cooperate with the several rows of upper airbags to jointly control and adjust the left and right height and shape of the smart anti-snoring pillow.

7. A double-layer intelligent anti-snoring pillow according to any one of claims 1-6, characterized in that: The smart anti-snoring pillow also includes a front airbag, which is arranged horizontally inside the pillow core and regularly positioned at the front end of the pillow core. The front airbag is led out of the pillow core and the pillowcase through an air valve and a soft air tube, and connected to the air interface of the controller, so that the air pump module inflates and deflates the front airbag to control and adjust the height and shape of the front airbag.

8. A double-layer intelligent anti-snoring pillow according to claim 7, characterized in that: The controller is also equipped with a display screen, a power switch, a front airbag control button, a lower airbag unit control button, and an interface. The display screen is used to display the working status and parameter data of the smart anti-snoring pillow. The power switch is used to control the on / off status and function selection of the smart anti-snoring pillow. The front airbag control button is used to control the inflation and deflation of the front airbag. The lower airbag unit control button is used to control the inflation and deflation of the airbags in the lower airbag unit. The interface is electrically connected to an external power adapter or power bank via a data cable, thereby providing power to the smart anti-snoring pillow through the power adapter or power bank.

9. A double-layer intelligent anti-snoring pillow according to claim 7, characterized in that: The flexible fabric sensor is regularly disposed on the upper surface of the front airbag, or regularly disposed on the upper surface of the pillow core located at the upper end of the front airbag.

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