A modular, multifunctional activated carbon antibacterial and anti-mite mattress

Abstract

This invention relates to the field of mattress technology and discloses a modular, multifunctional activated carbon antibacterial and anti-mite mattress, comprising: a bed frame, which serves as the basic structure of the entire mattress system, supporting the mattress body and providing a stable structural framework; and a mattress body composed of multiple functional layers, including a bottom layer that serves as the base layer supporting the internal structure of the mattress, on which an activated carbon fiber layer is laid to remove moisture, odors, and harmful gases from inside the mattress; a support layer is laid on the activated carbon fiber layer; and a highly elastic stretchable layer is laid on the support layer, which can quickly stretch when the airbag module is inflated and quickly return to its original position after the pressure is released; and a contact layer is laid on top of the support layer. Through the airbag module, ozone purification system, and titanium dioxide photocatalytic coating, the mattress achieves dynamic comfort, internal sterilization and mite removal, and long-term surface cleanliness, providing a personalized comfort experience and a healthy sleep environment.

Description

Technical Field

[0001] This invention relates to the field of mattress technology, specifically to a modular, multifunctional activated carbon antibacterial and anti-mite mattress. Background Technology

[0002] As people pay increasing attention to health and quality of life, mattresses, as a key factor affecting sleep quality, are constantly evolving in design and function. Modern consumers not only demand good support and comfort from mattresses, but also expect them to offer diverse functions such as antibacterial, anti-mite, and air purification to meet their growing health needs.

[0003] However, existing mattress technology still has many shortcomings in terms of multifunctional integration and hygiene protection. Traditional mattresses are mostly based on a single material or structure, making it difficult to achieve modular and diversified functions. For example, while many mattresses have some antibacterial or anti-mite functions, these functions often rely on the chemical treatment of the surface materials, and their effectiveness gradually weakens over time, making it difficult to continuously and effectively protect the user's health. Furthermore, the internal structure of mattresses is usually relatively closed, easily accumulating moisture, dust, and odors, leading to the growth of bacteria and mites. This not only affects the lifespan of the mattress but also poses a potential threat to the user's health.

[0004] In terms of comfort, most existing mattresses use a fixed support structure, which cannot be dynamically adjusted according to the user's needs, making it difficult to provide a personalized comfort experience. Although some mattresses with massage functions have appeared on the market, these mattresses often rely on simple vibration devices, lacking fine-tuning capabilities and failing to simulate the natural wave-like undulation effect, making it difficult for users to achieve true relaxation and soothing during use.

[0005] Furthermore, while activated carbon materials have wide applications in air purification and odor adsorption, their integrated application in mattresses remains relatively limited. Existing activated carbon mattress designs typically focus on passively adsorbing odors, failing to effectively integrate other functional modules, such as dynamic air circulation systems and ozone sterilization, thus failing to form a comprehensive hygiene protection system.

[0006] In summary, existing mattress technologies have significant shortcomings in modular design, multi-functional integration, long-lasting antibacterial and anti-mite effects, and internal air purification, making it difficult to fully meet the diverse needs of modern consumers. Therefore, there is an urgent need for an innovative mattress technology that can effectively integrate multiple functions and improve comfort and hygiene to achieve a healthier and more comfortable sleep experience. To address these issues, this invention proposes a modular, multi-functional activated carbon antibacterial and anti-mite mattress. Summary of the Invention

[0007] To address the shortcomings of existing technologies, this invention provides a modular, multifunctional activated carbon antibacterial and anti-mite mattress, which solves the problems of existing mattresses in terms of multifunctional integration, long-lasting antibacterial and anti-mite properties, dynamic comfort, and internal air purification.

[0008] To achieve the above objectives, the present invention provides the following technical solution: a modular multifunctional activated carbon antibacterial and anti-mite mattress, comprising:

[0009] The bed frame, as the basic structure of the entire mattress system, is used to support the mattress body and provide a stable structural framework;

[0010] The mattress body is composed of multiple functional layers, including a bottom layer, which serves as the base layer supporting the internal structure of the mattress. An activated carbon fiber layer is laid on the bottom layer to remove moisture, odors and harmful gases from inside the mattress. A support layer is laid on the activated carbon fiber layer, and a highly elastic stretchable layer is laid on the support layer. This layer can quickly stretch when the airbag module is inflated and lifted, and quickly return to its original position after the pressure is released. A contact layer is laid on top of this layer.

[0011] The ozone purification system, located between the bottom layer and the activated carbon fiber layer, is used to generate, distribute, and monitor ozone to achieve sterilization, mite removal, and air purification inside the mattress.

[0012] A pneumatic control system, located between the activated carbon fiber layer and the support layer, is used to drive and control the gas flow of the airbag modules inside the mattress.

[0013] The intelligent mattress control system, which is connected to the ozone purification system and the pneumatic control system, is used to coordinate the operation of various functional modules inside the mattress.

[0014] Preferably, the support layer is made of high-density memory foam or elastic foam, the high-elasticity stretch layer is made of high-elasticity foam, and the contact layer is made of high-density memory foam or soft foam material.

[0015] Preferably, the ozone purification system includes multiple air ducts, each of which is installed on the inner wall of the bed frame. The output end of each air duct is connected to an air duct. The air ducts are laid between the bottom layer and the activated carbon fiber layer. Ozone monitoring sensors are installed on the inner wall of the bed frame next to the multiple air ducts.

[0016] Preferably, the outer wall of the air duct is provided with multiple through holes for uniformly dispersing ozone gas into the interior of the mattress, and the diameter of the through holes is 0.5-1mm.

[0017] Preferably, the plurality of air ducts are connected to an air collection pipe, and the two ends of the air collection pipe are respectively connected to an air circulation system, and both air circulation systems are installed on the bed frame.

[0018] Preferably, the pneumatic control system includes multiple airbag modules, which are arranged between the activated carbon fiber layer and the support layer. The air inlet end of each airbag module is connected to a connector, and a control valve is provided inside the connector.

[0019] Preferably, the other end of the plurality of airbag modules is connected to a delivery pipe, and the connection end of the delivery pipe is connected to a central air pump, which is installed on the inner wall of the bed frame.

[0020] Preferably, the outer wall of the contact layer is provided with a surface coating containing titanium dioxide nanoparticles, which are used to generate active oxygen through photocatalysis, thereby improving the hygiene of the mattress and extending its service life.

[0021] Preferably, the intelligent mattress control system includes:

[0022] The central control system module is used to coordinate and manage all the functional modules of the mattress;

[0023] The airbag control module is used to regulate the inflation and deflation of the airbags inside the mattress, driving the movement of the mattress surface.

[0024] The ozone management module is used to manage the working status of the ozone generator and adjust the ozone generation amount based on monitoring results.

[0025] An air circulation module, which is connected to the air circulation system, is used to control the flow of air inside the mattress;

[0026] The user interface module provides a channel for users to interact with the system, enabling users to adjust various functions of the mattress.

[0027] The security and maintenance management module is used to monitor the operational status of various parts of the system.

[0028] Preferably, the airbag control module includes:

[0029] The air pump control unit, which is connected to the central air pump, is used to manage the start, stop and air pressure regulation of the central air pump, and to provide a stable airflow for the airbag module;

[0030] An airbag adjustment unit, which is connected to the airbag module, is used to control the inflation and deflation of the airbag;

[0031] The valve control unit is connected to the control valve and is used to manage the opening and closing of the control valve, regulate the direction and flow of gas, and perform independent or synchronous control of the airbags in different areas.

[0032] The wave pattern generation unit, connected to the airbag adjustment unit, is used to generate wave motion patterns according to a preset program or user input, and control the airbag module to inflate and deflate sequentially to simulate wave or massage effects.

[0033] Working principle: During use, this modular multifunctional activated carbon antibacterial and anti-mite mattress coordinates the airbag control and ozone purification functions through the intelligent mattress control system. First, users can select massage mode, wave motion mode or sterilization and mite removal mode through the control interface.

[0034] When a user selects a massage or wave motion mode via the control interface, the smart mattress control system first activates the airbag control module. This module starts the central air pump, providing airflow to the airbag modules inside the mattress according to the set air pressure requirements. The air pump control unit manages the operation of the air pump, ensuring stable airflow and precise pressure control.

[0035] Subsequently, the airbag adjustment unit, based on the user-selected mode, regulates the direction and flow of airflow via a control valve, allowing gas to sequentially enter the airbag modules in different areas. In wave motion mode, the airbag modules gradually inflate and deflate according to a preset sequence and rhythm, simulating a wave-like undulation sensation from head to toe, promoting full-body relaxation. In massage mode, the system can concentrate inflation on specific areas, mimicking the pushing and pressing effect of a hand massage, helping to relieve local muscle fatigue and tension.

[0036] To enhance the experience, the wave pattern generation unit controls the rhythmic inflation and deflation of the airbag adjustment unit according to a pre-programmed pattern, producing a fluid massage effect. Throughout the process, the inflation and deflation of the airbags are highly precise, allowing users to adjust the airbag pressure and wave speed to achieve a personalized and comfortable experience.

[0037] When the user selects the sterilization or mite removal function, the smart mattress control system activates the ozone management module. First, the ozone generation control submodule activates the ozone generator to begin generating ozone. The generated ozone is distributed to various areas of the mattress through venting and collecting pipes. Tiny perforations (0.5-1mm in diameter) on the venting pipes ensure that ozone can evenly penetrate every layer of the mattress.

[0038] Once ozone enters the mattress, it circulates and disperses throughout the mattress via an air circulation system. The fans and ducts in the air circulation system help create a uniform flow of ozone throughout the mattress, ensuring that every part receives sufficient ozone treatment, thereby effectively killing bacteria, mites, and other harmful microorganisms.

[0039] While the ozone distribution is being monitored, the ozone concentration monitoring submodule keeps track of the ozone concentration inside the mattress in real time. If the ozone concentration is detected to be close to or exceed the safe range, the intelligent system will automatically adjust the output of the ozone generator, or even stop ozone generation altogether. At the same time, the air circulation system will accelerate airflow to expel excess ozone from the mattress, ensuring that the air inside the mattress remains in a safe and comfortable state at all times.

[0040] The entire mattress relies on the comprehensive management of the intelligent mattress control system. Users operate the mattress via a control panel on the mattress or a mobile app. Upon receiving user commands, the intelligent system automatically coordinates the work of each module. During operation, the central control system continuously collects status data from each module, such as airbag pressure, ozone concentration, and airflow, and dynamically adjusts the operating parameters of each module based on this data.

[0041] Users can choose from different modes, such as wave mode, massage mode, or sterilization mode, each corresponding to different system combinations and parameter settings. The system also allows users to customize personalized settings, such as adjusting the inflation intensity of the airbags, the speed of the wave motion, and the duration of ozone treatment.

[0042] When the system detects any abnormality (such as excessively high ozone concentration or abnormal airbag pressure), the safety and maintenance management module will immediately activate the protection mechanism, suspend the operation of related functions, and issue an alarm through the user interface to prompt the user to check and maintain.

[0043] During daily use, the carbon dioxide surface coating on the contact layer exerts its continuous antibacterial and anti-mite functions through photocatalysis. When the mattress surface is exposed to natural light or indoor lighting, the nanoparticles in the titanium dioxide coating are activated, generating reactive oxygen species. These reactive oxygen species can effectively destroy the cell structure of bacteria, mites, and other harmful microorganisms, inhibiting their reproduction and growth, thereby keeping the mattress surface clean and hygienic.

[0044] This invention provides a modular, multifunctional activated carbon antibacterial and anti-mite mattress. It has the following beneficial effects:

[0045] 1. This invention, through the design of the airbag module, realizes the wave-like undulation and massage effect on the mattress surface, providing dynamic support and personalized comfort experience, and solves the problem that traditional mattresses are limited in comfort and functionality and cannot meet the diverse needs of users.

[0046] 2. This invention effectively utilizes the strong oxidizing properties of ozone by integrating an ozone purification system, thereby achieving sterilization and mite removal functions inside the mattress. This solves the problem that traditional mattresses are prone to breeding bacteria and mites, affecting user health. At the same time, intelligent monitoring and control of ozone concentration ensures safety during use.

[0047] 3. This invention utilizes the photocatalytic technology of titanium dioxide nanoparticles in the surface coating to continuously inhibit the growth of bacteria and mites on the mattress surface during daily use. This solves the problem of traditional mattresses being easily contaminated and difficult to keep clean for a long time, and extends the lifespan of the mattress, providing a healthier sleep environment. Attached Figure Description

[0048] Figure 1 This is a perspective view of the mattress of the present invention;

[0049] Figure 2 This is a schematic diagram of the bottom of the bed frame of the present invention;

[0050] Figure 3 This is a schematic diagram of the internal structure of the mattress of the present invention;

[0051] Figure 4 This is a schematic diagram of the surface coating structure of the present invention;

[0052] Figure 5 This is a schematic diagram of the air duct structure of the present invention;

[0053] Figure 6 This is a schematic diagram of the ozone purification system of the present invention;

[0054] Figure 7 This is a framework diagram of the intelligent mattress control system of the present invention;

[0055] Figure 8 This is a framework diagram of the airbag control module of the present invention.

[0056] The components include: 1. Bed frame; 2. Mattress body; 201. Bottom layer; 202. Activated carbon fiber layer; 203. Support layer; 204. High-elasticity stretch layer; 205. Contact layer; 206. Surface coating; 3. Small ozone generator; 4. Air duct; 5. Air collection pipe; 6. Air circulation system; 7. Airbag module; 8. Connector; 9. Control valve; 10. Delivery pipe; 11. Central air pump; 12. Ozone monitoring sensor. Detailed Implementation

[0057] The technical solution of the present invention will now be clearly and completely described with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0058] Example:

[0059] Please see the appendix Figure 1 - Appendix Figure 3This invention provides a modular, multifunctional activated carbon antibacterial and anti-mite mattress, comprising:

[0060] The bed frame, as the basic structure of the entire mattress system, is used to support the mattress body 2 and provide a stable structural framework;

[0061] The mattress body 2 is composed of multiple functional layers, including the bottom layer 201, which serves as the base layer supporting the internal structure of the mattress. An activated carbon fiber layer 202 is laid on the bottom layer 201, which is used to remove moisture, odors and harmful gases inside the mattress. A support layer 203 is laid on the activated carbon fiber layer 202. A highly elastic stretchable layer 204 is laid on the support layer 203, which can quickly stretch when the airbag module 7 is inflated and lifted, and quickly return to its original position after the pressure is released. A contact layer 205 is laid on 104.

[0062] Specifically, the bottom layer 201 serves as the stable foundation of the entire mattress, ensuring its structural integrity and durability. The activated carbon fiber layer 202, through its powerful adsorption capacity, continuously removes moisture, odors, and harmful gases from inside the mattress, keeping the air inside fresh and dry. The support layer 203 provides even support according to the user's body shape and sleeping posture, ensuring reasonable support for all parts of the body, preventing pressure points, and maintaining the natural curve of the spine.

[0063] With the help of the airbag module 7, the highly elastic stretch layer 204 can respond quickly, stretching and returning to its original position as the airbags inflate and deflate, maintaining the flatness and comfort of the mattress surface, and ensuring that the user experience is not affected by dynamic adjustments. The contact layer 205 is the part that the user directly contacts, providing a soft and comfortable touch. Through the titanium dioxide nanoparticles coated on the surface, it continuously inhibits the growth of bacteria and mites through photocatalytic reaction, ensuring the cleanliness and hygiene of the mattress surface.

[0064] An ozone purification system, located between the bottom layer 201 and the activated carbon fiber layer 202, is used to generate, distribute, and monitor ozone to achieve sterilization, mite removal, and air purification inside the mattress.

[0065] A pneumatic control system, which is disposed between the activated carbon fiber layer 202 and the support layer 203, is used to drive and control the gas flow of the airbag module 7 inside the mattress.

[0066] The intelligent mattress control system, which is connected to the ozone purification system and the pneumatic control system, is used to coordinate the operation of various functional modules inside the mattress.

[0067] The support layer 203 is made of high-density memory foam or elastic foam, the high-elasticity stretch layer 204 is made of high-elasticity foam, and the contact layer 205 is made of high-density memory foam or soft foam material.

[0068] Please see the appendix Figure 2 - Appendix Figure 3 and attached Figure 5 - Appendix Figure 6 The ozone purification system includes multiple air ducts 4, each of which is installed on the inner wall of the bed frame 1. The output end of each air duct 4 is connected to an air duct 4. The air ducts 4 are laid between the bottom layer 201 and the activated carbon fiber layer 202. Ozone monitoring sensors 12 are installed on the inner wall of the bed frame 1 next to the multiple air ducts 4.

[0069] The outer wall of the air duct 4 is provided with multiple through holes to evenly disperse ozone gas into the interior of the mattress. The diameter of the through holes is 0.5-1mm.

[0070] Multiple air ducts 4 are connected to air collection pipes 5. The two ends of the air collection pipes 5 are respectively connected to air circulation systems 6. Both air circulation systems 6 are installed on the bed frame 1.

[0071] Specifically, multiple air ducts 4 are cleverly integrated into the mattress structure, achieving effective distribution and air circulation of ozone gas through a series of designs. The outer wall of each air duct 4 has multiple through-holes with a diameter of 0.5-1mm. These through-holes ensure that ozone gas can evenly penetrate all areas of the mattress. In particular, through the placement of the air ducts 4, ozone gas can effectively diffuse between the bottom layer 201 and the activated carbon fiber layer 202, covering the entire interior of the mattress. An ozone monitoring sensor is used to monitor the concentration of ozone in the air in real time, ensuring that the ozone concentration remains within a safe range. If the concentration exceeds the limit, the sensor will send an alarm or command to the system, stopping the ozone generator 3 and simultaneously activating the air circulation system 6 to accelerate airflow and reduce the ozone concentration.

[0072] During ozone distribution, the duct 4 is connected to the collecting duct, and both ends of the collecting duct are connected to the air circulation system 6. The design of the air circulation system 6 ensures that ozone gas is not only evenly dispersed within the mattress but also maintains air freshness through continuous circulation. The configuration of two air circulation systems 6 further enhances airflow within the mattress, ensuring that excess ozone gas is quickly expelled, preventing excessive ozone concentration, and protecting user safety.

[0073] Please see the appendix Figure 1 - Appendix Figure 3 The pneumatic control system includes multiple airbag modules 7, which are arranged between the activated carbon fiber layer 202 and the support layer 203. The air inlet end of the multiple airbag modules 7 is connected to a connector 8, and a control valve 9 is installed inside the connector 8.

[0074] The other end of the multiple airbag modules 7 is connected to a delivery pipe 10, and the connection end of the delivery pipe 10 is connected to a central air pump 11, which is installed on the inner wall of the bed frame 1.

[0075] Specifically, in the pneumatic control system of the present invention, multiple airbag modules 7 are arranged between the activated carbon fiber layer 202 and the support layer 203, forming the core dynamic adjustment part of the mattress. The air inlet of each airbag module 7 is connected to the delivery pipe 10 through a connector 8, and the control valve 9 installed inside the connector 8 is responsible for adjusting the flow direction and flow rate of the airflow.

[0076] When the central air pump 11 is activated, airflow is delivered to each airbag module 7 through the delivery pipe 10. The control valve 9 precisely controls the distribution of airflow according to system instructions, causing the airbag modules 7 to inflate and deflate in a predetermined sequence or according to the user's selection. Through this precise airflow management, the airbag modules 7 can produce different surface effects, such as wave-like undulations or localized massage functions, providing users with a personalized comfort experience.

[0077] The central air pump 11, serving as the power source for the entire pneumatic control system, is installed on the inner wall of the bed frame 1 to ensure stable system operation. Its linkage with the airbag module 7 allows the mattress to be adjusted and controlled in real time according to user needs, enhancing the mattress's functionality and comfort.

[0078] Please see the appendix Figure 4 The outer wall of the contact layer 205 is provided with a surface coating 206, which contains titanium dioxide nanoparticles to generate active oxygen through photocatalysis, thereby improving the hygiene of the mattress and extending its service life.

[0079] Please see the appendix Figure 7 The intelligent mattress control system includes:

[0080] The central control system module is used to coordinate and manage all the functional modules of the mattress;

[0081] The airbag control module is used to regulate the inflation and deflation of the airbags inside the mattress, driving the movement of the mattress surface.

[0082] The ozone management module is used to manage the working status of the ozone generator and adjust the ozone generation amount based on monitoring results.

[0083] An air circulation module, which is connected to the air circulation system 6, is used to control the flow of air inside the mattress;

[0084] The user interface module provides a channel for users to interact with the system, enabling users to adjust various functions of the mattress.

[0085] The security and maintenance management module is used to monitor the operational status of various parts of the system.

[0086] Specifically, the initial state and the user's selected mode:

[0087] Users interact with the system through the user interface module and can select different mattress function modes, such as massage mode, wave motion mode, or sterilization and mite removal mode. Users can make these selections through the control panel on the mattress or a mobile app.

[0088] After receiving the user's command, the user interface module transmits the information to the central control system module. The central control system module then coordinates various functional modules based on the user's selected mode to execute the corresponding operation.

[0089] Airbag control and mattress surface adjustment:

[0090] Assuming the user selects massage mode or wave motion mode, the central control system module will first activate the airbag control module. The operation of the airbag control module includes the following steps:

[0091] Air pump start-up and air pressure control: After receiving instructions from the central control system, the air pump control unit starts the central air pump 11 and adjusts the air pressure as needed to ensure a stable airflow to the airbag module 7. The central air pump 11 delivers gas to the airbag module 7 through the delivery pipe 10.

[0092] Airbag inflation and deflation: The airbag adjustment unit controls the inflation and deflation process of the airbag module 7. Depending on the user-selected mode, the airbag module 7 can inflate and deflate sequentially, simulating a wave-like undulating effect or a localized massage effect. To achieve this precise control, the valve control unit adjusts the opening and closing state of the control valve 9 to regulate the direction and flow of gas, thereby enabling independent control of localized areas on the mattress surface.

[0093] Wave pattern generation: If the user selects the wave motion mode, the wave pattern generation unit will sequentially activate the inflation and deflation actions of the airbag modules 7 according to a preset program, thereby generating continuous wave motion. This process is executed by the airbag adjustment unit, which precisely controls the inflation time and air pressure of each airbag module 7 to achieve a smooth wave effect.

[0094] Ozone purification and air circulation

[0095] In sterilization and mite removal mode, the central control system module activates the ozone management module and the air circulation module to work together to complete the purification process inside the mattress.

[0096] Ozone Generation and Distribution: The ozone generation control submodule of the ozone management module activates the small ozone generator 3 to begin generating ozone. The generated ozone is distributed into the mattress interior through the air duct 4 and the air collection pipe 5. Multiple through-holes with a diameter of 0.5-1mm are provided on the air duct 4 to ensure that the ozone is evenly dispersed throughout the mattress interior, especially between the bottom layer 201 and the activated carbon fiber layer 202, maximizing the bactericidal and mite-removing effects of the ozone.

[0097] Air Circulation and Concentration Control: To ensure uniform ozone distribution and maintain a safe concentration, the air circulation module controls airflow within the mattress via a connected air circulation system 6. The air circulation system 6 mixes ozone gas with air and circulates it through fans and ducts, ensuring ozone covers every area inside the mattress. Simultaneously, the ozone concentration monitoring submodule monitors the ozone concentration inside the mattress in real time and feeds the data back to the central control system. Based on the concentration feedback, the central control system can adjust the output of the ozone generator via the ozone management module to ensure the ozone concentration does not exceed the safe range.

[0098] Security monitoring and maintenance management:

[0099] Throughout the system's operation, the security and maintenance management module continuously monitors all parts of the system. This module ensures system security and reliability through the following methods:

[0100] Automatic detection: The safety and maintenance management module periodically checks the operational status of the airbag module 7, ozone generator, and air circulation system 6 to ensure they are in normal working order. If any abnormality is detected, such as airbag leakage or abnormal ozone concentration, the system will immediately take appropriate protective measures.

[0101] Anomaly Handling and Protection: If the system detects a dangerous ozone concentration or other issues that may affect user safety, the safety and maintenance management module will immediately issue an alarm, stop the operation of the relevant modules, and notify the user to conduct an inspection. Simultaneously, the system will initiate emergency ventilation or airbag deflation procedures to ensure the user is not harmed.

[0102] Maintenance Tips: The safety and maintenance management module provides maintenance tips to users based on system usage, such as regularly replacing the activated carbon fiber layer 202 or checking the airbag status, to ensure the long-term performance and safety of the mattress.

[0103] Please see the appendix Figure 8 The airbag control module includes:

[0104] An air pump control unit, which is connected to the central air pump 11, is used to manage the start, stop and air pressure regulation of the central air pump 11, and to provide a stable airflow for the airbag module 7;

[0105] An airbag adjustment unit, which is connected to the airbag module 7, is used to control the inflation and deflation of the airbag;

[0106] The valve control unit is connected to the control valve 9 and is used to manage the opening and closing of the control valve 9, regulate the gas flow direction and flow rate, and perform independent or synchronous control of the airbags in different areas.

[0107] The wave pattern generation unit, connected to the airbag adjustment unit, is used to generate wave motion patterns according to a preset program or user input, and control the airbag module 7 to inflate and deflate sequentially to simulate wave or massage effects.

[0108] Specifically, air pump control and air pressure management:

[0109] The air pump control unit is the starting point of the entire airbag control module. This unit is connected to the central air pump 11 and is responsible for managing the pump's start-up, shutdown, and air pressure regulation. When the user selects a function mode through the smart mattress control system, the central control system sends a command to the air pump control unit. The air pump control unit then starts the central air pump 11 according to the command and adjusts the pump's output air pressure to ensure a stable and appropriate airflow for the airbag module 7.

[0110] This process ensures that the airbag module 7 receives a stable airflow supply during inflation and deflation, avoiding functional instability or decreased comfort due to air pressure fluctuations.

[0111] Airbag inflation and deflation adjustment:

[0112] The airbag adjustment unit is directly connected to each airbag module 7 and is responsible for controlling the inflation and deflation of the airbags. After the airflow provided by the central air pump 11 reaches the airbag module 7, the airbag adjustment unit directs the airbag module 7 to inflate or deflate in a specific area according to the user-selected mode or preset program.

[0113] Through this control, the airbag module 7 can adjust the support in local areas, causing different deformations on the mattress surface to meet the user's different comfort needs.

[0114] Valve control and airflow regulation:

[0115] The valve control unit is crucial for airflow regulation. Connected to control valve 9, this unit manages the opening and closing status of valve 9 to regulate the direction and flow rate of gas. By adjusting the state of each control valve 9, the valve control unit can achieve independent or synchronous control of different areas of the airbag module 7.

[0116] For example, when executing the wave motion mode, the valve control unit will sequentially open or close the control valves 9 in different areas to ensure that the airflow flows into each airbag module 7 in a set order, thereby creating a wave-like motion effect.

[0117] Wave pattern generation and execution:

[0118] The wave pattern generation unit is responsible for generating specific wave motion patterns based on user input commands or system preset programs. This unit, in coordination with the airbag adjustment unit, controls the inflation and deflation sequence of the airbag module 7 to simulate the effect of waves flowing on the mattress surface.

[0119] This feature allows the mattress to provide a massage-like soothing experience, helping users relax their bodies and relieve stress. Simultaneously, the wave pattern generation unit can adjust the speed and intensity of the waves to suit the individual needs of different users.

[0120] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A modular, multifunctional activated carbon antibacterial and anti-mite mattress, characterized in that, include: The bed frame, as the basic structure of the entire mattress system, is used to support the mattress body (2) and provide a stable structural framework; The mattress body (2) is composed of multiple functional layers, including the bottom layer (201), which serves as the base layer supporting the internal structure of the mattress. An activated carbon fiber layer (202) is laid on the bottom layer (201) to remove moisture, odors and harmful gases inside the mattress. A support layer (203) is laid on the activated carbon fiber layer (202). A highly elastic stretchable layer (204) is laid on the support layer (203), which can quickly stretch when the airbag module (7) is inflated and lifted, and quickly return to its original position after the pressure is released. A contact layer (205) is laid on the (104). An ozone purification system, located between the bottom layer (201) and the activated carbon fiber layer (202), is used to achieve sterilization, mite removal and air purification inside the mattress by generating, distributing and monitoring ozone; A pneumatic control system, which is disposed between the activated carbon fiber layer (202) and the support layer (203), is used to drive and control the gas flow of the airbag module (7) inside the mattress; The intelligent mattress control system, which is connected to the ozone purification system and the pneumatic control system, is used to coordinate the operation of various functional modules inside the mattress.

2. The modular multifunctional activated carbon antibacterial and anti-mite mattress according to claim 1, characterized in that, The support layer (203) is made of high-density memory foam or elastic foam, the high-elasticity stretch layer (204) is made of high-elasticity foam, and the contact layer (205) is made of high-density memory foam or soft foam material.

3. The modular multifunctional activated carbon antibacterial and anti-mite mattress according to claim 1, characterized in that, The ozone purification system includes multiple air ducts (4), each of which is installed on the inner wall of the bed frame (1). The output end of each air duct (4) is connected to an air duct (4). The air ducts (4) are laid between the bottom layer (201) and the activated carbon fiber layer (202). Ozone monitoring sensors (12) are installed on the inner wall of the bed frame (1) next to the multiple air ducts (4).

4. The modular multifunctional activated carbon antibacterial and anti-mite mattress according to claim 3, characterized in that, The outer wall of the air duct (4) is provided with multiple through holes for uniformly dispersing ozone gas into the interior of the mattress. The diameter of the through holes is 0.5-1mm.

5. A modular multifunctional activated carbon antibacterial and anti-mite mattress according to claim 4, characterized in that, Multiple air ducts (4) are connected to air collection pipes (5), and the two ends of the air collection pipes (5) are respectively connected to air circulation systems (6). Both air circulation systems (6) are installed on the bed frame (1).

6. The modular multifunctional activated carbon antibacterial and anti-mite mattress according to claim 1, characterized in that, The pneumatic control system includes multiple airbag modules (7), which are arranged between the activated carbon fiber layer (202) and the support layer (203). The air inlet end of each airbag module (7) is connected to a connector (8), and a control valve (9) is provided inside the connector (8).

7. A modular multifunctional activated carbon antibacterial and anti-mite mattress according to claim 6, characterized in that, The other end of each of the multiple airbag modules (7) is connected to a delivery pipe (10), and the connection end of the delivery pipe (10) is connected to a central air pump (11), which is installed on the inner wall of the bed frame (1).

8. A modular multifunctional activated carbon antibacterial and anti-mite mattress according to claim 1, characterized in that, The outer wall of the contact layer (205) is provided with a surface coating (206) containing titanium oxide nanoparticles, which are used to generate active oxygen through photocatalysis, improve the hygiene of the mattress and extend the service life of the mattress.

9. A modular multifunctional activated carbon antibacterial and anti-mite mattress according to claim 1, characterized in that, The intelligent mattress control system includes: The central control system module is used to coordinate and manage all the functional modules of the mattress; The airbag control module is used to regulate the inflation and deflation of the airbags inside the mattress, driving the movement of the mattress surface. The ozone management module is used to manage the working status of the ozone generator and adjust the ozone generation amount based on monitoring results. An air circulation module, which is connected to the air circulation system, is used to control the flow of air inside the mattress; The user interface module provides a channel for users to interact with the system, enabling users to adjust various functions of the mattress. The security and maintenance management module is used to monitor the operational status of various parts of the system.

10. A modular multifunctional activated carbon antibacterial and anti-mite mattress according to claim 9, characterized in that, The airbag control module includes: An air pump control unit, which is connected to the central air pump (11), is used to manage the start, stop and air pressure regulation of the central air pump, and to provide a stable airflow for the airbag module; An airbag adjustment unit, which is connected to the airbag module (7), is used to control the inflation and deflation of the airbag; The valve control unit is connected to the control valve (9) and is used to manage the opening and closing of the control valve, adjust the gas flow direction and flow rate, and perform independent or synchronous control of the airbags in different areas. The wave pattern generation unit, connected to the airbag adjustment unit, is used to generate wave motion patterns according to a preset program or user input, and control the airbag module to inflate and deflate sequentially to simulate wave or massage effects.

Images