Moisture-absorbing, breathable and shock-absorbing spring mattress
By designing the partitioned adaptive spring layer and multi-layer composite material padding layer, combined with dynamic microclimate adjustment technology, the problem of low sleep quality in sports people is solved, and the partition support, shock absorption and breathability of the mattress is realized, which significantly improves sleep quality and healthy recovery.
Patent Information
- Application Number
- CN202510350334.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-03-24
- Publication Date
- 2025-06-06
AI Technical Summary
People with exercise are suffering from local muscle fatigue, joint pain, and the inability of ordinary mattresses to provide precise support and pressure relief effects, resulting in decreased sleep quality. The body temperature rises and sweating after exercise lead to moisture retention of the mattress, which may cause skin allergies or inflammation.
A moisture-absorbing and breathable shock-absorbing spring mattress is designed, which adopts a partitioned adaptive spring layer, a functional composite paving layer and a functional composite mattress cover. Through multi-layer composite materials and dynamic microclimate adjustment technology, partitioned support, shock-absorbing and cooling functions are achieved.
The mattress can provide precise partition support, relieve muscle and joint fatigue after exercise, maintain the natural physiological curvature of the spine, and at the same time, through the moisture absorption and breathability function, keep the mattress dry, prevent moisture from retention, and improve sleep quality.
Smart Images

Figure CN120093115A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the technical field of household products, in particular to a moisture-absorbing, breathable and shock-absorbing spring mattress. Background Art
[0002] With the improvement of the health awareness of the whole people, exercise has become an important part of modern people's life, especially among young people and professional athletes. Exercise can not only enhance physical fitness, but also improve mental health. However, frequent high-intensity exercise also brings certain challenges to the body, especially the impact and pressure on muscles, joints and spine, which makes scientific and reasonable rest and effective physical recovery particularly important. People who exercise often face the following problems in their daily life: on the one hand, local muscle fatigue, joint soreness or minor injuries caused by daytime exercise will reduce the comfort during sleep; on the other hand, since people who exercise usually have a lower body fat rate and higher muscle density, ordinary mattresses cannot provide precise support and pressure relief effects, which can easily cause a sense of local oppression in the body, thus affecting the quality of sleep. In addition, the increased metabolic rate and higher body temperature after exercise can easily lead to increased sweating at night, which in turn causes the problem of moisture retention in the mattress. This will not only make the sleeping environment humid and sticky, but also may breed bacteria and mold due to moisture retention, leading to health problems such as skin allergies or inflammation.
[0003] Most mattresses on the market are designed to meet the needs of ordinary consumers. These products have relatively simple functions in terms of relieving pressure, adjusting temperature and humidity, and controlling noise, and are unable to meet the special requirements of athletes for mattresses. For example, mattress products that require athletes to have functions such as zoned support, shock absorption and noise reduction, and moisture absorption and heat dissipation are still relatively scarce, so this is also a problem that technicians in this field need to solve. Summary of the invention
[0004] The embodiment of the present invention provides a moisture-absorbing, breathable, and shock-absorbing spring mattress, which aims to provide a mattress that has the functions of zoned support, shock absorption and noise reduction, and moisture absorption and heat dissipation.
[0005] The embodiment of the present invention provides a moisture-absorbing, breathable and shock-absorbing spring mattress, comprising a bed perimeter edge, wherein the bed perimeter edge is provided with a partitioned adaptive spring layer, a functional composite cushioning layer and a functional composite mattress cover in sequence from the inside to the outside;
[0006] Wherein, the partitioned adaptive spring layer includes the head and shoulder area, the waist and hip area, and the leg area;
[0007] The functional composite cushion layer includes a dynamic bonding slow-release layer, an excessive pressure dispersion layer and a pressure-bearing stable support layer from top to bottom, and the supporting force and hardness of the dynamic bonding slow-release layer, the excessive pressure dispersion layer and the pressure-bearing stable support layer increase layer by layer;
[0008] The functional composite mattress cover comprises a functional fabric layer, a flexible fiber layer and a flexible foam layer in sequence from top to bottom.
[0009] Preferably, the zoned adaptive spring layer corresponding to the head and shoulder area and the leg area adopts a multi-strand hourglass-shaped spring, and the multi-strand hourglass-shaped spring includes an upper spring with a drum-shaped structure and a lower spring with a cone-shaped structure; wherein the number of turns of the upper spring is greater than the number of turns of the lower spring, and the rigidity of the upper spring is less than the rigidity of the lower spring.
[0010] Preferably, the zoned adaptive spring layer corresponding to the waist and hip area adopts a high-head multi-strand waist-drum-shaped spring, and the spring elastic coefficient of the high-head multi-strand waist-drum-shaped spring is 12-18N / cm.
[0011] Preferably, the partitioned adaptive spring layer is made by winding or bundling a plurality of steel wires.
[0012] Preferably, the dynamic fit sustained-release layer is formed by combining any one or more materials selected from the group consisting of memory foam, gel memory foam, and natural latex, and the thickness of the dynamic fit sustained-release layer is 1.5-4 cm.
[0013] Preferably, the excessive pressure distribution layer is made of a mixture of any one or more of high-resilience foam, a dynamic suspension fiber layer, and a partitioned support foam, and the thickness of the excessive pressure distribution layer is 2-5 cm.
[0014] Preferably, the pressure-bearing and stable supporting layer is made of a mixture of any one or more of high-density foam, hard foam / elastic board, and high-density latex, and the thickness of the pressure-bearing and stable supporting layer is 1-3 cm.
[0015] Preferably, each surface layer of the dynamic fitting slow-release layer, the excessive pressure dispersion layer and the pressure-bearing stable support layer is provided with an embedding hole, and the adjacent surface layers of the dynamic fitting slow-release layer, the excessive pressure dispersion layer and the pressure-bearing stable support layer are arranged with a material embedding structure.
[0016] Preferably, the functional composite mattress cover is fixed by an independent pattern quilting process, the pattern size is less than 5 inches, and the thickness of the functional composite mattress cover is 2-5 cm.
[0017] Preferably, the functional fabric layer is made of Tencel fibers, and the functional fabric is embedded with a phase change coating or graphene fibers in the chest and back regions of the human body.
[0018] Preferably, the flexible fiber layer comprises a soft skin-friendly moisture-absorbing layer, a dynamic humidity-regulating layer and a breathable moisture-discharging layer arranged in sequence from top to bottom; wherein:
[0019] The soft, skin-friendly, moisture-absorbing layer is made of a mixture of tencel fiber and bamboo fiber, and the thickness of the soft, skin-friendly, moisture-absorbing layer is 3-4 mm, and the weight is 250-350 g / m2;
[0020] The dynamic humidity control layer is made of a mixture of highly hygroscopic hollow fibers and graphene fibers. The thickness of the dynamic humidity control layer is 5-6 mm and the weight is 400-500 g / m2.
[0021] The breathable moisture-dissipating layer is made of a mixture of three-dimensional breathable mesh fibers and polylactic acid fibers. The breathable moisture-dissipating layer has a thickness of 5-6 mm and a gram weight of 400-500 g / m2.
[0022] Preferably, the flexible foam layer is made of a mixture of any one or more of polyurethane viscoelastic flexible foam, latex cotton or bio-based foam material.
[0023] The embodiment of the present invention provides a moisture-absorbing, breathable, and shock-absorbing spring mattress, which provides users with precise partition support and pressure dispersion effects through spring layer partition design, multi-layer composite material padding layer optimization, and dynamic microclimate adjustment technology, thereby effectively relieving muscle and joint fatigue after exercise and maintaining the natural physiological curvature of the spine. In addition, the functional composite mattress cover enables the mattress to have the functions of moisture absorption, breathability, shock absorption, noise reduction, and spine protection, so as to provide users with a comfortable and healthy sleeping environment. BRIEF DESCRIPTION OF THE DRAWINGS
[0024] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings required for use in the description of the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are some embodiments of the present invention. For ordinary technicians in this field, other accompanying drawings can be obtained based on these accompanying drawings without paying any creative work.
[0025] Figure 1 A schematic diagram of the overall appearance of a moisture-absorbing, breathable, shock-absorbing spring mattress provided by an embodiment of the present invention;
[0026] Figure 2 A schematic diagram of the layered structure of a moisture-absorbing, breathable, shock-absorbing spring mattress provided by an embodiment of the present invention;
[0027] Figure 3 A schematic cross-sectional structure diagram of a moisture-absorbing, breathable, shock-absorbing spring mattress provided by an embodiment of the present invention;
[0028] Figure 4 A schematic diagram of the stress deformation of multiple hourglass-shaped springs in a moisture-absorbing, breathable, shock-absorbing spring mattress provided by an embodiment of the present invention;
[0029] Figure 5A schematic diagram of the stress deformation of a high-head multi-strand waist drum-shaped spring in a moisture-absorbing, breathable, shock-absorbing spring mattress provided in an embodiment of the present invention.
[0030] Markings in the figure:
[0031] 1. Functional composite mattress cover; C11. Functional fabric layer; C12. Soft, skin-friendly and moisture-absorbing layer; C13. Dynamic humidity-regulating layer; C14. Breathable and moisture-dissipating layer; C15. Flexible foam layer; 2. Functional composite cushioning layer; C21. Dynamic fitting sustained-release layer; C22. Over-pressure dispersion layer; C23. Pressure-bearing and stable support layer; 3. Partitioned adaptive spring layer; 4. Bed perimeter. DETAILED DESCRIPTION
[0032] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.
[0033] It should be understood that when used in this specification and the appended claims, the terms "include" and "comprises" indicate the presence of described features, integers, steps, operations, elements and / or components, but do not exclude the presence or addition of one or more other features, integers, steps, operations, elements, components and / or combinations thereof.
[0034] It should also be understood that the terms used in this specification of the present invention are only for the purpose of describing specific embodiments and are not intended to limit the present invention. As used in the specification of the present invention and the appended claims, unless the context clearly indicates otherwise, the singular forms "a", "an" and "the" are intended to include plural forms.
[0035] It should be further understood that the term "and / or" used in the present description and the appended claims refers to any and all possible combinations of one or more of the associated listed items, and includes these combinations.
[0036] See below Figure 1-Figure 3 , a moisture-absorbing, breathable, shock-absorbing spring mattress provided by an embodiment of the present invention comprises a bed perimeter edge 4, wherein the bed perimeter edge 4 is provided with a partitioned adaptive spring layer 3, a functional composite cushioning layer 2 and a functional composite mattress cover 1 in sequence from the inside to the outside;
[0037] Wherein, the partitioned adaptive spring layer 3 includes a head and shoulder area, a waist and hip area, and a leg area;
[0038] The functional composite cushion layer 2 includes a dynamic lamination slow-release layer C21, an excessive pressure dispersion layer C22 and a pressure-bearing stable support layer C23 from top to bottom, and the support force and hardness of the dynamic lamination slow-release layer C21, the excessive pressure dispersion layer C22 and the pressure-bearing stable support layer C23 increase layer by layer;
[0039] The functional composite mattress cover 1 includes, from top to bottom, a functional fabric layer C11, a flexible fiber layer and a flexible foam layer C15.
[0040] In this embodiment, the moisture-absorbing, breathable, and shock-absorbing spring mattress includes, from top to bottom, a functional composite mattress cover 1, a functional composite cushioning layer 2, and a partitioned adaptive spring layer 3. Through the partitioning design of the spring layer, the optimization of the multi-layer composite cushioning layer, and the dynamic microclimate adjustment technology, it provides users with precise partition support and pressure dispersion effects, thereby effectively relieving muscle and joint fatigue after exercise, while maintaining the natural physiological curvature of the spine. And through the functional composite mattress cover 1, the mattress has the functions of moisture absorption, breathability, shock absorption, and spinal protection, so as to provide users with a comfortable and healthy sleeping environment.
[0041] In one embodiment, the partitioned adaptive spring layer 3 corresponding to the head and shoulder area and the leg area adopts a multi-strand hourglass spring, and the multi-strand hourglass spring includes an upper spring with a drum-shaped structure and a lower spring with a conical structure; wherein the number of turns of the upper spring is greater than the number of turns of the lower spring, and the rigidity of the upper spring is less than the rigidity of the lower spring.
[0042] The partitioned adaptive spring layer 3 corresponding to the waist and hip area adopts a high-head multi-strand waist-drum spring, and the spring elastic coefficient of the high-head multi-strand waist-drum spring is 12-18N / cm.
[0043] In this embodiment, the partitioned adaptive spring layer 3 is composed of three parts: the head and shoulder area, the waist and hip area, and the leg area. Through the optimization of spring type and structure, partitioned support and dynamic adaptation are achieved to meet the needs of users with different body shapes, weights, and sleeping posture preferences, while also having quiet, shock-absorbing and durable performance. Specifically:
[0044] Combination Figure 4, the partitioned adaptive spring layer 3 of the head and shoulder area and the leg area adopts a multi-strand hourglass spring, and the multi-strand hourglass spring includes an upper spring and a lower spring. Among them, the upper spring adopts a drum-shaped structure, has a large number of turns and greater flexibility, and has excellent primary support characteristics. In this way, when the human body applies pressure to the mattress, the drum spring in the upper section will be compressed first to accurately fit the body curve, especially in the head, shoulders and legs. The lower spring adopts a conical design, has fewer turns and stronger rigidity, and has excellent deep support performance. In this way, when the pressure gradually increases, the drum spring in the upper section will be compressed to a saturated state, and then the pressure will be transferred to the conical spring in the lower section. The conical spring can provide strong deep support to prevent excessive sinking of the body. At the same time, the high rigidity of the lower spring will ensure the overall structural stability of the mattress, can meet the needs of long-term use, and effectively prevent the occurrence of "hammock effect" or "funnel effect".
[0045] Furthermore, the head and shoulder area uses springs with a stiffness coefficient of 6-10N / cm (lower stiffness), and the drum spring portion of the upper section corresponding to this area has a higher proportion, making it easier to compress initially and fit the head and shoulder body shape. The leg area uses springs with an elasticity coefficient of 8-12N / cm (medium stiffness), and the lower section spring corresponding to this area has moderate rigidity to ensure the fit between the legs and the mattress.
[0046] Combination Figure 5 , the partitioned adaptive spring layer 3 in the waist and hip area adopts a high-head multi-strand waist drum-type spring. This spring adds a high-head design on the basis of the traditional waist drum spring, which can better realize the free expansion and contraction of the spring, enhance the sensitive response, and provide a stronger sense of support for the waist and hips. In addition, this structure can effectively avoid excessive sinking of the buttocks, thereby preventing the occurrence of a "hammock effect" or "funnel effect". The spring elastic coefficient of the waist and hip area can be specifically 12-18N / cm (medium and high stiffness) to ensure the stability and comfort of the support. In addition, the nonlinear compression mechanical characteristics enable it to adapt to the needs of different body shapes, weights and sleep preferences.
[0047] In addition, the dynamic response capability of the partitioned adaptive spring layer 3 is reflected in the nonlinear deformation and pressure adaptation. The upper springs corresponding to the head and shoulder area and the leg area are first compressed under slight pressure to provide soft support; as the pressure increases, the conical springs in the lower section gradually take over to form a segmented dynamic response system. This nonlinear deformation characteristic enables the mattress to automatically adapt according to the user's weight, posture and pressure distribution, so that both light and heavy users can get comfortable support. The waist and hip area is sensitive and responsive, and dynamically adaptive, similar to the functions of the springs in the head and shoulder area and the leg area, while enhancing the sense of support for the waist and hips.
[0048] Specifically, the partitioned adaptive spring layer 3 is made of multiple steel wires wound or bundled. The multi-strand spring is composed of multiple thin steel wires wound or bundled to form a composite spring structure as a whole. When the vibration is transmitted to the multi-strand spring, the force will be dispersed to each steel wire instead of being concentrated on a single steel wire. The deformation of each steel wire absorbs a part of the vibration energy, making the overall structure respond softer to the vibration, thereby reducing the transmission efficiency of the vibration. In addition, the slight sliding, friction or torsion between the multi-strand steel wires will further dissipate the vibration energy, thereby achieving a shock absorption effect. The nonlinear mechanical properties of the multi-strand spring give it dynamic adaptability under different pressures. In the initial stage, the thinner strands or peripheral steel wires, as the flexible part of the multi-strand spring, will deform first to alleviate the vibration impact under light pressure, and under high pressure, as the pressure increases, the multi-strand structure as a whole gradually increases rigidity, so that it can withstand greater vibration impact. In this nonlinear deformation process, the spring will produce a segmented response of "buffering-absorption-rebound" to the vibration, thereby significantly reducing the intensity and frequency of vibration transmission.
[0049] In one embodiment, the dynamic fit sustained-release layer C21 is formed by a combination of any one or more materials selected from the group consisting of memory foam, gel memory foam, and natural latex, and the thickness of the dynamic fit sustained-release layer C21 is 1.5-4 cm.
[0050] The excessive pressure dispersion layer C22 is made of any one or more of a high-resilience foam, a dynamic suspension fiber layer, and a partition support foam, and the thickness of the excessive pressure dispersion layer C22 is 2-5 cm.
[0051] The pressure-bearing and stable supporting layer C23 is made of a mixture of any one or more of high-density foam, hard foam / elastic board, and high-density latex, and the thickness of the pressure-bearing and stable supporting layer C23 is 1-3 cm.
[0052] In this embodiment, the functional composite cushion layer 2 forms a layered and progressive structure by increasing the supporting force and hardness layer by layer, so as to achieve the effects of dispersing pressure, assisting the hand spine and buffering vibration. Specifically:
[0053] The surface layer of the functional composite cushioning layer 2 is a dynamic fit slow-release layer C21, which is composed of one or more materials such as memory foam, gel memory foam, natural latex, etc., with a thickness of 1.5-4 cm. The dynamic fit slow-release layer C21 can closely fit the curve of the human body and reduce the pressure on the shoulders, back and buttocks. At the same time, the soft touch increases comfort and prevents discomfort caused by too hard materials.
[0054] The middle layer of the functional composite padding layer 2 is the pressure over-dispersion layer C22, which is composed of one or more materials such as high-resilience foam, dynamic suspension fiber layer, partition support foam, etc., with a thickness of 2-5cm. The pressure over-dispersion layer C22 is used to buffer the pressure from the surface layer and evenly distribute the body weight to the underlying support structure to provide moderate resilience, thereby alleviating physical discomfort caused by static sleep, improving air circulation, and maintaining dryness and temperature balance inside the mattress. Here, high-resilience foam (HR foam) has excellent resilience and support, and can quickly return to its original state after being subjected to pressure. At the same time, it can effectively disperse pressure and reduce the body's sense of pressure on the mattress. The density is usually 30-50kg / m 3 The dynamic suspension fiber layer is made of highly elastic material with good air circulation and breathability, which can reduce heat accumulation. At the same time, it can provide certain support and enhance comfort. The zoned support foam as a support layer can be designed with different hardness according to the needs of different areas of the body to achieve optimal support and comfort. This layer is usually harder to adapt to the pressure requirements of different parts such as the back and shoulders.
[0055] The bottom layer of the functional composite cushioning layer 2 is a pressure-bearing and stable support layer C23, which is made of any one of high-density foam, hard foam or elastic board, and high-density latex layer, with a thickness of 1-3cm. The pressure-bearing and stable support layer C23 is used to provide a stable basic support, suitable for supporting human weight and dynamic load, preventing the mattress from sinking excessively as a whole, maintaining good support force, further absorbing vibration, and enhancing the quiet effect of the mattress. Here, the high-density foam is polyurethane foam, and the density is recommended to be 30-50kg / m 3 High-density latex, the density should be recommended to be 70-85kg / m 3 TempurFirmFoam Layer (dense foam layer) has high load-bearing capacity and support, and its density is usually 40-60kg / m 3 The elastic sheet is generally made of polyurethane or related materials, which provides strong support, is suitable for bearing the weight of the human body and can effectively absorb vibration and reduce the quiet effect of the mattress.
[0056] In a specific embodiment, each surface layer of the dynamic bonding sustained-release layer C21, the excessive pressure dispersion layer C22 and the pressure-bearing stable support layer C23 is provided with embedded holes, and the adjacent surface layers of the dynamic bonding sustained-release layer C21, the excessive pressure dispersion layer C22 and the pressure-bearing stable support layer C23 are arranged with a material embedded structure.
[0057] Through the interlocking technology on the surface of each layer of foam, micropores are formed, so that the two layers of materials are embedded in each other, fixed by friction, and physical perforation is achieved to promote air circulation and reduce moisture accumulation. In addition, the hardness of each layer of material gradually increases from top to bottom to ensure the natural progression of pressure buffering and smooth transition between layers to avoid the "pressure fault feeling" or "suspended feeling".
[0058] In one embodiment, the functional composite mattress cover 1 is fixed by an independent pattern quilting process, the pattern size is less than 5 inches, and the functional composite mattress cover 1 has a thickness of 2-5 cm.
[0059] In this embodiment, the functional composite mattress cover 1 is quilted with functional fabric, flexible fiber, flexible foam and non-woven fabric, and is fixed by a quilting process with independent patterns. The pattern size is less than 5 inches (12.7 cm) to ensure the stability and elasticity of the functional composite mattress cover 1, and the thickness is between 2 cm and 5 cm.
[0060] Specifically, the functional fabric layer C11 is made of Tencel fibers, and the functional fabric is embedded with a phase change coating or graphene fibers in the chest and back regions of the human body.
[0061] The surface layer of the functional fabric is composed of Tencel fiber and combined with Fabric or bamboo charcoal fiber, which can provide excellent moisture absorption and perspiration and antibacterial properties. Preferably, the chest and back area is embedded Phase change coating or graphene fiber can achieve dynamic adjustment of temperature and humidity. Through the integration of these functions, the sleep comfort and recovery efficiency of athletes can be comprehensively improved, and the technological innovation and differentiated competitiveness can be enhanced.
[0062] The flexible fiber layer includes a soft skin-friendly moisture-absorbing layer C12, a dynamic humidity-regulating layer C13 and a breathable moisture-discharging layer C14 arranged in sequence from top to bottom; wherein:
[0063] The soft, skin-friendly, moisture-absorbing layer C12 is made of a mixture of Tencel fiber and bamboo fiber, and the thickness of the soft, skin-friendly, moisture-absorbing layer C12 is 3-4 mm, and the weight is 250-350 g / m2;
[0064] The dynamic humidity control layer C13 is made of a mixture of highly hygroscopic hollow fibers and graphene fibers. The thickness of the dynamic humidity control layer C13 is 5-6 mm, and the weight is 400-500 g / m2.
[0065] The breathable moisture-dissipating layer C14 is made of a mixture of three-dimensional breathable mesh fibers and polylactic acid fibers. The breathable moisture-dissipating layer C14 has a thickness of 5-6 mm and a gram weight of 400-500 g / m2.
[0066] The flexible fiber layer is located below the functional fabric layer C11 and above the flexible foam layer C15. This layer is specifically composed of a soft, skin-friendly, hygroscopic layer C12 on the surface, a dynamic humidifying layer C13 on the middle layer, and a breathable, moisture-removing layer C14 on the bottom layer. The soft, skin-friendly, hygroscopic layer C12 on the surface is a mixture of Tencel fiber (50%-70%) and bamboo fiber (30%-50%). The soft, skin-friendly, hygroscopic layer C12 on the surface is close to the skin, providing a soft, silky touch, and can quickly absorb moisture to avoid moisture on the surface during sleep. It also has natural antibacterial and anti-mite properties to improve health quality. The soft, skin-friendly, hygroscopic layer C12 on the surface has a thickness of 3-4 mm and a gram weight of 250-350 g / m2.
[0067] The dynamic humidity-control layer C13 in the middle layer is a mixture of highly hygroscopic hollow fibers (50%-70%) and graphene fibers (30%-50%), which can quickly absorb and effectively diffuse moisture to keep dry. This layer has an efficient moisture diversion channel, which helps to quickly dissipate moisture and prevent moisture accumulation. At the same time, the dynamic humidity-control layer C13 also has excellent antibacterial and deodorizing functions, suitable for long-term use. The breathable moisture-dissipating layer C14 preferably has a thickness of 5-6mm and a gram weight of 400-500 grams per square meter. Highly hygroscopic hollow fibers can choose polyvinyl alcohol (PVA) or polyamide (Nylon) as the base material, and are made into a hollow structure by physical or chemical methods.
[0068] The bottom layer of breathable moisture-wicking layer C14 is made of a mixture of three-dimensional breathable mesh fiber (3D AirMesh, 50%-70%) and polylactic acid fiber (PLA, 30%-50%). This layer can significantly enhance air circulation and effectively dissipate moisture and heat. This layer can also prevent moisture from accumulating at the bottom of the mattress, keeping the whole mattress dry. At the same time, the environmentally friendly materials used in the breathable moisture-wicking layer C14 can be used sustainably, which is in line with the concept of green health. The breathable moisture-wicking layer C14 preferably has a thickness of 4-5mm and a gram weight of 300-400 grams per square meter.
[0069] The flexible foam layer C15 is made of any one or more of polyurethane viscoelastic flexible foam, latex cotton or bio-based foam material.
[0070] The skin-friendly foam of the flexible foam layer C15 can be selected from one or more combinations of polyurethane viscoelastic flexible foam, latex sponge or bio-based foam materials to give full play to their respective softness, pressure relief and environmental protection performance. The combination of hydrophilic sponge (a type of polyurethane viscoelastic flexible foam) and flexible polyurethane sponge is preferred to further improve moisture absorption and breathability and dynamic adaptability.
[0071] In some practical application scenarios, a sleep monitoring sensor can also be set on the mattress to monitor the user's sleep status in real time, such as key indicators such as heart rate, breathing rate, and number of tossing and turning. These data are sent to the user's smart device through the built-in wireless transmission module, allowing the user to understand their sleep quality at any time and adjust the mattress according to the monitored data, such as increasing elasticity or adjusting the softness and hardness, etc., to obtain a more personalized sleep experience. The setting of the sleep monitoring sensor not only improves the intelligence level of the mattress, but also provides users with a scientific and convenient sleep health management solution.
[0072] In addition, a reinforcement frame can be provided at the side edge of the bed perimeter edge 4 of the mattress to enhance the support force of the mattress edge and prevent collapse caused by sitting or lying on the edge for a long time. The reinforcement frame can be made of hard material, such as hard fiberboard or high-density foam, to ensure the stability of the edge structure and extend the service life of the mattress. Further, an anti-skid bottom layer is provided at the bottom of the mattress, which can be made of anti-skid material, such as anti-skid cloth or rubber material, to increase the friction between the mattress and the bed frame, to prevent the mattress from sliding or shifting during use, and to ensure safety and stability in use.
[0073] In general, compared with the prior art, the moisture-absorbing, breathable, shock-absorbing spring mattress provided by the embodiment of the present invention has the following beneficial effects:
[0074] (1) Through the unique design of multi-strand special-shaped independent pocket springs and partition combination, the embodiment of the present invention achieves precise support for the three major areas of the head and shoulders, waist and hips, and legs. The multi-strand hourglass-shaped springs in the head and shoulders and leg areas provide soft support and ensure structural stability. The high-head multi-strand waist drum-shaped springs in the waist and hip areas enhance deep support for the waist and hips, respond sensitively, effectively fit the curve of the human body, maintain the natural physiological curvature of the spine, and avoid excessive sinking. In addition, the nonlinear deformation characteristics and multi-strand structure of the spring further enhance the dynamic adaptability to different body shapes and sleeping positions, better adapt to the physical characteristics of sports people, and ensure natural relaxation.
[0075] (2) The embodiments of the present invention improve the high-efficiency shock absorption and quiet effect of the mattress. The multi-strand spring structure disperses the vibration energy to multiple steel wires, greatly reducing the vibration transmission efficiency through sliding, friction and torsion, while reducing dynamic interference. In addition, the independent pocket spring adopts a sound insulation design to effectively eliminate friction noise. The environmentally friendly overlapping fabric between the bedding layer and the bed core further reduces friction noise, providing a quiet and undisturbed sleeping environment for people who exercise, and maintaining good sleep quality even if they toss and turn frequently.
[0076] (3) The layered pressure relief design adopted in the embodiment of the present invention can relieve fatigue with excellent effect. The cushioning layer is composed of a variety of materials such as memory foam, natural latex, and high-resilience foam, forming a layer-by-layer progressive pressure relief system. The surface dynamic bonding relief layer C21 reduces local pressure, the middle transition layer evenly disperses the body weight, and the bottom pressure-bearing and stable layer provides stable support, which significantly relieves the fatigue and pressure of muscles and joints after exercise, allowing users to achieve deep relaxation during sleep.
[0077] (4) The dynamic microclimate adjustment layer used in the embodiment of the present invention is combined with an opening design to form an efficient air circulation system. The surface layer is made of Tencel fiber, Functional materials such as fabrics and bamboo charcoal fibers have the characteristics of rapid moisture absorption and perspiration removal, antibacterial and anti-mite; the middle layer uses graphene fibers and highly hygroscopic hollow fibers to dynamically adjust humidity, keep the mattress dry and comfortable, prevent moisture accumulation, and provide a fresh and healthy sleeping environment.
[0078] (5) The embodiment of the present invention combines multiple functions such as zoned support, shock absorption and pressure relief, and dynamic temperature and humidity regulation to comprehensively solve the sleep problems caused by muscle pain, elevated body temperature, and increased sweating at night for athletes. Through unique design and optimization, the mattress effectively improves sleep quality, promotes muscle recovery and body repair, provides a scientific and comfortable sleep experience for athletes, and significantly improves the quality of life.
[0079] The various embodiments in the specification are described in a progressive manner, and each embodiment focuses on the differences from other embodiments. The same and similar parts between the various embodiments can be referred to each other. For the system disclosed in the embodiment, since it corresponds to the method disclosed in the embodiment, the description is relatively simple, and the relevant parts can be referred to the method part description. It should be pointed out that for ordinary technicians in this technical field, without departing from the principles of this application, several improvements and modifications can be made to the present application, and these improvements and modifications also fall within the scope of protection of the claims of this application.
[0080] It should also be noted that, in this specification, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "comprises", "comprising" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device. In the absence of further restrictions, an element defined by the statement "comprising a ..." does not exclude the presence of other identical elements in the process, method, article or device including the element.
Claims
1. A moisture-absorbing, breathable, shock-absorbing spring mattress, characterized in that: The invention comprises a bed periphery, wherein the bed periphery is provided with a partitioned adaptive spring layer, a functional composite cushioning layer and a functional composite mattress cover in sequence from the inside to the outside; Wherein, the partitioned adaptive spring layer includes the head and shoulder area, the waist and hip area, and the leg area; The functional composite cushion layer includes a dynamic bonding slow-release layer, an excessive pressure dispersion layer and a pressure-bearing stable support layer from top to bottom, and the supporting force and hardness of the dynamic bonding slow-release layer, the excessive pressure dispersion layer and the pressure-bearing stable support layer increase layer by layer; The functional composite mattress cover comprises a functional fabric layer, a flexible fiber layer and a flexible foam layer in sequence from top to bottom.
2. The moisture-absorbing, breathable, shock-absorbing spring mattress according to claim 1, characterized in that: The partitioned adaptive spring layer corresponding to the head and shoulder area and the leg area adopts a multi-strand hourglass-shaped spring, and the multi-strand hourglass-shaped spring includes an upper spring with a drum-shaped structure and a lower spring with a cone-shaped structure; wherein the number of turns of the upper spring is greater than the number of turns of the lower spring, and the rigidity of the upper spring is less than the rigidity of the lower spring.
3. The moisture-absorbing, breathable, shock-absorbing spring mattress according to claim 2, characterized in that: The partitioned adaptive spring layer corresponding to the waist and hip area adopts a high-head multi-strand waist-drum spring, and the spring elastic coefficient of the high-head multi-strand waist-drum spring is 12-18N / cm.
4. The moisture-absorbing, breathable, shock-absorbing spring mattress according to claim 2, characterized in that: The partitioned adaptive spring layer is made by winding or bundling a plurality of steel wires.
5. The moisture-absorbing, breathable, shock-absorbing spring mattress according to claim 1, characterized in that: The dynamic fit sustained-release layer is formed by combining any one or more materials selected from the group consisting of memory foam, gel memory foam, and natural latex. The thickness of the dynamic fit sustained-release layer is 1.5-4 cm.
6. The moisture-absorbing, breathable, shock-absorbing spring mattress according to claim 1, characterized in that: The excessive pressure distribution layer is made of any one or more of a high-resilience foam, a dynamic suspension fiber layer, and a partition support foam, and the thickness of the excessive pressure distribution layer is 2-5 cm.
7. The moisture-absorbing, breathable, shock-absorbing spring mattress according to claim 1, characterized in that: The pressure-bearing and stable supporting layer is made of a mixture of any one or more of high-density foam, hard foam / elastic board, and high-density latex, and the thickness of the pressure-bearing and stable supporting layer is 1-3 cm.
8. The moisture-absorbing, breathable, shock-absorbing spring mattress according to claim 1, characterized in that: The surfaces of the dynamic fitting slow-release layer, the excessive pressure dispersion layer and the pressure-bearing stable support layer are respectively provided with embedding holes, and the adjacent surfaces of the dynamic fitting slow-release layer, the excessive pressure dispersion layer and the pressure-bearing stable support layer are arranged with a material embedding structure.
9. The moisture-absorbing, breathable, shock-absorbing spring mattress according to claim 1, characterized in that: The functional composite mattress cover is fixed by an independent pattern quilting process, the pattern size is less than 5 inches, and the thickness of the functional composite mattress cover is 2-5 cm.
10. The moisture-absorbing, breathable, shock-absorbing spring mattress according to claim 1, characterized in that: The functional fabric layer is made of Tencel fiber, and the functional fabric is embedded with a phase change coating or graphene fiber in the chest and back area of the human body.
11. The moisture-absorbing, breathable, shock-absorbing spring mattress according to claim 1, characterized in that: The flexible fiber layer includes a soft skin-friendly moisture-absorbing layer, a dynamic humidity-regulating layer and a breathable moisture-discharging layer arranged in sequence from top to bottom; wherein: The soft, skin-friendly, moisture-absorbing layer is made of a mixture of tencel fiber and bamboo fiber, and the thickness of the soft, skin-friendly, moisture-absorbing layer is 3-4 mm, and the weight is 250-350 g / m2; The dynamic humidity control layer is made of a mixture of highly hygroscopic hollow fibers and graphene fibers. The thickness of the dynamic humidity control layer is 5-6 mm and the weight is 400-500 g / m2. The breathable moisture-dissipating layer is made of a mixture of three-dimensional breathable mesh fibers and polylactic acid fibers. The breathable moisture-dissipating layer has a thickness of 5-6 mm and a gram weight of 400-500 g / m2.
12. The moisture-absorbing, breathable, shock-absorbing spring mattress according to claim 1, characterized in that: The flexible foam layer is made of any one or more of polyurethane viscoelastic flexible foam, latex cotton or bio-based foam material.