A massage device

Abstract

This application relates to a massage device, belonging to the technical field of health massage equipment. The massage device includes a second massage body and a first massage body with an inlet; wherein the first massage body has a massage cavity, the inlet being connected to the massage cavity, and the massage cavity is used to massage a first massage area; the second massage body is connected to the first massage body at a first connecting portion, the first connecting portion being located near the inlet of the first massage body; wherein the second massage body is in the form of an elastic thin shell, capable of wrapping and elastically compressing the second massage area, the first massage area and the second massage area belonging to different areas of the human body. The massage device provided in this application embodiment can perform synergistic massage on multiple related areas.

Description

Technical Field

[0001] This application relates to the field of health massage equipment technology, and more specifically, to a massage device. Background Technology

[0002] In the field of human health care, massage therapy targeting specific areas is of great significance for promoting local blood circulation, relieving fatigue, and improving physiological condition. The human body contains multiple interconnected physiological regions, and the need for synergistic health care among these regions is becoming increasingly prominent in daily care.

[0003] Traditional massage devices mostly only provide massage to a single area, making it difficult to meet the synergistic care needs of multiple related areas. While some multi-functional massage devices attempt to cover multiple areas, their structural designs have significant shortcomings. For example, the massage structures corresponding to different areas lack proper mechanical coordination, resulting in uneven massage intensity; or improper design of the connection methods between various structures leads to poor fit when worn, failing to adapt to the physiological differences of different users.

[0004] Existing technologies often employ rigid contact designs for massage components targeting certain related areas, which can easily cause localized pressure and discomfort. Furthermore, massage cavity structures targeting other related areas often neglect coordination with massage components in adjacent areas, resulting in an unsatisfactory overall massage effect and failing to fully realize the synergistic health benefits of multiple areas. Therefore, there is an urgent need for an integrated device capable of providing synergistic, comfortable, and efficient massage to multiple related physiological areas. Summary of the Invention

[0005] The purpose of this application is to provide a massage device that can perform synergistic massage on multiple related areas, thereby improving the aforementioned problems.

[0006] This application is achieved through the following technical solution: This application provides a massage device, which includes a second massage body and a first massage body with an inlet; wherein, the first massage body has a massage cavity, the inlet is connected to the massage cavity, and the massage cavity is used to massage a first massage area; the second massage body is connected to the first massage body at a first connecting part, the first connecting part being located near the inlet of the first massage body; wherein, the second massage body is in the form of an elastic thin shell, which can wrap around and elastically compress the second massage area, and the first massage area and the second massage area belong to different areas of the human body.

[0007] In the technical solution of this application embodiment, the user first aligns the first massage part with the entrance of the first massage body, allowing the first massage part to naturally enter the massage cavity connected to the entrance. At this time, the massage cavity can conform to the contour of the first massage part, achieving targeted wrapping. Since the first connecting part is located near the entrance of the first massage body, the second massage body is stably connected to the first massage body through the first connecting part, allowing the position of the second massage body to be close to the entrance of the first massage body, so that it wraps the second massage part in an elastic thin shell shape. The massage cavity of the first massage body forms a close-fitting support for the first massage part, and achieves the basic massage effect through the cavity structure; at the same time, the second massage body uses its own elastic properties to generate uniform elastic pressure on the second massage part. This flexible wrapping method can adapt to the differences in physiological characteristics of different users. The massage device provided by this application realizes the synergistic care of the first and second massage parts; the elastic thin shell design of the second massage body avoids the pressure discomfort caused by rigid contact and improves the contact comfort; the position design of the first connecting part ensures that the mechanical fit of the two massage bodies is reasonable, the device has strong stability during use, and the massage effect will not be affected by shaking due to movement, giving full play to the synergistic health care effect of multiple parts.

[0008] In some embodiments, a first vibration component having a conduction output portion is further included; wherein the first vibration component is disposed on or in a region adjacent to the first connection portion; the conduction output portion is located inside the second massage body and is used to output vibration energy to the second massage body.

[0009] In the technical solution of this application embodiment, the vibration energy generated by the first vibration component is efficiently transmitted to the second massage body through the conduction output section. Since the conduction output section acts directly on the interior of the second massage body, the vibration energy is absorbed by the second massage body with almost no loss, and then transformed into high-frequency flexible vibration massage on the second massage area. During use, the massage cavity of the first massage body continues to provide massage to the first massage area, while the second massage body, on the basis of its own elastic pressure, is superimposed with the dynamic massage effect brought by the vibration energy. The massage device provided by this application, through the directional energy output of the conduction output section, enables the second massage area to receive targeted vibration massage, solving the problems of dispersed vibration energy and inaccurate action in traditional massage devices; the first vibration component is positioned close to the first connecting part, shortening the vibration transmission path, reducing energy loss, and ensuring stable vibration intensity; thirdly, the synergistic effect of vibration massage and elastic pressure makes the blood circulation and muscle relaxation effect of the second massage area better.

[0010] In some embodiments, a second connecting portion is further included; wherein the second connecting portion is disposed within the second massage body near the first connecting portion; the second connecting portion is used to fix the conductive output portion; wherein the conductive output portion has a damping path and an excitation path; the damping path includes a first vibration transmission path L1 from the conductive output portion to the first massage body, the first vibration transmission path L1 being a direct vibration transmission path from the conductive output portion to the first massage body; the excitation path includes a second vibration transmission path L2 from the conductive output portion to the second massage body, the second vibration transmission path L2 being a direct vibration transmission path from the conductive output portion to the second massage body; wherein the vibration intensity and / or energy transmitted by the conductive output portion on the damping path is less than the vibration intensity and / or energy transmitted on the excitation path.

[0011] In the technical solution of this application embodiment, in the excitation path, the transmission output unit directly outputs vibration energy to the second massage body through the second vibration transmission path L2. Since this is a direct vibration transmission path, energy loss is minimal, and the second massage body can efficiently receive vibration and convert it into dynamic massage force on the second massage area. In the damping path, when the transmission output unit transmits vibration to the first massage body through the first vibration transmission path L1, the energy is effectively weakened, making the vibration intensity received by the first massage body much lower than that of the second massage body. In the massage device provided by this application, the fixing function of the second connecting part ensures the stability of the transmission output unit position, avoiding the decrease in energy transmission efficiency caused by component loosening during vibration; through the differentiated design of the damping path and the excitation path, the directional distribution of vibration energy is achieved, allowing the second massage area to obtain a stronger vibration massage effect, while reducing vibration interference from the first massage body, solving the functional redundancy problem caused by vibration diffusion in traditional devices; the precise distribution of vibration energy improves the energy efficiency ratio of the device, ensuring that more energy is used for effective massage areas.

[0012] In some embodiments, the vibration reduction path further includes a third vibration transmission path L3; wherein, the third vibration transmission path L3 includes vibration transmission paths centered on the transmission output section in directions other than the direction of the first vibration transmission path L1 and the direction of the second vibration transmission path L2.

[0013] In the technical solution of this application embodiment, when the first vibration component is activated, the transmission output unit, as a vibration energy source, simultaneously transmits energy in multiple directions: high-intensity vibration is output to the second massage body along the second vibration transmission path L2 (excitation path), weak vibration is output to the first massage body along the first vibration transmission path L1 (damping path), and vibrations in other directions are diffused through the third vibration transmission path L3. Since the third vibration transmission path L3 is incorporated into the damping path design, the vibration energy in these directions is effectively weakened. Ultimately, only the second vibration transmission path L2 retains sufficient vibration intensity, while vibrations in other directions (including the third vibration transmission path L3) are controlled at a low level. The massage device provided in this application solves the problem of indiscriminate vibration diffusion in traditional devices through a damping design covering all unnecessary directions, thereby improving the utilization rate of vibration energy. More energy is concentrated on the second massage body, reducing ineffective losses to non-target areas such as air and device casing; the vibration reduction of the third path effectively reduces the noise during device operation, reducing component friction noise or resonance noise caused by vibration; it reduces the impact of vibration in unnecessary directions on the stability of the device, such as avoiding slight displacement of the transmission output part caused by vibration in unnecessary directions, and ensuring the long-term stability of the fixation effect of the second connection part.

[0014] In some embodiments, the conductive output portion has an embedded rib; the embedded rib extends along the direction of the excitation path and is embedded in the second massage body.

[0015] In the technical solution of this application embodiment, when the first vibration component is activated, the vibration energy is transmitted to the embedded rib through the conduction output part. Since the embedded rib and the second massage body are embeddedly connected, the vibration energy can directly diffuse into the interior of the second massage body through the overall structure of the embedded rib. The embedded rib concentrates the vibration energy that might otherwise be dispersed along the excitation path, reducing energy loss at the contact interface. At the same time, the rigid structure of the embedded rib and the elastic material of the second massage body complement each other. The embedded rib ensures efficient vibration transmission, while the elasticity of the second massage body evenly distributes the vibration to the entire second massage area. The directional extension of the embedded rib along the excitation path in the massage device provided by this application makes the direction of vibration energy transmission more precise, solving the problem of vibration easily diverging laterally in traditional planar contact; the embedded connection greatly improves the bonding strength between the conduction output part and the second massage body, avoiding contact loosening caused by long-term vibration and ensuring stable energy transmission efficiency; the structure of the embedded rib enhances the energy density of the excitation path, making the vibration intensity received by the second massage body more concentrated, and the massage effect on the second massage area more obvious.

[0016] In some embodiments, the vibration damping path is implemented by providing an air gap between the first massage body and the conductive output section.

[0017] In the technical solution of this application embodiment, when the first vibration component is activated, the vibration energy generated by the transmission output part is mainly transmitted to the second massage body along the excitation path (second vibration transmission path L2). When some vibration energy attempts to diffuse through the first vibration transmission path L1, it will first come into contact with the air gap. Since air is a poor conductor of vibration, the vibration energy will be significantly attenuated when passing through the air gap: high-frequency vibrations lose energy rapidly due to molecular friction when propagating in the air medium, and cannot be effectively transmitted to the first massage body, thereby greatly reducing the vibration transmission to the first massage body. The air gap achieves efficient vibration reduction through physical separation. Compared with traditional rigid contact or flexible connection, it can more directly weaken the energy of the first vibration transmission path L1 and avoid unnecessary vibration interference to the first massage part; the air gap has a simple structure and does not require additional damping materials or complex components, which simplifies the device structure and reduces production difficulty while ensuring the vibration reduction effect; the existence of the air gap reduces the direct friction between the transmission output part and the first connection part, avoids component wear caused by long-term vibration, and extends the service life of the device.

[0018] In some embodiments, the second massage body is further provided with a temperature regulation module; the temperature regulation module is used to regulate the temperature during massage.

[0019] In the technical solution of this application embodiment, the user can adjust the temperature level according to their own needs. For example, in a cold environment, a warm mode can be selected, and the temperature adjustment module will transfer appropriate heat to the second massage area through the second massage body to promote local blood circulation. When relaxation is needed, a normal temperature or slightly cool mode can be selected to avoid discomfort caused by overheating. Throughout the process, the operation of the temperature adjustment module will not interfere with the vibration transmission of the excitation path, and the vibration energy and temperature effect will work synergistically on the second massage area. The massage device provided by this application provides a composite care of vibration and temperature to the second massage area through temperature adjustment, which enhances the comfort and health care effect of the massage. The temperature adjustment module is built into the second massage body, making the heat / cold transmission path short and direct, avoiding energy loss, and the adjustment response speed is fast. The synergistic effect of temperature and vibration can better adapt to the needs of different usage scenarios, improving the versatility of the device and user adaptability.

[0020] In some embodiments, the device further includes a tapping component; the tapping component generates a tapping force by mechanical drive; the tapping component is configured to deform the second massage body by tapping it to apply a massage force to the second massage area.

[0021] In the technical solution of this application embodiment, after the second massage body wraps around the second massage area, the tapping component generates periodic tapping force through its built-in mechanical drive structure. Its actuating end rhythmically taps the second massage body. Since the second massage body is an elastic thin-shell structure, it undergoes localized deformation after being tapped. This deformation is transmitted elastically and directly acts on the internal second massage area, creating a dynamic massage effect similar to light tapping or pressing. The tapping frequency and intensity can be adjusted according to needs; for example, low-speed tapping is suitable for soothing relaxation, while high-speed tapping can enhance local stimulation. Throughout the process, the massage cavity of the first massage body maintains stable support for the first massage area, and the force of the tapping component is transmitted only through the second massage body, without affecting the massage state of the first massage area. The tapping component provides dynamic tapping massage to the second massage area, enriching the massage experience. The elastic thin-shell structure works synergistically with the tapping force; the elastic deformation of the shell cushions the force, preventing discomfort from rigid tapping, while evenly distributing the force to the second massage area. The independent design of the tapping component allows the second massage area to receive targeted mechanical stimulation, complementing the massage from the first massage area and enhancing the overall massage effect of the device. In some embodiments, the surface of the second massage body that contacts the second massage area is provided with a raised reinforcement portion; the position of the reinforcement portion corresponds to the point of action of the tapping component tapping the second massage body.

[0022] In the technical solution of this application embodiment, when the tapping component taps the second massage body, the local deformation generated by the elastic thin shell is concentrated on the inner reinforcing part, causing the reinforcing part to exert a more obvious protruding pressure on the second massage area. Since the reinforcing part is a protruding structure, the tapping force is transmitted through the thin shell, creating a point-enhanced massage effect: compared to the surrounding planar area, the reinforcing part can more concentratedly transmit the tapping force to the corresponding area of ​​the second massage area. Simultaneously, the protruding shape increases the local contact pressure, making the massage stimulation more precise. Throughout the process, the reinforcing part moves synchronously with the elastic deformation of the second massage body, retaining the buffering characteristics of the thin shell while amplifying the effective effect of the tapping force through structural design. The massage device provided in this application solves the problem of easy dispersion of striking force during transmission through an elastic thin shell. By using the raised structure of the reinforcing part, the striking energy is locally concentrated, enhancing the perceived intensity of the second massage area. The corresponding design of the reinforcing part and the striking point ensures that each strike is precisely applied to the target area, avoiding ineffective force diffusion and improving massage efficiency. The raised reinforcing part increases the morphological variation of the massage contact surface, allowing the second massage area to receive a combined stimulation of dynamic striking and localized raised pressure, enriching the massage experience.

[0023] In some embodiments, the surface of the second massage body that contacts the second massage area is provided with a textured structure to enhance the massage effect.

[0024] In the technical solution of this application embodiment, when the second massage body is working, the texture structure enhances the effect in two ways: First, it increases the friction of the contact surface, reducing the relative displacement between the second massage body and the second massage area, ensuring that the massage force is transmitted more accurately and avoiding the effect attenuation caused by sliding; Second, the texture structure forms a subtle mechanical stimulation to the skin through its concave and convex shape. This stimulation can activate skin receptors, enhance nerve feedback, allow the user to perceive the massage effect more clearly, and promote local blood circulation.

[0025] Additional aspects and advantages of this application will be set forth in part in the description which follows, and in part will be obvious from the description, or may be learned by practice of this application. Attached Figure Description

[0026] To more clearly illustrate the technical solutions of the embodiments of this application, the accompanying drawings used in the embodiments will be briefly introduced below. It should be understood that the following drawings only show some embodiments of this application and should not be regarded as a limitation of the scope. For those skilled in the art, other related drawings can be obtained based on these drawings without creative effort.

[0027] Figure 1 This is a schematic diagram of the structure of a massage device provided in some embodiments of this application; Figure 2 Exploded views of a first massage body and a second massage body provided for some embodiments of this application; Figure 3 Top view of a massage device provided in some embodiments of this application; Figure 4 for Figure 3 Sectional view of AA; Figure 5 for Figure 4 A magnified view of a portion of the image; Figure 6 Provided for other embodiments of this application Figure 3 Sectional view of AA; Figure 7 Side view of a massage device provided in some embodiments of this application; Figure 8 for Figure 7 A cross-sectional view of the massage device; Figure 9 This is a schematic diagram of the structure of the second massage body provided in some embodiments of this application; Figure 10 This is a schematic diagram of the structure of the conductive output section provided in some embodiments of this application; Figure 11 A cross-sectional view of a massage device provided in some embodiments of this application.

[0028] Icons: 1-First massage body; 10-Entrance; 11-Massage cavity; 12-First connecting part; 3-Second massage body; 30-Second connecting part; 31-Reinforcing part; 32-Massage head; 4-Conduction output part; 40-Embedded rib; 5-Temperature adjustment module; 6-Slapping component. Detailed Implementation

[0029] To make the objectives, technical solutions, and advantages of the embodiments of this application clearer, the technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.

[0030] Unless otherwise defined, all technical and scientific terms used in this application have the same meaning as commonly understood by one of ordinary skill in the art to which this application pertains; the terminology used in the description of this application is for the purpose of describing particular embodiments only and is not intended to limit the application; the terms "comprising" and "having," and any variations thereof, in the description, claims, and accompanying drawings of this application are intended to cover non-exclusive inclusion. The terms "first," "second," etc., in the description, claims, or accompanying drawings of this application are used to distinguish different objects, not to describe a specific order or hierarchy.

[0031] In this application, the reference to "embodiment" means that a specific feature, structure, or characteristic described in connection with an embodiment may be included in at least one embodiment of this application. The appearance of this phrase in various places throughout the specification does not necessarily refer to the same embodiment, nor is it a mutually exclusive, independent, or alternative embodiment. It will be explicitly and implicitly understood by those skilled in the art that the embodiments described in this application can be combined with other embodiments.

[0032] In the description of this application, it should be noted that, unless otherwise expressly specified and limited, the terms "installation," "connection," "linking," and "attachment" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal communication between two components. Those skilled in the art can understand the specific meaning of the above terms in this application according to the specific circumstances.

[0033] In this application, the term "and / or" is merely a description of the relationship between related objects, indicating that three relationships can exist. For example, A and / or B can represent: A existing alone, A and B existing simultaneously, or B existing alone. Additionally, in this application, the character " / " generally indicates that the preceding and following related objects have an "or" relationship.

[0034] In this application, "multiple" refers to two or more (including two), similarly, "multiple sets" refers to two or more (including two sets), and "multiple pieces" refers to two or more (including two pieces).

[0035] According to some embodiments of this application, optionally, such as Figures 1-8 As shown, this application provides a massage device, which includes a second massage body 3 and a first massage body 1 having an inlet 10; wherein, the first massage body 1 has a massage cavity 11, the inlet 10 is connected to the massage cavity 11, and the massage cavity 11 is used to massage a first massage area; the second massage body 3 is connected to the first massage body 1 via a first connecting part 12, the first connecting part 12 being located near the inlet 10 of the first massage body 1; wherein, the second massage body 3 is in the form of an elastic thin shell, which can wrap around and elastically compress the second massage area, the first massage area and the second massage area are different areas of the human body.

[0036] Since the material surrounding the massage cavity 11 is relatively soft and elastic, the shape of the entrance 10 mentioned in this application may be, but is not limited to, a slit.

[0037] like Figure 8 As shown, the first massage body 1 and the second massage body 3 mentioned in this application can be integrally formed, and the first connecting part 12 is the transition part between the first massage body 1 and the second massage body 3.

[0038] Alternatively, the first massage body 1 and the second massage body 3 mentioned in this application can be set separately, and the first connecting part 12 is a connector between the first massage body 1 and the second massage body 3.

[0039] The elastic thin shell structure mentioned in this application has both flexibility and support. The elastic thin shell can deform along the surface of the second massage part to fit it when it comes into contact with the second massage part, and can maintain its own shape without deformation when it is not in contact with the second massage part.

[0040] The second massage body 3 mentioned in this application does not tightly wrap around the second massage area; rather, the second massage body 3 is only in contact with the second massage area.

[0041] The first connecting part 12 is located near the entrance 10 of the first massage body 1. This design allows the second massage body 3 to fit the physiological position of the second massage area, reducing interference between the two massage bodies and ensuring that their respective massage functions work independently and synergistically.

[0042] In practical applications, the user first aligns the first massage point with the entrance 10 of the first massage body 1, allowing the first massage point to naturally enter the massage cavity 11 connected to the entrance 10. At this time, the massage cavity 11 can conform to the contour of the first massage point, achieving targeted wrapping. Since the first connecting part 12 is located near the entrance 10 of the first massage body 1, the second massage body 3 is stably connected to the first massage body 1 through the first connecting part 12, allowing the position of the second massage body 3 to be close to the entrance 10 of the first massage body 1, so that it wraps around the second massage point in an elastic thin shell shape. The massage cavity 11 of the first massage body 1 provides close support to the first massage point, achieving basic massage through the cavity structure; at the same time, the second massage body 3 uses its own elastic properties to generate uniform elastic pressure on the second massage point. This flexible wrapping method can adapt to the differences in physiological characteristics of different users. The massage device provided in this application enables synergistic care of the first and second massage areas; the elastic thin shell design of the second massage body 3 avoids the discomfort caused by rigid contact and improves the comfort of contact; the position design of the first connecting part 12 ensures that the mechanical fit between the two massage bodies is reasonable, the device is highly stable during use, and the massage effect will not be affected by shaking, thus giving full play to the role of synergistic health care of multiple parts.

[0043] In a specific implementation, the first massage body 1 may include an elastic silicone sleeve, a cup for accommodating the silicone sleeve, and a mechanical structure for driving the silicone sleeve to perform massage actions. The inlet 10 of the silicone sleeve extends out of the opening of the cup. The silicone sleeve can wrap around the first massage area and apply massage force to the first massage component through the mechanical structure set on its inner side. Massage chamber 11 is connected to the outside world only through entrance 10; The mechanical structure can be a vibrating component, which can press or pat the first massage component by causing the inner wall of the massage cavity 11 to vibrate; Alternatively, the mechanical structure can cause the massage cavity 11 to contract and deform intermittently to squeeze the first massage area.

[0044] According to some embodiments of this application, optionally, such as Figures 4-6 As shown, it also includes a first vibration component with a conduction output section 4; wherein the first vibration component is disposed on or in the region adjacent to the first connection section 12; the conduction output section 4 is located inside the second massage body 3 and is used to output vibration energy to the second massage body 3.

[0045] The first vibration component is disposed on or near the first connecting part 12. It can fix the first vibration component with the structural strength of the first connecting part 12, and allow the transmission output part 4 to naturally extend into the second massage body 3, avoiding the damage to the elastic shape of the second massage body 3 by additional connecting structures.

[0046] The transmission output unit 4 is located inside the second massage body 3, ensuring that the vibration energy acts directly on the massage carrier (second massage body 3) rather than being transmitted through air or other gaps, thus greatly improving the energy transmission efficiency.

[0047] The vibration energy generated by the first vibration component is efficiently transmitted to the second massage body 3 through the conduction output part 4. Since the conduction output part 4 acts directly inside the second massage body 3, the vibration energy is absorbed by the second massage body 3 with almost no loss, and then converted into high-frequency flexible vibration massage on the second massage area. During use, the massage cavity 11 of the first massage body 1 continues to provide a massage effect on the first massage area, while the second massage body 3, on the basis of its own elastic pressure, is superimposed with the dynamic massage effect brought by the vibration energy.

[0048] The massage device provided in this application provides targeted vibration massage to the second massage area through the directional energy output of the conduction output section 4, which solves the problems of dispersed vibration energy and inaccurate action of traditional massage devices; the first vibration component is located close to the first connecting section 12, which shortens the vibration transmission path, reduces energy loss, and ensures stable vibration intensity; thirdly, the synergistic effect of vibration massage and elastic compression makes the blood circulation and muscle relaxation effect of the second massage area better.

[0049] In specific implementation, such as Figure 5 As shown, the surface of the second massage body 3 that contacts the second massage area is also provided with three massage heads 32 (the massage heads 32 can be multiple, but this application describes three as an example). The massage heads 32 are blade-shaped or tongue-shaped and can swing under the guidance of the transmission output section 4 to massage the second massage area.

[0050] Three massage heads 32 are arranged sequentially along the surface of the second massage body 3. The hardness of the three massage heads 32 increases (or decreases) sequentially along the arrangement direction so that they can correspond to different vibration frequencies of the first vibration component. For example, the first vibration frequency of the first vibration component can cause the massage head 32 with the lowest hardness to resonate and oscillate to massage the second massage area; the second vibration frequency of the first vibration component can cause the massage head 32 with moderate hardness to resonate and oscillate to massage the second massage area; and the third vibration frequency of the first vibration component can cause the massage head 32 with the highest hardness to resonate and oscillate to massage the second massage area. For another example: the first vibration frequency of the first vibration component can cause the massage head 32 with the lowest hardness to resonate and oscillate to massage the second massage area; the second vibration frequency of the first vibration component can cause the massage head 32 with the lowest hardness and the massage head 32 with moderate hardness to resonate and oscillate to massage the second massage area; and the third vibration frequency of the first vibration component can cause all three massage heads 32 to resonate and oscillate to massage the second massage area.

[0051] Alternatively, the dimensions of the three massage heads 32 protruding from the second massage body 3 can be increased or decreased sequentially along the arrangement direction so that each of them corresponds to a different vibration frequency of the first vibration component. For example: the first vibration frequency of the first vibration component can cause the shortest massage head 32 to resonate and oscillate to massage the second massage area; the second vibration frequency of the first vibration component can cause the massage head 32 of moderate length to resonate and oscillate to massage the second massage area; and the third vibration frequency of the first vibration component can cause the longest massage head 32 to resonate and oscillate to massage the second massage area. As another example: the first vibration frequency of the first vibration component can cause the shortest massage head 32 to resonate and oscillate to massage the second massage area; the second vibration frequency of the first vibration component can cause the shortest and moderately sized massage heads 32 to resonate and oscillate to massage the second massage area; and the third vibration frequency of the first vibration component can cause all three massage heads 32 to resonate and oscillate to massage the second massage area.

[0052] According to some embodiments of this application, optionally, such as Figure 9As shown, it also includes a second connecting portion 30; wherein the second connecting portion 30 is disposed within the second massage body 3 near the first connecting portion 12; the second connecting portion 30 is used to fix the conductive output portion 4; wherein the conductive output portion 4 has a damping path and an excitation path; the damping path includes a first vibration transmission path L1 from the conductive output portion 4 to the first massage body 1, the first vibration transmission path L1 being a direct vibration transmission path from the conductive output portion 4 to the first massage body 1; the excitation path includes a second vibration transmission path L2 from the conductive output portion 4 to the second massage body 3, the second vibration transmission path L2 being a direct vibration transmission path from the conductive output portion 4 to the second massage body 3; wherein the vibration intensity and / or energy transmitted by the conductive output portion 4 on the damping path is less than the vibration intensity and / or energy transmitted on the excitation path.

[0053] The excitation path is the core path in the device used to efficiently transmit vibrational energy to the second massage body 3. The excitation path starts at the conduction output section 4 and ends at the inner wall and overall structure of the second massage body 3. Since the conduction output section 4 is located inside the second massage body 3 and is fixed near the first connection section 12 via the second connection section 30, it forms direct and close contact with the inner side of the second massage body 3. This contact may be surface contact or multi-point contact, ensuring that vibrational energy can be directly transmitted without passing through other unnecessary structures. During energy transmission, the vibration generated by the first vibration component acts directly on the second massage body 3 through the conduction output section 4. Due to the short transmission path and the absence of significant energy obstruction structures, the vibration intensity and energy loss are minimal.

[0054] The second vibration transmission path L2 is the only component of the excitation path, defined as the direct vibration transmission path from the conduction output section 4 to the second massage body 3. The conduction output section 4 is located inside the second massage body 3 and is fixed by the second connecting section 30, so that it forms a stable contact with the inner wall of the second massage body 3. The transmission path is short and there is no obvious energy blockage.

[0055] The vibration damping path is used to reduce the transmission of vibration energy to the first massage body 1. Its core function is to reduce the interference of vibration on the first massage body 1. The energy transmission intensity and efficiency of the vibration damping path are deliberately reduced, forming a significant difference from the excitation path. The first vibration transmission path L1, as the main component of the vibration damping path, is a direct transmission channel from the conduction output part 4 to the first massage body 1. However, unlike the excitation path, this path may have structural energy weakening designs, or the connection between the conduction output part 4 and the first massage body 1 may not be a rigid and tight contact, resulting in significant attenuation of vibration during transmission.

[0056] The first vibration transmission path L1 is the core component of the vibration reduction path, defined as a direct vibration transmission path from the conduction output section 4 to the first massage body 1. The starting point of this path is the conduction output section 4, and the ending point is the first massage body 1. The transmission medium may involve the first connecting section 12 or a connection structure between the two.

[0057] In the excitation path, the transmission output unit 4 directly outputs vibration energy to the second massage body 3 through the second vibration transmission path L2. Because this is a direct vibration transmission path, energy loss is minimal, and the second massage body 3 can efficiently receive vibration and convert it into dynamic massage force on the second massage area. In the damping path, when the transmission output unit 4 transmits vibration to the first massage body 1 through the first vibration transmission path L1, the energy is effectively weakened, resulting in the vibration intensity received by the first massage body 1 being much lower than that of the second massage body 3. In the massage device provided by this application, the fixing function of the second connecting part 30 ensures the stability of the position of the transmission output unit 4, avoiding a decrease in energy transmission efficiency due to component loosening during vibration. Through the differentiated design of the damping path and the excitation path, the directional distribution of vibration energy is achieved, allowing the second massage area to obtain a stronger vibration massage effect while reducing vibration interference from the first massage body 1, solving the functional redundancy problem caused by vibration diffusion in traditional devices. The precise distribution of vibration energy improves the energy efficiency ratio of the device, ensuring that more energy is used for effective massage areas.

[0058] According to some embodiments of this application, optionally, such as Figure 3 As shown, the vibration reduction path also includes a third vibration transmission path L3; wherein, the third vibration transmission path L3 includes vibration transmission paths centered on the transmission output unit 4 in directions other than the direction of the first vibration transmission path L1 and the direction of the second vibration transmission path L2.

[0059] The third vibration transmission path L3 covers all directions except for the first and second vibration transmission paths L2. No matter which non-target direction the vibration spreads in, it can be included in the vibration reduction control range, forming an energy constraint without dead zones.

[0060] When the first vibration component is activated, the transmission output unit 4, acting as a vibration energy source, simultaneously transmits energy in multiple directions: high-intensity vibrations are output to the second massage body 3 along the second vibration transmission path L2 (excitation path), weak vibrations are output to the first massage body 1 along the first vibration transmission path L1 (damping path), and vibrations in other directions are diffused through the third vibration transmission path L3. Because the third vibration transmission path L3 incorporates a damping path design, the vibration energy in these directions is effectively weakened. Ultimately, only the second vibration transmission path L2 retains sufficient vibration intensity, while vibrations in other directions (including the third vibration transmission path L3) are controlled at a low level.

[0061] The massage device provided in this application solves the problem of indiscriminate vibration diffusion in traditional devices by covering vibration reduction design in all unnecessary directions, thereby improving the utilization rate of vibration energy. More energy is concentrated in the second massage body 3, reducing ineffective losses to non-target areas such as air and device shell; the vibration reduction of the third path effectively reduces the noise of the device during operation, reducing the friction noise or resonance noise of components caused by vibration; it also reduces the impact of vibration in unnecessary directions on the stability of the device, for example, avoiding slight displacement of the transmission output part 4 caused by vibration in unnecessary directions, and ensuring the long-term stability of the fixation effect of the second connection part 30.

[0062] According to some embodiments of this application, optionally, such as Figures 9-10 As shown, the transmission output part 4 has an embedded rib 40; the embedded rib 40 extends along the direction of the excitation path and is embedded in the second massage body 3.

[0063] The embedded ribs 40 can be multiple parallel or branched structures (along the excitation path direction), allowing vibration energy to diffuse to the second massage body 3 through multiple channels, avoiding uneven vibration concentration caused by a single contact point, and making the second massage area more evenly stressed.

[0064] The embedded rib 40, as an extension of the conduction output section 4, is embedded inside the elastic thin shell of the second massage body 3 along the direction of the excitation path (i.e., the second vibration transmission path L2). For example, if the excitation path extends from the conduction output section 4 to the middle region of the second massage body 3, the embedded rib 40 is embedded in the shell along this direction, forming an anchored connection with the inner wall of the second massage body 3.

[0065] When the first vibration component is activated, the vibration energy is transmitted to the embedded rib 40 through the conduction output part 4. Since the embedded rib 40 and the second massage body 3 are embedded together, the vibration energy can directly diffuse into the interior of the second massage body 3 through the overall structure of the embedded rib 40. The embedded rib 40 concentrates the vibration energy that might otherwise be dispersed along the excitation path, reducing energy loss at the contact interface. At the same time, the rigid structure of the embedded rib 40 and the elastic material of the second massage body 3 complement each other. The embedded rib 40 ensures efficient vibration transmission, while the elasticity of the second massage body 3 evenly distributes the vibration throughout the entire second massage area.

[0066] The embedded ribs 40 in the massage device provided in this application extend directionally along the excitation path, making the direction of vibration energy transmission more precise and solving the problem of vibration easily diverging laterally in traditional planar contact. The embedded connection greatly improves the bonding strength between the conduction output part 4 and the second massage body 3, avoiding contact loosening caused by long-term vibration and ensuring stable energy transmission efficiency. The structure of the embedded ribs 40 enhances the energy density of the excitation path, making the vibration intensity received by the second massage body 3 more concentrated, and the massage effect on the second massage area more obvious.

[0067] According to some embodiments of this application, optionally, the vibration damping path can be implemented by providing an air gap between the first massage body 1 and the conductive output part 4.

[0068] Vibrational energy is highly efficient in solids, but it decays rapidly in loose media like air due to energy dispersion. This physical characteristic makes air gaps a natural vibration damping barrier.

[0069] When the first vibration component is activated, the vibration energy generated by the transmission output unit 4 is mainly transmitted to the second massage body 3 along the excitation path (second vibration transmission path L2). When some vibration energy attempts to diffuse through the first vibration transmission path L1, it first comes into contact with the air gap. Since air is a poor conductor of vibration, the vibration energy is significantly attenuated when passing through the air gap: high-frequency vibrations lose energy rapidly due to molecular friction when propagating in the air medium, and cannot be effectively transmitted to the first massage body 1, thus greatly reducing the vibration transmission to the first massage body 1. The air gap achieves efficient vibration reduction through physical separation. Compared with traditional rigid contact or flexible connection, it can more directly weaken the energy of the first vibration transmission path L1 and avoid unnecessary vibration interference to the first massage part; the air gap has a simple structure and does not require additional damping materials or complex components, which simplifies the device structure and reduces production difficulty while ensuring the vibration reduction effect; the presence of the air gap reduces the direct friction between the transmission output unit 4 and the first connection part 12, avoids component wear caused by long-term vibration, and extends the service life of the device.

[0070] According to some embodiments of this application, optionally, such as Figure 6 As shown, the second massage body 3 is also equipped with a temperature regulation module 5; the temperature regulation module 5 is used to regulate the temperature during massage.

[0071] The operation of the temperature regulation module 5 is independent of the first vibration component. The two do not interfere with each other structurally, ensuring that the vibration energy transfer and temperature regulation each play their respective roles and achieve functional superposition.

[0072] When the user activates the massage device provided in this application, the temperature regulation module 5 starts working simultaneously. Since the temperature regulation module 5 is located inside the second massage body 3, the heat or cold generated by it can be directly transferred to the second massage area through the second massage body 3. Users can adjust the temperature setting according to their needs. For example, in a cold environment, a warm mode can be selected, and the temperature adjustment module 5 will transfer appropriate heat to the second massage area through the second massage body 3 to promote local blood circulation. When relaxation is needed, a normal temperature or slightly cool mode can be selected to avoid discomfort caused by overheating. Throughout the process, the operation of the temperature adjustment module 5 will not interfere with the vibration transmission of the excitation path, and the vibration energy and temperature effect will work synergistically on the second massage area. The massage device provided by this application provides a combined vibration and temperature care to the second massage area through temperature adjustment, enhancing the comfort and health benefits of the massage. The temperature adjustment module 5 is built into the second massage body 3, making the heat / cold transmission path short and direct, avoiding energy loss, and providing a fast adjustment response. The synergistic effect of temperature and vibration can better adapt to different usage scenarios, improving the device's versatility and user adaptability.

[0073] According to some embodiments of this application, optionally, such as Figure 11 As shown, it also includes a tapping component 6; the tapping component 6 generates a tapping force through mechanical drive; the tapping component 6 is configured to apply a massage force to the second massage area by tapping the second massage body 3 to deform it.

[0074] The mechanical drive structure of the tapping component 6 can be compactly integrated with the overall structure of the massage device, for example, by installing it near the first connecting part 12 or the edge area of ​​the second massage body 3, without taking up too much extra space, thus maintaining the portability and wearing comfort of the device.

[0075] The striking force of the striking component 6 is designed to match the deformation capability of the second massage body 3, so that the second massage body 3 will not be over-deformed due to excessive force, nor will it fail to produce an effective massage effect due to insufficient force.

[0076] After the second massage body 3 encloses the second massage area, the tapping component 6 generates periodic tapping force through its built-in mechanical drive structure. Its actuating end rhythmically taps the second massage body 3. Because the second massage body 3 is an elastic thin-shell structure, it undergoes localized deformation upon being tapped. This deformation is transmitted elastically and directly acts on the internal second massage area, creating a dynamic massage effect similar to light tapping or pressing. The tapping frequency and intensity can be adjusted as needed; for example, low-speed tapping is suitable for soothing relaxation, while high-speed tapping can enhance local stimulation. Throughout the process, the massage cavity 11 of the first massage body 1 maintains stable support for the first massage area, and the force of the tapping component 6 is transmitted only through the second massage body 3, without affecting the massage state of the first massage area.

[0077] The tapping component 6 provides dynamic tapping massage to the second massage area, enriching the massage methods; the elastic thin shell structure works synergistically with the tapping force, and the elastic deformation of the thin shell can buffer the tapping force, avoiding the discomfort caused by rigid tapping, while evenly transmitting the tapping force to the second massage area; the independent setting of the tapping component 6 allows the second massage area to receive targeted mechanical stimulation, complementing the massage of the first massage area and improving the overall massage effect of the massage device.

[0078] In practice, the mechanical drive structure built into the tapping component can be a telescopic motor, which taps the second massage body by extending and retracting the output end; or, the mechanical drive structure built into the tapping component can be a rotating block connected to a rotating motor, which rotates to tap the second massage body.

[0079] According to some embodiments of this application, optionally, such as Figure 11 As shown, the surface of the second massage body 3 that is in contact with the second massage area is provided with a raised reinforcing part 31; the position of the reinforcing part 31 corresponds to the point of action of the tapping component 6 tapping the second massage body 3.

[0080] The hardness of the reinforced part 31 can be higher than that of other areas of the second massage body 3.

[0081] After the tapping component 6 is activated, the actuating end of the tapping component 6 taps the second massage body 3 at a preset frequency. The reinforcing part 31 on the inner surface of the second massage body 3 is located at the corresponding position of the tapping point, that is, the area where the tapping force is transmitted to the second massage body 3, and the inner side of the reinforcing part 31 is exactly corresponding to the protruding reinforcing part.

[0082] When the tapping component 6 taps the second massage body 3, the localized deformation of the elastic thin shell concentrates on the inner reinforcing part 31, causing the reinforcing part 31 to exert a more pronounced protruding pressure on the second massage area. Because the reinforcing part 31 is a protruding structure, the tapping force transmitted through the thin shell creates a point-enhanced massage effect: compared to the surrounding planar area, the reinforcing part 31 can more concentratedly transmit the tapping force to the corresponding area of ​​the second massage area. Simultaneously, the protruding shape increases the local contact pressure, making the massage stimulation more precise. Throughout the process, the reinforcing part 31 moves synchronously with the elastic deformation of the second massage body 3, retaining the cushioning characteristics of the thin shell while amplifying the effective effect of the tapping force through structural design. The massage device provided in this application solves the problem of easy dispersion of striking force during transmission through an elastic thin shell. By using the raised structure of the reinforcing part 31, the striking energy is locally concentrated, enhancing the perceived intensity of the second massage area. The corresponding design of the reinforcing part 31 and the striking point ensures that each strike is precisely applied to the target area, avoiding ineffective force diffusion and improving massage efficiency. The raised reinforcing part 31 increases the morphological variation of the massage contact surface, allowing the second massage area to simultaneously receive a combined stimulation of dynamic striking and localized raised pressure, enriching the massage experience.

[0083] According to some embodiments of this application, optionally, such as Figures 1-3 As shown, the surface of the second massage body 3 that contacts the second massage area is provided with a textured structure to enhance the massage effect.

[0084] When the second massage body 3 wraps around the second massage area in the form of an elastic thin shell, the texture structure of its inner surface (such as fine stripes, array of raised dots, or wave pattern) will form close contact with the skin of the second massage area.

[0085] When the second massage body 3 is working, the textured structure enhances the effect in two ways: First, it increases the friction of the contact surface, reducing the relative displacement between the second massage body 3 and the second massage area, ensuring that the massage force is transmitted more accurately and avoiding the effect attenuation caused by sliding; Second, the textured structure forms a subtle mechanical stimulation to the skin through its concave and convex shape. This stimulation can activate skin receptors, enhance nerve feedback, allow the user to perceive the massage effect more clearly, and promote local blood circulation.

[0086] Although this application has been described with reference to preferred embodiments, various modifications can be made thereto and components can be replaced with equivalents without departing from the scope of this application. In particular, the technical features mentioned in the various embodiments can be combined in any manner, provided there is no structural conflict. This application is not limited to the specific embodiments disclosed herein, but includes all technical solutions falling within the scope of the claims.

Claims

1. A massaging device, characterized by include: The first massage unit has an inlet; Second massage subject; The first massage body has a massage cavity, the inlet is connected to the massage cavity, and the massage cavity is used to massage the first massage area; The second massage body is connected to the first massage body at the first connecting part, and the first connecting part is located near the inlet of the first massage body; The second massage body is in the form of an elastic thin shell, which can wrap around and elastically compress the second massage area. The first massage area and the second massage area belong to different areas of the human body. A first vibration component is disposed on or near the first connecting portion and is used to output vibration energy to the second massage body. The first vibration component has a conductive output section, which has a damping path and an excitation path; the conductive output section has an embedded rib, which extends along the direction of the excitation path and is embedded in the second massage body; the damping path is implemented by providing an air gap between the first massage body and the conductive output section.

2. The massage device according to claim 1, characterized in that, The conductive output section is located inside the second massage body and is used to output vibration energy to the second massage body.

3. A massaging device according to claim 2, wherein It also includes a second connecting part; The second connecting portion is disposed within the second massage body near the first connecting portion; The second connecting part is used to fix the conductive output part; The vibration damping path includes a first vibration transmission path L1 from the conductive output section to the first massage body, and the first vibration transmission path L1 is a direct vibration transmission path from the conductive output section to the first massage body. The excitation path includes a second vibration transmission path L2 from the conductive output section to the second massage body, and the second vibration transmission path L2 is a direct vibration transmission path from the conductive output section to the second massage body; Wherein, the vibration intensity and / or energy transmitted by the conductive output section on the vibration reduction path is less than the vibration intensity and / or energy transmitted on the excitation path.

4. A massage device according to claim 3, characterized in that, The vibration reduction path also includes a third vibration transmission path L3; The third vibration transmission path L3 includes vibration transmission paths centered on the conductive output section in directions other than the first vibration transmission path L1 and the second vibration transmission path L2.

5. A massaging device according to any one of claims 1 to 4, wherein The second massage unit also has a temperature regulation module inside; The temperature adjustment module is used to adjust the temperature during massage.

6. The massaging device of claim 1, wherein It also includes a striking component; The striking assembly generates striking force through mechanical drive; The tapping component is configured to apply a massage force to the second massage area by tapping the second massage body to deform it.

7. A massaging device according to claim 6, wherein The surface of the second massage body that comes into contact with the second massage area is provided with a raised reinforcing part; The position of the reinforcing part corresponds to the point where the tapping component taps the second massage body.

8. The massaging device of claim 1, wherein The surface of the second massage body that contacts the second massage area is provided with a textured structure to enhance the massage effect.

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