Clinical ice compress device for orthopedics department

Abstract

The invention provides an orthopedic clinical ice compress device which comprises an ice compress bag, an ice water inlet and an ice water outlet are formed in the ice compress bag, the interior of the ice compress bag is sequentially divided into a strip-shaped ice compress area, an arc-shaped ice compress area and an ice compress area, and a main flow channel communicated with the ice water inlet and the ice water outlet is formed in the ice compress bag; the main runner is sequentially communicated with the strip-shaped ice compress area, the arc-shaped ice compress area and the ice compress area; the first blocking opening is formed in the ice compress bag and is communicated with the main flow channel between the strip-shaped ice compress area and the arc-shaped ice compress area; the second blocking opening is formed in the ice compress bag and is communicated with the main flow channel between the arc-shaped ice compress area and the ice compress area; the two plungers are inserted into the first blocking opening and the second blocking opening correspondingly and used for adjusting the flow of the corresponding main flow channel or discharging ice water in the corresponding area after being pulled out. And the magic tape loop surface and the magic tape hook surface are arranged. Through flexible application of the plunger in the first blocking opening and the second blocking opening, the ice compress effects of different ice compress areas can be reasonably utilized, and finer ice compress control is achieved.

Description

Technical Field

[0001] This application relates to the technical field of orthopedic ice compress, and particularly relates to an ice compress device for orthopedic clinical use. Background Art

[0002] Orthopedic clinical practice mainly focuses on the diagnosis, treatment, and rehabilitation of diseases and injuries of the musculoskeletal system such as bones, joints, muscles, and ligaments, covering multiple key aspects: detailed inquiry of the patient's symptoms, such as the pain location, nature, onset time, aggravating or relieving factors, etc. Through physical examinations such as palpation, percussion, and measurement of joint range of motion, the location and nature of the lesion are initially judged. For example, for a patient suspected of having a fracture, check whether there is limb deformity or abnormal movement, and touch the tenderness at the fracture site.

[0003] Ice compress is a common physical therapy method widely used in medical treatment, sports health care, and daily life. Ice compress can rapidly reduce the temperature of local tissues, directly act on the skin and subcutaneous tissues, slow down the metabolic rate of cells, reduce the oxygen consumption of tissues, and help protect cells from damage. Moreover, low temperature will cause blood vessels to constrict, reduce the local blood flow, thereby reducing local congestion and swelling, decreasing blood vessel permeability, reducing the exudation of inflammatory mediators and tissue fluid, and alleviating the inflammatory response.

[0004] Currently, when we perform ice compress on patients, it is very difficult to control the ice compress area and effectively grasp the ice compress effect. For this reason, we propose an ice compress device for orthopedic clinical use. Summary of the Invention

[0005] In order to improve the problem that the existing ice compress treatment cannot control the ice compress area, this application provides an ice compress device for orthopedic clinical use.

[0006] The ice compress device for orthopedic clinical use provided by this application adopts the following technical solutions: An ice compress device for orthopedic clinical use, comprising: An ice compress bag, which has an ice water inlet and an ice water outlet, and is internally divided into a strip-shaped ice compress area, an arc-shaped ice compress area, and an ice compress area in sequence. A main flow channel communicating the ice water inlet and the ice water outlet is arranged in the ice compress bag, and the main flow channel sequentially communicates with the strip-shaped ice compress area, the arc-shaped ice compress area, and the ice compress area; A first blocking port, which is arranged on the ice compress bag and communicates with the main flow channel between the strip-shaped ice compress area and the arc-shaped ice compress area; A second blocking port, which is arranged on the ice compress bag and communicates with the main flow channel between the arc-shaped ice compress area and the ice compress area; Two plungers, which are respectively inserted into the first blocking port and the second blocking port, and are used to adjust the flow rate of the corresponding main flow channel or drain the ice water in the corresponding area after being pulled out; and The Velcro fleece surface and the Velcro hook surface are arranged on two opposite sides of the ice compress bag.

[0007] Furthermore, the strip ice compress area is provided with a plurality of strip flow channels connected with the corresponding sections of the main flow channel, the arc ice compress area is provided with a plurality of curved flow channels connected with the corresponding sections of the main flow channel, and the ice compress area is provided with an integrated flow cavity connected with the corresponding section of the main flow channel.

[0008] Furthermore, the strip flow channel and the curved flow channel are filled with gel-like cold storage material, the integrated flow cavity is filled with heat-conductive particles, and the main flow channel is provided with filters for blocking the filling from crossing zones at the ends of the fluid flow direction in the strip ice-compression zone, the arc ice-compression zone and the ice-compression zone.

[0009] Furthermore, the size of the strip ice compress area is smaller than that of the arc ice compress area, which is smaller than that of the ice compress region, and the water storage volumes of the strip ice compress area, the arc ice compress area and the ice compress region increase sequentially.

[0010] Furthermore, an ice water circulation system is connected between the ice water inlet and the ice water outlet, the ice water inlet is communicated with the water outlet of the ice water circulation system, and the ice water outlet is communicated with the water inlet of the ice water circulation system.

[0011] Furthermore, an adhesive layer, a bamboo fiber layer, a waterproof and breathable layer and a medical silica gel layer are sequentially arranged on a side of the ice pack away from the plunger, and at least one bamboo fiber layer is arranged.

[0012] Furthermore, an elastic band is connected between the Velcro fleece surface and / or the Velcro hook surface and the ice compress bag.

[0013] Going further, it also includes; A back guard adapted to the size of the ice pack; A plurality of adhesive layers are provided and distributed on two opposite sides of the back guard plate.

[0014] Furthermore, a plurality of medical electrode pads are arranged on the surface of the back guard plate, and a built-in battery for supplying power to the electrode pads is built into the back guard plate.

[0015] Furthermore, it also includes: A plurality of vibrators are provided and distributed on a side of the ice pack away from the plunger; The massage protrusion is connected to the output end of the vibrator.

[0016] In summary, the present application includes at least one of the following beneficial technical effects: 1. By setting the strip ice pack area near the ice water inlet, it can first receive the cooling effect of the ice water. Its small size enables the ice water to quickly fill and evenly cool this area. Subsequently, the ice water enters the arc ice pack area. The larger size of this area can accommodate more ice water, further spreading the cooling effect, while adapting to the curve shapes of different parts of the patient's body, improving the fitting degree and comfort of the ice pack. Finally, the ice water flows into the ice pack area, which is the location of the ice water outlet. Its large size ensures that the ice water can fully cool this area before flowing out and is smoothly discharged through the outlet; 2. Through the settings of the first plugging port and the second plugging port, as well as the flexible use of the plunger, users can conveniently control the flow path and water storage volume of the ice water in the ice pack. At the initial stage of ice application, the plunger can be pulled out from the plugging port, and there is a plunger for each plugging port. When inserted, it completely blocks the corresponding plugging port, and the ice water cannot flow through; when inserted partially, the flow rate of the corresponding section of the main flow path can be reduced; when completely removed, a large flow rate of the corresponding section of the main flow path is achieved, enabling the ice water to flow into the strip ice pack area from the ice water inlet, and then flow through the arc ice pack area and the ice pack area in sequence, achieving a comprehensive and rapid ice application effect. As the ice application time extends, according to needs, the position of the plunger can also be adjusted to reduce or stop the water supply to a certain ice pack area to achieve a more refined ice application control. This design not only improves the flexibility of ice application but also effectively extends the service life of the ice pack; 3. Since each ice pack area has a corresponding plugging port and plunger, by operating the plunger of a certain ice pack area alone, the drainage situation of this ice pack area can be independently controlled. For example, if only the water volume in the strip ice pack area is desired to be reduced, only the plunger of the corresponding first plugging port needs to be pulled out, allowing the ice water in the strip ice pack area to drain from the first plugging port. At this time, the plungers of the arc ice pack area and the ice pack area are in the inserted state, and their water volumes will not be affected; 4. By controlling the opening, partial insertion, or closing of the corresponding plugging port by the plunger at different times and stages, different treatment plans can be implemented, fully reflecting the flexibility and convenience of the ice application device of this application in clinical applications. It can be targeted for adjustment and use for most patients' cases. Whether it is operated by medical staff or the patient himself / herself, it can be easily mastered; and the ice pack can be recycled after being fully disinfected, greatly reducing the treatment cost of patients, and having a broad application prospect; 5. Through the combined use of the vibrator and the massage protrusions, massage treatment or electrotherapy treatment can be performed on the injured area while applying ice, which can promote the recovery of the affected area and further improve the ice application effect and treatment effect. Description of the Drawings

[0017] To more clearly illustrate the technical solutions in the present invention or the prior art, the following will briefly introduce the attached drawings required for use in the description of the embodiments or the prior art. Obviously, the attached drawings in the following description are some embodiments of the present invention. For those of ordinary skill in the art, without creative efforts, other attached drawings can also be obtained based on these drawings.

[0018] Figure 1 is the overall structural schematic diagram of the embodiment of the present application; Figure 2 is the internal structural schematic diagram of the ice compress bag in the embodiment of the present application; Figure 3 is the structural schematic diagram of the functional layer structure on the ice compress bag in the embodiment of the present application; Figure 4 is the structural schematic diagram of the back plate in Embodiment 2 of the present application; Figure 5 is the internal structural schematic diagram of the back plate in Embodiment 2 of the present application; Figure 6 is the top view of the overall structure of Embodiment 3 of the present application.

[0019] Reference numerals: 1. Ice compress bag; 2. Back plate; 3. Hook surface of Velcro; 4. Loop surface of Velcro; 5. Ice water inlet; 6. Ice water outlet; 7. First blockage port; 8. Second blockage port; 9. Adhesive layer; 10. Strip-shaped ice compress area; 11. Arc-shaped ice compress area; 12. Ice compress area; 13. Elastic band; 14. Plunger; 15. Vibrator; 16. Massage protrusion; 17. Electrode plate; 18. Built-in battery; 19. Bonding layer; 20. Bamboo fiber layer; 21. Waterproof and breathable layer; 22. Medical silicone layer; 23. Main flow channel; 24. Strip-shaped flow channel; 25. Curved flow channel; 26. Integral flow cavity. Detailed implementation manners

[0020] To make the objectives, technical solutions and advantages of the present invention clearer, the following will clearly and completely describe the technical solutions in the present invention in conjunction with the attached drawings in the present invention. Obviously, the described embodiments are some, but not all, of the embodiments of the present invention. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts fall within the scope of protection of the present invention.

[0021] Embodiment 1: Refer to Figure 1 and Figure 2 , the embodiment of the present application discloses an ice compress device for orthopedic clinical use, which includes: Ice pack 1, which has an ice water inlet 5 and an ice water outlet 6, and is internally divided into a strip-shaped ice application area 10, an arc-shaped ice application area 11, and an ice application area 12 in sequence. A main flow channel 23 connecting the ice water inlet 5 and the ice water outlet 6 is arranged in the ice pack 1, and the main flow channel 23 is connected to the strip-shaped ice application area 10, the arc-shaped ice application area 11, and the ice application area 12 in sequence.

[0022] The first plugging port 7 is arranged on the ice pack 1 and communicates with the main flow channel 23 between the strip-shaped ice application area 10 and the arc-shaped ice application area 11.

[0023] The second plugging port 8 is arranged on the ice pack 1 and communicates with the main flow channel 23 between the arc-shaped ice application area 11 and the ice application area 12.

[0024] There are two plungers 14, which are respectively inserted into the first plugging port 7 and the second plugging port 8, used to adjust the flow rate of the corresponding main flow channel 23 or drain the ice water in the corresponding area after being pulled out. It is specifically made of rubber. One end can have a convexity for easy operation, facilitating the user to perform plugging and unplugging operations; the other end is a sealing end that cooperates with the plugging port. The shape and size of the sealing end match the plugging port to achieve a good sealing effect, and the edge of the sealing end has a certain chamfer so that the plunger 14 can be accurately inserted into the plugging port and form a seal. And The hook-and-loop fastener surface 3 and the hook-and-loop fastener loop surface 4 are respectively arranged on two opposite sides of the ice pack 1. In order to improve the adaptability of the ice pack 1 to different parts of the patient, an elastic band 13 is connected between the hook-and-loop fastener surface 3 and / or the hook-and-loop fastener loop surface 4 and the ice pack 1.

[0025] A plurality of strip-shaped flow channels 24 corresponding to the corresponding sections of the main flow channel 23 are arranged in the strip-shaped ice application area 10, a plurality of curved flow channels 25 corresponding to the corresponding sections of the main flow channel 23 are arranged in the arc-shaped ice application area 11, and an integral flow cavity 26 corresponding to the corresponding section of the main flow channel 23 is arranged in the ice application area 12.

[0026] Therefore, when using the ice application device of the present application for ice application in orthopedic clinics, first, ice water is injected into the interior of the ice pack 1 through the ice water inlet 5. When the ice water flows in the main flow channel 23, it flows through the strip-shaped ice application area 10, the arc-shaped ice application area 11, and the ice application area 12 in sequence and is stored in each ice application area. Moreover, according to the needs of the user, the first plugging port 7 and the second plugging port 8 can be opened through the corresponding plunger 14 to appropriately drain the ice water inside the strip-shaped ice application area 10, the arc-shaped ice application area 11, and the ice application area 12, and adjust the amount of ice water inside the ice pack 1 for convenient use.

[0027] Moreover, when it is necessary to drain the ice water in a certain ice application area, the plunger 14 is pulled out from the corresponding plugging opening. After the plunger 14 is pulled out, the corresponding plugging opening is opened, forming a passage between this ice application area and the external or other connected areas (such as a drainage channel, etc.), and the ice water can flow out through the plugging opening. When drainage is not required or the water volume in a certain ice application area needs to be maintained, the plunger 14 is inserted into the plugging opening. Due to the tight fit between the sealing end of the plunger 14 and the plugging opening, it can prevent the ice water from flowing out and achieve the sealing of each ice application area.

[0028] Meanwhile, each ice application area has a corresponding plugging opening and plunger 14. By operating the plunger 14 of a certain ice application area independently, the drainage situation of this ice application area can be controlled independently. For example, if only the water volume in the strip-shaped ice application area 10 needs to be reduced, only the plunger 14 corresponding to the first plugging opening 7 needs to be pulled out, allowing the ice water in the strip-shaped ice application area 10 to drain from the first plugging opening 7. At this time, the plungers 14 of the arc-shaped ice application area 11 and the ice application area 12 are in the inserted state, and their water volumes will not be affected.

[0029] Therefore, the ice application device of the present application can meet the ice application needs of different parts and degrees of patients by setting different ice application areas. For example, the strip-shaped ice application area 10 has a relatively small effective cooling area and is suitable for ice application on small parts such as the wrist and ankle; the arc-shaped ice application area 11 has a moderate effective cooling area and can fit the contours of curved parts such as the knee and elbow; while the ice application area 12 has the largest effective cooling area and is suitable for ice application on large areas such as the thigh and back. This zoning design not only improves the pertinence of ice application but also ensures the maximization of the ice application effect.

[0030] Meanwhile, through the settings of the first plugging opening 7 and the second plugging opening 8, and the flexible use of the plunger 14, users can conveniently control the flow path and water storage volume of the ice water in the ice pack 1. At the initial stage of ice application, the plunger 14 can be pulled out from the plugging opening, and each plugging opening has a plunger 14. When inserted, it completely blocks the corresponding plugging opening and the ice water cannot flow; when inserted partially, the flow rate of the corresponding section of the main flow channel 23 can be reduced; when completely removed, a large flow rate of the corresponding section of the main flow channel 23 is achieved, enabling the ice water to flow into the strip-shaped ice application area 10 from the ice water inlet 5, and then flowing through the arc-shaped ice application area 11 and the ice application area 12 in sequence, achieving a comprehensive and rapid ice application effect. As the ice application time extends, according to needs, the position of the plunger 14 can also be adjusted to reduce or stop the water supply to a certain ice application area to achieve a more refined ice application control. This design not only improves the flexibility of ice application but also effectively extends the service life of the ice pack 1.

[0031] In specific clinical applications, corresponding usage methods can be adopted according to different stages of ice application treatment: Initial high-flow stage: At the beginning of ice application, the user pulls all the plungers 14 out of the blockage ports. At this time, ice water is quickly injected through the ice water inlet 5. Since the main flow channel 23 is unobstructed in each ice application area, a large amount of ice water will quickly fill the strip-shaped ice application area 10, the arc-shaped ice application area 11, and the ice application area 12, achieving rapid cooling and providing an immediate ice application effect for the injured part.

[0032] Mid-term stable-flow stage: After ice application for a period of time, the temperature of the injured part has decreased. At this time, the plunger 14 of the first blockage port 7 between the strip-shaped ice application area 10 and the arc-shaped ice application area 11 can be partially inserted to form a smaller opening in the first blockage port 7. In this way, the flow rate of the ice water flowing from the strip-shaped ice application area 10 to the arc-shaped ice application area 11 will slow down and the flow rate will decrease, ensuring a stable cold supply in each area and avoiding excessive ice application.

[0033] Late-stage low-flow or stop stage: When the ice application is approaching the end, the corresponding plunger 14 can be further adjusted according to the recovery of the injured part. For example, the plunger 14 of the second blockage port 8 between the arc-shaped ice application area 11 and the ice application area 12 can be fully inserted to stop the water supply to the ice application area 12, and only a small amount of ice water in the strip-shaped ice application area 10 and the arc-shaped ice application area 11 is retained to maintain a slight ice application effect and promote the recovery of the injured part.

[0034] Corresponding usage methods can also be adopted according to the requirements of the ice application site: For example, different injured parts have different requirements for ice application. If a smaller part such as the wrist is injured, the strip-shaped ice application area 10 is mainly used for ice application. The plungers 14 of the first blockage port 7 and the second blockage port 8 can be inserted to store the ice water only within the strip-shaped ice application area 10, concentrating the cold to ice the injured part.

[0035] Corresponding usage methods can also be adopted according to different degrees of pain: For example, for mild pain, the amount of ice water can be appropriately reduced during ice application. For example, after ice application for a period of time, the plunger 14 on the first blockage port 7 near the strip-shaped ice application area 10 is pulled out a small section to drain some ice water and reduce the cold intensity in this area to avoid excessive stimulation to the skin. For severe pain, the amount of ice water can be increased to maintain a large-flow supply for a long time to ensure the ice application effect.

[0036] Different sequence combinations can also be adopted for use: For example, the blocking openings can be opened or closed in a certain order. For example, first open the first blocking opening 7 between the strip-shaped ice compress area 10 and the arc-shaped ice compress area 11 to fill these two areas with ice water; after a period of time, then open the second blocking opening 8 between the arc-shaped ice compress area 11 and the ice compress area 12 to allow the ice water to flow into the ice compress area 12. This can achieve the orderly flow of ice water in different areas and improve the ice compress effect.

[0037] Or the plungers 14 of multiple blocking openings can be adjusted simultaneously. For example, during the ice compress process, insert a part of the first blocking opening 7, and at the same time pull out a small section of the second blocking opening 8, so that part of the ice water in the strip-shaped ice compress area 10 flows to the arc-shaped ice compress area 11, and part of the ice water in the arc-shaped ice compress area 11 flows to the ice compress area 12, forming a cross-flow of ice water, increasing the flexibility and uniformity of ice compress.

[0038] The use of the above various methods fully reflects the flexibility and convenience of the ice compress device of the present application in clinical applications. It can be adjusted specifically for most patients' cases. Whether it is operated by medical staff or by patients themselves, it can be easily mastered; and the ice compress bag 1 can be recycled after being fully disinfected, greatly reducing the treatment cost of patients, and having broad application prospects.

[0039] Moreover, to improve the ice compress effect of the ice compress bag 1, in another feasible embodiment, referring to Figure 2 , different materials can be filled in different areas to form specific ice compress areas. For example, gel-like cold storage materials are filled in the strip-shaped flow channel 24 and the curved flow channel 25. The gel-like cold storage materials do not completely fill the strip-shaped flow channel 24 and the curved flow channel 25. These cold storage materials can better maintain low temperature and fit the body parts; fine particles with good thermal conductivity are filled in the integrated flow cavity 26, which can make the ice compress effect in the ice compress area 12 more uniform. And at the ends of the fluid flow directions of the main flow channel 23 in the strip-shaped ice compress area 10, the arc-shaped ice compress area 11 and the ice compress area 12, filter elements (not shown in the figure) for blocking the cross-region of the filler are provided. The filter elements can be microporous filter meshes or filter cotton, so as to prevent the cold storage materials or heat-conducting particles from being carried out when the cold water flows in the main flow channel 23, which affects the ice compress effect of each area. If the cold storage materials or heat-conducting particles block the filter element during use, resulting in a decrease in the cold water flow rate, the corresponding area of the ice compress bag 1 can be patted to make the blocked cold storage materials or heat-conducting particles at the filter element break away.

[0040] In addition, in other feasible embodiments, an ice water circulation system can also be connected between the ice water inlet 5 and the ice water outlet 6. The ice water inlet 5 is communicated with the water outlet end of the ice water circulation system, and the ice water outlet 6 is communicated with the water inlet end of the ice water circulation system. Among them, the ice water circulation system is a conventional technical means and will not be elaborated here.

[0041] By setting up the ice-water circulation system, the circulation of ice-water in the main channel 23 and the strip ice-packing area 10, the arc ice-packing area 11 and the ice-packing area 12 can be promoted. The ice-water circulation system can be turned on after the ice-water in each ice-packing area has warmed up and become ineffective, or the ice-water circulation system can be kept constantly on to further improve the ice-packing effect of each ice-packing area. Moreover, the flow rate of ice-water in the main channel 23 and each ice-packing area can be controlled by the ice-water circulation system, and the flow rate can also be adjusted by the insertion depth of the two plungers 14 in the corresponding first blocking port 7 or the second blocking port 8.

[0042] Moreover, in specific configurations, to further distinguish the ice-packing effects of each area of the ice pack 1, the size of the strip ice-packing area 10 is smaller than that of the arc ice-packing area 11, and the size of the arc ice-packing area 11 is smaller than that of the ice-packing area 12. The water storage volumes of the strip ice-packing area 10, the arc ice-packing area 11 and the ice-packing area 12 increase in sequence to meet the ice-packing needs of different parts and degrees of patients.

[0043] In addition, to improve the comfort of the ice pack 1 during use, referring to Figure 1 and Figure 3 , a functional layer structure is provided on the side of the ice pack 1 facing away from the plunger 14. Specifically, an adhesive layer 19, a bamboo fiber layer 20, a waterproof and breathable layer 21 and a medical silicone layer 22 are sequentially provided, and at least one layer of the bamboo fiber layer 20 is provided. In this embodiment, two layers of the bamboo fiber layer 20 are provided and are arranged on both sides of the waterproof and breathable layer 21.

[0044] Thus, through the design of the adhesive layer 19, the ice pack 1 can be firmly adhered to the injured part and is not easily detached, ensuring the ice-packing effect. The use of the medical silicone layer 22 not only improves the comfort of the ice pack 1 but also makes it more conformable to the skin, reducing the discomfort during the ice-packing process. The adoption of the bamboo fiber layer 20 endows the ice pack 1 with excellent moisture absorption and breathability performance, enabling the skin to remain dry even during long-term use and avoiding the generation of a damp feeling. The setting of the waterproof and breathable layer 21 effectively prevents moisture from penetrating into the interior of the ice pack 1. The tight connection between the layers ensures the overall strength and stability of the ice pack 1, making it more reliable during use. Under the combined action of these designs, a comfortable, efficient and safe ice-packing treatment plan is provided for patients.

[0045] Embodiment 2: Referring to Figure 4 and Figure 5 , the difference between the embodiment of the present application and Embodiment 1 is that it further includes: A back plate 2, which is adapted to the size of the ice pack 1; Adhesive layers 9, which are provided in multiple numbers and are distributed on two opposite sides of the back plate 2.

[0046] Furthermore, a plurality of medical electrode pads 17 are arranged on the surface of the back guard plate 2 , and a built-in battery 18 for supplying power to the electrode pads 17 is built into the back guard plate 2 .

[0047] Therefore, when using the ice compress device of the present application, the ice compress bag 1 and the back guard plate 2 can be combined and used together. Specifically, the back guard plate 2 is attached to the user's affected part through multiple adhesive layers 9, and then the ice compress bag 1 is tied to the patient's body through the Velcro fleece surface 3, the Velcro hook surface 4 and the elastic band 13, and the back guard plate 2 is pressed tightly. At this time, the electrode sheet 17 generates a weak current through the built-in battery 18 to stimulate the muscles and nerves, stimulate the user's affected part, accelerate blood circulation, and further promote the recovery of the injured part; and the ice compress bag 1 can also perform ice compress treatment on the patient, improving the functionality during treatment. And users can also choose the appropriate electrotherapy intensity and mode according to their needs to enjoy a personalized treatment experience.

[0048] Embodiment 3: Reference Figure 6 The difference between the embodiment of the present application and embodiment 1 or embodiment 2 is that it further includes: A plurality of vibrators 15 are provided and distributed on a side of the ice pack 1 away from the plunger 14; The massage protrusion 16 is connected to the output end of the vibrator 15 .

[0049] Thus, the ice pack 1 is fixed to the position where ice is needed by the Velcro fleece surface 3 and the Velcro hook surface 4 in conjunction with the elastic band 13, and the vibrator 15 starts to work, which can vibrate and massage the injured part while applying ice, promote blood circulation, and further relieve swelling, pain and muscle tension. The arrangement of multiple vibrators 15 ensures that the ice pack 1 can fully cover and provide a uniform massage effect. The design of the massage protrusion 16 not only increases the comfort of the massage, but also improves the accuracy of the massage, ensuring that the massage force can penetrate into the muscle tissue to achieve better treatment effects, thereby providing a more efficient and convenient ice treatment solution for orthopedic clinics.

[0050] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent replacements for some of the technical features therein. However, these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. An orthopedic clinical ice compress device, characterized in that: include: An ice pack bag is provided with an ice water inlet and an ice water outlet, and is divided into a strip ice pack area, an arc ice pack area and an ice pack region in sequence therein; a main flow channel connecting the ice water inlet and the ice water outlet is provided in the ice pack bag, and the main flow channel connects the strip ice pack area, the arc ice pack area and the ice pack region in sequence; A first blocking port is provided on the ice pack and communicates with the main flow channel between the strip-shaped ice pack area and the arc-shaped ice pack area; A second blocking port is provided on the ice pack and communicates with the main flow channel between the arc-shaped ice pack area and the ice pack region; Two plungers are provided and are respectively inserted into the first plugging port and the second plugging port, and are used to adjust the flow rate of the corresponding main flow channel or discharge the ice water in the corresponding area after being pulled out; as well as The Velcro fleece surface and the Velcro hook surface are arranged on two opposite sides of the ice compress bag.

2. The orthopedic clinical ice compress device according to claim 1, characterized in that: The strip ice compress area is provided with a plurality of strip flow channels connected with the corresponding sections of the main flow channel, the arc ice compress area is provided with a plurality of curved flow channels connected with the corresponding sections of the main flow channel, and the ice compress area is provided with an integrated flow cavity connected with the corresponding section of the main flow channel.

3. The clinical ice compress device for orthopedics according to claim 2, characterized in that: The strip flow channel and the curved flow channel are filled with gel-like cold storage material, the integrated flow cavity is filled with heat-conductive particles, and the main flow channel is provided with filters for blocking the filling material from crossing the zone at the ends of the fluid flow direction in the strip ice-compression zone, the arc ice-compression zone and the ice-compression zone.

4. The orthopedic clinical ice compress device according to claim 1, characterized in that: The size of the strip-shaped ice compress area is smaller than that of the arc-shaped ice compress area, which is smaller than that of the ice compress region. The water storage volumes of the strip-shaped ice compress area, the arc-shaped ice compress area and the ice compress region increase in sequence.

5. The orthopedic clinical ice compress device according to claim 1, characterized in that: An ice water circulation system is connected between the ice water inlet and the ice water outlet. The ice water inlet is communicated with the water outlet of the ice water circulation system, and the ice water outlet is communicated with the water inlet of the ice water circulation system.

6. The clinical orthopedic ice compress device according to claim 1, characterized in that: The side of the ice pack facing away from the plunger is provided with an adhesive layer, a bamboo fiber layer, a waterproof and breathable layer and a medical silica gel layer in sequence, and at least one bamboo fiber layer is provided.

7. The clinical orthopedic ice compress device according to claim 1, characterized in that: An elastic band is connected between the Velcro fleece surface and / or the Velcro hook surface and the ice compress bag.

8. An orthopedic clinical ice compress device according to any one of claims 1 to 7, characterized in that: Also includes; A back guard adapted to the size of the ice pack; A plurality of adhesive layers are provided and distributed on two opposite sides of the back guard plate.

9. The clinical ice compress device for orthopedics according to claim 8, characterized in that: A plurality of medical electrode pads are arranged on the surface of the back guard plate, and a built-in battery for supplying power to the electrode pads is built into the back guard plate.

10. An orthopedic clinical ice compress device according to any one of claims 1 to 7, characterized in that: Also includes: A plurality of vibrators are provided and distributed on a side of the ice pack away from the plunger; The massage protrusion is connected to the output end of the vibrator.

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