A rehabilitation glove

Abstract

The utility model belongs to the medical technical field, the utility model discloses a kind of rehabilitation gloves, including wearable glove body on patient's hand and the wrist end of the glove body extends to predetermined length;Magnetic bead layer for carrying out massage to patient's hand limbs is embedded on the inner wall of the glove body, still between the inner wall of the glove body and the magnetic bead layer, a temperature and pressure control structure for carrying out pressure and heating rehabilitation training to patient's hand limbs is embedded, and the temperature and pressure control structure is electrically connected with an intelligent control structure arranged on the wrist end of the glove body, further including rigid partition frame layer for providing support between the inner wall of the glove body and the temperature and pressure control structure to facilitate firm and comfortable wearing on patient's hand.The utility model has the advantages of being able to meet the diversification and complexification rehabilitation needs of patients, effectively improve rehabilitation training effect and efficiency and reduce the work burden of medical staff.

Description

Technical Field

[0001] This utility model relates to the field of medical technology, and more specifically, to a rehabilitation training glove. Background Technology

[0002] In clinical practice, rehabilitation gloves are often used to assist patients with limited hand movement due to stroke, arthritis, or other causes in restoring limb function. However, while there are many types of rehabilitation gloves available, their functions are relatively limited. They primarily rely on manual operation of gloves with simple mechanical structures to perform hand massage training. This not only increases the workload of medical staff but also significantly limits the effectiveness and efficiency of rehabilitation training. Furthermore, it is difficult to adapt to the diverse and complex rehabilitation needs of different patients.

[0003] How to solve the above problems has become an urgent technical challenge. Utility Model Content

[0004] The technical problem to be solved by this utility model is to provide a rehabilitation training glove that can meet the diverse and complex rehabilitation needs of patients, effectively improve the effect and efficiency of rehabilitation training, and reduce the workload of medical staff.

[0005] To achieve the above objectives, the technical solution adopted by this utility model is as follows:

[0006] A rehabilitation training glove includes a glove body wearable on a patient's hand, with the wrist end of the glove body extending to a predetermined length; a magnetic bead layer for massaging the patient's hand and limbs is embedded in the inner wall of the glove body; a temperature and pressure control structure for applying pressure and heat to the patient's hand and limbs for rehabilitation training is embedded between the inner wall of the glove body and the magnetic bead layer, and the temperature and pressure control structure is electrically connected to an intelligent control structure located at the wrist end of the glove body; and a rigid partitioned frame layer is located between the inner wall of the glove body and the temperature and pressure control structure to provide support for secure and comfortable wear on the patient's hand.

[0007] Preferably, the temperature and pressure control structure includes a thin silicone water bladder embedded in the glove body and located between the rigid partition frame layer and the magnetic bead layer for pressurizing the magnetic bead layer, and the thin silicone water bladder is connected to an external piezoelectric ceramic pump. A heating film for heating the magnetic bead layer is also embedded between the thin silicone water bladder and the magnetic bead layer. The structure also includes a temperature and pressure sensor layer with several temperature and pressure sensors embedded in the glove body and located between the heating film and the magnetic bead layer for collecting temperature and pressure information of rehabilitation training. The piezoelectric ceramic pump, the heating film, and the temperature and pressure sensor layer are all electrically connected to the intelligent control structure.

[0008] Preferably, the intelligent control structure includes a touch control screen mounted on the top of the wrist end of the glove body for inputting control information and displaying temperature and pressure information, and a controller electrically connected to the piezoelectric ceramic pump, heating film, and temperature and pressure sensor layer is embedded in the touch control screen.

[0009] Preferably, the controller is an STM32F031G6U6TR programmable microcontroller.

[0010] Preferably, the glove body is made of non-woven fabric.

[0011] Preferably, the predetermined length of the wrist extension of the glove body is 10cm to 20cm. For example, the predetermined length of the wrist extension of the glove body is 15cm.

[0012] Compared with the prior art, the beneficial effects of this utility model are as follows:

[0013] In this invention, when hand rehabilitation training is required for a patient, the glove body, along with the magnetic bead layer, temperature and pressure control structure, and intelligent control structure, is worn on the patient's hand under the support and constraint of a rigid partitioned frame layer. Based on the patient's physiological parameters and rehabilitation training needs, the intelligent control structure activates the temperature and pressure control structure to adjust the magnetic bead layer to a predetermined pressure and temperature. This automatically adjusts the pressure and temperature of the magnetic bead layer to automatically perform rehabilitation training on the patient's hand, replacing the traditional method of manually operating gloves with simple mechanical structures for hand massage training. This effectively reduces the workload of medical staff, stimulates the re-establishment of neural pathways and enhances local blood circulation to meet the diverse and complex rehabilitation needs of patients, effectively improving the effectiveness and efficiency of rehabilitation training. Therefore, this invention has the advantages of meeting the diverse and complex rehabilitation needs of patients, effectively improving the effectiveness and efficiency of rehabilitation training, and reducing the workload of medical staff. Attached Figure Description

[0014] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0015] Figure 1 This is a schematic diagram of the structure of a rehabilitation training glove according to the present invention;

[0016] Figure 2 This is a circuit connection block diagram of a rehabilitation training glove according to the present invention.

[0017] Explanation of reference numerals in the attached drawings: 1. Glove body; 2. Magnetic bead layer; 3. Temperature and pressure control structure; 31. Thin silicone water bladder; 32. Piezoelectric ceramic pump; 33. Heating film; 34. Temperature and pressure sensor layer; 4. Intelligent control structure; 41. Mounting base; 42. Touch control screen; 43. Controller; 5. Rigid partition frame layer. Detailed Implementation

[0018] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments.

[0019] See Figures 1 to 2 As shown, a rehabilitation training glove includes a glove body 1 that can be worn on a patient's hand, with the wrist end of the glove body 1 extending to a predetermined length; a magnetic bead layer 2 for massaging the patient's hand and limbs is embedded in the inner wall of the glove body 1; a temperature and pressure control structure 3 for applying pressure and heating rehabilitation training to the patient's hand and limbs is also embedded between the inner wall of the glove body 1 and the magnetic bead layer 2, and the temperature and pressure control structure 3 is electrically connected to an intelligent control structure 4 located at the wrist end of the glove body 1; and a rigid partitioned frame layer 5 located between the inner wall of the glove body 1 and the temperature and pressure control structure 3 for providing support so as to ensure stable and comfortable wear on the patient's hand. During use, when hand rehabilitation training is required for a patient, the glove body 1, along with the magnetic bead layer 2, temperature and pressure control structure 3, and intelligent control structure 4, are securely and comfortably worn on the patient's hand under the support and constraint of the rigid partition frame layer 5. Based on the patient's physiological parameters and rehabilitation training needs, the intelligent control structure 4 activates the temperature and pressure control structure 3 to adjust the magnetic bead layer 2 according to predetermined pressure and temperature. This automatically adjusts the pressure and temperature of the magnetic bead layer 2 to a predetermined threshold range, automatically providing massage and thermal stimulation rehabilitation training to the patient's hand. This replaces the traditional method of manually operating gloves with simple mechanical structures to perform hand massage training, effectively reducing the workload of medical staff. Furthermore, by providing targeted physical and biological stimulation rehabilitation training to the patient's hand, it can stimulate the re-establishment of neural pathways and enhance local blood circulation, effectively improving the rehabilitation training effect and efficiency. It also meets the diverse and complex rehabilitation needs of patients, effectively improving their rehabilitation experience.

[0020] In this embodiment, the temperature and pressure control structure 3 includes a thin silicone water bladder 31 embedded in the glove body 1 and located between the rigid partition frame layer 5 and the magnetic bead layer 2 for pressurizing the magnetic bead layer 2. The thin silicone water bladder 31 is connected to an external piezoelectric ceramic pump 32. A heating film 33 for heating the magnetic bead layer 2 is also embedded between the thin silicone water bladder 31 and the magnetic bead layer 2. The structure also includes a temperature and pressure sensor layer 34 with several temperature and pressure sensors embedded in the glove body 1 and located between the heating film 33 and the magnetic bead layer 2 for collecting temperature and pressure information during rehabilitation training. The piezoelectric ceramic pump 32, the heating film 33, and the temperature and pressure sensor layer 34 are all electrically connected to the intelligent control structure 4. The intelligent control structure 4 includes a touch control screen 42 mounted on the top of the wrist end of the glove body 1 via a mounting base 41 for inputting control information and displaying temperature and pressure information. A controller 43 electrically connected to the piezoelectric ceramic pump 32, the heating film 33, and the temperature and pressure sensor layer 34 is embedded in the touch control screen 42. During use, the glove body 1, along with the magnetic bead layer 2, temperature and pressure control structure 3, and intelligent control structure 4, are securely and comfortably worn on the patient's hand under the support and constraint of the rigid partition frame layer 5. Based on the patient's physiological parameters and rehabilitation training needs, and supported by the mounting base 41 of the intelligent control structure 4, the touch control screen 42 transmits information to the controller 43 to activate the piezoelectric ceramic pump 32 of the temperature and pressure control structure 3, the heating film 33, and the temperature and pressure sensor layer 34. Under the real-time pressure and temperature monitoring of the temperature and pressure sensor layer 34, the controller 43 activates the piezoelectric ceramic pump 32 to infuse a predetermined volume of liquid into the thin silicone water bladder 31. This causes the thin silicone water bladder 31 to expand towards one end of the magnetic bead layer 2 under the constraint of the rigid partition frame layer 5, applying pressure to the magnetic bead layer 2. This, in turn, compresses the magnetic bead layer 2 to automatically massage the patient's hand for rehabilitation training. The temperature and pressure sensor layer 34 collects the applied massage pressure information in real time and transmits it synchronously to... The controller 43 processes the data to obtain the massage pressure result value and synchronizes it to the touch control screen 42 for real-time display and warning. At the same time, the controller 43 activates the heating film 33 to heat the magnetic bead layer 2, thereby adjusting the temperature of the magnetic bead layer 2 to a predetermined temperature to automatically perform thermal stimulation rehabilitation training on the patient's hand. The heating information is collected in real time by the temperature and pressure sensor layer 34 and synchronously transmitted to the controller 43 for data processing to obtain the heating result value, which is then synchronized to the touch control screen 42 for real-time display and warning. This replaces the traditional method of hand massage training by manually operating gloves with simple mechanical structures, effectively reducing the workload of medical staff. Furthermore, by providing targeted physical and biological stimulation rehabilitation training to the patient's hand, it can stimulate the re-establishment of the patient's neural pathways and enhance local blood circulation, effectively improving the rehabilitation training effect and efficiency. At the same time, it can also meet the diverse and complex rehabilitation needs of patients, effectively improving the patient's rehabilitation experience.

[0021] In this embodiment, the controller 43 is an STM32F031G6U6TR programmable microcontroller.

[0022] In this embodiment, the glove body 1 is made of non-woven fabric.

[0023] In this embodiment, the predetermined length of the wrist extension of the glove body 1 is 10cm to 20cm. For example, the predetermined length of the wrist extension of the glove body 1 is 15cm.

[0024] In practical use of this embodiment, firstly, when hand rehabilitation training is required for a patient, the glove body 1, along with the magnetic bead layer 2, the temperature and pressure control structure 3, and the intelligent control structure 4, are securely and comfortably worn on the patient's hand under the support and constraint of the rigid partition frame layer 5. Secondly, based on the patient's physiological parameters and rehabilitation training needs, under the support and constraint of the mounting base 41 of the intelligent control structure 4, the touch control screen 42 transmits information to the controller 43 to activate the piezoelectric ceramic pump 32 of the temperature and pressure control structure 3, the heating film 33, and the temperature and pressure sensor layer 34. Then, under the real-time pressure and temperature monitoring of the temperature and pressure sensor layer 34, the controller 43 activates the piezoelectric ceramic pump 32 to infuse a predetermined volume of liquid into the thin silicone water bladder 31. This causes the thin silicone water bladder 31 to expand towards one end of the magnetic bead layer 2 under the constraint of the rigid partition frame layer 5, applying pressure to the magnetic bead layer 2. This, in turn, compresses the magnetic bead layer 2 to automatically perform massage rehabilitation training on the patient's hand, and the temperature and pressure sensor layer 34 collects the data in real time. The massage pressure information is synchronously transmitted to the controller 43 for data processing, and the massage pressure result value is synchronously displayed and alerted on the touch control screen 42 in real time. Finally, the controller 43 activates the heating film 33 to heat the magnetic bead layer 2, thereby adjusting the temperature of the magnetic bead layer 2 to a predetermined temperature to automatically perform thermal stimulation rehabilitation training on the patient's hand. The heating information is collected in real time by the temperature and pressure sensor layer 34 and synchronously transmitted to the controller 43 for data processing, and the heating result value is synchronously displayed and alerted on the touch control screen 42 in real time. This replaces the traditional method of hand massage training by manually operating gloves with simple mechanical structures, effectively reducing the workload of medical staff. Furthermore, by providing targeted physical and biological stimulation rehabilitation training to the patient's hand, it can stimulate the re-establishment of the patient's neural pathways and enhance local blood circulation, thereby effectively improving the rehabilitation training effect and efficiency. At the same time, it can also meet the diverse and complex rehabilitation needs of patients, effectively improving the patient's rehabilitation experience.

[0025] In summary, the present invention, with the above-described structure, has the advantages of meeting the diverse and complex rehabilitation needs of patients, effectively improving the effect and efficiency of rehabilitation training, and reducing the workload of medical staff.

[0026] For those skilled in the art, various other corresponding changes and modifications can be made based on the technical solutions and concepts described above, and all such changes and modifications should fall within the protection scope of the claims of this utility model.

Claims

1. A rehabilitation training glove, comprising a glove body (1) wearable on a patient's hand, wherein the wrist end of the glove body (1) extends to a predetermined length; characterized in that: A magnetic bead layer (2) for massaging the patient's hands and limbs is embedded on the inner wall of the glove body (1). A temperature and pressure control structure (3) for applying pressure and heating rehabilitation training to the patient's hands and limbs is also embedded between the inner wall of the glove body (1) and the magnetic bead layer (2). The temperature and pressure control structure (3) is electrically connected to an intelligent control structure (4) located at the wrist end of the glove body (1). The glove body (1) also includes a rigid partition frame layer (5) located between the inner wall of the glove body (1) and the temperature and pressure control structure (3) for providing support so that it can be worn securely and comfortably on the patient's hand. The temperature and pressure control structure (3) includes a thin silicone water bladder (31) embedded in the glove body (1) and located between the rigid partition frame layer (5) and the magnetic bead layer (2) for pressurizing the magnetic bead layer (2), and the thin silicone water bladder (31) is connected to an external piezoelectric ceramic pump (32). A heating film (33) for heating the magnetic bead layer (2) is also embedded between the thin silicone water bladder (31) and the magnetic bead layer (2). It also includes a temperature and pressure sensor layer (34) with several temperature and pressure sensors embedded in the glove body (1) and located between the heating film (33) and the magnetic bead layer (2) for collecting temperature and pressure information of rehabilitation training. The piezoelectric ceramic pump (32), the heating film (33), and the temperature and pressure sensor layer (34) are all electrically connected to the intelligent control structure (4).

2. The rehabilitation training glove according to claim 1, characterized in that: The intelligent control structure (4) includes a touch control screen (42) mounted on the top of the wrist end of the glove body (1) via a mounting base (41) for inputting control information and displaying temperature and pressure information. A controller (43) is embedded in the touch control screen (42) and electrically connected to the piezoelectric ceramic pump (32), heating film (33), and temperature and pressure sensor layer (34).

3. The rehabilitation training glove according to claim 2, characterized in that: The controller (43) is an STM32F031G6U6TR programmable microcontroller.

4. The rehabilitation training glove according to any one of claims 1 to 3, characterized in that: The glove body (1) is made of non-woven fabric.

5. The rehabilitation training glove according to claim 4, characterized in that: The wrist end of the glove body (1) extends to a predetermined length of 10cm to 20cm.

6. The rehabilitation training glove according to claim 5, characterized in that: The predetermined length of the wrist extension of the glove body (1) is 15cm.

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