Wearable device for treating breast diseases and pressure control system

Abstract

The invention discloses a wearable device for treating breast diseases and a pressure control system. The wearable device comprises a wearable body; the wearing body is composed of magnetic rings which are symmetrically arranged left and right, and the middle parts are connected through a connecting block; the rear end of the magnetic ring is fixedly connected with the waistcoat, shoulder fixing belts are symmetrically arranged on two sides of the upper end, the middle is fixedly connected with the liner, and the front end is magnetically connected with the artificial breast layer; the connecting block is fixedly connected with an air pump; the artificial breast can be quickly disassembled and replaced, the trouble that a patient frequently replaces equipment is avoided, the burden of the patient is greatly relieved, and the use convenience is improved.

Description

Technical Field

[0001] The present invention belongs to the technical field of breast disease treatment, and specifically relates to a wearable device and a pressure control system for treating breast diseases. Background Art

[0002] Breast cancer is a common malignant tumor in women. The number of patients undergoing surgical treatment is increasing year by year. Postoperative rehabilitation is crucial to improving patients' quality of life and survival rate. Postoperative pressure hemostasis is a key step in promoting wound healing and preventing complications. Appropriate pressure can reduce bleeding and lower tissue fluid exudation. However, there is currently a lack of accurate and effective pressure devices in clinical practice. Wearing a breast prosthesis is an important way for patients to restore their physical appearance and improve their psychological state after mastectomy, and the demand for it continues to grow. Existing postoperative compression hemostatic products for breast cancer surgery have numerous problems. Traditional bandages cannot adjust pressure, relying on manual adjustment with poor accuracy, which can easily lead to local ischemia or edema. They also lack dynamic monitoring capabilities, making it impossible to assess recovery status in real time. Postoperative elastic bras distribute pressure unevenly, compressing the chest lymphatic system and impacting recovery. Furthermore, existing prosthetic breasts are separated from the postoperative compression device, requiring frequent replacement and cumbersome operation. They are also heavy and easily displaced after being worn, resulting in an unnatural appearance. Therefore, in response to the above-mentioned existing technical problems, this solution proposes a wearable device and a pressure control system for treating breast diseases. Summary of the Invention

[0003] To address the above-mentioned problems in the prior art, the present invention designs a wearable device and pressure control system for treating breast diseases. By providing a magnetic ring on the outer layer of the wearable body, the prosthesis can be quickly removed and replaced when the patient needs to change it, reducing the burden on the patient to change the device frequently. At the same time, multiple airbag groups are provided in the middle layer, and air pumps are used to independently supply air to different areas of the patient's body. Each airbag unit corresponds to a key postoperative part of the patient, improving the accuracy of pressure control. The pressure control system controls the pressure of each airbag group according to patient information, thereby speeding up the patient's postoperative recovery. In order to achieve the above technical effects, the present invention is implemented through the following technical solutions: a wearable device and pressure control system for treating breast diseases, comprising a wearable body; The wearable body is composed of magnetic rings arranged symmetrically on both sides, connected in the middle by a connecting block; the rear end of the magnetic ring is fixedly connected to the vest, the upper end is symmetrically provided with shoulder fixing straps on both sides, the middle is fixedly connected to the pad, and the front end is magnetically connected to the breast prosthesis layer; the connecting block is fixedly connected to the air pump; Furthermore, the outer array of the liner is provided with a plurality of airbag groups; Furthermore, a bionic fabric is provided on the outside of the airbag assembly; Furthermore, a pressure sensor and an acceleration sensor are respectively provided in the airbag group; Furthermore, the air pump is connected to a microcontroller and a Bluetooth module to support communication with a mobile phone; On the other hand, the present invention provides a pressure control system for a wearable device for treating breast diseases, comprising a pressure sensor, a microcontroller, a Bluetooth module, and an acceleration sensor; The pressure sensor detects the pressure of each airbag group in real time and converts the pressure signal into an electrical signal and transmits it to the microcontroller; The controller receives real-time data from the pressure sensor and dynamically calculates the target pressure value of each airbag according to the patient information and real-time activity status, and controls the air pump output pressure to adjust the pressure according to the target pressure value; The Bluetooth module communicates with the mobile phone to achieve data synchronization and remote control; The acceleration sensor collects patient motion data and transmits the data to the microcontroller; The pressure control system of a wearable device for treating breast diseases comprises: S1: The user connects to the mobile phone APP via the Bluetooth module; S2: The microcontroller reads the basic personal information and physiological data entered through the mobile phone APP, including BMI, surgical range, chest circumference, etc., and stores them; S3: The microcontroller generates an initial pressure curve based on the input information, including a high-pressure mode in the early postoperative period and an adaptive mode in the healing period; S4: The microcontroller controls the air pump to inflate each airbag group; S5: The pressure sensor in each airbag group measures the pressure and feeds the pressure value back to the microcontroller; S6: The microcontroller determines the patient's real-time activity status based on the patient's physiological data, recovery stage, and acceleration sensor data to comprehensively calculate the appropriate pressure value.

[0004] The beneficial effects of the present invention are: The present invention integrates postoperative pressure hemostasis and breast prosthesis functions into one, and through the design of the magnetic ring on the outer layer of the wearer, the breast prosthesis can be quickly removed and replaced, avoiding the trouble of frequent device replacement for patients, greatly reducing the burden on patients, improving ease of use, and better meeting the needs of patients in different scenarios. At the same time, by setting up multiple airbag groups in the middle layer of the wearable body, and each airbag group corresponds to the patient's key postoperative part, the air pump can independently supply air to each airbag group. In conjunction with the pressure control system, the microcontroller dynamically calculates the target pressure value of each airbag and accurately controls the air pump output pressure based on patient information, recovery stage and real-time activity status, which can better meet the pressure requirements of different postoperative stages, effectively improve the accuracy of pressure control, and thus significantly improve the patient's postoperative recovery speed and reduce the risk of complications such as local ischemia, edema and compression of the chest lymphatic system. BRIEF DESCRIPTION OF THE DRAWINGS

[0005] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the following briefly introduces the drawings required for describing the embodiments.

[0006] Figure 1 It is a schematic diagram of the overall structure of a wearable device and a pressure control system for treating breast diseases; Figure 2 This is a schematic diagram of the wearable structure of a wearable device and a pressure control system for treating breast diseases; Figure 3 A wearable body cross-sectional view of a wearable device and pressure control system for treating breast diseases; In the accompanying drawings, the components represented by the reference numerals are as follows: 1-breast prosthesis, 2-vest, 3-shoulder strap, 5-air pump, 6-wearable body, 7-magnetic ring, 8-bionic fabric, 9-airbag group, 10-pad, 11-connecting block. DETAILED DESCRIPTION

[0007] The present invention discloses a wearable device and pressure control system for treating breast diseases, comprising a wearable body 6; the wearable body 6 is composed of magnetic rings 7 symmetrically arranged on the left and right, connected in the middle by a connecting block 11; the rear end of the magnetic ring 7 is fixedly connected to a vest 2, shoulder fixing straps 3 are symmetrically arranged on both sides of the upper end, a pad 10 is fixedly connected in the middle, and the front end is magnetically connected to a breast prosthesis layer 1; the connecting block 11 is fixedly connected to an air pump 5; the breast prosthesis can be quickly disassembled and replaced, avoiding the trouble of patients frequently changing equipment, greatly reducing the burden on patients, and improving the convenience of use.

[0008] The technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention; it is obvious that the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments. Example 1

[0009] like Figure 1-3As shown, the wearable body 6 is composed of a left-right symmetrical arrangement of magnetic rings 7, connected in the middle by a connecting block 11; the rear end of the magnetic ring 7 is fixedly connected to the vest 2, the upper end is symmetrically provided with shoulder fixing straps 3 on both sides, the middle is fixedly connected to the pad 10, and the front end is magnetically connected to the breast prosthesis 1; the connecting block 11 is fixedly connected to the air pump 5; a plurality of airbag groups 9 are arranged in an array outside the pad 10; a bionic fabric 8 is provided on the outside of the airbag group 9; pressure sensors are respectively provided in the airbag groups 9; the air pump 5 is connected to a microcontroller and a Bluetooth module to support communication with a mobile phone; In this embodiment, when using the device, the patient first puts the wearable body 6 on the body, so that the liner 10 fits the chest, and then puts it on through the shoulder fixing belt 3 above the vest 2, ensuring that the wearable body 6 is firmly worn on the body and is not too tight or too loose to affect comfort and use effect; after putting it on, the breast prosthesis 1 is connected to the wearable body 6 through the magnetic ring 7; In this embodiment, by integrating the postoperative pressure hemostasis and prosthetic breast functions into one, patients do not need to frequently change different devices, and the operation is simpler; the magnetic ring 7 design on the outer layer of the wearable body 6 enables quick disassembly and replacement of the prosthetic breast, meeting the patient's appearance requirements in different scenarios such as daily life, sports, and social activities, greatly improving the convenience and efficiency of use, and reducing the burden on patients. Example 2

[0010] The pressure control system of a wearable device for treating breast diseases comprises: S1: The user connects to the mobile phone APP via the Bluetooth module; S2: The microcontroller reads the basic personal information and physiological data entered through the mobile phone APP, including BMI, surgical range, chest circumference, etc., and stores them; S3: The microcontroller generates an initial pressure curve based on the input information, including a high-pressure mode in the early postoperative period and an adaptive mode in the healing period; S4: The microcontroller controls the air pump 5 to inflate each airbag group 9; S5: The pressure sensor in each airbag group 9 measures the pressure and feeds the pressure value back to the microcontroller; S6: The microcontroller calculates the appropriate pressure value based on the patient's physiological data, recovery stage, and real-time activity status.

[0011] In this embodiment, dynamic pressure adjustment is divided into three stages, namely, the early postoperative period, the healing period, and the long-term recovery period; The initial postoperative period is 0-7 days, during which the pressure is adjusted to high-pressure mode, with a pressure range of 20-30 mmHg. During this period, the main focus is on hemostasis, and the airbag maintains a constant pressure. The healing stage lasts for 7-30 days. During this period, the pressure is adjusted to an adaptive mode within a range of 10-20 mmHg. The pressure is adjusted dynamically based on the patient's activity status, such as lying still, walking, and exercising, as determined by the data transmitted by the acceleration sensor. The long-term recovery period is more than 30 days. At this time, the pressure is adjusted to low pressure mode, with a pressure range of 5-10 mmHg. At this time, the pressure can be adjusted comprehensively by monitoring the patient's heart rate and edema data to prevent lymphatic reflux obstruction; In this embodiment, the airbag group 9 includes an upper chest airbag group, an axillary airbag group, a sternal midline airbag group, an incision ring airbag group, and a chest side airbag group; The upper chest airbag group is a dual-channel subclavian airway branch, connected to the left and right upper chest airbags through a Y-shaped shunt tube, and the pressure is independently adjusted; The axillary airbag group is a single-channel closed-loop axillary annular air circuit. The annular airbag surrounding the axillary is controlled by an independent air pump 5 to adapt to the needs of lymphatic drainage; The sternal midline airbag assembly is a single-channel sternal vertical linear airway, with strip-shaped airbags distributed along the sternal midline, connected by straight-through tubes to provide symmetrical support; The incision annular airbag group is a multi-branched radial air path around the incision. The multi-branch airbags surrounding the incision are connected by radial pipes to achieve precise control of local pressure. The chest side airbags are intercostal transverse air paths with independent channels on both sides. The left and right chest sides are connected to independent air pumps 5 respectively, supporting unilateral or bilateral pressure differential adjustment. In this embodiment, all air circuits use medical-grade silicone hoses with an inner diameter of 2mm and a pressure resistance of ≥50mmHg to ensure air tightness and durability. At the same time, each air pump 5 module corresponds to an independent air circuit branch, and the solenoid valve is controlled by a microcontroller to achieve partition switching and pressure regulation. In this embodiment, multiple airbag groups 9 in the middle layer correspond to the key parts of the patient after surgery, and the air pump 5 supplies air independently. In conjunction with the pressure sensor and the microcontroller, the target pressure value is dynamically calculated and the output air pressure of the air pump 5 is accurately regulated according to the patient's BMI, surgical scope, recovery stage and real-time activity status. It can provide high-pressure hemostasis in the early postoperative period and low-pressure circulation promotion in the healing period, effectively improve the accuracy of pressure control, significantly improve the patient's postoperative recovery speed, and reduce the risk of complications such as local ischemia, edema, and compression of the chest lymphatic system.

[0012] In summary, the present invention integrates postoperative pressure hemostasis and breast prosthesis functions into one, and through the design of the magnetic ring 7 on the outer layer of the wearable body 6, the breast prosthesis can be quickly disassembled and replaced, avoiding the trouble of frequent device replacement for patients, greatly reducing the burden on patients, improving ease of use, and better meeting the needs of patients in different scenarios; At the same time, by arranging multiple airbag groups 9 in the middle layer of the wearable body 6, and each airbag group 9 corresponds to the key part of the patient after surgery, the air pump 5 can independently supply air to each airbag group 9, and cooperate with the pressure control system. The microcontroller dynamically calculates the target pressure value of each airbag and accurately controls the output air pressure of the air pump 5 based on the patient's information, recovery stage and real-time activity status, which can better meet the pressure requirements of different stages after surgery, effectively improve the accuracy of pressure control, and thus significantly improve the patient's postoperative recovery speed and reduce the risk of complications such as local ischemia, edema and compression of the chest lymphatic system.

[0013] The preferred embodiments of the present invention disclosed above are only used to help illustrate the present invention. The preferred embodiments do not describe all details in detail, nor do they limit the invention to only the specific implementation methods described.

Claims

1. A wearable device and pressure control system for treating breast diseases, characterized in that: including a wearable body; The wearable body is composed of magnetic circles arranged symmetrically on the left and right, and connected in the middle by a connecting block; the rear end of the magnetic circle is fixedly connected to the vest, shoulder fixing belts are symmetrically arranged on both sides of the upper end, the middle is fixedly connected to the pad, and the front end is magnetically connected to the breast prosthesis layer; the connecting block is fixedly connected to the air pump.

2. A wearable device and pressure control system for treating breast diseases according to claim 1, characterized in that: The outer array of the cushion is provided with a plurality of airbag groups.

3. A wearable device and pressure control system for treating breast diseases according to claim 1, characterized in that: Bionic fabric is arranged on the outside of the airbag group.

4. A wearable device and pressure control system for treating breast diseases according to claim 1, characterized in that: A pressure sensor and an acceleration sensor are respectively arranged in the airbag group.

5. A wearable device and pressure control system for treating breast diseases according to claim 1, characterized in that: The air pump is connected to a microcontroller and a Bluetooth module to support communication with a mobile phone.

6. A pressure control system for a wearable device for treating breast diseases according to any one of claims 1 to 5, comprising a pressure sensor, a microcontroller, a Bluetooth module, and an acceleration sensor; The pressure sensor detects the pressure of each airbag group in real time and converts the pressure signal into an electrical signal and transmits it to the microcontroller; The controller receives real-time data from the pressure sensor and dynamically calculates the target pressure value of each airbag according to the patient information and real-time activity status, and controls the air pump output pressure to adjust the pressure according to the target pressure value; The Bluetooth module communicates with the mobile phone to achieve data synchronization and remote control; The acceleration sensor collects patient motion data and transmits the data to the microcontroller.

7. A wearable device and pressure control system for treating breast diseases according to claim 6, characterized in that The pressure control system of a wearable device for treating breast diseases comprises: S1: The user connects to the mobile phone APP via the Bluetooth module; S2: The microcontroller reads the basic personal information and physiological data entered through the mobile phone APP, including BMI, surgical range, chest circumference, etc., and stores them; S3: The microcontroller generates an initial pressure curve based on the input information, including a high-pressure mode in the early postoperative period and an adaptive mode in the healing period; S4: The microcontroller controls the air pump to inflate each airbag group; S5: The pressure sensor in each airbag group measures the pressure and feeds the pressure value back to the microcontroller; S6: The microcontroller determines the patient's real-time activity status based on the patient's physiological data, recovery stage, and acceleration sensor data to comprehensively calculate the appropriate pressure value.

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