Portable therapeutic instrument based on Internet of Things control function

Abstract

The utility model discloses a portable therapeutic instrument based on a control function of the internet of things, relates to the technical field of medical instruments, in particular to the portable therapeutic instrument based on the control function of the internet of things, which comprises a segment code display screen and a lower computer, and the control of the segment code display screen is mainly composed of a display driver and keys. The lower computer is composed of a power supply unit, a single-chip microcomputer control unit, a communication interface unit, a magnetic vibration driving unit, a magnetoelectric driving unit and an Internet of Things communication unit. The purpose of treating various related diseases is achieved through the two physical effects of magnetic field physiotherapy, vibration and magnetoelectric stimulation, then the market competitiveness is improved, the functions of real-time positioning, remote control management and the like of the device are achieved through the Internet of Things technology, and the device can be popularized to the home of a patient to improve the market competitiveness.

Description

Technical Field

[0001] The utility model relates to the technical field of medical devices, in particular to a portable therapeutic device based on an Internet of Things control function. Background Art

[0002] The magnetic resonance magnetoelectric therapeutic device is a medical device that combines three physical therapy methods: alternating magnetic field, vibration massage, and thermotherapy. It is mainly used for the treatment of chronic soft tissue injuries, neck, shoulder, waist, leg pain, joint pain and other diseases. In the treatment of chronic prostatitis, the magnetic resonance magnetoelectric therapeutic device also shows good results. The instrument enhances the biological activity of local tissue cells of the prostate and the permeability of the biological membrane, improves the local microcirculation and immune system function of the prostate, thereby promoting the absorption of inflammatory exudates and eliminating inflammation, loosening adhesions caused by inflammation, relieving inflammatory infarction of glandular tubules, and relieving pelvic pain and symptoms such as urgency and frequent urination caused by prostatitis.

[0003] The magnetic resonance and magnetoelectric therapeutic device has a significant effect on relieving various diseases. It is not only simple to operate but also has no major safety hazards. Patients can master the usage method through simple learning. Although there are no major safety hazards, long-term incorrect use will also cause considerable damage. Therefore, the magnetic resonance and magnetoelectric therapeutic device is currently mainly placed in the hospital. Patients need to go to the hospital to use it and cannot borrow it. Although it is simple to operate, it is still operated by a doctor. However, the treatment of the magnetic resonance and magnetoelectric therapeutic device is a long process. For some diseases, it can only play an auxiliary role in relief. This leads to the application of the magnetic resonance and magnetoelectric therapeutic device cannot be popularized. Utility Model Content

[0004] 1. Technical issues to be resolved

[0005] In view of the deficiencies in the prior art, the utility model provides a portable therapeutic device based on the Internet of Things control function, which solves the problems raised in the above-mentioned background technology.

[0006] (II) Technical solution

[0007] To achieve the above objectives, the utility model is implemented through the following technical solutions: a portable therapeutic instrument based on the Internet of Things control function, including a segment code display screen and a lower computer, the control of the segment code display screen is mainly composed of display drive and buttons, and the lower computer is composed of a power supply unit, a single-chip microcomputer control unit, a communication interface unit, a magnetic resonance drive unit, a magnetoelectric drive unit and an Internet of Things communication unit.

[0008] Preferably, the segment code display screen circuit board is integrated with touch buttons, which together constitute the human-computer interaction part. The administrator controls the therapeutic device through the touch buttons, adjusts the treatment output intensity, output frequency, and pauses or continues treatment and other related settings.

[0009] Preferably, for the working principle of the power supply unit, the commercial power supply of 220V 50Hz passes through the fuse power control switch and enters the power frequency transformer. The transformer outputs three AC voltages, namely AC15V, AC8V, and AC3.4V. AC15V passes through D1-U1 to obtain a +5V DC voltage, which supplies power to the magnetoelectric stimulation circuit and also supplies power to the display screen and the touch control module. The +5V passes through the U3 circuit to output a stable +3.3V voltage to supply power to the single-chip microcomputer control unit. AC15V passes through the D1-U2 circuit to obtain a +3.8V DC voltage to supply power to the Internet of Things module. AC8V supplies power to the magnetic resonance therapy unit circuit, and AC3.4V supplies power to the vibration unit circuit of the magnetoelectric device.

[0010] Preferably, for the working principle of the single-chip microcomputer control unit, +3.3V - C40 - U5 (single-chip microcomputer chip STM32F103C8T6) constitutes the single-chip microcomputer and its power supply circuit. C10 - C12 - Y1 - U5 constitutes the clock oscillation circuit, providing a reference clock source inside the single-chip microcomputer. +3.3V - U5 supplies power to the single-chip microcomputer. The 10th pin of U5 outputs a magnetic resonance signal under program control, which passes through U6 to the K2 relay to drive the magnetic resonance unit to control the magnetic resonance body. The 11th pin of U5 outputs a control signal for the magnetoelectric therapy vibration unit under program control, which passes through U6 to the K3 relay to drive the vibration unit to drive the vibration output. The 12th and 13th pins of U5 control the electrical stimulation output circuit of the magnetoelectric therapy unit. The 30th and 31st pins of U5 are connected to the communication interface circuit unit of the Internet of Things module for communicating with the external Internet of Things server.

[0011] Preferably, the communication interface unit consists of the 28th and 29th pins of U5 and J2, and communicates with the external touch button module.

[0012] Preferably, the magnetic resonance signal of the magnetic resonance drive unit passes through U6 to the K2 relay, enabling the AC low voltage of AC8V to be half-wave rectified by D4, and outputting a 4.5V 50Hz sine half-wave to drive the magnetic resonance body.

[0013] Preferably, the magnetoelectric drive unit consists of R28 - Q5 - D6 - L7 - C26 and R29 - Q6 - D7 - L - C27, respectively, to form two electrical stimulation circuits.

[0014] Preferably, the Internet of Things communication unit consists of the Internet of Things module (Youfang N58 - CA - 011AS1) U4 - R17 - R18 - R19 - SIM1, which is used to maintain communication with the Internet of Things server and realize functions such as recharge purchase of treatment times, location query, and terminal remote control.

[0015] (III) Beneficial Effects

[0016] The present utility model provides a portable therapeutic apparatus based on the Internet of Things control function, having the following beneficial effects:

[0017] 1. The portable therapeutic instrument based on the Internet of Things control function achieves the purpose of treating various related diseases through magnetic field physiotherapy, vibration, and two physical effects of magnetoelectric electrical stimulation, thereby enhancing market competitiveness. The combination of medium-strength magnetic field vibrations of 180 mT and 200 mT and low-frequency pulsed electrical stimulation of 50 - 120 V acts on the human body, causing local tissue blood vessels to dilate, blood flow to accelerate, the permeability of cell membranes to increase, metabolism to be vigorous, the activity of enzymes to enhance, and the repair of damaged tissues and the restoration of tissue and organ functions.

[0018] 2. The portable therapeutic instrument based on the Internet of Things control function realizes functions such as real-time positioning and remote control management of the device through Internet of Things technology, making it possible to popularize it in patients' homes to enhance market competitiveness. Since the use of the therapeutic instrument can be remotely monitored, the working state and working hours of the therapeutic instrument can be remotely adjusted by professionals according to the patient's condition to avoid misuse. Relying on the advantages of Internet +, the therapeutic instrument can be sold or leased to patients' homes, making it convenient for patients to use without any safety hazards and ensuring the therapeutic effect, thereby realizing the popularization of the therapeutic instrument and enhancing market competitiveness. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic diagram of the block diagram of the electric therapeutic instrument of the present utility model;

[0020] Figure 2 It is a schematic diagram of the circuit principle diagram of the segment display screen button part of the present utility model;

[0021] Figure 3 It is a schematic diagram of the principle diagram of the segment display screen display driving part of the present utility model;

[0022] Figure 4 It is a schematic diagram of the circuit principle diagram of the MCU power supply part of the present utility model;

[0023] Figure 5 It is a schematic diagram of the circuit principle diagram of the Internet of Things module power supply part of the present utility model;

[0024] Figure 6 It is a schematic diagram of the circuit principle diagram of the single-chip microcomputer control unit of the present utility model;

[0025] Figure 7 It is a schematic diagram of the circuit principle diagram of the communication interface unit of the present utility model;

[0026] Figure 8 It is a schematic diagram of the circuit principle diagram of the magnetic vibration drive unit of the present utility model;

[0027] Figure 9 It is a schematic diagram of the magnetic electric drive unit stimulation circuit of the present utility model;

[0028] Figure 10 This is a schematic diagram of the circuit principle of the Internet of Things communication unit of the present utility model. Specific implementation manners

[0029] Next, the technical solutions in the embodiments of the present utility model will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present utility model. Obviously, the described embodiments are only a part of the embodiments of the present utility model, rather than all of the embodiments.

[0030] Please refer to Figures 1 to 10, the present utility model provides a technical solution: a portable therapeutic instrument based on Internet of Things control function, including a segment code display screen and a lower computer. The control of the segment code display screen is mainly composed of a display driver and buttons. The lower computer is composed of a power supply unit, a single-chip microcomputer control unit, a communication interface unit, a magnetic resonance drive unit, a magnetoelectric drive unit, and an Internet of Things communication unit. The circuit board of the segment code display screen integrates touch buttons, jointly constituting the human-computer interaction part. The administrator controls the therapeutic instrument through the touch buttons to adjust the treatment output intensity, output frequency, and pause or continue treatment and other related settings. The working principle of the power supply unit: The 220V 50Hz mains electricity passes through the fuse power control switch and enters the power frequency transformer. The transformer outputs 3-way AC voltages, namely AC15V, AC8V, and AC3.4V. AC15V passes through D1-U1 to obtain a +5V DC voltage to supply power to the magnetoelectric stimulation circuit, and at the same time supply power to the display screen and the touch control module. The +5V passes through the U3 circuit to output a stable +3.3V voltage to supply power to the single-chip microcomputer control unit. AC15V passes through the D1-U2 circuit to obtain a +3.8V DC voltage to supply power to the Internet of Things module. AC8V supplies power to the magnetic resonance treatment unit circuit. AC3.4V supplies power to the vibration unit circuit of the magnetoelectric. The working principle of the single-chip microcomputer control unit: +3.3V - C40 - U5 (single-chip microcomputer chip STM32F103C8T6) constitutes the single-chip microcomputer and its power supply circuit. C10 - C12 - Y1 - U5 constitutes the clock oscillation circuit to provide a reference clock source for the inside of the single-chip microcomputer. +3.3V - U5 supplies power to the single-chip microcomputer. The 10th pin of U5 outputs a magnetic resonance signal under program control, passes through U6 to the K2 relay, and drives the magnetic resonance unit to control the magnetic resonance body. The 11th pin of U5 outputs a control signal for the magnetoelectric treatment vibration unit under program control, passes through U6 to the K3 relay, and drives the vibration unit to drive the vibration output. The 12th and 13th pins of U5 control the electrical stimulation output circuit of the magnetoelectric treatment unit. The 30th and 31st pins of U5 are connected to the communication interface circuit unit of the Internet of Things module for communicating with the external Internet of Things server. The communication interface unit is composed of the 28th and 29th pins of U5 and J2, and communicates with the external touch button module. The magnetic resonance signal of the magnetic resonance drive unit passes through U6 to the K2 relay, making the AC8V AC low voltage half-wave rectified by D4, and outputting a 4.5V 50Hz sine half-wave to drive the magnetic resonance body. The magnetoelectric drive unit is composed of R28 - Q5 - D6 - L7 - C26 and R29 - Q6 - D7 - L - C27 respectively to form two-way electrical stimulation circuits. The Internet of Things communication unit is composed of the Internet of Things module (Youfang N58 - CA - 011AS1) U4 - R17 - R18 - R19 - SIM1, which is used to maintain communication with the Internet of Things server and realize functions such as recharge purchase of treatment times, location query, and terminal remote control.

[0031] When in use, each therapeutic instrument is set with a unique number, and an APP is developed to connect with the therapeutic instrument. At this time, the therapeutic instrument can be directly sold to or leased to patients. Patients need to use the APP to upload the results of hospital visits. The back end of the APP is received by professional doctors who analyze the patient's condition, and then the doctors remotely adjust the working mode and intensity of the therapeutic instrument. At this time, the patient only needs to turn on the therapeutic instrument and can directly use it without adjusting various parameters by himself. During this process, information such as the usage time and frequency of the therapeutic instrument is uploaded to the background by the APP. Further, the doctor in the background monitors the patient's usage through the APP and adjusts the working state of the therapeutic instrument according to the patient's condition, thus realizing that the therapeutic instrument is convenient for patients to use and can achieve effective treatment effects without any safety hazards. Furthermore, the therapeutic instrument can be effectively popularized to patients' homes, which can not only benefit patients but also improve market competitiveness. There are also various value-added services on the APP or the therapeutic instrument that can be paid remotely by scanning the code, such as the selection of back-end doctors, making an appointment for a doctor to come to the door for a physical examination, daily one-on-one remote diagnosis, and various knowledge payments.

[0032] In summary, the portable therapeutic instrument based on the Internet of Things control function combines the magnetic field vibration of medium intensity of 180mT and 200mT with the low-frequency pulsed electrical stimulation of 50 - 120v to act on the human body, causing the blood vessels of the local tissue to dilate, the blood flow to accelerate, the permeability of the cell membrane to enhance, the metabolism to be vigorous, the activity of enzymes to enhance, and the damaged tissue to be repaired and the functions of tissues and organs to be restored. Since the use of the therapeutic instrument can be remotely monitored, the working state and working time of the therapeutic instrument can be remotely adjusted by professionals according to the patient's condition to avoid misuse. Relying on the advantages of Internet +, the therapeutic instrument can be sold or leased to patients' homes, making the therapeutic instrument convenient for patients to use without any safety hazards and ensuring the treatment effect, thus realizing the popularization of the therapeutic instrument and improving market competitiveness.

[0033] The above is only a preferred specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution and inventive concept of the present invention, makes equivalent substitutions or changes, and all should be covered within the protection scope of the present invention.

Claims

1. A portable therapeutic apparatus based on Internet of Things control function, comprising a segment code display screen and a lower computer, characterized in that: The control of the segment code display screen is mainly composed of a display driver and buttons. The lower computer is composed of a power supply unit, a single-chip microcomputer control unit, a communication interface unit, a magnetic resonance drive unit, a magnetoelectric drive unit, and an Internet of Things communication unit; The Internet of Things communication unit is composed of the Internet of Things module U4 - R17 - R18 - R19 - SIM1, which is used to maintain communication with the Internet of Things server for recharge purchase of treatment times, location query, and implementation of terminal remote control functions.

2. The portable therapeutic instrument based on the Internet of Things control function according to claim 1, wherein: The segment code display screen circuit board integrates touch buttons, which together constitute the human - machine interaction part. The management personnel control the therapeutic instrument through the touch buttons to adjust the treatment output intensity, output frequency, and pause or continue the treatment.

3. The portable therapeutic apparatus based on the Internet of Things control function according to claim 1, wherein: For the power supply unit, the 220V 50Hz mains electricity passes through the fuse power control switch and enters the power frequency transformer. The transformer outputs three - way AC voltages, namely AC15V, AC8V, and AC3.4V. AC15V passes through D1 - U1 to obtain a +5V DC voltage to supply power to the magnetoelectric stimulation circuit, and at the same time supply power to the display screen and the touch control module. The +5V passes through the U3 circuit to output a stable +3.3V voltage to supply power to the single - chip microcomputer control unit. AC15V passes through the D1 - U2 circuit to obtain a +3.8V DC voltage to supply power to the Internet of Things module. AC8V supplies power to the magnetic resonance treatment unit circuit, and AC3.4V supplies power to the vibration unit circuit of the magnetoelectricity.

4. The portable therapeutic apparatus based on the Internet of Things control function according to claim 3, characterized in that: The single - chip microcomputer control unit +3.3V - C40 - U5 constitutes the single - chip microcomputer and its power supply circuit. C10 - C12 - Y1 - U5 constitutes the clock oscillation circuit, providing a reference clock source inside the single - chip microcomputer. +3.3V - U5 supplies power to the single - chip microcomputer. The 10th pin of U5 outputs a magnetic resonance signal controlled by the program, which passes through U6 to the K2 relay to drive the magnetic resonance unit to control the magnetic resonance body. The 11th pin of U5 outputs a control signal for the magnetoelectric treatment vibration unit controlled by the program, which passes through U6 to the K3 relay to drive the vibration unit to drive the vibration output. The 12th and 13th pins of U5 control the electrical stimulation output circuit of the magnetoelectric treatment unit. The 30th and 31st pins of U5 are connected to the communication interface circuit unit of the Internet of Things module for communication with the external Internet of Things server.

5. The portable therapeutic apparatus based on the Internet of Things control function according to claim 1, wherein: The communication interface unit is composed of the 28th and 29th pins of U5 and J2, and communicates with the external touch button module.

6. The portable therapeutic apparatus based on the Internet of Things control function according to claim 1, wherein: The magnetic resonance signal of the magnetic resonance drive unit passes through U6 to the K2 relay, enabling the AC8V AC low voltage to be half - wave rectified by D4, and outputting a 4.5V 50Hz sine half - wave to drive the magnetic resonance body.

7. The portable therapeutic apparatus based on the Internet of Things control function according to claim 1, wherein: The magnetoelectric drive unit is composed of R28 - Q5 - D6 - L7 - C26 and R29 - Q6 - D7 - L - C27 respectively to form two - way electrical stimulation circuits.

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