Multifunctional neuromuscular stimulation clothes and control system and method thereof

Abstract

The invention discloses a multifunctional neuromuscular stimulation garment which comprises neuromuscular stimulators, a remote controller and a high-resolution electrode, the remote controller remotely controls the neuromuscular stimulators through Bluetooth, and the neuromuscular stimulators are connected with the high-resolution electrode through connecting wires and are integrated on a hooded leotard. A neuromuscular stimulation control system and a neuromuscular stimulation control method are also disclosed. The control precision and safety are improved, and the possibility of manual operation errors is reduced.

Description

Technical Field

[0001] This invention relates to a multifunctional neuromuscular stimulation garment that can be used in smart clothing, as well as its control system and method. It belongs to the technical field of intracranial electrical stimulation and muscle electrical stimulation. Background Technology

[0002] Existing neuromuscular stimulation garments have shortcomings in terms of control precision, safety, and user experience. In particular, they lack effective solutions for switching between multiple stimulation modes (such as muscle stimulation mode and transcranial stimulation mode), prescription updates, and personalized treatment, and cannot ensure the safety and reliability of neuromuscular stimulation garments during use.

[0003] Therefore, providing a multifunctional neuromuscular stimulation garment and its control system and method, and integrating it into clothing, would greatly improve the immediacy and convenience of adjustment. In view of this, the present invention is proposed. Summary of the Invention

[0004] The purpose of this invention is to overcome the shortcomings of existing systems by providing a neuromuscular stimulation garment and its control system and method, which improves control accuracy and safety and reduces the possibility of human error.

[0005] The technical solution to achieve the above objectives is:

[0006] One of the present inventions is a neuromuscular stimulation garment, comprising: a neuromuscular stimulator, a remote controller, high-resolution electrodes, and a hooded bodysuit. The remote controller remotely controls the neuromuscular stimulator via Bluetooth, and the neuromuscular stimulator is connected to the high-resolution electrodes via conductive connecting wires woven into the hooded bodysuit.

[0007] Preferably, the neuromuscular stimulator includes a main unit and a secondary unit. The main unit is connected to the secondary unit via a Type-C interface and a main-secondary connection cable. A stimulation switch is provided in the middle of the upper surface of the main unit. A tri-color LED light is provided next to the stimulation switch on the upper surface of the main unit. A USB interface is provided on the side of the main unit away from the main-secondary connection cable. Two LED lights are provided on the upper surface of the secondary unit.

[0008] Preferably, the remote controller includes: a remote control body, a left tri-color LED light and a right tri-color LED light, the left tri-color LED light and the right tri-color LED light are respectively disposed on the left and right ends of one side of the upper surface of the remote control body, five single-color LEDs are arranged side by side on the upper surface of the remote control body next to the left tri-color LED light and the right tri-color LED light, and a prescription selection button, a stimulation intensity increase button, a stimulation intensity decrease button and a remote control switch are arranged in sequence next to the single-color LEDs on the upper surface of the remote control body.

[0009] Preferably, the high-resolution electrode comprises: a mushroom-shaped surface electrode, a textile substrate, a PI insulated copper electrode, a 1-3 piezoelectric material layer, and an electrode connecting wire. The mushroom-shaped surface electrode realizes the output of electrical stimulation and the input of electrical signals outside the high-resolution electrode. The textile substrate encapsulates the PI insulated copper electrode and the 1-3 piezoelectric material layer. The PI insulated copper electrode is a copper electrode wrapped with a polyimide film, and the upper and lower PI insulated copper electrodes are wrapped with the 1-3 piezoelectric material layer, thereby realizing pressure signal acquisition.

[0010] Preferably, the high-resolution electrodes on the hooded compression garment include an axillary muscle electrode array, an elbow muscle electrode array, a wrist muscle electrode array, a cardiothoracic muscle electrode array, a back muscle electrode array, and a transcranial electrode array. The axillary, elbow, and wrist muscle electrode arrays are used to collect electromyographic signals and heart rate from the muscles of the arm and armpit, and can output electrical stimulation to the muscles of the arm and armpit. The cardiothoracic muscle electrode array is used to collect heart rate. The back muscle electrode array is used to collect electromyographic signals from the muscles of the back and can electrically stimulate the trapezius muscles of the back. The transcranial electrode array is used to collect brain waves and perform transcranial electrical stimulation.

[0011] A second invention relates to a neuromuscular stimulation control system based on a neuromuscular stimulation garment, comprising:

[0012] The neuromuscular stimulator contains a neuromuscular stimulator module for outputting transcranial or muscle stimulation signals based on the received prescription number.

[0013] The remote controller contains a remote control module for controlling the neuromuscular stimulator module to output a specified stimulation signal and displaying the currently controlled neuromuscular stimulator module channel, output prescription number, and stimulation signal intensity.

[0014] The high-resolution electrode contains a high-resolution electrode module for receiving transcranial or muscle stimulation signals, outputting transcranial or muscle stimulation, and adjusting the electrode voltage stimulation resolution.

[0015] A switch module is used to control the opening and closing of the neuromuscular stimulator module and the remote control module, respectively.

[0016] Preferably, the neuromuscular stimulator module includes:

[0017] The host unit is used to extract the stimulation prescription based on the received prescription number and output the stimulation signal;

[0018] The auxiliary unit is used to supply power to the main unit;

[0019] A main / supplementary connection unit is used to connect the main unit and the slave unit via a Type-C interface and a main / supplementary connection cable;

[0020] The host unit includes:

[0021] A stimulation control unit is used to output stimulation signals to the high-resolution electrode module;

[0022] FLASH storage unit, used to store stimulus prescriptions;

[0023] The current detection unit is used to calculate whether the peak voltage and root mean square value of the output stimulation signal exceed a set threshold. If the threshold is exceeded, a signal is sent to the stimulation control unit to stop the output of the stimulation signal.

[0024] The tri-color LED light unit is used to display the connection status between the neuromuscular stimulator module and the remote control module;

[0025] An alarm unit is used to flash an indicator light in a loop when the stimulus signal exceeds a threshold.

[0026] The auxiliary unit includes:

[0027] A power supply unit for supplying power to the main unit via a rechargeable lithium battery;

[0028] The power management unit is used to convert the battery voltage of the power unit into the device operating voltage and output it to the host unit;

[0029] The Bluetooth stimulation unit is used to establish communication with the remote control module, receive stimulation signals, and send them to the stimulation control unit through the main and secondary connection units.

[0030] Two LED units are used to indicate the charging status of the power supply unit.

[0031] Preferably, the remote control module includes:

[0032] The control unit is used to output control signals;

[0033] The channel selection unit is used to select the currently controlled neuromuscular stimulator module channel;

[0034] The adjustment unit is used to adjust the intensity of the output stimulus signal.

[0035] The prescription selection unit is used to select the stimulation prescription to be output as needed and to determine the output prescription number of the current neuromuscular stimulator module channel.

[0036] Five monochrome lamp units arranged side by side are used to display the intensity of the currently output stimulus signal;

[0037] The left tri-color LED light unit is used to display the currently controlled neuromuscular stimulator module channel;

[0038] The right tri-color LED unit is used to display the output prescription number of the current neuromuscular stimulator module channel;

[0039] The remote control Bluetooth unit is used to establish communication with the stimulation Bluetooth unit and output stimulation signals.

[0040] The third invention relates to a neuromuscular stimulation control method, comprising:

[0041] Step S1: The neuromuscular stimulator and the remote controller are turned on by the stimulation switch and the remote control switch respectively. The remote controller establishes a connection with the neuromuscular stimulator via Bluetooth.

[0042] Step S2: The remote controller outputs a specified stimulation signal to determine the currently controlled neuromuscular stimulator channel, the prescription number output by the channel, and the intensity of the stimulation signal.

[0043] Step S3: After the channel is determined, the stimulation signal and the prescription number output by the channel are sent to the stimulation control unit.

[0044] Step S4: The stimulation control unit retrieves the stimulation prescription from the FLASH storage unit using the prescription number and outputs the stimulation signal.

[0045] Step S5: The current detection unit determines whether the peak voltage and root mean square value of the output muscle stimulation signal exceed the set threshold.

[0046] Step S6: If the threshold is exceeded, a signal is sent to the stimulation control unit to stop outputting the stimulation signal and to flash the indicator light in a loop as an alarm. If the threshold is not exceeded, the stimulation signal is output to the high-resolution electrode.

[0047] Preferably, in step S2, the neuromuscular stimulator has both transcranial nerve stimulation and muscle stimulation functions.

[0048] The channel selection unit determines the currently controlled neuromuscular stimulator channel. Specifically, the prescription selection button and the stimulation intensity increase button work together to determine that the currently controlled function is muscle stimulation. The prescription selection button and the stimulation intensity decrease button work together to determine that the currently controlled function is transcranial stimulation. The left tri-color LED light indicates whether the currently controlled channel is transcranial stimulation or muscle stimulation.

[0049] The output prescription number of the current neuromuscular stimulator channel is determined by the prescription selection unit, that is, the output prescription number of the current neuromuscular stimulator channel is determined by the prescription selection button, and the output prescription number of the current neuromuscular stimulator channel is displayed by the right tri-color LED light;

[0050] The intensity of the output stimulus signal is determined by the adjustment unit. Specifically, the intensity of the output stimulus signal is increased by the stimulus intensity increase button and decreased by the stimulus intensity decrease button. The intensity of the current output stimulus signal is displayed by five monochrome lights.

[0051] Preferably, in step S4, the FLASH storage unit updates the stored stimulation prescription via a USB interface and a USB connection cable.

[0052] The beneficial effects of this invention are:

[0053] 1) The remote controller in this invention is wirelessly connected to the muscle stimulator and transcranial stimulator via Bluetooth, thereby enabling remote control of the stimulation signal;

[0054] 2) Introduce a prescription update function, which allows for updating the stimulation prescriptions in the muscle stimulator and transcranial stimulator via a high-capacity USB storage device or online update method to meet the treatment needs of different patients; improve the control accuracy and safety of neuromuscular stimulation garments, reduce the possibility of human operation errors, and improve treatment effects;

[0055] 3) By using different combinations of tri-color LEDs and single-color LEDs, the current working status, prescription number, and stimulation intensity can be displayed intuitively, thus improving the user experience;

[0056] 4) The USB interface and connecting cable design effectively ensure the safety and reliability of the neuromuscular stimulation garment, and reduce the adverse effects of current on the user and the circuit. Attached Figure Description

[0057] Figure 1 This is a structural diagram of a neuromuscular stimulation garment of the present invention;

[0058] Figure 2 This is a structural diagram of the neuromuscular stimulator in this invention;

[0059] Figure 3 This is a structural diagram of the remote controller in this invention;

[0060] Figure 4 This is a structural diagram of the high-resolution electrode in this invention;

[0061] Figure 5 This is a block diagram of a neuromuscular stimulation control system according to the present invention;

[0062] Figure 6 This is a flowchart of a neuromuscular stimulation control method according to the present invention;

[0063] Figure 7 This is a waveform diagram of the muscle electrical stimulation prescription in an embodiment of the present invention;

[0064] Figure 8 This is a waveform diagram of the transcranial electrical stimulation prescription in an embodiment of the present invention; Detailed Implementation

[0065] The technical solution of the present invention will now be clearly and completely described in conjunction with the accompanying drawings.

[0066] In the description of this invention, it should be noted that the terms "center," "upper," "lower," "left," "right," "vertical," "horizontal," "inner," and "outer," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are used only for the convenience of describing the invention and for simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on the invention. Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.

[0067] The invention will now be further described with reference to the accompanying drawings.

[0068] like Figures 1-3 As shown, a neuromuscular stimulation garment includes a neuromuscular stimulator 1 and a remote controller 2. The remote controller 2 remotely controls the neuromuscular stimulator 1 via Bluetooth. The neuromuscular stimulator 1 is connected to a high-resolution electrode 4 via a connecting wire 3. The connecting wire 3 is attached to a hooded bodysuit 5 in the form of fabric sewn together. The neuromuscular stimulation garment of the present invention can be integrated into clothing, which will greatly improve the immediacy and convenience of adjustment.

[0069] In this embodiment, the high-resolution electrode 4 in the hooded bodysuit includes: the axillary muscle electrode array 41, which consists of four electrodes arranged in an array under the armpit (eight in total on both sides of the garment); the elbow muscle electrode array 42, which consists of four electrodes arranged in the brachialis and brachioradialis muscles (eight in total on both sides of the garment); the wrist muscle electrode array 43, which consists of two electrodes arranged in the brachioradialis muscle near the wrist (four in total on both sides of the garment); the cardiothoracic muscle electrode array 44, which consists of two electrodes arranged in the left half of the heart area of ​​the neuromuscular stimulation garment; the back muscle electrode array 45, which has one electrode on each side of the back for stimulating the trapezius muscle; and the transcranial electrode array 46, which consists of 13 electrodes on each side of the hood of the neuromuscular stimulation garment.

[0070] In this embodiment, the neuromuscular stimulator 1 includes a main unit 11 and a secondary unit 12. The main unit 11 is connected to the secondary unit 12 via a Type-C interface 13 and a main-secondary connection cable 14. A stimulation switch 15 is provided in the middle of the upper surface of the main unit 11. A tri-color LED light 16 is provided next to the stimulation switch 15 on the upper surface of the main unit 11. A USB interface 17 is provided on the side of the main unit 11 away from the main-secondary connection cable 14. Two LED lights 18 are provided on the upper surface of the secondary unit 12.

[0071] In this embodiment, there are two LED lights 18, one red and one green. The red light is lit when charging and the green light is lit when fully charged.

[0072] In this embodiment, the remote controller 2 includes: a remote control body 21, a left tri-color LED light 22 and a right tri-color LED light 23. The left tri-color LED light 22 and the right tri-color LED light 23 are respectively disposed on the left and right ends of one side of the upper surface of the remote control body 21. Five single-color lights 24 are arranged side by side on the upper surface of the remote control body 21 next to the left tri-color LED light 22 and the right tri-color LED light 23. Next to the single-color lights 24 on the upper surface of the remote control body 21, a prescription selection button 25, a stimulation intensity increase button 26, a stimulation intensity decrease button 27 and a remote control switch 28 are arranged in sequence.

[0073] like Figure 4 As shown, the left figure is a schematic diagram of the external appearance of the high-resolution electrode 4, and the right figure is a schematic diagram of the internal structure of the high-resolution electrode 4. The high-resolution electrode 4 includes: a mushroom-shaped surface electrode 401, a textile base shell 402, a PI insulated copper electrode 403, a 1-3 piezoelectric material layer 404, and an electrode connecting wire 405. The textile base shell 402 encloses the PI insulated copper electrode 403 and the 1-3 piezoelectric material layer 404. The PI insulated copper electrode 403 is a copper electrode wrapped with a polyimide film, and the upper and lower PI insulated copper electrodes 403 wrap the 1-3 piezoelectric material layer 404.

[0074] In this embodiment, the mushroom-shaped surface electrode 401 measures human muscle and brain electrical signals or outputs muscle electrical stimulation or transcranial electrical stimulation by contacting the skin. The 1-3 piezoelectric material layer 404 can detect heart rate through sensitive vibration detection. The PI insulated copper electrode 403 inputs the signals from the mushroom-shaped surface electrode 401 or the 1-3 piezoelectric material layer 404 to the neuromuscular stimulator 1, or outputs electrical stimulation signals to the human body through the mushroom-shaped surface electrode 401.

[0075] like Figure 5 As shown, a neuromuscular stimulation control system includes: a neuromuscular stimulator module 100, a remote control module 200, a switch module 300, and a high-resolution electrode module 400.

[0076] The neuromuscular stimulator 1 contains a neuromuscular stimulator module 100, which outputs transcranial or muscle stimulation signals based on a received prescription number. The neuromuscular stimulator module 100 includes a main unit 1001, a secondary unit 1002, and a main-secondary connection unit 1003.

[0077] The host unit 1001 is used to extract the stimulation prescription based on the received prescription number and output the stimulation signal. The host unit 1001 includes: a stimulation control unit 10011, a FLASH storage unit 10012, a current detection unit 10013, a tri-color LED light unit 10014, and an alarm unit 10015.

[0078] The stimulation control unit 10011 is used to output stimulation signals to the high-resolution electrode module 400.

[0079] The FLASH storage unit 10012 is used to store stimulation prescriptions. The current detection unit 10013 is used to calculate whether the peak voltage and root mean square value of the output stimulation signal exceed a set threshold. If the threshold is exceeded, a signal is sent to the stimulation control unit to stop the output of the stimulation signal. The three-color LED unit 10014 is used to display the connection status between the neuromuscular stimulator module 100 and the remote control module 200. In this embodiment, the three-color LED unit 10014 can display seven different colors through different on / off combinations: red, green, blue, yellow, cyan, purple, and white. The alarm unit 10015 is used to trigger a cyclic flashing indicator light alarm when the stimulation signal exceeds the threshold.

[0080] The secondary unit 1002 supplies power to the primary unit 1001. The secondary unit 1002 includes a power supply unit 10021, a power management unit 10022, a stimulation Bluetooth unit 10023, and LED light units 10024. The power supply unit 10021 supplies power to the primary unit 1001 via a rechargeable lithium battery. The power management unit 10022 converts the battery voltage of the power supply unit 10021 into the device's operating voltage and outputs it to the primary unit 1001. The stimulation Bluetooth unit 10023 establishes communication with the remote control module 200, receives stimulation signals, and transmits them to the stimulation control unit 10011 via the primary / secondary connection unit 1003. The two LED light units 10024 display the charging status of the power supply unit 10021. The primary / secondary connection unit 1003 connects the primary unit 1001 and the secondary unit 1002 via a Type-C interface and a primary / secondary connection cable 14. The remote controller 2 contains a remote control module 200, which is used to control the neuromuscular stimulator module 100 to output a specified stimulation signal and to display the currently controlled neuromuscular stimulator module 100 channel, output prescription number, and stimulation signal intensity.

[0081] The remote control module 200 includes: a control unit 2001, a channel selection unit 2002, an adjustment unit 2003, a prescription selection unit 2004, a single-color light unit 2005, a left tri-color LED light unit 2006, a right tri-color LED light unit 2007, and a remote control Bluetooth unit 2008.

[0082] Control unit 2001 is used to output control signals. Channel selection unit 2002 is used to select the currently controlled neuromuscular stimulator module 100 channel. Adjustment unit 2003 is used to adjust the intensity of the output stimulation signal. Prescription selection unit 2004 is used to select the stimulation prescription to be output as needed and determine the output prescription number of the current neuromuscular stimulator module 100 channel. Five monochrome light units 2005 arranged in parallel are used to display the intensity of the currently output stimulation signal.

[0083] In the embodiment, the five first monochrome lamp units 2005 arranged side by side have a total of 20 intensity levels, and one lamp will light up every 5 levels.

[0084] The left tri-color LED unit 2006 is used to display the currently controlled neuromuscular stimulator module 100 channels. For example, a red light indicates that the first pair of neuromuscular stimulator module 100 channels is on; a green light indicates that the second pair of neuromuscular stimulator module 100 channels is on; a blue light indicates that the third pair of neuromuscular stimulator module 100 channels is on; a yellow light indicates that the fourth pair of neuromuscular stimulator module 100 channels is on; a cyan light indicates that the fifth pair of neuromuscular stimulator module 100 channels is on; and a purple-green light indicates that the sixth pair of neuromuscular stimulator module 100 channels is on. The first four pairs represent muscle stimulation, and the last two pairs represent transcranial stimulation.

[0085] The right tri-color LED unit 2007 is used to display the current output prescription number of the neuromuscular stimulator module 100 channel. For example, a red light indicates prescription 1 is being output; a green light indicates prescription 2; a blue light indicates prescription 3; a yellow light indicates prescription 4; a cyan light indicates prescription 5; a purple-green light indicates prescription 6; and a white light indicates prescription 7. In this embodiment, both the left tri-color LED unit 2006 and the right tri-color LED unit 2007 can display seven different colors—red, green, blue, yellow, cyan, purple, and white—through different combinations of on / off states.

[0086] The remote control Bluetooth unit 2008 is used to establish communication with the stimulation Bluetooth unit 10023 and output stimulation signals.

[0087] The switch module 300 is used to control the opening and closing of the neuromuscular stimulator module 100 and the remote control module 200, respectively.

[0088] The high-resolution electrode 4 internally contains a high-resolution electrode module 400 for receiving transcranial or muscle stimulation signals, outputting transcranial or muscle stimulation, and adjusting the electrode voltage stimulation resolution. In this embodiment, different combinations of tri-color LEDs and monochromatic LEDs are used to intuitively display information such as the current working status, prescription number, and stimulation intensity, enhancing the user experience.

[0089] like Figure 6 As shown, a neuromuscular stimulation control method includes:

[0090] Step S1: The neuromuscular stimulator 1 and the remote controller 2 are turned on by the stimulation switch 15 and the remote control switch 28 respectively. The remote controller 2 establishes a connection with the neuromuscular stimulator 1 via Bluetooth.

[0091] In step S2, the remote controller 2 outputs a specified stimulation signal to determine the currently controlled neuromuscular stimulator 1 channel, the prescription number output by the channel, and the intensity of the stimulation signal. In this embodiment, the neuromuscular stimulator 1 has both transcranial nerve stimulation and muscle stimulation functions.

[0092] The channel selection unit 2002 determines the currently controlled neuromuscular stimulator 1 channel. Specifically, the prescription selection button 25 and the stimulation intensity increase button 26 work together to determine that the currently controlled function is muscle stimulation. The prescription selection button 25 and the stimulation intensity decrease button 27 work together to determine that the currently controlled function is transcranial stimulation. The left tri-color LED light 22 indicates whether the currently controlled channel is transcranial stimulation or muscle stimulation.

[0093] The prescription selection unit 2004 determines the current output prescription number of the neuromuscular stimulator channel 1, that is, the prescription selection button 25 determines the current output prescription number of the neuromuscular stimulator channel 1, and displays the current output prescription number of the neuromuscular stimulator channel 1 through the right tri-color LED light 23.

[0094] The intensity of the output stimulus signal is determined by the adjustment unit 2003. Specifically, the intensity of the output stimulus signal is increased by the stimulus intensity increase button 26 and decreased by the stimulus intensity decrease button 27. The intensity of the current output stimulus signal is displayed by five monochrome lights 24.

[0095] Step S3: After determining the channel, the stimulation signal and the prescription number output by the channel are sent to the stimulation control unit 10011.

[0096] In step S4, the stimulation control unit 10011 retrieves the stimulation prescription from the FLASH storage unit 10012 using the prescription number and outputs the stimulation signal.

[0097] In this embodiment, the FLASH storage unit 10012 updates the stored stimulation prescriptions via USB interface 17 and a USB cable. In this embodiment, the prescription protocol format of this invention is stored in text form in the FLASH storage unit 10012, and is connected to a computer and server host via USB interface 17 and a USB cable respectively. The prescription can be updated by directly copying the prescription file. For example, muscle stimulation prescription one corresponds to the file name JRCF01.txt, prescription two corresponds to JRCF02.txt, and transcranial stimulation prescription one corresponds to the file name JLCF01.txt, prescription two corresponds to JLCF02.txt. The prescriptions include muscle stimulation prescriptions and transcranial stimulation prescriptions. The muscle stimulation prescription and transcranial stimulation prescription analyze parameters such as the amplitude, frequency, number of waveform repetitions, duration of the square wave, and total number of cycles of the carrier signal and square wave signals of different frequencies to form the core parameters of the prescription. These parameters are stored in a txt format text file, which can be easily copied to the stimulator and read by the embedded program, converted into function input parameters, and used to achieve the output of the set pulse square wave.

[0098] The design of muscle electrical stimulation prescription documents, such as Figure 7 As shown. The characteristics of muscle electrical stimulation prescription one are summarized as follows: The frequency of the electrical stimulation signal changes, and the duration of different frequency electrical stimulation signals changes. The carrier signal is 1–2 kHz, and the pulse interval increases from 20 ms to 200 ms (corresponding to a decrease from 50 Hz to 5 Hz), increasing by 20 ms each time, repeating cyclically. The characteristics of muscle electrical stimulation prescription two are summarized as follows: The amplitude of the electrical stimulation signal changes, and the duration of different amplitude electrical stimulation signals changes. High-intensity stimulation square wave, 1 mA, 50 Hz, lasting 4 s; low-voltage stimulation square wave, 0.5 mA, 50 Hz, lasting 4 s; repeating cyclically.

[0099] Design of transcranial current stimulation prescription documents, such as Figure 8 As shown in Table 1, the characteristics of the three transcranial current stimulation prescriptions are as follows:

[0100] Table 1

[0101]

[0102] In step S5, the current detection unit 10013 determines whether the peak voltage and root mean square value of the output muscle stimulation signal exceed the set threshold.

[0103] In step S6, if the threshold is exceeded, a signal is sent to the stimulation control unit 10011 to stop outputting the stimulation signal and to flash the indicator light in a loop as an alarm. If the threshold is not exceeded, the stimulation signal is output to the high-resolution electrode 4.

[0104] The above embodiments are only used to illustrate the technical solutions of the present invention, and are not intended to limit it. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some or all of the technical features therein. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of the present invention.

Claims

1. A multifunctional neuromuscular stimulation garment, characterized in that, include: The neuromuscular stimulator (1) and remote controller (2) are provided. The remote controller (2) remotely controls the neuromuscular stimulator (1) via Bluetooth. The neuromuscular stimulator (1) is connected to a high-resolution electrode (4) via a connecting wire (3) and integrated into a hooded bodysuit (5).

2. The multifunctional neuromuscular stimulation garment according to claim 1, characterized in that, The neuromuscular stimulator (1) includes a main unit (11) and a secondary unit (12). The main unit (11) is connected to the secondary unit (12) via a Type-C interface (13) and a main-secondary connection cable (14). A stimulation switch (15) is provided in the middle of the upper surface of the main unit (11). A tri-color LED light (16) is provided next to the stimulation switch (15) on the upper surface of the main unit (11). A USB interface (17) is provided on the side of the main unit (11) away from the main-secondary connection cable (14). There are two LED lights (18) on the upper surface of the secondary unit (12).

3. The multifunctional neuromuscular stimulation garment according to claim 1, characterized in that, The remote controller (2) includes: a remote controller body (21), a left tri-color LED light (22) and a right tri-color LED light (23). The left tri-color LED light (22) and the right tri-color LED light (23) are respectively located on the left and right ends of the upper surface of the remote controller body (21). Five single-color lights (24) are arranged side by side on the upper surface of the remote controller body (21) next to the left tri-color LED light (22) and the right tri-color LED light (23). Next to the single-color lights (24) on the upper surface of the remote controller body (21), a prescription selection button (25), a stimulation intensity increase button (26), a stimulation intensity decrease button (27) and a remote control switch (28) are arranged in sequence.

4. The multifunctional neuromuscular stimulation garment according to claim 1, characterized in that, The distribution of the high-resolution electrodes (4) in the hooded bodysuit (5) includes: axillary muscle electrode array (41), elbow muscle electrode array (42), wrist muscle electrode array (43), cardiothoracic muscle electrode array (44), back muscle electrode array (45) and transcranial electrode array (46). The host (11) can control the axillary muscle electrode array (41), elbow muscle electrode array (42), wrist muscle electrode array (43), cardiothoracic muscle electrode array (44), back muscle electrode array (45) and transcranial electrode array (46) through multiple channels. The auxiliary unit (12) cooperates with the host (11) to control the current return loop of the electrode array.

5. The multifunctional neuromuscular stimulation garment according to claim 1, characterized in that, The high-resolution electrode (4) comprises: a mushroom-shaped surface electrode (401), a textile base shell (402), a PI insulated copper electrode (403), a 1-3 piezoelectric material layer (404), and an electrode connecting wire (405). The mushroom-shaped surface electrode (401) realizes the output of electrical stimulation and the input of electrical signals outside the high-resolution electrode (4). The textile base shell (402) encloses the PI insulated copper electrode (403) and the 1-3 piezoelectric material layer (404). The PI insulated copper electrode (403) is a copper electrode wrapped by a polyimide film. The upper and lower PI insulated copper electrodes (403) wrap the 1-3 piezoelectric material layer (404). The pressure signal is sensitively collected through vibration inside.

6. A neuromuscular stimulation control system within a device based on the multifunctional neuromuscular stimulation garment of claim 1, characterized in that, The device includes: a neuromuscular stimulator (1) containing a neuromuscular stimulator module (100) for outputting transcranial or muscle stimulation signals based on a received prescription number; a remote controller (2) containing a remote control module (200) for controlling the neuromuscular stimulator module to output a specified stimulation signal and displaying the currently controlled neuromuscular stimulator module channel, the output prescription number, and the stimulation signal intensity; a switch module (300) for controlling the opening and closing of the neuromuscular stimulator module and the remote control module respectively; and a high-resolution electrode (4) containing a high-resolution electrode module (400) for receiving muscle electrostimulation signals, heart rate signals, and brain EEG signals collected by the mushroom-shaped surface electrode (401) and the PI insulated copper electrode (403), outputting muscle electrostimulation and transcranial electrostimulation, and adjusting the electrode voltage stimulation resolution.

7. A neuromuscular stimulation control system according to claim 6, characterized in that, The neuromuscular stimulator module (100) includes: a host unit (1001) for extracting a stimulation prescription based on a received prescription number and outputting a stimulation signal; a slave unit (1002) for supplying power to the host unit; and a main-slave connection unit for connecting the host unit (1001) and the slave unit (1002) via a Type-C interface and a main-slave connection cable (14). The host unit (1001) includes: a stimulation control unit (10011) for outputting stimulation signals to the high-resolution electrode module; a FLASH storage unit (10012) for storing stimulation prescriptions; a current detection unit (10013) for calculating whether the peak voltage and root mean square value of the output stimulation signal exceed a set threshold, and if the threshold is exceeded, sending a signal to the stimulation control unit to stop outputting the stimulation signal; a three-color LED light unit (10014) for displaying the connection status between the neuromuscular stimulator module and the remote control module; and an alarm unit (10015) for... When the stimulation signal exceeds a threshold, the indicator light flashes cyclically as an alarm. The auxiliary unit (1002) includes: a power supply unit (10021) for supplying power to the main unit via a rechargeable lithium battery; a power management unit (10022) for converting the battery voltage of the power supply unit into the device operating voltage and outputting it to the main unit; a stimulation Bluetooth unit (10023) for establishing communication with the remote control module, receiving stimulation signals, and sending them to the stimulation control unit via the main-auxiliary connection unit; and two LED light units (10024) for displaying the charging status of the power supply unit.

8. A neuromuscular stimulation control system according to claim 6, characterized in that, The remote control module (200) includes: a control unit (2001) for outputting control signals; a channel selection unit (2002) for selecting the currently controlled neuromuscular stimulator module channel; an adjustment unit (2003) for adjusting the intensity of the output stimulation signal; a prescription selection unit (2004) for selecting the stimulation prescription to be output as needed and determining the output prescription number of the current neuromuscular stimulator module channel; five parallel monochrome light units (2005) for displaying the intensity of the currently output stimulation signal; a left tri-color LED light unit (2006) for displaying the currently controlled neuromuscular stimulator module channel; a right tri-color LED light unit (2007) for displaying the output prescription number of the current neuromuscular stimulator module channel; and a remote control Bluetooth unit for establishing communication with the stimulation Bluetooth unit and outputting stimulation.

9. A neuromuscular stimulation control method based on the neuromuscular stimulation control system of claim 6, characterized in that, include: Step S1: The neuromuscular stimulator (1) and the remote controller (2) are turned on by the stimulation switch (15) and the remote controller (2) respectively. The remote controller (2) establishes a connection with the neuromuscular stimulator (1) via Bluetooth. Step S2: The remote controller (2) outputs a specified stimulation signal to determine the currently controlled neuromuscular stimulator (1) channel, the prescription number output by the channel, and the intensity of the stimulation signal. Step S3: After determining the channel, the stimulation signal and the prescription number output by the channel are sent to the stimulation control unit. Step S4: The stimulation control unit extracts the stimulation prescription from the FLASH storage unit using the prescription number and outputs the stimulation signal. Step S5: The current detection unit determines whether the peak voltage and root mean square value of the output muscle stimulation signal exceed the set threshold. Step S6: If the threshold is exceeded, a signal is sent to the stimulation control unit to stop outputting the stimulation signal and to flash the indicator light in a loop as an alarm. If the threshold is not exceeded, the stimulation signal is output to the high-resolution electrode (4).

10. A neuromuscular stimulation control method according to claim 9, characterized in that, In step S2, the neuromuscular stimulator (1) has both transcranial stimulation and muscle stimulation functions. The channel of the neuromuscular stimulator (1) currently controlled is determined by the channel selection unit. That is, the prescription selection button (25) and the stimulation intensity increase button (26) work together to determine that the current control is the muscle stimulation function. The prescription selection button (25) and the stimulation intensity decrease button (27) work together to determine that the current control is the transcranial stimulation function. The left tri-color LED light (22) shows whether the currently controlled channel is transcranial stimulation or muscle stimulation. The prescription number of the neuromuscular stimulator (1) channel is determined by the prescription selection unit, that is, the prescription number of the neuromuscular stimulator (1) channel is determined by the prescription selection button (25), and the prescription number of the neuromuscular stimulator (1) channel is displayed by the right tri-color LED light (23); the intensity of the output stimulation signal is determined by the adjustment unit, that is, the intensity of the output stimulation signal is increased by the stimulation intensity increase button (26), the intensity of the output stimulation signal is decreased by the stimulation intensity decrease button (27), and the intensity of the current output stimulation signal is displayed by the five monochrome lights (24).

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