Full-frequency multi-power cell membrane potential intelligent adjusting instrument

Abstract

The application discloses a full-frequency multi-power cell membrane potential intelligent adjusting instrument, which comprises a space electric field generator, an electric field power adjusting circuit and an electric field emitting source. The space electric field generator comprises a primary coil and a secondary coil. The primary coil is connected to a power module. One end of the secondary coil is connected to an input end of the electric field power adjusting circuit. The other end of the secondary coil is connected to a back-charge grounding capacitor circuit. An output end of the electric field power adjusting circuit is connected to the electric field emitting source. The space electric field generator and the electric field power adjusting circuit can output electric fields with different powers. The electric field emitting source is used for forming an electric field to adjust cell membrane potential in a specific space.

Description

TECHNICAL FIELD

[0001] The present application relates to the biomedical engineering technical field, and particularly to a full-frequency multi-power cell membrane potential intelligent adjusting instrument. BACKGROUND

[0002] The cell membrane potential is a key indicator of cell activity, and the cell membrane potential includes a resting potential and an action potential. The resting potential is a potential difference existing on both sides of the membrane in a quiet state of the tissue cell, and the action potential is a potential change occurring on the basis of the resting potential when the cell is stimulated. In a quiet state, the positive charge is located on the outside of the membrane, and the negative charge is located on the inside of the membrane, and this state is called polarization. If the potential difference between the inside and outside of the membrane increases, that is, the value of the resting potential changes in the direction of increasing the negative value of the inside of the membrane, it is called hyperpolarization. Conversely, if the potential difference between the inside and outside of the membrane decreases, that is, the potential of the inside of the membrane changes in the direction of decreasing the negative value, it is called depolarization or depolarization.

[0003] The cell membrane potential potential intensity of a young human body is obviously different from that of an old human body. The younger the person is, the higher the cell membrane potential is, and the older the person is, the lower the cell membrane potential is. How to adjust the cell membrane potential to keep the cell membrane potential of the human body in a young state has attracted widespread attention. SUMMARY

[0004] In order to overcome the above-mentioned shortcomings of the prior art, the purpose of the present application is to provide a full-frequency multi-power cell membrane potential intelligent adjusting instrument, which can realize the adjustment of the cell membrane potential of the human body.

[0005] The technical scheme adopted by the present application to solve its technical problems is: a full-frequency multi-power cell membrane potential intelligent adjusting instrument, comprising a spatial electric field generator, an electric field power adjusting circuit and an electric field emission source, the spatial electric field generator comprises a primary coil and a secondary coil, the primary coil is connected to a power module, one end of the secondary coil is connected to an input end of the electric field power adjusting circuit, the other end of the secondary coil is connected to a back-charge grounding capacitor circuit, and an output end of the electric field power adjusting circuit is connected to the electric field emission source.

[0006] The output voltage of the spatial electric field generator is 1000V-3000V.

[0007] As a further improvement of the present application: the electric field power adjusting circuit is provided with a variable resistance module, the variable resistance module is connected to a control module, and the resistance value range of the variable resistance module is 0-50MΩ.

[0008] As a further improvement of the present application: the power module is connected to the spatial electric field generator, and the working voltage of the power module is 3-220V.

[0009] As a further improvement of the present application: the back-charge grounding capacitor circuit is provided with at least one capacitor, and one end of the back-charge grounding capacitor circuit is grounded.

[0010] As a further improvement of the present application: a sign detector is further included, the sign detector is connected with the control module, the sign detector is used for detecting heartbeat data and temperature data, and the control module adjusts the output voltage value of the space electric field generator and the resistance value of the variable resistance module according to the heartbeat data and the temperature data.

[0011] As a further improvement of the present application: an electric field frequency adjusting circuit is further included, an input end of the electric field frequency adjusting circuit is connected with the power module, and an output end of the electric field frequency adjusting circuit is connected with an input end of the space electric field generator.

[0012] As a further improvement of the present application: the electric field emission source is an emission pad, and the emission pad is uniformly provided with electric field wires.

[0013] As a further improvement of the present application: the temperature and / or heartbeat is positively correlated with the resistance value of the variable resistance module.

[0014] As a further improvement of the present application: the output frequency of the electric field frequency adjusting circuit is 5-500 Hz.

[0015] Compared with the prior art, the present application has the following beneficial effects:

[0016] In the space electric field generator, a booster circuit is designed to boost the input voltage and output, and the output power of the space electric field generator is adjusted through an electric field power adjusting circuit, so that the electric field emission source connected with the output end of the electric field power adjusting circuit forms an electric field with the output power, and the adjustment of the cell membrane potential is realized. BRIEF DESCRIPTION OF DRAWINGS

[0017] Figure 1 It is a principle schematic diagram of a full-frequency multi-power cell membrane potential intelligent adjustment instrument according to an embodiment of the present application.

[0018] Figure 2 It is a structure schematic diagram of a full-frequency multi-power cell membrane potential intelligent adjustment instrument according to an embodiment of the present application.

[0019] Figure 3 It is a logic schematic diagram of a full-frequency multi-power cell membrane potential intelligent adjustment instrument according to an embodiment of the present application.

[0020] Figure 4 It is a logic schematic diagram of a full-frequency multi-power cell membrane potential intelligent adjustment instrument according to an embodiment of the present application.

[0021] Figure 5 It is a structure schematic diagram of an emission pad according to an embodiment of the present application.

[0022] Figure 6 Figure 1 is a schematic diagram of the spatial electric field frequency output of the myocardial cell membrane potential regulation of the embodiment of the present application.

[0023] Reference signs:

[0024] 1, power module, 2, electric field frequency regulation circuit, 3, primary coil, 4, secondary coil, 5, electric field power regulation circuit, 6, backfill grounding capacitor circuit. DETAILED DESCRIPTION

[0025] In order to make the purpose, technical scheme and advantages of the present application clearer, the technical scheme of the present application will be described clearly and completely below in combination with specific embodiments of the present application and corresponding drawings. Obviously, the described embodiments are only some of the embodiments of the present application, not all. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the present application.

[0026] In order to solve the technical problems in the prior art, the present application will be further described in combination with the drawings and embodiments:

[0027] As shown in Figures 1 to 6 The embodiment of the present application discloses a full-frequency multi-power cell membrane potential intelligent regulation instrument, which comprises a spatial electric field generator, an electric field power regulation circuit 5 and an electric field emission source, a primary coil 3 and a secondary coil 4 of the spatial electric field generator, the primary coil 3 is connected to a power module 1, one end of the secondary coil 4 is connected to an input end of the electric field power regulation circuit 5, the other end of the secondary coil 4 is connected to a backfill grounding capacitor circuit 6, the primary coil 3 is connected to the power module 1, and an output end of the electric field power regulation circuit 5 is connected to the electric field emission source.

[0028] The primary coil 3 and the secondary coil 4 constitute a boost circuit, the output end of the boost circuit is connected to the input end of the electric field power regulation circuit 5, the boost circuit of the spatial electric field generator boosts the input voltage and outputs, and the electric field power regulation circuit 5 processes to adjust the electric field power output by the spatial electric field generator, so as to adjust the intensity of the output electric field, so that the electric field emission source stably releases static electricity, forms an electric field around the electric field emission source, and acts on the human body to realize the regulation of the cell membrane potential.

[0029] The primary coil 3 and the secondary coil 4 are boosted according to the needs, for example, the primary coil 3 is 220V, and the secondary coil 4 is increased by ten times to be boosted to 2200V.

[0030] Preferably, the ratio of the primary coil 3 to the secondary coil 4 is 1:2-1:10.

[0031] The back-charge grounding capacitor circuit 6 is provided with at least one capacitor, one end of the back-charge grounding capacitor circuit 6 is connected with the secondary coil 4, and the other end of the back-charge grounding capacitor circuit 6 is grounded. The primary coil 3 and the secondary coil 4 of the space electric field generator generate currents, and the current of the secondary coil 4 of the space electric field generator is grounded through the back-charge grounding capacitor circuit 6.

[0032] The output voltage of the space electric field generator is adjustable, and the cell membrane potential needs to be adjusted to a preset potential, and there are set output voltage values and electric field powers. In this regard, the electric field power adjustment circuit 5 is also used to adjust the output electric field power of the space electric field generator to the set value, and finally the electric field emission source outputs the electric field corresponding to the set power value and voltage value in a specific space range.

[0033] It should be understood that the activity of charged particles will be different in different power intensity electric field environments. The activity of charged particles is stronger in a higher electric field environment, and the low potential electric field is enhanced in a high potential electric field environment. In this regard, for the case that the cell membrane potential is low, a high potential electric field is applied to the human body in an external environment, the electric field penetrates the human body to stimulate the cell membrane potential, and the cell membrane potential is adjusted to be high.

[0034] As shown in Figure 4 The electric field emission source can be an emission pad, and the user lies on the emission pad. The adjustment instrument is started, the space electric field generator and the electric field power adjustment circuit 5 are controlled to work, and the appropriate electric field intensity is output through the emission pad to realize the adjustment of the cell membrane potential.

[0035] The emission pad is provided with electric field wires, the electric field wires are uniformly arranged on the emission pad, the resistance per meter of the electric field wires is 0-1Ω, the electric field wires form a loop, and the electric field wires are processed through the space electric field emitter and the electric field power adjustment circuit 5 to form a large range of electric field on the emission pad. The space range of the electric field effect can be expanded by increasing the area of the emission pad and the arrangement range of the electric field wires.

[0036] Preferably, the electric field wires are distributed on the emission pad at an interval of 1-10 cm, the two ends of the electric field wires are butt-jointed to form a loop, and the loop is insulated and sealed to the output end of the electric field power adjustment circuit 5.

[0037] Generally, the space electric field generator and the electric field power adjustment circuit 5 are integrated into a whole device, the output end of the device is connected with the loop formed by the electric field wires, and the control module is integrated on the single-chip mainboard.

[0038] More preferably, the electric field wires are arranged in the middle layer of the emission pad, and the middle layer is a cloth layer. The cloth layer is arranged with 0.1-ohm copper-nickel wires per meter, and the cloth layer is arranged with equal-width wires per square meter. The upper and lower layers of the emission pad are far-infrared cloth layers.

[0039] AsFigures 1 to 3 As shown, power module 1 is connected to the input terminal of the space electric field generator, providing a stable power supply for the entire system. Power module 1 provides an input voltage to the space electric field generator, which boosts the output voltage. In conjunction with the electric field power adjustment circuit 5, the power of the space electric field generator is adjusted, thereby regulating the power and intensity of the electric field output by the electric field emission source, and realizing the regulation of different cell membrane potentials.

[0040] Preferably, the input voltage range of the space electric field generator is 3V to 220V. The maximum output is adjusted to 400V to 3000V via the boost circuit of the space electric field generator.

[0041] Preferably, the input voltage of the space electric field generator is 220V, and the output voltage is 1000V to 3000V. More preferably, the input voltage of the space electric field generator is 220V, and the output voltage is 2000V.

[0042] In this embodiment, the input voltage of the space electric field generator is 220V. The parameters of the power supply module 1 can be selected as: 220V / 1A / 50HZ. The operating voltage of the power supply module 1 is AC 220V, the operating frequency is 50Hz, and the current is 1A. Therefore, the output voltage of the space electric field generator is AC voltage, and its output terminal is connected to the electric field power adjustment circuit 5 to output electric fields of different intensities, thereby adjusting the cell membrane potential.

[0043] Specifically, the boost circuit has two input ports connected to the live wire and neutral wire of the power module 1. In other words, the live wire and neutral wire of the power module 1 are connected to the primary coil 3 of the boost circuit to boost the 3-220V voltage input to the power module 1 to 1000V-3000V. The secondary coil 4 of the boost circuit has an output terminal connected to the variable resistor module of the electric field power adjustment circuit 5. The secondary coil 4 of the boost circuit has another output terminal connected to the recharge grounding capacitor circuit 6.

[0044] like Figure 2 As shown, the electric field power adjustment circuit 5 is equipped with a variable resistor module, which is connected to the control module. The resistance value of the variable resistor module can be adjusted to regulate the electric field power output by the space electric field generator. Figure 3 The variable boost circuit shown integrates the boost circuit and the electric field power adjustment circuit 5 into one unit.

[0045] The output voltage value of the spatial electric field generator is different from the resistance value of the variable resistance module, so as to realize the adjustment of different cell membrane potentials. When it is determined that the cell membrane potential needs to be adjusted to a set value, the corresponding output voltage value and resistance value are determined. After the spatial electric field generator is connected to the input voltage, the control boost circuit is controlled to boost the output voltage to the set value, and the variable resistance module is adjusted to output the set resistance value, so as to adjust the power value of the output electric field. Finally, the electric field emitting source outputs the electric field with the specific voltage and power.

[0046] The embodiment also includes a vital sign detector. The electric field power adjustment circuit 5 is connected to the vital sign detector, and the vital sign detector is connected to the control module. The vital sign detector is used to detect the vital sign information of the user, including the body temperature data and heartbeat data of the user. The control module adjusts the output voltage value of the spatial electric field generator and the resistance value of the variable resistance module according to the body temperature data and heartbeat data of the user, so that the electric field emitting source generates an electric field to adjust the cell membrane potential.

[0047] The vital sign detector feeds back the body temperature and heartbeat of the user, so as to determine the size of the required electric field power, intelligently adjust the output voltage of the spatial electric field generator, and adjust the resistance value of the variable resistance module to adjust the power of the spatial electric field generator. The electric field emitting source forms a specific electric field to act on the human body to adjust the cell membrane potential.

[0048] Preferably, the vital sign detector is a vital sign detection bracelet. The user wears the bracelet, and the bracelet detects the heartbeat and body temperature data and sends them to the control module. The control module intelligently determines the resistance value and adjusts the resistance of the variable resistance module, so as to match the voltage value of the electric field between 400V and 3000V.

[0049] Generally, the body temperature and / or heartbeat and the resistance value of the variable resistance module are positively correlated. After the control module receives the heartbeat and body temperature data sent by the vital sign detector, the resistance value of the variable resistance module is adjusted according to the positive correlation.

[0050] The basic adjustment strategy of the spatial electric field generator and the electric field power adjustment circuit 5 includes: when the heartbeat and temperature are higher than the normal range, the resistance of the variable resistance module is adjusted to be high, and the power is reduced; when the heartbeat and temperature are in the normal range, the resistance of the variable resistance module is moderate; when the heartbeat and temperature are lower than the normal range, the resistance of the variable resistance module is adjusted to be low, and the power is increased.

[0051] The following table is an example of the specific adjustment strategy of the output voltage intensity and the resistance value of the variable resistance module when adjusting the cell membrane potential.

[0052]

[0053] The embodiment also comprises an electric field frequency adjusting circuit, an input end of which is connected with the power module 1, and an output end of which is connected with an input end of the spatial electric field generator. The electric field frequency adjusting circuit is arranged between the power module 1 and the spatial electric field generator, and adjusts the frequency of the input voltage to a set frequency, and then inputs the voltage to the input end of the spatial electric field generator.

[0054] Specifically, the electric field frequency adjusting circuit, the spatial electric field generator / boosting circuit and the electric field power adjusting circuit 5 / variable resistance module are integrally arranged in the spatial electric field generating device.

[0055] The electric field frequency adjusting circuit is provided with two input ports connected with the live wire and the zero wire of the power module 1, and two output ports of the electric field frequency adjusting circuit are connected with two input ports of the primary coil 3 of the boosting circuit. In other words, the live wire and the zero wire of the power module 1 are connected with the boosting coil of the boosting circuit after frequency conversion, so that the voltage input by the power module 1 is boosted to 1000V-3000V.

[0056] The single input port of the boosting circuit and the ground wire are further provided with a back-charge grounding capacitor circuit 6. The back-charge grounding capacitor circuit 6 comprises N serially connected capacitors, and N is a natural number greater than or equal to 1.

[0057] Preferably, the back-charge grounding capacitor circuit 6 is provided with a first capacitor and a second capacitor, the first capacitor and the second capacitor are serially connected to form a first capacitor group, one end of the first capacitor group is connected with the other end of the secondary coil 4, and the other end of the first capacitor group is grounded.

[0058] More preferably, the back-charge grounding capacitor circuit 6 is provided with a first capacitor, a second capacitor, a third capacitor and a fourth capacitor, the first capacitor and the second capacitor are serially connected to form a first capacitor group, the third capacitor and the fourth capacitor are serially connected to form a second capacitor group, the first capacitor group and the second capacitor group are connected in parallel, one end of the first capacitor group is connected with the other end of the secondary coil 4, and the other end of the first capacitor group is grounded.

[0059] Preferably, the vital sign detector is further connected with the electric field frequency adjusting circuit. The connection between the vital sign detector and the electric field frequency adjusting circuit can provide the user with the current electric field frequency data.

[0060] The output frequency of the electric field frequency adjusting circuit is 5-500Hz. The electric field frequency adjusting circuit is a prior art, which converts the voltage of the power module 1 and inputs the voltage to the primary coil 3 of the spatial electric field generator.

[0061] According to the research records of cell membrane potential in Cell Biology, the action potential cycle of cell membrane at different stages mainly concentrates in the range of 2-150 ms. According to the frequency conversion of cell membrane potential action cycle, it will be helpful for cell membrane potential to play an auxiliary synergistic effect at different action stages. In this embodiment, the frequency of the input voltage can be adjusted by the electric field frequency adjustment circuit, so that the spatial electric field generator accesses the periodically changing input voltage, and the output voltage periodically changes after the voltage boosting processing. The resistance value is adjusted through the variable resistance module of the electric field power adjustment circuit 5, so as to adjust the electric field power, and the electric field with the corresponding power of the frequency and resistance value is formed in a specific spatial range by the electric field emission source. The frequency of the input voltage / output voltage of the spatial electric field generator can be set according to the action potential cycle of different cell membranes, so as to improve the accuracy and effectiveness of cell membrane potential regulation.

[0062] According to the basic cycle of cell membrane potential 2-150 ms, the minimum and maximum range values of the electric field fluctuation frequency are set as 5-500 Hz / s, which is limited within a certain range of cell membrane potential stimulation. The length of each stage is taken as a reference, which is the main frequency for intervention of cell membrane potential.

[0063] For example, the total time of 0-4 phases of myocardial cells is about 350 ms. Among them, the depolarization period of 0 phase is 1-2 ms, and 2 ms is taken; the initial repolarization period of 1 phase is 10-20 ms, and 20 ms is taken; the plateau period of 2 phase is 100-150 ms, and 150 ms is taken; the rapid repolarization period of 3 phase is 100-150 ms, and 150 ms is taken; and the resting period of 4 phase is 20-40 ms, and 30 ms is taken. Thus, the voltage frequency and maintenance time of each phase of myocardial cell membrane potential change can be obtained as follows:

[0064] 0 phase: 1000 ms / 2 ms=500 Hz / s, maintained for 2 ms;

[0065] 1 phase: 1000 ms / 20 ms=50 Hz / s, maintained for 20 ms;

[0066] 2 phase: 1000 ms / 150 ms=6.7 Hz / s, take 7 Hz, maintain 150 ms;

[0067] 3 phase: 1000 ms / 150 ms=6.7 Hz / s, take 7 Hz, maintain 150 ms;

[0068] 4 phase: 1000 ms / 30 ms=33.3 Hz, take 33 Hz / s, maintain 30 ms;

[0069] 1000 ms / 352 ms=2.84 times, if the cell membrane potential of myocardial cells is regulated, the spatial electric field frequency output is shown as follows. Figure 4 ​

[0070] Similarly, according to the action cycle of the cell membrane potential of different human cells, different cell membrane potential adjustment frequencies are designed to achieve precise stimulation of different human cell membrane potentials. According to the action cycle of the cell membrane potential of different cells, the frequency interference is performed in sequence for each complete cycle to achieve whole-cell whole-frequency stimulation of the human body.

[0071] The embodiment also includes an operation display module that provides operation buttons and display functions, and the operation display module is integrated on the spatial electric field generating device.

[0072] The present application is mainly based on biological sign detection and potential regulation technology. In the working process, the real-time data of human body signs are first obtained by the sign detection instrument, and then transmitted to the control module for data processing and analysis. The control module calculates the adjustment amount according to the preset parameters and real-time data, and controls the adjustment module to regulate the potential. In the adjustment process, the sign detection module continuously monitors the changes of the cell membrane potential, and feeds back the data to the control module in real time to realize closed-loop feedback regulation.

[0073] The main functions of the present application are:

[0074] 1. The present application designs a spatial electric field generator and an electric field power regulation circuit to output electric fields with different powers, and uses the electric field emission source to form an electric field in a specific space to regulate the cell membrane potential. According to the required electric field power of different cell membranes, the spatial electric field generator and the electric field power regulation circuit are adjusted to achieve the required power electric field.

[0075] 2. The present application also monitors the heart rate and body temperature data of the user through the sign detection instrument, and the control module receives the heart rate and body temperature data to intelligently match the electric field power, and controls the spatial electric field generator and the electric field power regulation circuit to output the electric field with the power to regulate the cell membrane potential.

[0076] 3. The present application also designs an electric field frequency regulation circuit, which sets the corresponding cell membrane potential regulation frequency for different cell membrane potential periods to achieve precise stimulation of different cell membrane potentials.

[0077] In summary, after reading the present application document, those skilled in the art can make other various corresponding transformation schemes according to the technical solutions and technical concepts of the present application without creative mental labor, which all belong to the scope protected by the present application.

Claims

1. A full-frequency multi-power cell membrane potential intelligent adjusting instrument, characterized in that, The electric field generator comprises a primary coil and a secondary coil, the primary coil is connected to a power module, one end of the secondary coil is connected to an input end of an electric field power adjusting circuit, the other end of the secondary coil is connected to a back-charge grounding capacitor circuit, an output end of the electric field power adjusting circuit is connected to an electric field emitting source, the electric field power adjusting circuit is provided with a variable resistance module, the variable resistance module is connected to a control module, the back-charge grounding capacitor circuit is provided with at least one capacitor, one end of the back-charge grounding capacitor circuit is grounded, The output voltage of the electric field generator is 1000V-3000V, the resistance range of the variable resistance module is 0-50MΩ, the output voltage of the electric field generator and the resistance of the variable resistance module are adjusted so that the electric field emitting source outputs an electric field with a specific voltage and power, the body temperature and heartbeat are positively correlated with the resistance of the variable resistance module.

2. The full-frequency multi-power cell membrane potential intelligent adjusting instrument according to claim 1, characterized in that, The power module is connected to the electric field generator, and the working voltage of the power module is 3-220V.

3. The all-frequency multi-power cell membrane potential intelligent adjusting instrument according to claim 1 or 2, characterized in that, The control module is connected to a sign detector, the sign detector is used to detect heartbeat data and body temperature data, and the control module adjusts the output voltage of the electric field generator and the resistance of the variable resistance module according to the heartbeat data and the body temperature data.

4. The full-frequency multi-power cell membrane potential intelligent adjusting instrument according to claim 3, characterized in that, The electric field frequency adjusting circuit is further included, an input end of the electric field frequency adjusting circuit is connected to the power module, and an output end of the electric field frequency adjusting circuit is connected to an input end of the electric field generator.

5. The all-frequency multi-power cell membrane potential intelligent adjusting instrument according to claim 1 or 4, characterized in that, The electric field emitting source is an emitting pad, and the emitting pad is uniformly provided with electric field wires.

6. The full-frequency multi-power cell membrane potential intelligent adjusting instrument according to claim 4, characterized in that, The output frequency of the electric field frequency adjusting circuit is 5-500Hz.

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