Charged particle receiving feedback control device

Abstract

A charged particle receiving feedback control device comprises a main control circuit, and the main control circuit is electrically connected with a charged particle emission controller which is used for controlling a charged particle emitter to emit charged particles under the instruction of a main control chip so as to control the emission amount of the charged particles; the charged particle discharge detection assembly is used for detecting the number of charged particles passing through a human body; and the power supply assembly is used for providing stable electric energy for the main control chip.

Description

Technical field:

[0001] The invention relates to a charged particle receiving feedback control device. Background technology:

[0002] In a wide range of health and medical applications, charged particle technology is considered a safe and effective treatment method that can affect the human body by generating negative ions, making charged particle technology more widely used in areas such as mood disorders, sleep problems, chronic diseases and health care.

[0003] Charged particles refer to particles with electrical properties. Since these particles are charged, they will be affected by electric and magnetic fields. Based on the characteristics of charged particles, they can be used in the field of health care to treat users' insomnia and regulate their emotions.

[0004] Generally speaking, charged particles are emitted into space and received by the human body to have a therapeutic effect. However, existing medical equipment often only emits charged particles to provide therapy to users. There is a lack of corresponding detection and feedback links for the specific usage conditions of the charged particles, and it is impossible to control the number of charged particles passing through the human body and the number of charged particles discharged, thus making it impossible to perform closed-loop control of the charged particles, affecting the overall therapeutic effect of the medical equipment, and preventing it from being widely used in application scenarios such as schools, offices, and medical treatments. Summary of the invention:

[0005] The embodiment of the present invention provides a charged particle receiving feedback control device with a reasonable structural design. Based on the integrated control function of the main control circuit, it cooperates with various types of electrical components, sets corresponding detection feedback links, monitors the discharge quantity of charged particles in real time, and then accurately controls the emission of charged particles and the discharge quantity of charged particles, realizes closed-loop control of charged particles, improves the overall therapeutic effect of medical equipment, and can be popularized and applied in application scenarios such as schools, office buildings, and hospitals, thus solving the problems existing in the prior art.

[0006] The technical solution adopted by the present invention to solve the above technical problems is:

[0007] A charged particle receiving feedback control device includes a main control circuit, and the main control circuit is electrically connected with:

[0008] A charged particle emission controller, which is used to control the charged particle emitter to emit charged particles under the instruction of the main control chip, so as to control the emission amount of the charged particles;

[0009] A charged particle discharge detection component, the charged particle discharge detection component is used to detect the number of charged particles passing through the human body;

[0010] A power supply component is used to provide stable electric energy to the main control chip.

[0011] The main control circuit includes a main control chip, which is provided with multiple pins. The main control chip is connected to the charged particle emission controller through pins 25 and 26, the main control chip is connected to the charged particle discharge detection component through pins 27 and 28, and the main control chip is connected to the power supply component through pin 24.

[0012] The power supply assembly includes a voltage stabilizing chip, on which three pins are arranged, connected to the twenty-fourth pin of the main control chip through the second pin and the twelfth resistor, and the twenty-fourth pin of the main control chip is grounded through the first capacitor;

[0013] Pin No. 2 of the voltage stabilizing chip is grounded through a sixth resistor, and pin No. 3 of the voltage stabilizing chip is grounded through a seventh capacitor; pin No. 3 of the voltage stabilizing chip is a power input pin, and pin No. 2 of the voltage stabilizing chip is a power output pin.

[0014] The charged particle discharge detection component includes a high-precision AD acquisition chip, which is provided with sixteen pins, and a second triode is provided between pin No. 1, pin No. 2 and pin No. 3 of the high-precision AD acquisition chip, the pin No. 1 of the high-precision AD acquisition chip is connected to the emitter of the second triode, the pin No. 2 of the high-precision AD acquisition chip is connected to the base of the second triode, and the pin No. 3 of the high-precision AD acquisition chip is connected to the collector of the second triode;

[0015] A 31st resistor, a 32nd resistor and a 20th capacitor connected in parallel are arranged between the 3rd pin and the 4th pin of the high-precision AD acquisition chip; the 6th pin of the high-precision AD acquisition chip is grounded through the 19th capacitor; the high-precision AD acquisition chip is connected to the 27th pin and the 28th pin of the main control chip through the 11th pin and the 12th pin; the 14th pin and the 15th pin of the high-precision AD acquisition chip are short-connected and grounded; the 1st pin and the 16th pin of the high-precision AD acquisition chip are short-connected and connected to the power supply;

[0016] A thirty-fifth resistor and a MOS tube are connected to pin No. 7 and pin No. 8 of the high-precision AD acquisition chip, the gate of the MOS tube is connected to pin No. 7 of the high-precision AD acquisition chip, the gate of the MOS tube is grounded through the thirty-fifth resistor, and the drain of the MOS tube is connected to a power supply; a thirty-third resistor and a thirty-fourth resistor connected in parallel are arranged between the source and the gate of the MOS tube, and a conductive pad is connected to the source of the MOS tube through a two-pin interface.

[0017] A four-pin interface is provided between the main control chip and the charged particle emission controller, so that when the main control chip receives the digital signal transmitted by the high-precision AD acquisition chip, the main control chip calculates the corresponding charge amount and forms a control instruction to send to the charged particle emission controller to control the emission amount of the charged particles.

[0018] The conductive pad is connected to the source of the MOS tube, and the gate of the MOS tube is grounded through a resistor. The conductivity of the MOS tube is determined by the charge amount of the gate and the source of the MOS tube, and the current of the thirty-fifth resistor is collected to form a voltage difference at both ends of the thirty-fifth resistor, which is differentially amplified and converted into a digital signal through a high-precision AD acquisition chip.

[0019] The charged particle emission controller controls the charged particle emitter to emit charged particles into space, and detects the specific number of charged particles through the conductive pad that is in contact with human skin and connected to the charged particle discharge detection component. At the same time, the main control chip controls the discharge of charged particles to control the number of charged particles passing through the human body, and sends control information to the charged particle emission controller to control the number of charged particles emitted by the charged particle emitter, thereby realizing closed-loop control of charged particles.

[0020] The present invention adopts the above structure, integrates and controls different types of electrical components through the main control circuit, controls the charged particle emitter to emit charged particles under the instruction of the main control chip through the charged particle emission controller, so as to control the emission amount of the charged particles; uses the charged particle discharge detection component to detect the specific number of charged particles passing through the human body, and provides stable electric energy to the main control chip through the power supply component, thereby ensuring the automatic and accurate operation of the closed-loop control, which has the advantages of safety, practicality, accuracy and efficiency. Description of the drawings:

[0021] Figure 1 It is a structural schematic diagram of the present invention.

[0022] Figure 2 The electrical schematic diagram of the power supply assembly of the present invention.

[0023] Figure 3 The electrical schematic diagram of the charged particle discharge detection assembly of the present invention.

[0024] Figure 4 It is the electrical principle diagram of the main control circuit of the present invention.

[0025] Figure 5 It is a schematic diagram of the connection between the main control chip and the charged particle emission controller of the present invention. Specific implementation method:

[0026] In order to clearly illustrate the technical features of the present solution, the present invention is described in detail below through specific implementation methods and in conjunction with the accompanying drawings.

[0027] like Figure 1-5 As shown in , a charged particle receiving feedback control device includes a main control circuit, and the main control circuit is electrically connected with:

[0028] A charged particle emission controller, which is used to control the charged particle emitter to emit charged particles under the instruction of the main control chip, so as to control the emission amount of the charged particles;

[0029] A charged particle discharge detection component, the charged particle discharge detection component is used to detect the number of charged particles passing through the human body;

[0030] A power supply component is used to provide stable electric energy to the main control chip.

[0031] The main control circuit includes a main control chip, which is provided with multiple pins. The main control chip is connected to the charged particle emission controller through pins 25 and 26, the main control chip is connected to the charged particle discharge detection component through pins 27 and 28, and the main control chip is connected to the power supply component through pin 24.

[0032] The power supply assembly includes a voltage stabilizing chip, on which three pins are arranged, connected to the twenty-fourth pin of the main control chip through the second pin and the twelfth resistor, and the twenty-fourth pin of the main control chip is grounded through the first capacitor;

[0033] Pin No. 2 of the voltage stabilizing chip is grounded through a sixth resistor, and pin No. 3 of the voltage stabilizing chip is grounded through a seventh capacitor; pin No. 3 of the voltage stabilizing chip is a power input pin, and pin No. 2 of the voltage stabilizing chip is a power output pin.

[0034] The charged particle discharge detection component includes a high-precision AD acquisition chip, which is provided with sixteen pins, and a second triode is provided between pin No. 1, pin No. 2 and pin No. 3 of the high-precision AD acquisition chip, the pin No. 1 of the high-precision AD acquisition chip is connected to the emitter of the second triode, the pin No. 2 of the high-precision AD acquisition chip is connected to the base of the second triode, and the pin No. 3 of the high-precision AD acquisition chip is connected to the collector of the second triode;

[0035] A 31st resistor, a 32nd resistor and a 20th capacitor connected in parallel are arranged between the 3rd pin and the 4th pin of the high-precision AD acquisition chip; the 6th pin of the high-precision AD acquisition chip is grounded through the 19th capacitor; the high-precision AD acquisition chip is connected to the 27th pin and the 28th pin of the main control chip through the 11th pin and the 12th pin; the 14th pin and the 15th pin of the high-precision AD acquisition chip are short-connected and grounded; the 1st pin and the 16th pin of the high-precision AD acquisition chip are short-connected and connected to the power supply;

[0036] A thirty-fifth resistor and a MOS tube are connected to pin No. 7 and pin No. 8 of the high-precision AD acquisition chip, the gate of the MOS tube is connected to pin No. 7 of the high-precision AD acquisition chip, the gate of the MOS tube is grounded through the thirty-fifth resistor, and the drain of the MOS tube is connected to a power supply; a thirty-third resistor and a thirty-fourth resistor connected in parallel are arranged between the source and the gate of the MOS tube, and a conductive pad is connected to the source of the MOS tube through a two-pin interface.

[0037] A four-pin interface is provided between the main control chip and the charged particle emission controller, so that when the main control chip receives the digital signal transmitted by the high-precision AD acquisition chip, the main control chip calculates the corresponding charge amount and forms a control instruction to send to the charged particle emission controller to control the emission amount of the charged particles.

[0038] The conductive pad is connected to the source of the MOS tube, and the gate of the MOS tube is grounded through a resistor. The conductivity of the MOS tube is determined by the charge amount of the gate and the source of the MOS tube, and the current of the thirty-fifth resistor is collected to form a voltage difference at both ends of the thirty-fifth resistor, which is differentially amplified and converted into a digital signal through a high-precision AD acquisition chip.

[0039] The charged particle emission controller controls the charged particle emitter to emit charged particles into space, and detects the specific number of charged particles through the conductive pad that is in contact with human skin and connected to the charged particle discharge detection component. At the same time, the main control chip controls the discharge of charged particles to control the number of charged particles passing through the human body, and sends control information to the charged particle emission controller to control the number of charged particles emitted by the charged particle emitter, thereby realizing closed-loop control of charged particles.

[0040] The working principle of a charged particle receiving feedback control device in an embodiment of the present invention is: based on the integrated control function of the main control circuit, in conjunction with multiple types of electrical components, corresponding detection feedback links are set to monitor the discharge quantity of charged particles in real time, thereby accurately controlling the emission of charged particles and the discharge quantity of charged particles, realizing closed-loop control of charged particles, and improving the overall therapeutic effect of medical equipment, so that it can be popularized in application scenarios such as schools, office buildings, and hospitals.

[0041] Since existing medical equipment only emits charged particles to provide physical therapy to users, it lacks a detection feedback link and cannot control and adjust the number of charged particles, and thus cannot meet different application requirements. At the same time, the existing open-loop control method is more accurate to use, avoiding the waste of charged particle resources while meeting the actual application requirements.

[0042] The overall solution mainly includes the main control circuit, and the electrical connections on the main control circuit are:

[0043] A charged particle emission controller, which is used to control the charged particle emitter to emit charged particles under the instruction of the main control chip to control the emission amount of the charged particles; a charged particle discharge detection component, which is used to detect the number of charged particles passing through the human body; and a power supply component, which is used to provide stable electric energy to the main control chip.

[0044] Specifically, the main control circuit includes a main control chip, which is provided with multiple pins. The main control chip is connected to the charged particle emission controller through pins 25 and 26, the main control chip is connected to the charged particle discharge detection component through pins 27 and 28, and the main control chip is connected to the power supply component through pin 24, thereby forming an overall hardware circuit, and under the action of the overall hardware circuit, closed-loop detection and control of charged particles is realized.

[0045] The power supply component mainly includes a voltage stabilizing chip, on which three pins are provided, which are connected to the twenty-fourth pin of the main control chip through the second pin and the twelfth resistor, and the twenty-fourth pin of the main control chip is grounded through the first capacitor;

[0046] Pin No. 2 of the voltage stabilizing chip is grounded via a sixth resistor, and pin No. 3 of the voltage stabilizing chip is grounded via a seventh capacitor; pin No. 3 of the voltage stabilizing chip is a power input pin, and pin No. 2 of the voltage stabilizing chip is a power output pin, thereby providing stable power supply for the main control chip and ensuring long-term stable operation of the overall control device.

[0047] The core innovation of the present application lies in the charged particle discharge detection component, which mainly includes a high-precision AD acquisition chip, on which sixteen pins are arranged, and a second triode is arranged between pin No. 1, pin No. 2 and pin No. 3 of the high-precision AD acquisition chip, wherein pin No. 1 of the high-precision AD acquisition chip is connected to the emitter of the second triode, pin No. 2 of the high-precision AD acquisition chip is connected to the base of the second triode, and pin No. 3 of the high-precision AD acquisition chip is connected to the collector of the second triode;

[0048] A 31st resistor, a 32nd resistor and a 20th capacitor connected in parallel are arranged between the 3rd pin and the 4th pin of the high-precision AD acquisition chip; the 6th pin of the high-precision AD acquisition chip is grounded through the 19th capacitor; the high-precision AD acquisition chip is connected to the 27th pin and the 28th pin of the main control chip through the 11th pin and the 12th pin; the 14th pin and the 15th pin of the high-precision AD acquisition chip are short-connected and grounded; the 1st pin and the 16th pin of the high-precision AD acquisition chip are short-connected and connected to the power supply;

[0049] A thirty-fifth resistor and a MOS tube are connected to pin No. 7 and pin No. 8 of the high-precision AD acquisition chip, the gate of the MOS tube is connected to pin No. 7 of the high-precision AD acquisition chip, the gate of the MOS tube is grounded through the thirty-fifth resistor, and the drain of the MOS tube is connected to a power supply; a thirty-third resistor and a thirty-fourth resistor connected in parallel are arranged between the source and the gate of the MOS tube, and a conductive pad is connected to the source of the MOS tube through a two-pin interface.

[0050] The electrical characteristics of the MOS tube are used to determine the conductivity of the MOS tube, and then the current passing through the sampling resistor, i.e. the thirty-fifth resistor, is detected, thereby forming a voltage difference across the sampling point group. The voltage difference is differentially amplified by a high-precision AD acquisition chip and converted into a digital signal, providing a data basis for feedback control of charged particles.

[0051] Furthermore, a four-pin interface is provided between the main control chip and the charged particle emission controller, so that when the main control chip receives the digital signal transmitted by the high-precision AD acquisition chip, the main control chip obtains the corresponding charge amount through calculation and forms a control instruction to be sent to the charged particle emission controller to control the emission amount of the charged particles.

[0052] Compared with the conductive pad of the present application, it is generally connected to the source of the MOS tube, the gate of the MOS tube is grounded through a resistor, the conductivity of the MOS tube is determined by the charge amount of the gate and source of the MOS tube, and the current of the thirty-fifth resistor is collected.

[0053] The control logic of the present application is as follows: first, a charged particle emission controller controls the charged particle emitter to emit charged particles into space, and detects the specific number of charged particles via a conductive pad that is in contact with human skin and connected to a charged particle discharge detection component. At the same time, the main control chip controls the discharge of charged particles to control the number of charged particles passing through the human body, and sends control information to the charged particle emission controller to control the number of charged particles emitted by the charged particle emitter, thereby realizing closed-loop control of the charged particles.

[0054] Furthermore, by using a charged particle controller with a control function, the emission of charged particles can be controlled through digital signal communication; for example, the normal amount of charged particles is 1 million / cm3, which flows into the feedback controller after passing through the body and the conductive pad. The controller detects the current and time of electrons flowing through the sampling resistor through the detection circuit to calculate the current amount of charged particles; at the same time, the current value can be obtained through sampling and amplification calculation, and the charge amount is calculated based on the current value. When the charge amount is greater than 1 million, a reduction instruction is sent to the charged particle controller, and when the charge amount is less than 1 million, an increase instruction is sent to the charged particle controller.

[0055] It should be noted that a display screen and indicator light can also be connected to the main control chip to display the specific number of charged particles, and when the charged particles exceed the upper and lower limit thresholds, a light warning signal is emitted to prompt the staff to make corrections and adjustments.

[0056] To sum up, a charged particle receiving feedback control device in an embodiment of the present invention is based on the integrated control function of the main control circuit, cooperates with multiple types of electrical components, sets corresponding detection feedback links, monitors the discharge quantity of charged particles in real time, and then accurately controls the emission of charged particles and the discharge quantity of charged particles, realizes closed-loop control of charged particles, and improves the overall therapeutic effect of medical equipment, so that it can be popularized in application scenarios such as schools, office buildings, and hospitals.

[0057] The above specific implementation manner cannot be used as a limitation on the protection scope of the present invention. For those skilled in the art, any substitution, improvement or change made to the implementation manner of the present invention falls within the protection scope of the present invention.

[0058] The matters not described in detail in the present invention are all known technologies to those skilled in the art.

Claims

1. A charged particle receiving feedback control device, characterized in that: Including a main control circuit, the electrical connections on the main control circuit are: A charged particle emission controller, which is used to control the charged particle emitter to emit charged particles under the instruction of the main control chip, so as to control the emission amount of the charged particles; A charged particle discharge detection component, the charged particle discharge detection component is used to detect the number of charged particles passing through the human body; A power supply component is used to provide stable electric energy to the main control chip.

2. A charged particle receiving feedback control device according to claim 1, characterized in that: The main control circuit includes a main control chip, which is provided with multiple pins. The main control chip is connected to the charged particle emission controller through pins 25 and 26, the main control chip is connected to the charged particle discharge detection component through pins 27 and 28, and the main control chip is connected to the power supply component through pin 24.

3. A charged particle receiving feedback control device according to claim 2, characterized in that: The power supply assembly includes a voltage stabilizing chip, on which three pins are arranged, connected to the twenty-fourth pin of the main control chip through the second pin and the twelfth resistor, and the twenty-fourth pin of the main control chip is grounded through the first capacitor; Pin No. 2 of the voltage stabilizing chip is grounded through a sixth resistor, and pin No. 3 of the voltage stabilizing chip is grounded through a seventh capacitor; pin No. 3 of the voltage stabilizing chip is a power input pin, and pin No. 2 of the voltage stabilizing chip is a power output pin.

4. A charged particle receiving feedback control device according to claim 2, characterized in that: The charged particle discharge detection component includes a high-precision AD acquisition chip, which is provided with sixteen pins, and a second triode is provided between pin No. 1, pin No. 2 and pin No. 3 of the high-precision AD acquisition chip, the pin No. 1 of the high-precision AD acquisition chip is connected to the emitter of the second triode, the pin No. 2 of the high-precision AD acquisition chip is connected to the base of the second triode, and the pin No. 3 of the high-precision AD acquisition chip is connected to the collector of the second triode; A 31st resistor, a 32nd resistor and a 20th capacitor connected in parallel are arranged between the 3rd pin and the 4th pin of the high-precision AD acquisition chip; the 6th pin of the high-precision AD acquisition chip is grounded through the 19th capacitor; the high-precision AD acquisition chip is connected to the 27th pin and the 28th pin of the main control chip through the 11th pin and the 12th pin; the 14th pin and the 15th pin of the high-precision AD acquisition chip are short-connected and grounded; the 1st pin and the 16th pin of the high-precision AD acquisition chip are short-connected and connected to the power supply; A thirty-fifth resistor and a MOS tube are connected to pin No. 7 and pin No. 8 of the high-precision AD acquisition chip, the gate of the MOS tube is connected to pin No. 7 of the high-precision AD acquisition chip, the gate of the MOS tube is grounded through the thirty-fifth resistor, and the drain of the MOS tube is connected to a power supply; a thirty-third resistor and a thirty-fourth resistor connected in parallel are arranged between the source and the gate of the MOS tube, and a conductive pad is connected to the source of the MOS tube through a two-pin interface.

5. A charged particle receiving feedback control device according to claim 4, characterized in that: A four-pin interface is provided between the main control chip and the charged particle emission controller, so that when the main control chip receives the digital signal transmitted by the high-precision AD acquisition chip, the main control chip calculates the corresponding charge amount and forms a control instruction to send to the charged particle emission controller to control the emission amount of the charged particles.

6. A charged particle receiving feedback control device according to claim 4, characterized in that: The conductive pad is connected to the source of the MOS tube, and the gate of the MOS tube is grounded through a resistor. The conductivity of the MOS tube is determined by the charge amount of the gate and the source of the MOS tube, and the current of the thirty-fifth resistor is collected to form a voltage difference at both ends of the thirty-fifth resistor, which is differentially amplified and converted into a digital signal through a high-precision AD acquisition chip.

7. A charged particle receiving feedback control device according to claim 4, characterized in that: The charged particle emission controller controls the charged particle emitter to emit charged particles into space, and detects the specific number of charged particles through the conductive pad that is in contact with human skin and connected to the charged particle discharge detection component. At the same time, the main control chip controls the discharge of charged particles to control the number of charged particles passing through the human body, and sends control information to the charged particle emission controller to control the number of charged particles emitted by the charged particle emitter, thereby realizing closed-loop control of charged particles.

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