Multifunctional handle, combined type therapeutic apparatus system and operation method of combined type therapeutic apparatus system

Abstract

The invention provides a multifunctional handle, a composite therapeutic apparatus system and a method thereof, and the system is characterized in that the system comprises a plasma handle module which is connected with an output filter and a relay; the electric ion handle module is connected to the output filter and the relay; and the control main board is mainly responsible for controlling the combined therapeutic apparatus system. Electric power is output to the plasma handle module or the electric ion handle module through the control mainboard, gas and electricity in the handle react or generate a high-frequency electric field, and plasma or electric ions are generated. The plasma handle module or the electric ion handle module is matched with the control main board, so that the multifunctional handle has multiple selective purposes.

Description

Technical Field

[0001] The present invention generally relates to a multifunctional handle and a compound therapeutic device system, covering components of the compound therapeutic device system, a plasma handle and an ion handle and their elements and operating methods. Background Art

[0002] Plasma is an unbound macroscopic system composed of a large number of charged particles, including free electrons, free ions, and possibly neutral particles. It is the fourth state of matter after solid, liquid, and gas. Under high temperature or strong electromagnetic fields, gases will turn into plasma, which is an ionized gas with equal amounts of positive and negative charges. The plasma produced can be used in medical fields such as wound disinfection, sterilization, and wound healing.

[0003] A common way to generate plasma is through the glow discharge principle, which discharges at low pressure in a vacuum chamber. A gas of appropriate pressure is introduced. The gas is usually an inert gas because it is easier to be excited. Neutral gas atoms are ionized by electron impact. The glow discharge phenomenon can be maintained in the vacuum chamber, so that the vacuum chamber is filled with plasma.

[0004] At present, single-function medical instruments are limited to specific medical needs and are difficult to handle unexpected situations, resulting in reduced flexibility of the instruments. Therefore, it is necessary to design a composite therapeutic instrument system to solve the above problems. Summary of the invention

[0005] The purpose of the present invention is to provide a structure of a multifunctional handle and a composite therapeutic device system and an operation method thereof, which is characterized in that it is mainly based on a therapeutic device technology, uses a plasma handle module and an ion handle module, and is matched with the working parameter setting of the control mainboard to make it have multifunctional uses.

[0006] To achieve this object, the present invention adopts the following technical solutions:

[0007] A composite therapeutic instrument system is characterized in that it includes: a first power supply, outputting power; a main processor, connected to the first power supply and receiving its power supply, mainly responsible for controlling the execution of the mainboard and processing output and input circuit signals; a second power supply, outputting power; a gate driver, connected to the second power supply and receiving its power supply, and connected to and receiving the circuit signal of the main processor, and quickly responding to the input circuit signal and then outputting; a main filter, used to reduce the noise and interference of the input power; a power MOSFET, which is connected to the main filter and the gate driver and receives its circuit signal; a relay, which is connected to the power MOSFET, and when the input reaches a certain value, the controlled output circuit is turned on or off; a digital multiplexer, connected to the first power supply to obtain power, and connected to the main processor and the digital multiplexer inputs multiple analog or digital signals to the main processor; an input filter, connected to the digital multiplexer, and transmits a complete and low-noise signal to the digital multiplexer.

[0008] Preferably, the relay and the input filter in the control main board are connected to the plasma handle module and the ion handle module, and the relay inputs the circuit signal to the plasma handle module or the ion handle module, and then outputs the circuit signal to the input filter.

[0009] Preferably, the control main board further includes: a main power supply, which is respectively connected to the first power supply, the second power supply and the main filter, and serves as the power source of the first power supply, the second power supply and the main filter; a foot switch, which receives an input signal and is connected to the input filter, and assists in determining the switch use of the plasma handle module and the ion handle module; a screen, which is connected to the main processor and displays all instructions; and a solenoid valve, which is connected to the main processor and is responsible for the switch control of the gas pipeline.

[0010] Preferably, the plasma handle module further includes: an inert gas plasma handle module and an ozone plasma handle module; wherein the plasma handle module can be used for sterilization, promoting wound healing, alleviating inflammation, and the like.

[0011] Preferably, the inert gas plasma handle module further includes: a helium plasma handle module, a neon plasma handle module, an argon plasma handle module, a krypton plasma handle module and a xenon plasma handle module.

[0012] Preferably, the plasma handle module outputs a plasma frequency of 10-500KHZ and a temperature of 35-3000°C.

[0013] Preferably, the ion handle module further includes: a high-frequency handle module and a low-medium frequency handle module; wherein, the ion handle module can be used to treat soft tissues, remove small tumors, moles and polyps, etc.

[0014] Preferably, the input current of the ion handle module is 0-10A, the voltage is 220V, 50W, the output voltage is 0-5V, and the power is 0-15W; more preferably, the output voltage is 0-2.5V, and the power is 5W.

[0015] Preferably, the plasma handle module or the ion handle module has a groove for placing a glass tube, and the glass tube contains an inert gas or ozone; different plasmas can be distinguished according to the color of the flame generated by the properties of the gas for use in different scenarios to treat skin infections, pain, etc.

[0016] Preferably, the shape of the glass tube can be comb-shaped, U-shaped, V-shaped, etc., which can be suitable for treatment scenarios of different parts of the human body.

[0017] The advantage of the present invention is that by controlling the current, voltage and other parameter settings of the mainboard and switching between the plasma handle module or the ion handle module, the plasma or ion produced can be flexibly applied to various medical fields to achieve the expected therapeutic effect, making the present invention flexible and effective in a variety of medical conditions. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a block diagram of the control mainboard and modules of the composite therapeutic apparatus system of the present invention;

[0019] Figure 2 It is a structural schematic diagram of the cold plasma handle module of the present invention;

[0020] Figure 3 A block diagram of the air inlet passage of the cold plasma handle module of the present invention;

[0021] Figure 4 It is a structural schematic diagram of the ozone plasma handle module of the present invention;

[0022] Figure 5 It is a block diagram of the air inlet passage of the ozone plasma handle module of the present invention;

[0023] Figure 6 It is a structural schematic diagram of the inert gas plasma handle module of the present invention;

[0024] Figure 7 A block diagram of the air inlet channel of the inert gas plasma handle module of the present invention;

[0025] Figure 8 It is a structural schematic diagram of the ion handle module of the present invention;

[0026] Fig. 9 It is a schematic diagram of the operation method of the combined therapeutic apparatus system of the present invention. DETAILED DESCRIPTION

[0027] Embodiments of the present invention are described in detail below with reference to the accompanying drawings.

[0028] Please refer to Figure 1 It is a block diagram of the composition of the combined therapeutic device system and modules.

[0029] like Figure 1 As shown, the main power supply 10 supplies power to the first power supply 20, the second power supply 30 and the main filter 40. The first power supply 20 supplies power to the main processor 50 and the digital multiplexer 60. The main processor 50 is responsible for controlling the execution of the motherboard 200 and processing the output and input circuit signals. After the second power supply 30 supplies power to the gate driver 70, when the gate driver 70 generates current to the gate of the power MOSFET 80, the input capacitor between the gate and the source is charged, so that the power MOSFET 80 is turned on. The main filter 40 is connected to the main power supply 10 to reduce the noise and interference of the input current. When the power MOSFET 80 is turned on by the gate driver 70, the main filter 40 can transmit current through the power MOSFET 80 to the relay 90. After receiving the circuit signal, the relay 90 supplies power to the cold plasma handle module 100, the ozone plasma handle module 110, the inert gas plasma handle module 120 or the ion handle module 130.

[0030] Next, a signal is input from the cold plasma handle module 100, the ozone plasma handle module 110, the inert gas plasma handle module 120 or the ion handle module 130 to the input filter 140. The foot switch 150 receives the input signal and is connected to the input filter 140, and assists in determining the switch use of the handle module by the control mainboard 200. The input filter 140 transmits the signal to the digital multiplexer 60 after ensuring that the signal is not distorted. The digital multiplexer 60, after receiving power from the first power supply 20, can input multiple analog or digital signals from the input filter 140 to the main processor 50. The screen 160, connected to the main processor 50, displays all instructions. The solenoid valve 170, connected to the main processor 50, is responsible for controlling the gas pipelines of the cold plasma handle module 100, the ozone plasma handle module 110 and the inert gas plasma handle module 120.

[0031] After inputting a command such as “COLD” and receiving an input command to set working parameters, the circuit loop in the control mainboard 200 is started, and the start signal of the control mainboard 200 is input to the cold plasma handle module 100 .

[0032] Please refer to Figure 2 is a schematic diagram of the structure of the cold plasma handle module, and Figure 3 A block diagram of the air inlet channel of the cold plasma handle module.

[0033] After the input port 210 receives the input power, the high-voltage transformer 220 is connected to the input port 210 and converts the low voltage into a high voltage and outputs it to the working room 230. A circuit board 240 is arranged inside the working room 230 and is connected to the high-voltage transformer 220 by wires. The outer shell 250 is fixedly arranged and surrounds the outside of the working room 230, and the air inlet channel 260 is fixedly arranged on the outside of the outer shell 250. Helium is input into the inner part of the outer shell 250, and a needle-shaped electrode 270 is arranged inside the outer shell and is connected to the circuit board 240 by wires. The needle-shaped electrode 270 is the main place where helium plasma is generated. The plasma output port 280 is located at one end of the outer shell 250 to discharge the generated helium plasma.

[0034] The air inlet passage 260 may further include: a gas input end 290, which mainly inputs helium; a pressure regulator 300 adjusts the helium flowing in from the gas input end 290 to maintain its gas pressure in a stable state; the helium passes through a three-way valve 310 and flows into two valves 320 and 330 respectively to maintain the helium pressure within a certain value according to the working parameter settings; and flows into two flow controllers 340 and 350 for changing the helium flow setting and stabilizing the helium pressure; the helium flows from the three-way valve 360 ​​to the gas output end 370, and finally the helium flows from the gas output end 370 into the air inlet passage 260.

[0035] In response to this, when helium enters the outer shell 250 from the air inlet channel 260, the needle-shaped electrode 270 generates a strong electromagnetic field to apply high-voltage and high-frequency discharge to the helium, so that the helium molecules are ionized to form helium plasma, which contains a mixture of charged particles, excited atoms and free radicals, and the helium plasma is ejected from the plasma output port 280.

[0036] In the embodiment of the present invention, the cold plasma handle module 100 often uses helium as the raw material gas of helium plasma.

[0037] In an embodiment of the present invention, the helium plasma ejected from the plasma output port 280 of the cold plasma handle module 100 is used to promote wound healing and accelerate wound repair; relieve inflammation, inhibit inflammatory response in the body, reduce swelling, pain and other discomfort symptoms; resist microbial infection, and destroy the cell walls and nucleic acid molecules of microorganisms such as bacteria or viruses.

[0038] After inputting a command such as “AIR” and receiving an input command to set working parameters, the circuit loop in the control mainboard 200 is started, and the start signal of the control mainboard 200 is input to the ozone plasma handle module 110 .

[0039] Please refer to Figure 4 is a schematic diagram of the structure of the ozone plasma handle module, and Figure 5 The block diagram of the air inlet channel of the ozone plasma handle module.

[0040] After the input port 410 receives the input power, the high-voltage transformer 420 is connected to the input port 410 and converts the low voltage into a high voltage and outputs it to the working room 430. A circuit board 440 is arranged inside and is connected to the high-voltage transformer 420 by wires. The outer shell 450 is fixedly arranged and surrounds the outside of the working room 430, and the air inlet channel 460 is fixedly arranged on the outside of the outer shell 450 to input air into the inner part of the outer shell 450. A needle-shaped electrode 470 is arranged inside and is connected to the circuit board 440 by wires. The needle-shaped electrode 470 is the main ozone plasma generation point, and the plasma output port 480 is located at one end of the outer shell 450 and is responsible for discharging the generated ozone plasma.

[0041] The air intake passage 460 may further include: the gas input end 490 is an air compressor, which inhales air under atmospheric pressure and then compresses it, and then flows the compressed air into the three-way valve 500, and flows into the two valves 510 and 520 respectively according to the working parameter settings to maintain the air pressure within a certain value, and flows into the two flow controllers 530 and 540 for changing the air flow setting and stabilizing the air pressure, and the air then flows from the three-way valve 550 to the gas output end 560, and finally the air flows from the gas output end 560 into the air intake passage 460.

[0042] In response to this, when air enters the outer shell 450 from the air inlet channel 460, the needle-shaped electrode 470 generates a strong electromagnetic field that applies high-voltage and high-frequency discharge to the air, causing the oxygen molecules and nitrogen molecules to be ionized to form ozone plasma, which contains a mixture of charged particles, excited atoms and free radicals, and the ozone plasma is ejected from the plasma output port 480.

[0043] In the embodiment of the present invention, the ozone plasma handle module 110 often uses air as the raw material gas of the ozone plasma.

[0044] In an embodiment of the present invention, ozone plasma is ejected from the plasma output port 480 in the ozone plasma handle module 110 for sterilization and disinfection. It can destroy the cell walls and nucleic acid molecules of microorganisms such as bacteria and viruses; it can also decompose and oxidize pollutants in the air, thereby achieving the effect of removing odors; and it can promote blood circulation and has the effects of anti-inflammatory and promoting healing.

[0045] In the embodiment of the present invention, the plasma handle module uses ozone plasma as the output plasma, and can also use inert gas as the raw material gas, including helium plasma, neon plasma, argon plasma, krypton plasma, xenon plasma, etc. as the output plasma.

[0046] After inputting a command such as “DBD” and receiving an input command to set working parameters, the circuit loop in the control mainboard 200 is started, and the start signal of the control mainboard 200 is input to the inert gas plasma handle module 120 .

[0047] Please refer to Figure 6 is a schematic diagram of the structure of the inert gas plasma handle module, and Figure 7 A block diagram of the air inlet channel of the inert gas plasma handle module.

[0048] After the input port 610 receives the input power, the high-voltage transformer 620 is connected to the input port 610 and converts the low voltage into a high voltage and outputs it to the working room 630. A circuit board 640 is arranged inside and is connected to the high-voltage transformer 620 by wires. The outer shell 650 is fixedly arranged and surrounds the outside of the working room 630, and the air inlet channel 660 is fixedly arranged on the outside of the outer shell 650. Argon gas is input into the inner part of the outer shell 650, which will react with the working room 630 to generate argon plasma. The plasma output port 670 is located at one end of the outer shell 650 and is responsible for discharging the generated argon plasma.

[0049] The air inlet channel 660 may further include: a gas input end 680, which mainly inputs argon gas, a pressure regulator 690 adjusts the pressure of the argon gas flowing in from the gas input end 680 to maintain the pressure in a stable state, the argon gas passes through the three-way valve 700, and flows into two valves 710 and 720 respectively to maintain the argon gas pressure within a certain value according to the working parameter settings, and flows into two flow controllers 730 and 740 for changing the argon gas flow setting and stabilizing the argon gas pressure, and the argon gas then flows from the three-way valve 750 to the gas output end 760, and finally the argon gas flows from the gas output end 760 into the air inlet channel 660.

[0050] In response to this, when argon gas enters the outer shell 650 from the air inlet channel 660, and the working room 630 receives the current from the circuit board 640, a strong electromagnetic field is generated in the working room 630, and high-voltage and high-frequency discharge is applied to the argon gas, so that the argon molecules are ionized to form argon plasma, which contains a mixture of charged particles, excited atoms and free radicals, and the argon plasma is ejected from the plasma output port 670.

[0051] In the embodiment of the present invention, the inert gas plasma handle module 120 often uses argon as the raw material gas of the inert gas plasma.

[0052] In the embodiment of the present invention, the plasma output port 670 in the inert gas plasma handle module 120 ejects argon plasma at a temperature of 35-3000°C and a frequency of 10-500KHZ. It is used to repair muscle tissue and promote wound healing; it is also used for sterilization and disinfection, destroying the cell walls and nucleic acid molecules of bacteria, viruses and other microorganisms.

[0053] In an embodiment of the present invention, the inert gas plasma handle module 120 controls the parameters of frequency, temperature, power, airflow velocity and concentration, and outputs plasma with an output temperature of 30-45°C and a frequency of 10-50KHZ for disinfection, treatment of infection, and removal of cancerous cells, and plasma with a maximum temperature of 3000°C and a frequency of 300-500KHZ for removal of soft tissue, cancerous tissue, etc.

[0054] In addition, the structure and generation principle of the ion handle module are different from those of the plasma handle module. No raw material gas needs to be added. It generates heat through high-frequency voltage discharge and friction with objects to cause local heating.

[0055] After inputting a command such as "SPARK" and receiving an input command to set working parameters, the circuit loop in the control mainboard 200 is started, and the parameters of current 0-10A, voltage 220V, and power 50W are input to the ion handle module 130 through the start signal of the control mainboard 200.

[0056] Please refer to Figure 8 This is a schematic diagram of the structure of the ion handle module.

[0057] After the input port 800 receives the input power, the high-voltage transformer 810 is connected to the input port 800 and converts the low voltage into a high voltage and outputs it to the working room 820. A circuit board 830 is arranged inside the working room 820 and is connected to the high-voltage transformer 810 by wires. The needle-shaped electrode 840 is fixedly arranged at one end of the working room 820 and is connected to the circuit board 830 by wires. The needle-shaped electrode 840 generates a high-frequency electric field after receiving the power.

[0058] In response to this, when the high-frequency electric field generated by the needle-shaped electrode 840 comes into close contact with skin tissue, electronic friction is generated on the surface of the tissue, causing heat energy to be generated inside the tissue, thereby causing it to deform, coagulate, and vaporize.

[0059] In an embodiment of the present invention, the needle-shaped electrode 840 in the ion handle module 130 generates a high-frequency electric field with an output time of 1-3s, an output voltage of 0-5V, and a power of 0-15W; more preferably, the output voltage is 0-2.5V, and the power is 5W.

[0060] In an embodiment of the present invention, the ion handle module 130 can switch between different modes according to needs: in the low-gear mode, the low-medium frequency handle module outputs ions one by one; in the high-gear mode, the high-frequency handle module ions appear like a lightning bolt to the naked eye, and can act on the deep skin, relying on the accumulation of thermal damage to treat soft tissue and remove excess soft tissue. The treatment and repair of damage can be adjusted by gear switching and the number of uses.

[0061] In an embodiment of the present invention, the ion handle module 130 can be applied to different surgical and treatment scenarios according to different frequencies: when the frequency is below 100KHZ, especially the frequency of 10-50KHZ, it produces a vibration effect on the body like an electrode; when the frequency is 100-200KHZ, it is used for skin disinfection, skin pain relief, etc.; when the frequency is above 200KHZ, especially the frequency of 2000-5000KHZ, it is used to remove small tumors, moles, warts, polyps and spots, and to stop bleeding and coagulate small blood vessels to coagulate the tiny blood vessels to prevent blood vessel bleeding, and to cut the skin or subcutaneous tissue.

[0062] In addition, the ion handle module and the plasma handle module are constructed with grooves for placing glass tubes. When in use, the glass tube is inserted into the handle groove and tightened to treat infection and pain on the surface of skin tissue, etc. The shape of the glass tube can be comb-shaped, U-shaped, V-shaped, etc. according to the different parts of the human body. The color of the inert gas plasma flame is different. When in use, it can present different colors according to the gas plasma in the glass tube to distinguish the application scenarios.

[0063] Please refer to Fig. 9 It is a schematic diagram of the operation method of the combined therapeutic device system.

[0064] S10 is for setting parameters, accepting input commands to set working parameters of a control mainboard 200, and the input commands accepted in S10 include "COLD", "AIR", "DBD" or "SPARK"; S20 is for running the control mainboard 200, which identifies the required raw materials and sets working parameters after accepting the input commands; S30 is for detecting whether raw materials are added or not, detecting whether a raw material gas is added, wherein the raw material gas is helium, air or inert gas, and not adding any raw material gas.

[0065] S40 is a process without adding raw materials. Based on the input instructions received by the control mainboard 200, an ion handle module is operated, wherein the ion handle module is the ion handle module 130; S45 is a process of generating an ion. Based on the ion handle module, an ion is generated to achieve different effects. The ion handle module 130 generates a high-frequency electric field. The high-frequency electric field is in close contact with the skin tissue and is used to remove small tumors, moles or polyps, etc.

[0066] S50 is to add raw materials, and based on the input instructions received by the control mainboard 200 and the input of the gas raw materials, operate a plasma handle module, wherein the plasma handle module includes: a cold plasma handle module 100, an ozone plasma handle module 110 and an inert gas plasma handle module 120, wherein the raw materials are respectively helium for the cold plasma handle module 100, air for the ozone plasma handle module 110, and argon for the inert gas plasma handle module 120; S55 is to generate a plasma, and based on the plasma handle module, a plasma is generated to achieve different effects, wherein the cold plasma handle module 100 generates helium plasma, which is used to reduce inflammation, repair wounds and sterilize, etc., the ozone plasma handle module 110 generates ozone plasma, which is used to sterilize, remove odors and promote blood circulation, and the inert gas plasma handle module 120 generates argon plasma, which is used to repair wounds and sterilize, etc.

[0067] The above-described embodiments are only preferred embodiments for fully illustrating the present invention, and the protection scope of the present invention is not limited thereto. Equivalent substitutions or changes made by those skilled in the art based on the present invention are within the protection scope of the present invention. The protection scope of the present invention shall be subject to the claims.

Claims

1. A plasma handle, comprising an ozone plasma handle module and an inert gas plasma handle module, characterized in that: The plasma handle further comprises: an input port; a high voltage transformer connected to the input port; A working chamber is fixedly arranged at one end of the high-voltage transformer, and the working chamber includes a circuit board arranged inside the working chamber, and a housing fixedly arranged and surrounding the outside of the working chamber; as well as An air inlet passage is fixedly arranged on the outer side of the shell, inputting a raw material gas into the interior of the shell, and comprises a gas input end; a three-way valve connected to the gas input end; and two valves respectively connected to the three-way valve; Two flow controllers are respectively connected to the two valves; a three-way valve is connected to the two flow controllers; a gas output end is connected to the three-way valve; and a plasma outlet is located at one end of the shell.

2. The plasma handle as claimed in claim 1, wherein the ozone plasma handle module and the inert gas plasma handle module further comprise: a needle-shaped electrode fixedly disposed at one end of the working chamber.

3. The plasma handle as claimed in claim 1, wherein the inert gas plasma handle module comprises: a helium plasma handle module, a neon plasma handle module, an argon plasma handle module, a krypton plasma handle module and a xenon plasma handle module.

4. The plasma handle as claimed in claim 1, wherein the gas input end of the ozone plasma handle module is an air compressor.

5. The plasma handle as claimed in claim 1, wherein the raw material gas input into the gas inlet passage comprises helium, air or argon.

6. The plasma handle of claim 1, wherein the gas inlet comprises a pressure regulator connected between the gas input end and the three-way valve.

7. An ion handle, comprising a high-frequency handle module and a low-medium frequency handle module, characterized in that: The ion handle further comprises: an input port; a high voltage transformer connected to the input port; A working chamber is fixedly arranged at one end of the high-voltage transformer, and the working chamber includes a circuit board arranged inside the working chamber; and a needle-shaped electrode is fixedly arranged at one end of the working chamber.

8. A combined therapeutic device system comprising the handle as claimed in claims 1 to 7, characterized in that: Included are: a first power supply; a main processor connected to the first power supply; a second power supply; a gate driver connected to and receiving circuit signals from the second power supply and the main processor; a main filter; a power MOSFET connected to and receiving circuit signals of the main filter and the gate driver; a relay connected to the power MOSFET; a digital multiplexer connected to the main processor and the first power supply; An input filter is connected to the digital multiplexer.

9. The combined therapeutic apparatus system as claimed in claim 8, further comprising: a main power source, connected to the first power supply, the second power supply and the main filter respectively; a foot switch connected to the input filter; a screen connected to the main processor; A solenoid valve is connected to the main processor.

10. A method for operating a composite therapeutic apparatus system, characterized in that: Included are: Setting parameters, receiving input commands to set working parameters of a control mainboard; The operation control mainboard, after receiving the input command, identifies the required raw material gas and sets the working parameters; Detect whether raw materials are added, detect whether a raw material gas is added; No raw materials are added, and an ion handle module is operated based on the input command received by the control mainboard; Generate an ion, based on the ion handle module, generate an ion to achieve different effects; When raw materials are added, a plasma handle module is operated based on the input command received by the control mainboard and the input gas raw materials; Generate plasma. Based on the plasma handle module, generate plasma to achieve different effects.

Images