Portable light-oxygen combined moxibustion skin physiotherapy device

Abstract

A portable light and oxygen combined moxibustion skin physical therapy device comprises a flexible covering body, a controller, a covering layer, a transparent silica gel layer, a light reflecting face, an air hole set, an isolation protection column set, a red light LED lamp set, a negative ion release head set, a high-voltage generator assembly, a high-voltage output current-limiting resistor, a control circuit board and a skin grounding electrode. The negative ion release head group and the red light LED lamp group are respectively arranged on the covering layer and the transparent silica gel layer of the flexible covering body; the skin grounding electrode is arranged outside the controller; the isolation protection column group is arranged on the transparent silica gel layer; the skin grounding electrode makes contact with the skin of the human body, due to safe isolation of the isolation protection column set, under the action of an electric field, the negative ion release head set continuously and directionally releases high-concentration negative oxygen ions to the skin of the human body, the red light LED lamp set also emits dark red light under program control of the controller to irradiate the surface of the skin, and the dark red light is similar to pyretic moxibustion but better than pyretic moxibustion; and the effect of skin health care and physical therapy is achieved.

Description

Technical Field

[0001] This invention relates to the field of negative ion generator technology, and more particularly to a negative ion generator. Background Technology

[0002] Negative air (oxygen) ions (NAI) are a collective term for negatively charged individual oxygen molecules and air ion clusters. Forests and wetlands are important sources of negative air (oxygen) ions in natural ecosystems. They play a regulatory role in air purification and urban microclimates, and their concentration level is one of the indicators for evaluating urban air quality. Inhaling negative ions in daily life is beneficial to human health and has a good therapeutic effect on some skin problems. Negative ions can be absorbed by the human body through respiration, skin, and mucous membranes. However, existing negative ion inhalation devices generally use corona discharge to generate negative ions and then blow them into the air for absorption through respiration. However, the absorption of negative ions through the skin or mucous membranes is very poor; they cannot be absorbed through skin or mucous membranes. Some skin problems are difficult to treat and tend to recur, with some being particularly hard to cure completely, causing significant harm to a person's physical and mental health. While some large medical negative ion devices are effective in treating skin diseases, they are time-consuming and expensive for patients, making it inconvenient to persist with them. However, there is a significant shortage of more practical home-use treatment devices, and their effectiveness is not ideal. This truly fails to meet people's daily needs for the treatment and recovery of skin problems. Summary of the Invention

[0003] In order to overcome the shortcomings of the prior art, the present invention aims to provide a portable photo-oxygen combination moxibustion skin therapy device, which has the ability to absorb negative ions through a safe introduction method through the skin or mucous membrane, and to provide comprehensive skin conditioning treatment in combination with red light and ultraviolet light, so as to meet the daily use needs of users for skin problems.

[0004] The objective of this invention is achieved through the following technical solution: A portable photo-oxygen combined moxibustion skin therapy device includes a flexible cover, a controller, a covering layer, a transparent silicone layer, a reflective surface, a group of vents, a group of protective columns, a group of red LED lights, a group of negative ion release heads, a high-voltage generator assembly, a high-voltage output current-limiting resistor, a control circuit board, and a skin grounding electrode. The flexible cover is composed of the covering layer and the transparent silicone layer joined together, with the joint surface of the covering layer and the transparent silicone layer serving as the reflective surface. The group of vents consists of a number of evenly distributed vents on the flexible cover, which are through holes at both the top and bottom. The group of red LED lights is located within the transparent silicone layer, consisting of a number of evenly distributed red LED lights that are electrically connected to each other. The group of negative ion release heads... The negative ion releasing head assembly is embedded in the aforementioned shielding layer and extends through and protrudes from the aforementioned transparent silicone layer. It comprises a number of evenly distributed negative ion releasing heads, which are electrically connected to each other within the aforementioned shielding layer. The aforementioned isolation and protection column assembly is disposed on the aforementioned transparent silicone layer, and consists of a number of evenly distributed isolation and protection columns of a certain height. The aforementioned high-voltage output current-limiting resistor is disposed within and electrically connected to the aforementioned high-voltage generator assembly. The aforementioned high-voltage generator assembly and the aforementioned control circuit board are disposed within and electrically connected to the aforementioned controller. The aforementioned negative ion releasing head assembly is electrically connected to the aforementioned high-voltage generator assembly. The aforementioned red LED light assembly is electrically connected to the aforementioned control circuit board. The aforementioned skin grounding electrode is disposed outside the aforementioned controller and electrically connected to the aforementioned control circuit board. The ventilation hole group, isolation and protection column group, red LED light group, and negative ion release head group are arranged alternately on the flexible cover. The isolation and protection column group serves to support the flexible cover and safely separate the human skin from the negative ion release head group, ensuring that a certain safe distance is always maintained between the two. The skin grounding electrode has a zero potential relative to the high voltage potential of the negative ion release head group, and the high voltage output current limiting resistor is used to limit the discharge intensity when the negative ion release head group and the skin grounding electrode are short-circuited.

[0005] More preferably, it also includes an ultraviolet LED lamp assembly, which is disposed within the transparent silicone layer. The ultraviolet LED lamp assembly consists of a number of ultraviolet LED lamps evenly distributed within the transparent silicone layer and electrically connected to each other.

[0006] More preferably, it also includes a strap fixing device, which is disposed on the outer surface of the covering layer of the flexible cover, and the strap fixing device serves to fix the strap (not shown) and to fix the flexible cover to the human body.

[0007] More preferably, it also includes an infrared LED light group, which is disposed within the transparent silicone layer. The infrared LED light group consists of a number of infrared LEDs evenly distributed within the transparent silicone layer and electrically connected to each other. The infrared LED light group is electrically connected to the control circuit board.

[0008] Compared with the prior art, the beneficial effects of the present invention are as follows: This invention utilizes a skin-grounded electrode in contact with human skin. Under the influence of an electric field, the negative ion releasing head assembly (for safety, the absolute value of the high-voltage output voltage can be set below approximately 3000 volts, and the resistance of the high-voltage output current-limiting resistor is sufficiently small to ensure a safe output short-circuit current, minimizing irritation to the skin and mucous membranes to an imperceptible level; simultaneously, because the human body is at a relatively close ground potential relative to the negative ion releasing head assembly, it is difficult for a large amount of static electricity to accumulate on the negative ion releasing head assembly during normal use, thus posing no static electricity hazard to the skin) continuously and directionally releases high-concentration negative oxygen ions into the human skin, which are then efficiently absorbed by the skin. The extremely fine carbon fiber filaments of the negative ion emitting head also allow the negative ion stream to be more finely dispersed and shaped... The generated discharge current is also weaker and safer. The sufficient safety distance provided by the isolation and protective column group allows the moving electrons to fully contact more oxygen molecules to generate more negative oxygen ions, forming a high-oxygen-content negative ion stream sprayed onto the skin. This allows the skin to absorb several orders of magnitude more negative oxygen ions than usual, effectively improving skin microcirculation and enhancing the metabolic level of skin tissue cells, similar to moxibustion, thus providing effective health care. Simultaneously, under the standardized combination of red light and ultraviolet light irradiation, microcirculation is further enhanced, improving the metabolism of skin tissue cells and effectively killing fungi in the skin tissue, resulting in better treatment and recovery. The distributed ventilation holes increase oxygen supply and significantly reduce ozone production, effectively preventing ozone damage to the skin. This portable photo-oxygen combination moxibustion skin therapy device is soft, compact, portable, inexpensive, and conforms well to the skin, making it ideal for home use, especially for treating skin problems in private areas. Attached Figure Description

[0009] Figure 1 This is a front structural diagram of the first embodiment of the present invention.

[0010] Figure 2 This is a schematic diagram of the rear structure of the first embodiment of the present invention.

[0011] Figure 3 This is a side view of the first embodiment of the present invention.

[0012] In the diagram: 11. Flexible covering, 12. 1101. Controller; 1202. Conductive wristband (skin grounding electrode); 13. Silicone high-voltage wire; 14. Silicone LED light wire; 15. Silicone wire; 16. Silicone conductor; 17. Negative ion release head assembly; 18. Isolation and protection column assembly; 19. Red LED light assembly; 1003. Ultraviolet LED light assembly; 101. Ventilation hole assembly; 102. Covering layer; 113. Transparent silicone layer; 104. Reflective surface; 105. Strap fixing device; 116. High-voltage generator assembly; 127. High-voltage output current limiting resistor; 18. Control circuit board. Detailed Implementation

[0013] The present invention will now be further described with reference to the accompanying drawings and specific embodiments. It should be noted that, without conflict, the embodiments described below are merely some embodiments of the present invention, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without inventive effort are within the scope of protection of the present invention.

[0014] Please see Figure 1-3The present invention provides an embodiment of the technical solution comprising: a flexible cover 11, a controller 12, a covering layer 1106, a transparent silicone layer 1107, a reflective surface 1108, a strap fixing device 1109, a ventilation hole group 1105, an isolation and protective column group 1102, a red LED light group 1103, an ultraviolet LED light group 1104, a negative ion release head group 1101, a high-voltage generator assembly 1201, a high-voltage output current-limiting resistor 1202, a control circuit board 1203, a conductive wristband (skin grounding electrode) 13, a silicone high-voltage wire 14, a silicone LED light wire 15, and a silicone wire 16; the flexible cover The cover 11 is composed of a cover layer 1106 and a transparent silicone layer 1107 joined together, with the joint surface of the cover layer 1106 and the transparent silicone layer 1107 serving as the reflective surface 1108. A vent group 1105 consists of a number of vents evenly distributed on the flexible cover 11, and these vents are through-holes at both the top and bottom. A red LED light group 1103 is disposed within the transparent silicone layer 1107, and a red LED light group 1102 consists of a number of red LEDs evenly distributed within the transparent silicone layer 1107, and these LEDs are electrically connected to each other. An ultraviolet LED light group 1104 is disposed within the transparent silicone layer 1107, and the ultraviolet light... The LED lamp assembly 1104 consists of a number of ultraviolet LEDs evenly distributed within the transparent silicone layer 1107 and electrically connected to each other. The negative ion emission head assembly 1101 is embedded in the cover layer 1106 and extends beyond the transparent silicone layer 1107. The negative ion emission head assembly 1101 consists of a number of carbon fiber negative ion emission heads evenly distributed within the cover layer 1106 and electrically connected to each other. The isolation and protection column assembly 1102 is disposed on the transparent silicone layer 1107. The isolation and protection column assembly 1102 consists of a number of isolation and protection columns of a certain height evenly distributed on the transparent silicone layer 1107. The high-voltage output current-limiting resistor 1202 is disposed inside and electrically connected to the high-voltage generator assembly 1201. The high-voltage generator assembly 1201 and the control circuit board 1203 are disposed inside and electrically connected to the controller 12. The negative ion release head assembly 1101 is electrically connected to the high-voltage generator assembly 1201 through the silicone high-voltage wire 14. The red LED light assembly 1103 and the ultraviolet LED light assembly 1104 are electrically connected to the control circuit board 1203 through the silicone LED light wire 15. The conductive wristband (skin grounding electrode) 13 is disposed outside the controller 12 and is electrically connected to the control circuit board 1203 through the silicone wire 16. Among them, the ventilation hole group 1105, the isolation and protection column group 1102, the red LED light group 1103, and the negative ion release head group 1101 are arranged alternately on the flexible cover 11; the isolation and protection column group 1102 serves to support the flexible cover 11 and safely separate the human skin from the negative ion release head group 1101, so that a certain safe distance can always be maintained between the two; the conductive wristband (skin grounding electrode) 13 has a zero potential relative to the high voltage potential of the negative ion release head group 1101, and the high voltage output current limiting resistor 1202 is used to limit the discharge intensity when the negative ion release head group 1101 comes into contact with the conductive wristband (skin grounding electrode) 13 or the human skin.

[0015] The strap fixing device 1109 is disposed on the outer surface of the covering layer 1106 of the flexible cover 11. The strap fixing device 1109 serves to fix the strap (not shown) and to fix the flexible cover 11 to the human body.

[0016] The flexible cover 11 of this embodiment is applied to the skin of the human body requiring physiotherapy and secured with straps. A conductive bracelet (skin grounding electrode) 13 is worn, bringing the skin into contact with the skin grounding electrode. The power is turned on, the controller 12 is adjusted, and the control circuit board 1203 is activated. The high-voltage generator assembly 1201 begins operation, sending negative high voltage to the carbon fiber negative ion releasing head assembly 1101. (To ensure safety, the absolute value of the high-voltage output voltage can be set below approximately 3000 volts, and the resistance of the high-voltage output current-limiting resistor is sufficiently small to ensure a safe output short-circuit current, minimizing irritation to the skin and mucous membranes. Simultaneously, because the human body is at a relatively close ground potential relative to the negative ion releasing head, it is difficult for a large amount of static electricity to accumulate on the negative ion releasing head assembly during normal use, thus posing no static electricity hazard to the skin.) High-concentration negative oxygen ions are continuously and directionally released onto the human skin, where they are efficiently absorbed. The negative ions are composed of extremely fine carbon fiber filaments. The emitter head also allows for a finer dispersion of the negative ion stream and a weaker, safer discharge current. The sufficient safety distance provided by the isolation and protection column group 1102 allows the moving electrons to fully contact more oxygen molecules to generate more negative oxygen ions, forming a negative ion stream with a high oxygen content that is sprayed onto the skin. This allows the skin to absorb several orders of magnitude more negative oxygen ions than usual, effectively improving skin microcirculation and enhancing the metabolic level of skin tissue cells, similar to moxibustion, thus providing effective health benefits. Simultaneously, adjusting the controller 12 causes the control circuit board 1203 to emit red light and ultraviolet light according to medical standards to treat problem skin. This further enhances microcirculation, improves the metabolism of problem skin tissue cells, and effectively kills fungi in the problem skin tissue, resulting in better treatment and recovery. The evenly distributed ventilation hole group 1105 increases the oxygen supply and significantly reduces ozone production, effectively preventing ozone damage to the skin.

[0017] It is understandable that the negative ion emission head assembly can be composed of ultra-fine fiber materials such as carbon fiber, stainless steel fiber, and silver-plated fiber.

[0018] It is understood that the circuit control part of this invention can perform multi-segment timing control and operation display functions to achieve better application of the invention's purpose, and can even add output high voltage intensity control function. In order to achieve better skin therapy management, it can be wirelessly connected to mobile phones, health watches and other devices for more refined management of work procedures.

[0019] The above embodiments are merely preferred embodiments of the present invention and should not be construed as limiting the scope of protection of the present invention. Any non-substantial changes and substitutions made by those skilled in the art based on the present invention shall fall within the scope of protection claimed by the present invention.

Claims

1. A portable photo-oxygen combined moxibustion skin therapy device, characterized in that: The system includes a flexible cover, a controller, a shielding layer, a transparent silicone layer, a reflective surface, a vent assembly, an isolation and protective column assembly, a red LED light assembly, a negative ion emission head assembly, a high-voltage generator assembly, a high-voltage output current-limiting resistor, a control circuit board, and a skin grounding electrode. The flexible cover is composed of the shielding layer and the transparent silicone layer joined together, with the joint surface of the shielding layer and the transparent silicone layer serving as the reflective surface. The vent assembly consists of a number of evenly distributed vents on the flexible cover, which are through holes at both the top and bottom. The red LED light assembly is located within the transparent silicone layer, consisting of a number of evenly distributed red LEDs that are electrically connected to each other. The negative ion emission head assembly is embedded within the shielding layer. The negative ion releasing head assembly, which is evenly distributed and electrically connected to each other within the cover layer, is located on the transparent silicone layer and extends through it. The isolation and protection column assembly, consisting of a number of isolation and protection columns of a certain height evenly distributed on the transparent silicone layer, is also present. The high-voltage output current-limiting resistor is located within and electrically connected to the high-voltage generator assembly. The high-voltage generator assembly and the control circuit board are located within and electrically connected to the controller. The negative ion releasing head assembly is electrically connected to the high-voltage generator assembly, the red LED light assembly is electrically connected to the control circuit board, and the skin grounding electrode is located outside the controller and electrically connected to the control circuit board. The ventilation hole group, isolation and protection column group, red LED light group, and negative ion release head group are arranged alternately on the flexible cover. The isolation and protection column group serves to support the flexible cover and safely separate the human skin from the negative ion release head group, ensuring that a certain safe distance is always maintained between the two. The skin grounding electrode has a zero potential relative to the high voltage potential of the negative ion release head group, and the high voltage output current limiting resistor is used to limit the discharge intensity when the negative ion release head group and the skin grounding electrode are short-circuited.

2. The portable photo-oxygen combined moxibustion therapy device as described in claim 1, characterized in that: It also includes an ultraviolet LED lamp assembly, which is disposed within the transparent silicone layer. The ultraviolet LED lamp assembly consists of a number of ultraviolet LEDs evenly distributed within the transparent silicone layer and electrically connected to each other.

3. A portable photo-oxygen combined moxibustion skin therapy device as described in any one of claims 1 to 2, characterized in that: It also includes a strap fastening device, which is disposed on the outer surface of the cover layer of the flexible cover.

4. The portable photo-oxygen combined moxibustion skin therapy device as described in claim 3, characterized in that: It also includes an infrared LED light assembly, which is disposed within the transparent silicone layer. The infrared LED light assembly consists of a number of infrared LEDs evenly distributed within the transparent silicone layer and electrically connected to each other. The infrared LED light assembly is electrically connected to the control circuit board.

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