A nasal inflammation auxiliary treatment instrument using a biological cold light source and a use method thereof

Abstract

The application relates to the technical field of radiotherapy, in particular to a rhinitis auxiliary treatment instrument applying a biological cold light source and a use method, which comprises a three-dimensional eyecup constructed by a built-in memory sponge, further comprises a mounting bottom shell fixed to one side of the three-dimensional eyecup through the adsorption of a magnet, and the three-dimensional eyecup is internally provided with a light source capable of converting electric current into 635nm-655nm red light; the mounting bottom shell is internally provided with a power distribution assembly for delivering electric current to the light source; a lampshade is sleeved on the light-emitting end of the light source and contacts the user's alae nasi, a scattering angle structure is arranged at the central axis of the lampshade for the red light of the light source to diverge; an auxiliary sleeve shell is sleeved on the outer surface of the light source, and the auxiliary sleeve shell is internally provided with a heat dissipation assembly for driving gas flow to ventilate the user's alae nasi; one side of the lampshade is fixedly connected with a transparent conductive layer, the surface of the transparent conductive layer is provided with a grid for adsorbing dust, and the lampshade is internally provided with a pulse assembly for forming a strong electric field of the transparent conductive layer.

Description

Technical Field

[0001] This invention relates to the field of radiotherapy technology, specifically to an auxiliary treatment device for rhinitis using a biological cold light source and its usage method. Background Technology

[0002] Rhinitis is a common inflammatory disease of the nasal mucosa, with a global incidence rate of 10% to 40%. Typical symptoms include nasal congestion, runny nose, sneezing, and nasal itching. In severe cases, it can cause headaches, sleep disturbances, and decreased sense of smell, significantly reducing patients' quality of life. Traditional treatments mainly involve drug therapy (such as corticosteroids and antihistamines) and surgery, but these have limitations such as drug dependence, local irritation, and surgical risks. Therefore, developing safe, non-invasive, and long-lasting adjuvant therapies has become an important direction for clinical research. Photobiological modulation refers to the biological effects of low-intensity light of specific wavelengths absorbed by mitochondria, promoting cellular energy metabolism, regulating inflammatory responses, and accelerating tissue repair. Studies have shown that red light with a wavelength of 600-700nm can penetrate about 5-10mm into the skin and mucous membranes. After its photon energy is absorbed by cytochrome C oxidase (CCO), it can activate the mitochondrial respiratory chain, increase the synthesis of adenosine triphosphate (ATP), and inhibit the nuclear factor κB (NF-κB) pathway, downregulating the expression of pro-inflammatory factors (such as IL-6 and TNF-α), thereby exerting anti-inflammatory, analgesic and tissue repair-promoting effects.

[0003] For example, patent document CN211188817U discloses a rhinitis auxiliary treatment device. This device includes a housing with an eyeglass frame-like structure. The housing includes a mounting shell and foldable legs connected to both ends of the mounting shell. A PCB board and a battery are installed inside the mounting shell. A power switch and a charging port are provided on the mounting shell. Two laser treatment heads that can be inserted into the nostrils are installed on the lower inner side of the mounting shell. The battery, charging port, power switch, and laser treatment heads are all electrically connected to the PCB board. This rhinitis auxiliary treatment device can assist in the treatment of rhinitis. It is worn similarly to eyeglasses, eliminating the need to hold the laser treatment heads, making it convenient to wear. Furthermore, it is small, compact, and easy to carry.

[0004] While existing wearable rhinitis red light therapy devices achieve handless operation through a glasses-like structure, their semiconductor lasers experience significant heat accumulation during continuous operation due to insufficient photoelectric conversion efficiency. Furthermore, the passive heat dissipation design fails to effectively dissipate heat, leading to localized burning discomfort when the light source module is in direct contact with the nasal skin for extended periods. The rigid fixing structure further exacerbates the combined damage effect of thermal stimulation and mechanical pressure, ultimately causing a sharp decline in user comfort and posing a risk of skin damage over long-term use. Therefore, this application proposes a rhinitis adjunctive therapy device utilizing a biological cold light source and its usage method. Summary of the Invention

[0005] The purpose of this invention is to provide a rhinitis adjunctive treatment device and its usage method that utilizes a biological cold light source, in order to solve the problems mentioned in the background art.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a rhinitis auxiliary treatment device using a bio-cold light source, comprising a three-dimensional eye mask made of built-in memory foam, and further comprising:

[0007] The mounting base is fixed to one side of the 3D eye mask by magnetic attraction, and the 3D eye mask is equipped with a light source that can convert current into 635nm-655nm red light. The mounting base is equipped with a power distribution component that supplies current to the light source.

[0008] The lampshade is fitted over the light-emitting end of the light source and contacts the user's nose. A scattering angle structure is provided at its central axis to diffuse the red light of the light source. An auxiliary shell is fitted over the outer surface of the light source, and a heat dissipation component is provided inside the auxiliary shell to drive gas flow and ventilate the user's nose. A transparent conductive layer is fixedly connected to one side of the lampshade, and the surface of the transparent conductive layer is provided with a mesh for adsorbing dust. A pulse component is provided inside the lampshade to form a strong electric field in the transparent conductive layer.

[0009] Preferably, the heat dissipation component includes multiple air chambers opened inside the auxiliary housing, the lampshade has multiple perforations for gas discharge inside, and the perforations are in communication with the gas in the air chambers, a micro motor is fixedly connected inside the air chambers, and the output end of the micro motor is fixedly connected to a fan blade for driving gas flow.

[0010] Preferably, one end of the air chamber is slidably connected to a connecting slide rod, one end of the connecting slide rod is fixedly connected to the lamp cover, and the other end of the connecting slide rod is fixedly connected to a plug that fits the inside of the air chamber. The lamp cover has an air supply chamber that penetrates the connecting slide rod and the plug. One end of the air supply chamber is connected to an air supply pipe, and one end of the air supply pipe extends into the perforation and is fixedly connected to an outlet narrow pipe.

[0011] Preferably, a gas-blocking plate is provided on one side of the plug, and a plurality of movable rods that are slidably connected to the plug are fixedly connected to one side of the gas-blocking plate. One end of the plurality of movable rods is connected to a limit ring, and a spring sleeve is provided on the outer surface of the plurality of movable rods for their own reset.

[0012] Preferably, the lampshade has multiple negative pressure holes inside for gas to pass through.

[0013] Preferably, the pulse component includes a voltage doubler rectifier module fixedly connected inside the lamp cover, and one side of the voltage doubler rectifier module is connected to a plurality of connecting wires that are connected to the transparent conductive layer.

[0014] Preferably, a magnetic accumulator is fixedly connected to one end of the light source, and a piezoelectric ceramic assembly is connected to one side of the voltage multiplier rectifier module through conductive silver paste, and a magnetic plate that repels the magnetic accumulator is attached to the surface of the piezoelectric ceramic assembly.

[0015] Preferably, the power distribution assembly includes a connecting spring pin fixedly connected inside the mounting base, one side of which is connected to a light source via a wire, and a main housing is detachably connected to one side of the mounting base. The main housing contains a circuit board adapted to the connecting spring pin, and multiple rechargeable and discharging batteries that can provide current to the circuit board are fixedly connected inside the main housing. A switch button for controlling the operation of the circuit board is also fixedly connected inside the main housing.

[0016] Preferably, one side of the three-dimensional eye mask is fixedly connected to a Velcro bandage with an elastic structure, and it also includes a light-blocking mechanism. The Velcro bandage is fixedly connected to one side of the three-dimensional eye mask, and the light-blocking mechanism is adapted to the Velcro bandage. The inner wall of the three-dimensional eye mask is provided with a light-blocking arc groove.

[0017] This invention also provides a method for using a rhinitis adjunctive treatment device employing a biological cold light source, comprising the following steps:

[0018] S1. By wearing the stereoscopic eye mask (100) to the user's nasal cavity, the lampshade (300) is placed in the nasal cavity, and then the power distribution assembly is operated to make the light source (207) run to generate 635nm red light;

[0019] S2. As the light source (207) continues to operate, a certain amount of heat will be generated, affecting the user. By turning on the heat dissipation component, the airflow is discharged through the lampshade (300). Subsequently, the pulse component operates, causing the transparent conductive layer (301) to form a strong electric field to apply voltage pulses to the dust.

[0020] Compared with the prior art, the beneficial effects of the present invention are:

[0021] 1. The light source inside the 3D goggles converts electrical current into red light at a wavelength of 635nm-655nm. The 635nm red light has strong tissue penetration, reaching deep into the nasal cavity to target inflammatory lesions, effectively relieving rhinitis symptoms. It also stimulates cell metabolism and regeneration, repairing damaged nasal mucosa. Utilizing a semiconductor laser chip, the output wavelength stability reaches ±2nm, ensuring efficient absorption of photon energy by cytochrome C oxidase in the nasal mucosa, achieving a penetration depth of 8m-10mm, reaching the submucosa of the sinuses. The mounting base is magnetically attached to one side of the 3D goggles, and internal power distribution components ensure stable operation of the light source. The gold-plated connecting pins ensure low-loss connection to the circuit board, guaranteeing stable current transmission. The rechargeable battery inside the main housing provides power to the circuit board. The switch button allows for convenient control of the circuit board. The circuit board integrates a microcontroller (MCU) that can monitor the battery voltage and light source operating current in real time and achieve stepless brightness adjustment through PWM dimming technology. The lampshade is placed over the light source and contacts the user's nose. Its central axis scattering angle structure allows the red light from the light source to diffuse evenly cover the user's skin, enhancing the phototherapy effect. An auxiliary shell is fitted on the outer surface of the light source, and internal heat dissipation components effectively alleviate the heat generated by the light source. A miniature motor drives the fan blades to rotate, generating airflow that is discharged through perforations to the user's nose for cooling. The air supply chamber, air supply pipe, and narrow air outlet pipe form a stable unidirectional airflow. Utilizing the Venturi effect, a negative pressure zone is created inside the lampshade, driving the internal hot air to flow out through the negative pressure holes, forming a unidirectional circulating airflow. The spiral guide vanes inside the air supply chamber enhance convective heat transfer efficiency and improve heat dissipation speed. Changes in air pressure inside the air chamber push the plug to move, causing the lampshade to shift and applying intermittent pressure to the nose, simulating manual massage and relieving muscle fatigue caused by prolonged wear. The air-blocking plate automatically resets via a spring, ensuring unidirectional gas flow and preventing backflow that could cause temperature fluctuations.

[0022] 2. A transparent conductive layer fixedly connected to one side of the lampshade has a mesh surface for adsorbing dust. Together with the internal pulse assembly, including a voltage multiplier rectifier module and connecting wires, it forms a strong electric field to adsorb dust, reducing contamination of the lampshade. Simultaneously, the pulse assembly enables self-cleaning of the transparent conductive layer, reducing the burden of subsequent cleaning. A magnetic plate at one end of the light source interacts with a piezoelectric ceramic assembly connected to the voltage multiplier rectifier module via conductive silver paste. The magnetic plates on the surface of the piezoelectric ceramic assembly repel each other, distributing power to the voltage multiplier rectifier module and creating a strong electric field in the transparent conductive layer. When the lampshade shakes, the magnetic plate and the piezoelectric ceramic assembly collide and disengage. Combined with changes in air pressure within the air chamber and the restoring force of the spring, this allows the lampshade to reset and the piezoelectric ceramic assembly to be re-pressurized. This process generates pulses that charge the voltage multiplier rectifier module, and the voltage pulses applied to the transparent conductive layer create a strong electric field that adsorbs dust. Furthermore, the voltage multiplier rectifier module is connected to an MCU chip, which can automatically trigger cleaning based on the amount of accumulated dust, improving cleaning efficiency and targeting. Attached Figure Description

[0023] Figure 1 This is a schematic diagram of the first three-dimensional structure of the present invention;

[0024] Figure 2 This is a schematic diagram of the second three-dimensional structure of the present invention;

[0025] Figure 3 This is a schematic diagram of the third three-dimensional structure of the present invention;

[0026] Figure 4 This is a schematic cross-sectional view of the mounting base structure in this invention;

[0027] Figure 5 This is a schematic diagram of the connecting spring pin in this invention;

[0028] Figure 6 This is a schematic cross-sectional view of the lampshade structure in this invention;

[0029] Figure 7 For the present invention Figure 6 Enlarged structural diagram at point A;

[0030] Figure 8 This is a schematic cross-sectional view of the auxiliary casing in this invention;

[0031] Figure 9 For the present invention Figure 8 Enlarged schematic diagram of the structure at point B.

[0032] In the diagram: 100, 3D eye mask; 101, Velcro bandage; 102, light-blocking arc groove; 200, mounting base; 201, main shell; 202, switch button; 203, charging / discharging battery; 204, circuit board; 205, connecting spring pin; 206, wire; 207, light source; 300, lampshade; 301, transparent conductive layer; 302, perforation; 303, auxiliary shell; 304, air chamber; 305, miniature... 306. Motor; 307. Fan blade; 308. Connecting slide bar; 309. Plug; 310. Air baffle; 311. Movable rod; 312. Spring; 313. Air supply chamber; 314. Air supply pipe; 315. Narrow air outlet pipe; 316. Magnetic suction plate; 317. Piezoelectric ceramic assembly; 318. Voltage multiplier rectifier module; 319. Connecting wire; 320. Negative pressure hole; 400. Sunshade; 401. Velcro. Detailed Implementation

[0033] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0034] Example 1: Please refer to Figures 1-9 This invention provides a technical solution: a rhinitis auxiliary treatment device using a bio-cold light source, comprising a three-dimensional eye mask 100 constructed with built-in memory foam, the surface of which is covered with an antibacterial nano-silver coating to inhibit bacterial growth caused by long-term wear and reduce the risk of skin allergies. Simultaneously, honeycomb-shaped ventilation holes are formed on its inner wall, which, combined with the breathability of the memory foam, creates air convection channels to reduce humidity inside the eye mask. One side of the three-dimensional eye mask 100 is fixedly connected to an elastic Velcro bandage 101, the bandage containing high-elastic spandex fibers. The 3D eye mask 100 is designed to fit users with different head sizes. The inner wall of the 3D eye mask 100 has a light-blocking arc groove 102. The 3D eye mask 100 is made of soft material to improve the user's wearing comfort and facilitate ventilation. The light-blocking arc groove 102 is ergonomically designed to reduce the burden on the nose. The edges of the arc groove are rounded to avoid sharp edges scratching the skin. A silicone sealing strip is added to the light-blocking arc groove 102 to improve the light blocking rate. At the same time, a temperature-sensitive color-changing coating is integrated into the arc groove so that it changes color when heated to indicate the risk of overheating.

[0035] It also includes a mounting base 200, which is fixed to one side of the 3D eye mask 100 by magnetic attraction. The 3D eye mask 100 is equipped with a light source 207 that can convert current into 635nm-655nm red light. The mounting base 200 is equipped with a power distribution component that supplies current to the light source 207. By setting the light source 207, the current can be converted into red light to perform phototherapy on the user's nasal wings. The 635nm red light has good tissue penetration ability and is absorbed by nasal mucosa tissue. It can penetrate deep into the nasal cavity, act on the inflammatory lesions, effectively relieve rhinitis symptoms, and stimulate cell metabolism and regeneration, which helps to repair damaged nasal mucosa. It uses a semiconductor laser chip with a wavelength stability of ±2nm, ensuring that the photon energy is efficiently absorbed by cytochrome C oxidase CCO in the nasal mucosa. The penetration depth reaches 8-10mm, reaching the submucosa of the sinuses. The power distribution component can effectively and stably supply current to the light source 207, and can also control the switching and magnitude of the current.

[0036] Furthermore, the power distribution assembly includes a connecting spring pin 205 fixedly connected inside the mounting base 200, with one side of the connecting spring pin 205 connected to a light source 207 via a wire 206. A main housing 201 is detachably connected to one side of the mounting base 200, and a circuit board 204 adapted to the connecting spring pin 205 is disposed inside the main housing 201. Multiple rechargeable and discharging batteries 203 that provide current to the circuit board 204 are fixedly connected inside the main housing 201, and a switch button 202 for controlling the operation of the circuit board 204 is fixedly connected inside the main housing 201. The interaction between the spring pin 205 and the circuit board 204 enables current transmission, while the charging and discharging battery 203 provides power support to the circuit board 204. The switch button 202 operates the switch of the circuit board 204. The connecting spring pin 205 is gold-plated with a contact resistance of <5mΩ, forming a low-loss connection with the circuit board 204 to ensure the stability of current transmission. The circuit board 204 integrates a microcontroller MCU, which can monitor the voltage of the charging and discharging battery 203 and the operating current of the light source 207 in real time, and achieve stepless brightness adjustment from 0% to 100% through PWM dimming technology.

[0037] It also includes a lampshade 300, which is fitted onto the light-emitting end of the light source 207 and contacts the user's nose. A scattering angle structure is provided at the central axis of the lampshade 300 to diffuse the red light of the light source 207. An auxiliary housing 303 is fitted onto the outer surface of the light source 207. The auxiliary housing 303 is equipped with a heat dissipation component that drives the air flow to ventilate the user's nose. By setting the heat dissipation component, the heat generated by the light source 207 can be effectively reduced to alleviate the impact of heat on the user. At the same time, the lampshade 300 can diffuse the light generated by the light source 207 so that it can evenly cover the user's skin.

[0038] Furthermore, the heat dissipation component includes multiple air chambers 304 formed inside the auxiliary housing 303. The lampshade 300 has multiple perforations 302 for gas exhaust, and the perforations 302 are in communication with the air chambers 304. A micro motor 305 is fixedly connected inside the air chambers 304, and a fan blade 306 for driving gas flow is fixedly connected to the output end of the micro motor 305. By setting the micro motor 305 to drive the fan blade 306 to rotate, an airflow can be formed and discharged through the perforations 302 to the user's nose, forming a flow of air to cool it down.

[0039] One end of the air chamber 304 is slidably connected to a connecting slide rod 307. One end of the connecting slide rod 307 is fixedly connected to the lampshade 300, and the other end of the connecting slide rod 307 is fixedly connected to a plug 308 adapted to the interior of the air chamber 304. The lampshade 300 has an air supply chamber 313 that penetrates the connecting slide rod 307 and the plug 308. One end of the air supply chamber 313 is connected to an air supply pipe 314, and one end of the air supply pipe 314 extends into the perforation 302 and is fixedly connected to a narrow outlet pipe 315. The lampshade 300 has multiple negative pressure holes 320 for gas to pass through. The gas delivery chamber 313 allows gas to pass through smoothly, while the narrow exhaust pipe 315 discharges gas through the perforation 302, forming a stable unidirectional airflow. This creates a negative pressure at the perforation 302, driving the gas inside the lampshade 300 to flow through the negative pressure hole 320 to the perforation 302. The negative pressure hole 320 utilizes the Venturi effect of the exhaust from the narrow exhaust pipe 315 to create a negative pressure zone inside the lampshade 300, driving the internal hot air to flow through the negative pressure hole 320 to the perforation 302, forming a unidirectional circulating airflow. The spiral guide vanes inside the gas delivery chamber 313 can rotate the airflow to enhance convective heat transfer efficiency, and the heat dissipation speed is improved compared to a straight channel.

[0040] Among them, a gas-blocking plate 309 is provided on one side of the plug 308, and multiple movable rods 310 that are slidably connected to the plug 308 are fixedly connected to one side of the gas-blocking plate 309. One end of the multiple movable rods 310 is connected to a limit ring 311. The outer surface of each of the multiple movable rods 310 is fitted with a spring 312 for self-reset. Gas gathers in the gas chamber 304, pushing the plug 308 to move, thereby gradually causing the gas-blocking plate 309 to misalign with the plug 308, so that the gas in the gas chamber 304 is discharged through the gas delivery chamber 313. At this time, the movement of the plug 308 drives the lamp cover 300 to move together, realizing gas delivery while simultaneously adjusting the lamp cover 300. The displacement drive makes it contact and press against the user's nose, relieving soreness in the nose. Then, the gas passes through the connecting slide 307, which causes the plug 308 and the air-blocking plate 309 to continue to close, so that the lamp cover 300 can quickly exhaust and dissipate heat while quickly shaking to press against the user's nose to relieve fatigue. When the air pressure in the air chamber 304 rises, the gas pushes the plug 308 to move, causing the lamp cover 300 to move synchronously, applying intermittent pressure to the nose, simulating the effect of artificial massage, relieving muscle fatigue caused by long-term wear. The air-blocking plate 309 is automatically reset by the sleeve spring 312 to ensure unidirectional gas flow and avoid temperature fluctuations caused by backflow of air.

[0041] Specifically, by placing the 3D eye mask 100 into the user's nasal cavity and positioning the lampshade 300 there, pressing the switch button 202 activates the circuit board 204, causing the light source 207 to generate 635nm red light. This narrow-band 635nm red light enhances the ability of phagocytes, affects the migration of Ca ions inside and outside cells, and inhibits the production of reactive oxygen species, thereby reducing the release of inflammatory factors such as histamine and improving blood circulation in the nasal capillaries. As the light source 207 continues to operate, it generates a certain amount of heat that affects the user. This heat is then used to rotate the fan blades 306 by operating multiple micro motors 305, creating airflow. The air flows within the air chamber 304, pushing the connecting slide bar 307 to move, causing the lampshade 300 to shift and press against the user's nasal cavity. Subsequently, the limiting ring 311 abuts against the inner wall of the air chamber 304, pushing the air-blocking plate 309 and the plug 308 to separate, allowing gas to pass through the connecting slide bar 307 and flow into the air supply chamber 313. The airflow passes through the air supply chamber 313 and enters the air supply pipe 314, finally exiting from the narrow air outlet pipe 315 to blow against the user's nasal cavity. After the gas passes through the connecting slide bar 307, it will cause the plug 308 and the air-blocking plate 309 to continue to close, thereby allowing the lampshade 300 to quickly exhaust and dissipate heat while rapidly shaking to press against the user's nasal cavity to relieve fatigue.

[0042] In summary, the light source 207 inside the 3D goggles 100 can convert current into red light of 635nm-655nm. Among them, the 635nm red light has strong tissue penetration and can penetrate deep into the nasal cavity to act on the inflammatory lesions, effectively relieving rhinitis symptoms. It can also stimulate cell metabolism and regeneration, and repair damaged nasal mucosa. The semiconductor laser chip is used, and the output wavelength stability reaches ±2nm, ensuring that the photon energy is efficiently absorbed by the cytochrome C oxidase of the nasal mucosa, with a penetration depth of 8-10mm, reaching the submucosa of the sinuses. The mounting base 200 is fixed to one side of the 3D goggles 100 by magnetic adsorption, and the internal power distribution components ensure the stable operation of the light source 207. The connecting spring pin 205 is gold-plated and connects to the circuit board 204 with low loss to ensure stable current transmission. The rechargeable and discharging battery 203 inside the main shell 201 can be charged and discharged to provide power to the circuit board 204. The switch button 202 can easily control the switch of the circuit board 204. The circuit board 204 integrates a microcontroller MCU, which can monitor the voltage of the rechargeable and discharging battery 203 and the working current of the light source 207 in real time, and realize stepless brightness adjustment through PWM dimming technology. The lampshade 300 is fitted on the light-emitting end of the light source 207 and contacts the user's nose. Its central axis scattering angle structure can make the red light of the light source 207 diffuse evenly cover the user's skin and improve the phototherapy effect. The outer surface of the light source 207 is fitted with an auxiliary shell 303, and the internal heat dissipation components can effectively relieve the heat generated by the light source 207. A micro motor 305 drives the fan blades 306 to rotate, generating airflow that is discharged through the perforation 302 to the user's nose for cooling. The air supply chamber 313, air supply pipe 314, and narrow air outlet pipe 315 form a stable unidirectional airflow. Utilizing the Venturi effect, a negative pressure zone is created within the lampshade 300, driving the internal hot air to flow out through the negative pressure hole 320, forming a unidirectional circulating airflow. The spiral guide vanes within the air supply chamber 313 enhance convective heat transfer efficiency and improve heat dissipation speed. Changes in air pressure within the air chamber cylinder 304 push the plug 308 to move, causing the lampshade 300 to shift, applying intermittent pressure to the nose to simulate manual massage and relieve muscle fatigue caused by prolonged wear. The air-blocking plate 309 automatically resets via the spring 312, ensuring unidirectional gas flow and preventing temperature fluctuations caused by backflow.

[0043] Example 2: Please refer to Figures 1-9The present invention also provides a technical solution, which differs from the technical solution of Embodiment 1 as follows: A rhinitis auxiliary treatment device using a biological cold light source, wherein a transparent conductive layer 301 is fixedly connected to one side of the lamp cover 300, and the surface of the transparent conductive layer 301 is provided with a mesh for adsorbing dust. A pulse component is provided inside the lamp cover 300 to form a strong electric field in the transparent conductive layer 301. The pulse component includes a voltage multiplier rectifier module 318 fixedly connected inside the lamp cover 300, and one side of the voltage multiplier rectifier module 318 is connected to a plurality of connecting wires 319 connected to the transparent conductive layer 301. By setting the transparent conductive layer 301, dust can be adsorbed to reduce the pollution of the lamp cover 300, and the pulse component can realize the self-cleaning of the transparent conductive layer 301, thereby reducing subsequent cleaning.

[0044] Furthermore, a magnetic plate 316 is fixedly connected to one end of the light source 207, and a piezoelectric ceramic assembly 317 is connected to one side of the voltage doubler rectifier module 318 through conductive silver paste. The surface of the piezoelectric ceramic assembly 317 is attached with a magnetic plate that repels the magnetic plate 316. By setting the cooperation between the piezoelectric ceramic assembly 317 and the magnetic plate 316, power can be distributed to the voltage doubler rectifier module 318, and a strong electric field is formed in the transparent conductive layer 301. In conjunction with the shaking of the lamp cover 300, current can be continuously supplied to the voltage doubler rectifier module 318, which can be connected to the MCU chip to automatically trigger cleaning based on the amount of dust accumulation.

[0045] It also includes a light-blocking device 400. One side of the three-dimensional eye mask 100 is fixedly connected with a Velcro 401, and the light-blocking device 400 is compatible with the Velcro 401. The light-blocking device 400 can block the scattering and exposure of light.

[0046] Specifically, as the lampshade 300 moves, the magnetic plate 316 disengages from the piezoelectric ceramic assembly 317. After the gas in the gas chamber 304 is discharged, its internal pressure decreases, failing to suppress the restoring force of the sleeve spring 312. At this point, the gas-blocking plate 309 re-closes with the plug 308, allowing the lampshade 300 to reset. This causes the piezoelectric ceramic assembly 317 to re-attract the magnetic plate 316, generating a squeezing force that is transmitted to the piezoelectric ceramic assembly 317, forming a pulse to charge the voltage multiplier rectifier module 318. This pulse is then transmitted through the connecting conductor... Line 319 applies a voltage pulse to the transparent conductive layer 301, creating a strong electric field that charges the dust particles, which are then attracted to its surface mesh. This allows the system to charge multiple rechargeable batteries 203, providing extended battery life. The mounting base 200 is magnetically attached to the 3D goggles 100. When the main shell 201 is installed with the mounting base 200, the connecting spring pin 205 is inserted into the circuit board 204 to conduct electricity, providing a stable power input to the light source 207. The light shield 400 blocks the scattering and exposure of light.

[0047] In summary, the transparent conductive layer 301 fixedly connected to one side of the lampshade 300 has a mesh surface for adsorbing dust. Combined with the internal pulse assembly, including the voltage doubler rectifier module 318 and connecting wires 319, it can form a strong electric field to adsorb dust, reducing contamination of the lampshade 300. Simultaneously, the pulse assembly enables self-cleaning of the transparent conductive layer 301, reducing the burden of subsequent cleaning. The magnetic plate 316 at one end of the light source 207 and the piezoelectric ceramic assembly 317 connected to the voltage doubler rectifier module 318 via conductive silver paste cooperate with each other. The magnetic plates on the surface of the piezoelectric ceramic assembly 317 repel the magnetic plate 316, distributing power to the voltage doubler rectifier module 318 and creating a strong electric field in the transparent conductive layer 301. When the lampshade 300 shakes, the contact and disengagement of the magnetic plate 316 and the piezoelectric ceramic assembly 317, combined with the pressure change within the air chamber 304 and the restoring force of the spring 312, achieve the reset of the lampshade 300 and the re-pressing of the piezoelectric ceramic assembly 317. This process generates pulses to charge the voltage doubler rectifier module 318, and the transparent conductive layer 301 is subjected to voltage pulses to create a strong electric field that adsorbs dust. In addition, the voltage doubler rectifier module 318 is connected to an MCU chip, which can automatically trigger cleaning based on the amount of dust accumulated, improving cleaning efficiency and targeting.

[0048] The mounting base 200 is magnetically attached to the 3D eye mask 100. When the main shell 201 is installed with the mounting base 200, the connecting spring pin 205 is inserted into the circuit board 204 to conduct electricity, providing a stable power input for the light source 207. Multiple rechargeable batteries 203 provide continuous power, ensuring the therapeutic device can work stably in different scenarios. The above structures work together to integrate functions such as dust prevention and self-cleaning, intelligent power distribution, and light blocking. While achieving the core function of rhinitis treatment, it also takes into account hygiene, comfort, and convenience during use, improving the overall performance and user experience of the product. From the automatic cleaning of the transparent conductive layer 301 to the automatic triggering of cleaning based on the amount of dust accumulation, the therapeutic device has a high degree of automation, reducing manual intervention and making it more convenient and faster to use, especially suitable for rhinitis patients who need to use the therapeutic device for a long time.

[0049] Example 3: Please refer to Figures 1-9 The present invention also provides a technical solution, which differs from the technical solution of Embodiment 1 as follows: a method for using a rhinitis auxiliary treatment device employing a biological cold light source, comprising the following steps:

[0050] S1. By placing the 3D eye mask 100 on the user's nasal cavity, the lampshade 300 is placed in the nasal cavity. Then, pressing the switch button 202 turns on the circuit board 204, causing the light source 207 to operate and generate 635nm red light. This 635nm narrow-band red light can enhance the ability of phagocytes, affect the migration of Ca ions inside and outside the cells, inhibit the production of reactive oxygen species, thereby reducing the release of inflammatory factors such as histamine and improving blood circulation in the capillaries of the nasal cavity.

[0051] S2. As the light source 207 continues to operate, it will generate a certain amount of heat, affecting the user. By operating multiple micro motors 305, the fan blades 306 are driven to rotate, forming an airflow within the air chamber 304, which pushes the connecting slide rod 307 to move. This causes the lampshade 300 to shift and press against the user's nasal cavity. Subsequently, the limiting ring 311 abuts against the inner wall of the air chamber 304, pushing the air-blocking plate 309 and the plug 308 to separate, allowing gas to pass through the connecting slide rod 307 and flow into the air delivery chamber 313. The airflow passes through the air delivery chamber 313 and enters the air delivery pipe 314, finally exiting from the narrow outlet pipe 315 to blow against the user's nasal cavity. At this time, a unidirectional airflow is formed within the perforation 302, which will then... Gas absorbed at multiple negative pressure holes 320 is discharged through perforations 302. As the lampshade 300 moves, the magnetic suction plate 316 and the piezoelectric ceramic assembly 317 will disengage. After the gas in the gas chamber 304 is discharged, the internal air pressure decreases and cannot suppress the restoring force of the sleeve spring 312. At this time, the gas blocking plate 309 will close again with the plug plate 308, thereby restoring the lampshade 300. This causes the piezoelectric ceramic assembly 317 and the magnetic suction plate 316 to re-adhere and generate a squeezing force that is transmitted to the piezoelectric ceramic assembly 317. This forms a pulse to charge the voltage multiplier rectifier module 318 and applies a voltage pulse to the transparent conductive layer 301 through the connecting wire 319, so that it forms a strong electric field and allows the dust to be charged and adsorbed by its surface grid.

[0052] S3 can provide battery life by charging multiple rechargeable and discharging batteries 203, while the mounting base 200 is fixed inside the 3D eye mask 100 by magnetic attraction. When the main shell 201 is installed with the mounting base 200, the connecting spring pin 205 is inserted into the circuit board 204 to achieve electrical conduction, thereby providing a stable power input for the light source 207, and the light shield 400 can block the scattering and exposure of light.

[0053] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0054] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A rhinitis adjuvant therapy device using a bio-cold light source, comprising a three-dimensional eye mask (100) constructed with built-in memory foam, characterized in that, Also includes: The mounting base (200) is fixed to one side of the 3D eye mask (100) by magnetic attraction, and the 3D eye mask (100) is provided with a light source (207) that can convert current into 635nm-655nm red light. The mounting base (200) is provided with a power distribution component that supplies current to the light source (207). A lampshade (300) is fitted onto the light-emitting end of the light source (207) and contacts the user's nose. A scattering angle structure is provided at its central axis to allow the red light of the light source (207) to scatter. An auxiliary shell (303) is fitted onto the outer surface of the light source (207), and a heat dissipation component is provided inside the auxiliary shell (303) to drive the air flow and ventilate the user's nose. A transparent conductive layer (301) is fixedly connected to one side of the lampshade (300), and a mesh for adsorbing dust is provided on the surface of the transparent conductive layer (301). A pulse component is provided inside the lampshade (300) to form a strong electric field in the transparent conductive layer (301). The heat dissipation assembly includes multiple air chambers (304) opened inside the auxiliary housing (303). The lampshade (300) has multiple perforations (302) for gas discharge inside, and the perforations (302) are in communication with the gas chambers (304). A micro motor (305) is fixedly connected inside the air chambers (304), and a fan blade (306) for driving gas flow is fixedly connected to the output end of the micro motor (305). One end of the air chamber (304) is slidably connected to a connecting slide rod (307). One end of the connecting slide rod (307) is fixedly connected to the lampshade (300). The other end of the connecting slide rod (307) is fixedly connected to a plug (308) that is adapted to the inside of the air chamber (304). The lampshade (300) has an air supply chamber (313) that penetrates the connecting slide rod (307) and the plug (308). One end of the air supply chamber (313) is connected to an air supply pipe (314). One end of the air supply pipe (314) extends into the perforation (302) and is fixedly connected to an outlet narrow pipe (315).

2. The rhinitis adjuvant therapy device using a biological cold light source according to claim 1, characterized in that: A gas-blocking plate (309) is provided on one side of the plug (308). A plurality of movable rods (310) that are slidably connected to the plug (308) are fixedly connected to one side of the gas-blocking plate (309). One end of the plurality of movable rods (310) is connected to a limit ring (311). A sleeve spring (312) for self-reset is sleeved on the outer surface of the plurality of movable rods (310).

3. The rhinitis adjuvant therapy device using a biological cold light source according to claim 1, characterized in that: The lampshade (300) has multiple negative pressure holes (320) inside for gas to pass through.

4. The rhinitis adjuvant therapy device using a biological cold light source according to claim 1, characterized in that: The pulse assembly includes a voltage doubler rectifier module (318) fixedly connected inside the lamp cover (300), and one side of the voltage doubler rectifier module (318) is connected to a plurality of connecting wires (319) that are connected to the transparent conductive layer (301).

5. A rhinitis adjuvant therapy device using a biological cold light source according to claim 4, characterized in that: One end of the light source (207) is fixedly connected to a magnetic plate (316), and one side of the voltage multiplier rectifier module (318) is connected to a piezoelectric ceramic group (317) through conductive silver paste. The surface of the piezoelectric ceramic group (317) is attached with a magnetic plate that repels the magnetic plate (316).

6. The rhinitis adjuvant therapy device using a biological cold light source according to claim 1, characterized in that: The power distribution assembly includes a connecting spring pin (205) fixedly connected inside the mounting base (200), and one side of the connecting spring pin (205) is connected to the light source (207) via a wire (206). A main shell (201) is detachably connected to one side of the mounting base (200), and a circuit board (204) adapted to the connecting spring pin (205) is provided inside the main shell (201). A plurality of rechargeable and discharging batteries (203) that can provide current to the circuit board (204) are fixedly connected inside the main shell (201), and a switch button (202) for controlling the operation of the circuit board (204) is fixedly connected inside the main shell (201).

7. A rhinitis adjuvant therapy device using a biological cold light source according to claim 1, characterized in that: The three-dimensional eye mask (100) is fixedly connected to one side with a Velcro bandage (101) with an elastic structure, and also includes a light shield (400). The three-dimensional eye mask (100) is fixedly connected to one side with Velcro (401), and the light shield (400) is adapted to the Velcro (401). The inner wall of the three-dimensional eye mask (100) is provided with a light-blocking arc groove (102).

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