WO2022045742A1 - Antivirus system, disinfection equipment comprising same, and medical device for formulating mucosal vaccine through virus removal process of disinfection equipment - Google Patents

Abstract

An antivirus system of the present invention comprises: an air inlet for inducing air from an object being disinfected and an air outlet for discharging air; a unit which is provided between the air inlet and the air outlet and kills floating virus in the air and causes heat damage (ozone damage) thereto, by irradiating ultraviolet rays or electromagnetic waves; and a unit for attenuation, inactivation and adhesive removal with an aqueous OH radical solution of a liquid medium, wherein, in a removal chamber which kills the virus and causes heat damage and ozone damage thereto by sucking in air from external air or the object being disinfected, viruses or bacteria are killed and adhesively removed so that safe and clean air can be sent to external air or the object being disinfected. The unit for killing or adhesively removing virus is supplied to personal respirators, disinfection equipment for indoor breathing of several people, disinfection equipment for passages through which people and articles enter and exit, and ventilation devices of air conditioners, hot-air blowers, air cleaners and various air conditioning facilities, thus facilitating daily life, work life, and economic activities of an object being disinfected in the antivirus system.

Description

Antivirus system, quarantine equipment equipped with it, and a medical device that prepares a mucosal vaccine through the virus removal process of the quarantine equipment

The present invention relates to an antivirus system that removes viruses floating in the air and sends safe, clean air to a quarantine target, and a medical device for preparing a mucosal vaccine through the virus removal process of the quarantine equipment and the quarantine equipment having the same.

Corona 19, a respiratory virus that has recently occurred, is a new virus that is different from SARS and MERS. In addition, since existing vaccines and therapeutics do not work for new viruses, overall social function is unavoidable until vaccines and therapeutics are developed. Moreover, it is not a local problem, but a global pandemic, causing astronomical damage in various ways.

In addition, it takes a lot of time and money to develop a vaccine for a new virus, and even if a treatment or vaccine is developed, if a mutant or a new virus occurs, it may be necessary to develop a new vaccine again.

When a new respiratory virus occurs, it is common to wear a mask. Masks are relatively convenient to use, but there is a problem that prevention is incomplete, so it is not a fundamental solution. In addition, social distancing, which refrains from gatherings and avoids visiting places with many people, is effective in preventing infection, but it is unavoidable that the daily life and economic activities of citizens are greatly reduced.

In addition, negative pressure is applied to the ward where the patient is hospitalized to prevent the exhaled air from leaking out of the ward. However, since the virus can float in the air itself in the hospital room, the person entering the room is inevitably exposed to a dangerous environment. Therefore, it is necessary to discharge safe clean air in which all bacteria and viruses floating in the patient's breathing air are removed into indoor air or outside air.

The fundamental difficulty in preventing respiratory viruses is that mutations and mutated viruses continue to appear, making it difficult to cover them with existing vaccines, and there are concerns about the side effects of vaccines.

Therefore, it is necessary to develop respiratory virus prevention equipment that can prevent various respiratory viruses and all mutated viruses and have no side effects. In addition, it is necessary to immediately develop a mucosal vaccine optimized for each individual by catching the virus floating in the patient's own exhaled air at the same time as the outbreak of a new virus. The development of a mucosal vaccine without side effects that is optimized for the mucous membrane of the respiratory passageways of wearers of respiratory quarantine equipment is particularly necessary for patients with underlying diseases, special constitutions, and the elderly.

In this regard, as a prior art, Korean Utility Model Registration No. 20-0251333 provides an air purifier equipped with an ozone disinfection device, but it is difficult to adopt because the device is complicated and harmless to the human environment in that it uses ozone. .

In addition, Korean Patent Application Laid-Open No. 10-2012-0082982 provides an air sterilization system and method for an indoor space with indoor air flow, but electrolyzes water containing chlorine to supply sterilization water containing hypochlorous acid to the upper part of the room. The method of sowing in Since hypochlorous acid is inhaled through respiration, it is difficult to adopt it because it is difficult to avoid controversy over harm to the human body.

An object of the present invention is to solve the side effects that occur during the spray disinfection and mass production vaccination process of the respiratory disease virus that is spreading as a pandemic around the world.

SUMMARY OF THE INVENTION An object of the present invention is an antivirus system having a virus removal unit that removes all bacterial viruses floating in breathing inhaled air, and a capturing device that captures viruses floating in exhaled air. would like to provide

In addition, the virus removal unit and medical devices for preparing mucosal vaccines can be easily used at an affordable price.

In the present invention, the process of removing the virus by irradiation or adhesion with an anti-virus system to the virus floating in the exhaled air of the personal respiratory protection equipment is the respiratory mucosal vaccine preparation process (mucosal vaccine preparation process) ) and consists of medical equipment that automatically prepares a respiratory mucosal vaccine optimized for respiratory wearers.

In addition, a virus removal unit is provided for reliably removing viruses floating in the inhaled air that a person breathes, and the process of preparing the mucosal vaccine is to remove the virus. It is the same as the unit's virus removal process. That is, the virus removal process of the removal unit becomes the mucosal vaccine preparation process.

That is, the present invention is a medical device for automatically preparing a respiratory tract mucosal vaccine, and is a medical device that recycles a virus to be removed from the virus removal unit as a mucosal vaccine.

The antivirus system of the present invention includes a virus removal unit having an air inlet and an air outlet, an electromagnetic wave radiation chamber or an ultraviolet radiation chamber included in the unit, or an adhesive chamber for weakening (poisoning) or weakening the virus to inactivate it. (Adhesion tank) contains a plant medium OH radical chamber. The present invention provides a breathing air flow that removes viruses floating in the exhaust air of the quarantine target by an anti-virus system, returns safe clean air to the quarantine target, and discharges the air to the outside or indoors.

It is possible to optimize the antivirus system wearer by adjusting various states of the virus in detailed steps in consultation with a medical professional so that an optimized mucosal vaccine is generated in the respiratory passage of the virus removal unit.

Specifically, looking at the virus removal process of the virus removal unit, an air inlet for inducing air from the quarantine target and an air outlet for discharging air are provided, and between the air outlet and the air inlet A virus removal unit that treats viruses by irradiating electromagnetic waves or ultraviolet rays to the inactivated virus adhesion unit that inactivates and adheres viruses floating in the exhaled air in an OH radical rotation guide chamber It provides an anti-virus system that can send safe clean air to outside air or to the quarantine target by passing it through an irradiation room or adhesive room that processes viruses floating in outside air or air inhaled from the quarantine target. In the present invention, treating the virus includes any treatment that kills the virus, weakens it by heat-injuring or ozone-injuring, or inactivates it.

In addition, the object of quarantine provided with the anti-virus system of the present invention is a personal transport bag respirator, an updraft prevention facility for indoor multiple-person breathing droplets, an access passage prevention equipment installed in the passage of travelers and deliveries, and virus removal air By creating a purifier, a quarantine air conditioner (including a hot air fan), and a downdraft, we illustrate the quarantine facilities in the boarding room that are connected to the air conditioning equipment of various transportation facilities, and the quarantine facilities in the facility space connected to the air conditioning equipment in the basement and ground facilities. . Therefore, it is possible to conduct all daily activities by circulating safe clean air from which the virus has been removed through the virus removal unit provided in the interior of churches, classrooms, restaurants, residences, offices, conference rooms, karaoke rooms, and arcades.

In addition, the present invention provides a dead or heat-injured virus collector between the anti-virus system's quarantine target and the electromagnetic wave irradiation room of the virus removal unit, or between the virus removal unit and the ultraviolet irradiation room, ozone-injured Provided is a collection device for collecting a virus that has been treated between a virus collector or an adhesive chamber of a virus removal unit and an air outlet. Death of DNA and RNA of the virus in various conditions collected as described above. A more optimized mucosal vaccine can be obtained by controlling the state of the laceration, ozone phase, or weakened inactivated virus according to the prescription in consultation with a mucosal vaccine expert.

The system applies a virus removal unit having an air inlet and an air outlet, and an electromagnetic wave or ultraviolet irradiation room included in the unit, or a (vegetable medium) OH radical chamber included in the virus weakening and inactivating adhesive room to discharge the quarantine target It consists of an anti-virus system that removes viruses floating in the air, returns safe clean air to the quarantine target, and displays the breathing air flow that is discharged indoors or outdoors or into the atmosphere.

As an embodiment to which the anti-virus system of the present invention is applied, an air hose for inhalation and an air hose for discharge, and a personal anti-virus unit including a virus removal unit having an electromagnetic wave or ultraviolet irradiation chamber or an adhesion chamber for killing and adhering (adhesive) viruses Provides a virus respirator. In addition, it is possible to configure a public anti-virus system including a virus removal unit having an air hose or duct for inhalation and an air hose or duct for discharge, and an electromagnetic wave or ultraviolet irradiation chamber or adhesion chamber for killing and adhering viruses.

A blower may be provided in each of the exhaust air hose and the intake air hose.

Each of the blowers may start operation by a sensor that detects the discharge of the exhalation and the suction of the inhalation. power is available.

In the air hose for breathing or the air line (duct or hose) that discharges indoors and outdoors, a device for collecting dead heat or ozone-like viruses between the personal respirator and the irradiation chamber of the virus removal unit may be provided.

In addition, the heat-injured virus used as a mucosal vaccine by connecting the treated virus collecting means to the middle of the inhalation air hose or the part discharged to the outside air from the irradiation room, and adjusting the irradiation densities of electromagnetic waves and ultraviolet rays appropriately. can be captured

The air hose for inhalation is provided with an electromagnetic wave irradiation density meter and an electromagnetic wave irradiation time (voltage or wind speed) regulator in order to control the thermal image (destruction), ozone phase, and inactivation state of DNA and RNA of the antivirus. The electromagnetic wave irradiation chamber or the ultraviolet irradiation chamber is based on the basis that the inhalation of the inhalation and the discharge of the exhalation pass independently, and it is also possible to make the first irradiation chamber and the second irradiation chamber into one irradiation chamber. In addition, the inactivated virus captured by the collecting bottle can be used for mucosal vaccine.

The quarantine equipment provided with the anti-virus system may include a respiratory quarantine equipment for personal movement and a public quarantine equipment. In addition, in the anti-virus system, you can configure a passage quarantine equipment equipped with a virus removal unit to prevent entry and exit and deliver goods. The anti-virus system can be applied to the existing air conditioning facilities installed in the passenger boarding space, various underground facility spaces, and above-ground facility spaces of various transportation organizations equipped with the anti-virus system.

The passage quarantine equipment is installed at the entrance and delivery tunnels of airports and ports, customs and important institutions, and the quarantine and ventilation equipment for transportation facilities are installed in the passenger cabins of buses, railway vehicles, and aircraft, and the quarantine equipment for air conditioners in the underground facility space It is installed in underground shopping malls, subways, platforms and tunnels, and quarantine and air conditioning equipment in the above-ground facility space is installed in apartments and buildings.

In addition, it provides a basic system constituting a respiratory system that removes viruses as a military equipment (gas mask) in preparation for the biological warfare of biological weapons.

The present invention reliably removes viruses floating in a small amount of respiratory air with good cost-effectiveness. According to the present invention, regardless of the emergence of a new virus or mutation of the virus, it is possible to breathe with safe clean air in which all bacterial viruses floating in a small amount of inhaled air that a person breathes are killed or adhered and removed.

The virus removal unit of the anti-virus system allows to quickly remove viruses floating in a small amount of air discharged from the exhalation port of the individual respiratory tract and can be used as a mucosal vaccine. Develop immediately so that they can inoculate themselves. Therefore, it can contribute to the research and development of individual optimized mucosal vaccines, prevent serious side effects caused by mass-produced vaccination, and make it easy to cope with mutated and mutated viruses.

The new mucosal vaccine preparation medical device provides a collector or bottle that can safely and easily handle laceration (dead) viruses and weakened inactive viruses. Medical that prepares mucosal vaccine through a mucosal vaccine preparation process that examines the state of destruction of DNA and RNA of the captured laceration virus and adjusts the destruction state, that is, the degree of laceration and weakening inactivation, to be optimized for each individual provide the device.

Therefore, it is possible to inoculate the mucous membrane of the respiratory tract without side effects by preparing the virus from the patient's body with a mucosal vaccine optimized for his/her body. As a vaccine against a mutated virus, it is preferable to replace the mRNA vaccine with the mucosal vaccine instead of using the booster vaccine.

And by being able to wear a personal portable respirator, the activities of those infected with the virus or quarantined can be freed. In addition, by installing public breathing prevention equipment at various indoor gathering places in churches, classrooms, and restaurants, normal activities can be restored, and by equipping boarding spaces for transportation and ventilation systems for attaching air conditioning equipment in the basement, underground shopping malls and other underground business Facilities become more active, and by installing quarantine and ventilation devices for air conditioning equipment on the ground, the daily life and work life of the population living day and night in buildings and apartments are made possible.

In addition, in preparation for a virus-bacterial warfare of biological weapons, a virus-removing respirator or a respirator that adheres and removes viruses can be applied to a gas mask.

In addition, if the livestock shelter ventilation system is equipped with the anti-virus system of the present invention, the installed quarantine equipment can be operated at the same time as the outbreak of avian flu, swine fever, etc.

1 is a basic conceptual diagram of an anti-virus system according to the present invention.

2A and 2B show a cross-sectional view and a longitudinal cross-sectional view, respectively, of a virus removal unit having an electromagnetic wave irradiation chamber used in the anti-virus system according to the present invention.

3A and 3B show a cross-sectional view and a longitudinal cross-sectional view, respectively, of a virus removal unit having an ultraviolet irradiation chamber used in the anti-virus system according to the present invention.

4A and 4B show a conceptual diagram and a longitudinal sectional view of an embodiment of a virus removal unit including a plant medium OH radical chamber (chamber) used in the antivirus system according to the present invention, respectively.

5A is a virus removal unit equipped with an electromagnetic wave or ultraviolet irradiation chamber, and breathing air is transferred to an electromagnetic wave (or ultraviolet) irradiation chamber and a means for collecting viruses that have suffered death, heat, and ozone (solid medium collector), and a quarantine target (respirator) etc.) through the antiviral system and the mucosal vaccine preparation process.

Figure 5b shows the air flow and mucosal vaccine preparation process of the antivirus system passing through the plant medium OH radical room and the virus collecting means (liquid medium collector) and the quarantine target (respirator, etc.) indicates.

6 shows an embodiment of a state in which a portable bag unit is worn by applying the airflow (FIGS. 5A and 5B) of the antivirus system 10 according to the present invention.

7 is safe clean air in which viruses are removed by applying the air flow (FIGS. 5A, 5B) of the anti-virus system according to the present invention for indoor use to create an upward airflow to prevent virus transmission by airborne breathing air and droplets. Shows an example of a state that circulates

8 shows an embodiment of a state in which the anti-virus system according to the present invention is installed in an airport, a port, a passage through which the public enters, or an article transfer passage for quarantine of delivered goods.

Fig. 9a shows the anti-virus system according to the present invention applied to an air purifier, Fig. 9b shows that it is applied to an air conditioner (heater), and Fig. 9c is applied to a quarantine ventilation system installed in the passenger boarding space of a transportation facility, and Fig. 9d shows It is applied to the quarantine ventilation equipment of air conditioning equipment installed in the ground or underground space, and each of the examples of the above-described application state is shown.

Hereinafter, an antivirus system according to the present invention will be described in more detail with reference to the accompanying drawings.

1 is a basic conceptual diagram of an anti-virus system according to the present invention.

The basic concept is to remove the virus floating in the air discharged from the quarantine target 101 and send it back to the quarantine target or discharge it to the outside. That is, it creates an air flow that circulates safe clean air.

The anti-virus system 10 of the present invention includes an air inlet 12, an air outlet 14, and a virus removal unit 100, and removes floating virus air entering through the air inlet 12, a virus removal unit ( 100), destroys or adheres to and removes viruses floating in the air by electromagnetic waves, ultraviolet rays, or OH radicals, and sends safe clean air from which the virus is removed to the quarantine target 101 or the outside.

In addition, the air from the virus removal unit 100 may be sent to, for example, an optimized vaccine preparation medical device 300 including a collector to filter or adhere to the treated virus to be utilized as a mucosal vaccine optimized for each individual.

A blower 16 is provided at the air inlet 12 or the air outlet 14 of the virus removal unit 100 to help air circulation between the virus removal unit 100 and the quarantine target 101, and, if necessary, external air Alternatively, the air to be treated 20 may be introduced, or the clean air from which the virus has been removed may be sent to the outside.

2A and 2B show a cross-sectional view and a longitudinal cross-sectional view, respectively, of the electromagnetic wave irradiation chamber 100a of the virus removal unit 100 of the anti-virus system 10 according to the present invention.

For example, an embodiment of the electromagnetic wave irradiation chamber 100a of the virus removal unit 100 for irradiating electromagnetic waves of a wavelength of about 10 μm is shown.

The virus removal unit 100 is provided with at least one electromagnetic wave irradiation chamber 100a, and in the illustrated embodiment, a first irradiation chamber 110 and a second irradiation chamber 120 are provided, and when applied to a personal respirator, inhalation and Allow the exhalation to pass independently. The electromagnetic wave irradiation chamber 100a includes a heating unit and an electromagnetic wave converter 140 , a housing 131 surrounding it, and a vacuum unit 145 or a heat insulating layer 130 .

With respect to the air passing through the electromagnetic wave irradiation chamber 100a, for example, an electromagnetic wave having a wavelength of about 10 μm is irradiated. As the density of electromagnetic waves is increased, the air passing through the irradiation room is rapidly removed from the airborne bacteria and viruses. A voltage adjusting device 129 may be provided to adjust the electromagnetic wave density. The capture process to remove the virus becomes a mucosal vaccine preparation process optimized for each individual. When collecting the virus, the degree of death and laceration is adjusted to suit the wearer's physical condition according to the electromagnetic wave irradiation density. This treated virus can be inoculated as a mucosal vaccine by own breathing or other mucosal administration.

The irradiation chamber in which the virus is lacerated or destroyed is exemplified as a heating unit and an electromagnetic wave converter 140. The electromagnetic waves generated by the illustrated electromagnetic wave converter are irradiated with high-density electromagnetic waves of a wavelength having a spectrum with high absorption in organisms and proteins. Thus, the virus-containing air 20 to be treated is rapidly heated at a speed close to the speed of light to kill the virus or injure a laceration (heat injure). Since the required heating amount of the virus, which is an ultrafine protein, is incomparably small compared to the required heating amount obtained by multiplying the amount of air to be treated by the specific heat of air 20, the virus is rapidly heated to a temperature higher than the air temperature. . When an electromagnetic wave of about 10 μm is irradiated to a virus, which is a protein smaller than ultrafine dust, at a high density, the temperature of the air passing through it quickly becomes higher, for example, by 50°C to 100°C. Therefore, it is possible to process a large amount of the air 20 to be treated with a very small amount of heat, and the virus removal unit can be configured with a small weight and volume and can be carried in a bag.

By inoculating the captured dead or lacerated virus with a vaccine optimized for the wearer, the virus in a dead state can be safely inoculated by breathing without side effects.

In addition to this, ultraviolet irradiation device, other infrared radiation device, liquid medium OH radical device, etc. are also included in the scope of the present invention, and the heating unit and electromagnetic wave converter are representatively exemplified.

In each of the following examples, a specific device is exemplified for convenience of explanation and understanding, but it can be selected and used as an electromagnetic wave irradiation device, an ultraviolet irradiation device, or a liquid medium OH radical device. The OH radical device is a type of hydroxyl group generator and operates in an aqueous solution of a general adhesive capable of attaching a virus.

In addition, the electromagnetic wave irradiation chamber 100a is composed of a linear cylindrical reflector to serve as a wave guide to increase the density by focusing the electromagnetic waves. Thereby, by increasing the density of the electromagnetic wave to increase the sterilization power, and by irradiating the electromagnetic wave of a uniform density, it is possible to uniformly control the laceration of the virus.

Thermal energy is applied to the heating unit and the electromagnetic wave converter 140 provided in the first irradiation chamber 110 and the second irradiation chamber 120 to generate high-density electromagnetic waves, and irradiate viruses in the air to kill or may cause burns. And a vacuum unit 145 and/or a heat insulating layer 130 is provided around the first irradiation chamber 110 and the second irradiation chamber 110, and the housing 131 surrounds them, thereby ensuring thermal efficiency and safety.

The heating unit and the electromagnetic wave converter 140 include a heater such as a heating wire, and an electromagnetic wave generator, for example, titanium monoxide (TiO), is coated on a surface facing the electromagnetic wave irradiation chamber 100a to convert thermal energy into electromagnetic wave energy. The electromagnetic energy is absorbed by the graphite coated on the outside of the irradiation chamber 100a and converted into thermal energy, and is converted back into electromagnetic waves of a wavelength beneficial to the human body in titanium monoxide (TiO) coated inside the irradiation chamber. By irradiating the converted electromagnetic wave with a wavelength of about 10 μm, only viruses floating in the air passing through the irradiation chamber 100a can be heated from 50°C to 270°C. By controlling the heating temperature, it is possible to manufacture a mucosal vaccine optimized for the patient. For example, if it is said that it can withstand 150℃ depending on the mutated virus, the temperature is raised and lowered by 1℃ from 140℃ to 160℃ and captured and killed. By observing the laceration condition, the laceration virus with minimized activity is collected. Until they have immune cells of the respiratory mucosal membrane, they are inoculated by mucosal administration or breathing. That is, the virus floating in the wearer's exhaled air is killed or weakened and then captured and used as a mucosal vaccine to be inoculated to the wearer.

The death and laceration temperature is preferably adjusted to 270° C. in a general personal respiratory system. In the use of a laceration virus collector, by lowering the temperature from the known virus killing temperature to observe the laceration, it is possible to safely and easily inoculate the virus with the highest laceration degree to the virus with a gradually decreasing laceration degree until immune cells are generated.

At this time, if the air passing through the irradiation chamber is irradiated with high-density electromagnetic waves of the absorption wavelength of the organism, only floating bacteria and viruses are heated to 270°C, and the temperature of the heated air is maintained below 100°C. The air temperature is about 89° C., so it is easy to insulate the virus removal unit 100 including the electromagnetic wave irradiation chamber, and it is also suitable to put it in a bag.

And the housing 131 surrounding the entire exterior of the killing unit 100 is adapted to accommodate all of the above components. Optionally, forming a vacuum unit 145 around the first irradiation chamber 110 and the second irradiation chamber 120 increases thermal efficiency and thermal insulation efficiency.

3A and 3B show a cross-sectional view and a longitudinal cross-sectional view, respectively, of the ultraviolet irradiation chamber 100b of the virus removal unit 100 applied to the antivirus system according to the present invention.

The illustrated embodiment of the virus removal unit 100 exemplifies an ultraviolet irradiation chamber 100b having a first irradiation chamber 110 and a second irradiation chamber 120 to destroy or damage viruses with ozone. The ultraviolet irradiation chamber 100b of the illustrated prevention equipment includes one or more ultraviolet generators 141 (uv lamp) and an ultraviolet reflector 142 surrounding it.

The ultraviolet reflector is made of a known titanium dioxide (TiO ₂ ) material and irradiates a high-density ultraviolet ray to the airborne virus passing through the ultraviolet irradiation chamber 100b to quickly remove the virus.

In order to avoid the virus in the ultraviolet irradiation room 100b from breathing the modified DNA and RNA of the virus that has been killed or that has suffered ozone, an ultra-fine filter is provided in the hose on the outlet side of the ultraviolet irradiation room 100b to filter out dead viruses. It is preferable to pay

On the other hand, it is necessary to prevent precursors such as volatile organic compounds that generate ozone when irradiated with ultraviolet rays from entering the ultraviolet irradiation chamber.

4A and 4B are a conceptual diagram and one implementation of a virus removal unit (100: virus removal unit) that inactivates and adheres a virus with an aqueous solution in the OH radical chamber 105 of the vegetable medium used in the antivirus system according to the present invention A longitudinal cross-sectional view of each example is shown.

The air to be treated 20 from the quarantine target 101 of the antivirus system and the aqueous solution of the vegetable medium in the OH radical chamber 105 are put together in a circulation line 117 which is a kind of guide hose, mixed with each other, and brought into contact. The virus floating in the air is removed by adhesion with the adhesive force of the aqueous solution, and safe clean air from which the virus is removed can be returned to the quarantine target 101 .

The aqueous solution of the plant medium in the OH radical chamber 105 is formed by putting the plant medium powder in the OH radical generating chamber 105a and dissolving it to a saturated state, and is formed as a liquid medium maintaining adhesive strength.

A circulation line (117: circulation line) that mixes and circulates the liquid medium having the adhesive force and the treatment target air 20 from the quarantine target 101, for example, a circulation hose and a pump 111. Mix and contact with each other to make the floating virus adhere to the liquid medium.

In addition, a catalyst electrode 145a and a titanium electrode 145b are provided in the OH radical generating chamber 105a, and the standard and DC range (eg, 6V to 18V) are adjusted according to the scale of the quarantine target. In addition, in the OH radical generating chamber 105a of the fixed removal unit 100, an electrode adapted to alternating current is used. For mobile systems, DC power is used.

The aqueous solution of OH radicals in the vegetable medium flows along the circulation line 117 through the connector 115 in the OH radical generating chamber 105a, and then is sucked into the pump 111 through the connector and circulated again. The air entering the pump 111 includes the user's exhaled air and air coming in from the atmospheric intake port (115b).

The air to be treated and the aqueous solution of OH radicals of the vegetable medium are mixed together in the circulation line 117, for example, into a circulation hose, preferably flowed over 10 m to mix, contact, and collide with each other. Thus, viruses floating in the air are killed or weakened by OH radicals, and the inactivated virus adheres to the liquid medium. The aqueous solution of the liquid medium continues to circulate along the circulation line as it is attached to the virus, and the virus floating in the air continues to adhere to the aqueous solution of the liquid medium. This embodiment also has the advantage of adhering to and removing not only viruses but also fine dust.

Meanwhile, the treated air from which the virus is removed is separated from the air in the gas-liquid separation chamber 105b and discharged to the quarantine target 101 or the outside through an outlet pocket 113 . The outlet pocket 113 has a buffer function and also collects leaking liquid. The leaking liquid 113a is preferably sent back to the pump 111 .

Although the gas-liquid separation chamber (105b, air-liquid separation chamber) is shown in a low position in the drawing, it is preferable to install it in a high position as possible. More preferably, the gas-liquid separation chamber 105b is preferably installed at a position not lower than the OH radical generating chamber 105a. Viruses killed or weakened by OH radicals adhere to the viscous aqueous solution, and only air is discharged into the outlet pocket through the gas-liquid separation chamber 105b.

The killed or weakened virus adhering to the aqueous solution is collected by connecting a collector such as a collecting bottle to the circulation line 117, and collecting the aqueous solution of the liquid medium to which the inactivated virus is adhered with the collector, and as a mucosal vaccine for the user himself. can be used Alternatively, a collection bottle or filter may be provided in the gas-liquid separation chamber 105b so that the gas-liquid separation chamber 105b may function as a means for collecting weakened viruses for mucosal vaccines. That is, the virus removal process of the virus removal unit 100 including the OH radical generating chamber 105a may also be applied to the mucosal vaccine preparation process.

The OH radical chamber 105 including the OH radical generating chamber 105a is applied to a portable respirator to prevent leakage of the aqueous solution of the chamber 105 when moving, and a valve to prevent liquid from coming out through the air outlet or air inlet It is preferable to have It is preferable that check valves for preventing backflow are also provided at the inlet connections of the pump 111 . The leaked solution is collected at the bottom of the outlet pocket 113 and connected to the pump suction port 111a to be sucked up into the OH radical generating chamber 105a.

Also, preferably, an inlet pocket 113a is provided on the inlet side of the OH radical chamber 105 to act as a buffer for sucked air.

Preferably, a blower 16 is provided at the air outlet 14 and the air inlet 12 . In particular, the blower of the air outlet 14 may send more air than the user's breathing volume to the respirator worn by the user. Therefore, fresh air containing oxygen is sufficiently sucked through the atmospheric intake port.

5A shows an embodiment to which the virus removal unit 100 having the electromagnetic wave or ultraviolet first and second irradiation chambers 110 and 120 is applied, and the air of the antivirus system passing through the quarantine target (101: respiratory system, etc.) It conceptually represents the flow. Viruses that have been killed, lacerated or ozone-injured are captured by the collector 114 , and the captured virus may be used as a respiratory passage mucosal vaccine prepared in a medical device. Preferably, a valve or connecting connector 127 is provided to regulate the air flowing to the collector 114 .

In addition, it is preferable to provide a non-contact temperature measuring device 128 for measuring the electromagnetic wave irradiation density in order to adjust the heat or dead state of the dead, heat-injured virus captured by the trapping means. By controlling the temperature, the electromagnetic wave irradiation density is adjusted, and the intensity of the electromagnetic wave of the virus removal unit 100 is adjusted according to the electromagnetic wave density. Accordingly, a mucosal vaccine optimized for each individual is provided. For the virus floating in the user's own exhalation, the weakening and inactivation (death, laceration) can be adjusted to suit the inoculator's own health condition and collected and inoculated with a mucosal vaccine.

The inactivated virus can be collected by using a fine filter or solid media for dead, lacerated and ozone-like viruses. Alternatively, it may be configured in the form of a gas sampling bottle. The material of the filter may be composed of, for example, a microfiber or non-woven material or a HEPA filter capable of filtering viruses.

By installing a valve or a connection connector 127 in the air hose of the treated inactivated virus collecting means, it is possible to control the flow of air flowing into the collector.

In FIG. 5A , the virus removal unit 100 including an electromagnetic wave or ultraviolet irradiation chamber may be divided into a first irradiation chamber 110 and a second irradiation chamber 120 for inhalation and discharge.

The inhalation air hose 112 and the exhalation air hose 122 are connected to the respirator 150, and the air entering and leaving the respirator 150 passes through the electromagnetic wave or ultraviolet irradiation chamber.

5B shows the air of the anti-virus system 10 passing through the means for collecting the inactivated virus and the quarantine target 101 by applying the virus removal unit 100 having the OH radical chamber 105 of the vegetable medium. represents the flow. That is, air containing the virus is injected into the OH radical chamber 105 of the vegetable medium, and the virus is treated (killed, weakened or deactivated) by the OH radical generated in the OH radical chamber 105 and adhered to the vegetable liquid medium. to capture

The killed or weakened virus adhering to the aqueous solution is collected by connecting a collector such as a collecting bottle to the circulation line 117, and collecting the aqueous solution of the liquid medium to which the inactivated virus is adhered with the collector, and as a mucosal vaccine for the user himself. can be used Alternatively, a collection bottle or filter may be provided in the gas-liquid separation chamber 105b so that the gas-liquid separation chamber 105b may function as a means for collecting weakened viruses for mucosal vaccines. That is, the virus removal process of the virus removal unit 100 including the OH radical generating chamber 105a may also be applied to the mucosal vaccine preparation process.

5A and 5B, the air flow of the anti-virus system is an OH radical chamber 105 of an irradiation chamber or vegetable medium that kills, heats, and applies ozone phase to the virus in order to reliably remove a small amount of virus floating in the air. pass through In the OH radical chamber 105, while weakening or inactivating the virus, it adheres to the aqueous solution of the vegetable medium. The dead or weakened virus adhered to the aqueous solution is filtered by filtering the aqueous solution, and some of it is collected by filtering and prepared as a mucosal vaccine, and the rest continues to rotate as it adheres to the aqueous solution, and is decomposed into hydroxyl groups.

5A and 5B, the air outlet 14 of the virus removal unit 100 is connected to the respirator 150 worn by the user 152 by an inhalation air hose 112, and the virus removal unit 100 of the air inlet 12 is connected to the respirator 150 by the air hose 112 for exhalation. The respirator 150 is provided with a check valve (not shown) to prevent backflow of air. It is necessary to supply air to the user by sufficiently sucking in air from the atmospheric intake to prevent oxygen shortage.

Further, in antivirus systems, atmospheric or indoor air containing various viruses is treated (sterilized, attenuated, or inactivated) and provided for respiration after adhering and removing viruses. For this, external air is allowed to pass through the virus removal unit 100, and then is provided for respiration. In addition, since there is a possibility that the exhaled air contains a virus, the virus is killed and removed, and then the safe air is discharged.

This anti-virus system for breathing can be configured for mobile personal use, and can be configured as quarantine equipment in a public indoor space if necessary.

Each blower 16 is connected to the inhalation air hose 112 and the exhalation air hose 122, and the respective blowers may have their operation controlled by a sensor that detects the exhalation and the inhalation.

6 shows an embodiment in which the anti-virus system 10 having the virus removal unit 100 and the respirator 150 is placed in, for example, a bag 161 to make it portable according to the present invention.

In the portable virus removal unit 100 , an air hose 112 for breathing in and an air hose 122 for breathing out are connected between the virus removal unit 100 and the respirator 150 . The air inhaled by the wearer external air passes through the virus irradiation chamber or the adhesive chamber, is inhaled through the inhalation port of the respirator through the inhalation air hose 112, and the air coming out of the wearer's lungs is exhaled from the respirator 150 Let it pass through the irradiation chamber or the adhesive chamber through the air hose 122 for use. Accordingly, it is possible to breathe safe clean air from which viruses are removed in any environment.

It is preferable to provide a blower in the respirator 150 or the air hoses 112 and 122 to operate the blower according to the exhalation force and the inspiratory force.

And it is preferable to install an ultra-fine filter near the respirator 150 or near the virus removal unit 100 to remove the virus.

By attaching the air hose of the virus removal unit 100 to the existing gas mask, it is also possible to serve as both a gas mask and a quarantine respirator.

7 shows the circulation state of the upward air flow in order to prevent virus transmission by the respiratory air and droplets of several people by applying the anti-virus system 10 according to the present invention to indoor breathing.

That is, an embodiment of a quarantine equipment that produces an anti-virus system 10 according to the present invention for an indoor space and installs it in a restaurant, cafe, classroom, office, pulpit, conference room, etc. indicates This prevents the virus from being transmitted to the next person by breathing droplets of several people.

By passing the anti-virus system 10, indoor/outdoor or atmospheric treatment target air through the electromagnetic wave irradiation room or ultraviolet irradiation room of the virus removal unit 100, or the aqueous solution adhesion chamber of the vegetable medium OH radical chamber, safe clean air from which the virus is removed is supplied to the air outlet Through (14), it is sent to the indoor space of the quarantine target or discharged into the outdoor atmosphere. It is preferable to form an updraft in the room.

A blower 16 is installed at the air inlet 12 and the air outlet 14 of the adhesion chamber or the irradiation chamber of the virus removal unit 100 to promote air circulation, and at the same time create an upward airflow, The air is guided to flow toward the virus removal unit 100 through the hood 19 disposed at the upper end of the inlet 12 . Accordingly, the exhaled air and droplets of several people in the room rise upward according to the updraft, pass through the irradiation room or the adhesion room, and form an updraft with safe clean air from which the virus in the air has been removed. The role of the updraft is that the air containing the virus does not spread to the person next to it but goes up along the updraft and is sucked into the virus removal unit 100 so that the virus is removed.

The virus removal unit 100 includes an electromagnetic wave irradiation chamber or an ultraviolet irradiation chamber or a vegetable medium OH radical chamber.

In addition, it is preferable to provide a filter 17 at the air outlet 14 of the irradiation chamber to remove the dead virus.

8 shows an embodiment of a state in which the anti-virus system 10 according to the present invention is installed in an access passage of an airport, a port, a passage through which the public, such as a public building, or an article transfer passage for quarantine of delivered goods.

The passage prevention access room 200 is provided with a blower 16 that closes the front and rear doors, and blows the air into the electromagnetic wave irradiation room or the adhesive room by sucking the indoor air. The blower is a blower made of a fan for an air curtain, and is installed in one or more sets long on the ceiling. The air flow passes through the virus removal unit 100 and blows out through both side walls of the passage. The virus is removed by blowing the air to be treated into the irradiation room or OH radical chamber by floating the virus attached to the entry and the cargo in the air with an air sour.

The unit 100 applies an electromagnetic wave irradiation chamber or an ultraviolet irradiation chamber or a vegetable medium OH radical chamber.

Accordingly, it is possible to block the spread of the virus through goods or travelers, enabling free travel.

In addition, a filter 17 is installed at the air outlet 14 of the electromagnetic wave irradiation chamber to collect and remove dead viruses.

9A to 9D are an embodiment of a four-field quarantine target 101 to which the removal unit 100 having an electromagnetic wave irradiation chamber or an adhesive chamber for removing viruses according to the present invention is applied. 9A is about the air purifier 210 to which the virus removal unit 100 is applied, FIG. 9B is about the air conditioner 220 to which the virus removal unit 100 is applied, and FIG. shows the state in which the virus removal unit 100 is applied to prevent the traffic cabin of the Shows a system that provides

As shown in FIGS. 9A and 9B , the virus removal unit 100 of the antivirus system 10 is applied to the air purifier 210 and the air conditioner 220 (including a hot air conditioner) to provide clean air from which the virus has been removed. .

Accordingly, when there is a virus infected person indoors, there is a problem that the air purifier or air conditioner rather spreads the virus, which can be solved.

As shown in Fig. 9c, when the virus removal unit 100 is applied to the air conditioner of various transportation institutions, the virus is removed from the damper or diffuser of the ceiling air passage of the traffic cabin, which is the quarantine target 101 connected to the blower of the air conditioner. The downdraft of the removed clean air can be sent into the cabin. By blowing clean, virus-free air over the passengers' heads, passengers can breathe safe air.

As shown in Fig. 9d, the air supplied to the air conditioning equipment installed in the underground space or building is equipped with an atmospheric intake that supplies fresh air 6 m above the ground (air that does not contain heavy harmful air such as vehicle exhaust gas voc), and , when the virus removal unit 100 is applied, it is possible to provide fresh and safe clean air from which the virus is removed to the quarantine target 101 in an underground space or a building.

In addition, if an OH radical aqueous solution chamber is used in the virus removal unit, the problem of yellow dust or fine dust can also be solved.

Claims (18)

1. An air inlet through which air is introduced from a quarantine target and an air outlet through which air is discharged, and a virus removal unit disposed between the air inlet and the air outlet, wherein the virus removal unit is an electromagnetic wave radiation chamber. or an ultraviolet irradiation room or an OH radical chamber that weakens or inactivates the virus, and inhales external air and air from the quarantine target to kill the virus or bacteria in the virus removal unit to send clean air to the outside air or the quarantine target Anti-virus system in place.
2. According to claim 1, wherein the virus removal unit comprises an electromagnetic wave irradiation chamber or ultraviolet irradiation chamber (ultraviolet ray irradiation chamber), the electromagnetic wave irradiation chamber constitutes a high-density electromagnetic wave converter in a cylindrical shape to serve as an electromagnetic wave guide so that the high-density electromagnetic wave is irradiated. It is an electromagnetic wave conversion irradiation room in which the ultraviolet irradiation chamber has a cylindrical reflector that surrounds a high-density ultraviolet generator, and the reflector is titanium dioxide (TiO²) with high reflectivity, an antivirus system.
3. The method of claim 1, wherein the OH radical chamber of the virus removal unit contains an aqueous solution of a vegetable medium, OH radicals are generated between the ruthenium (Ru) catalyst electrode plate and the titanium (Ti) electrode plate, and by OH radicals An antivirus system comprising a virus removal chamber in which a weakened or killed virus is adhered and removed, wherein the virus removal chamber constitutes a virus sticky chamber.
4. The antiviral system according to claim 3, wherein the aqueous vegetable medium solution is configured to have adhesion by injecting the powder of the vegetable medium together with water into the OH radical chamber, and energizing the electrode plate to generate OH radicals.
5. According to claim 1, wherein the antivirus system is configured to be mobile with a respirator that can be worn by an individual, and the virus in which the virus has been killed or inactivated in the virus removal unit is discharged from the air outlet and passed through the air hose. An anti-virus system that flows into the respirator, and the exhaled air of the wearer is introduced into the air inlet of the removal unit through an air hose connecting the respirator and the removal unit to kill or inactivate the virus in the removal unit.
6. [Claim 6] The antivirus system of claim 5, wherein the antivirus system is provided with a collector to collect a virus that has been killed or weakened and inactivated between the air outlet of the removal unit and the respirator so that it can be utilized as a mucosal vaccine optimized for the wearer's body.
7. [Claim 3] The antivirus system according to claim 2, comprising a contact temperature measuring device and a voltage regulating device for regulating the state of being killed, heat injured, and ozone injured of the collected virus.
8. [Claim 6] The anti-virus system according to claim 5, wherein a blower is installed at the air inlet and the air outlet of the removal unit or the inhalation hose and the exhalation hose, respectively, as needed, and the blower is activated by a sensor that detects the inhalation and exhalation.
9. According to claim 2, wherein the virus is irradiated with electromagnetic waves or ultraviolet rays to provide a first irradiation chamber and a second irradiation chamber in the removal unit that removes by applying a thermal image or ozone image (stain) to independently pass the intake air and the exhaust air virus system.
10. [4] The method of claim 3, wherein in the adhesive chamber, the aqueous solution of the OH radical chamber and the virus suspended air are mixed with each other. contact. and a circulation line for adhering and removing viruses floating in the air to the aqueous solution and a pump for introducing external air and circulating the aqueous solution; An anti-virus system comprising an outlet pocket for inhalation as a pump and an inlet pocket for exhalation as a bumper for inlet air at the inlet of the pump.
11. [Claim 4] The anti-virus system according to any one of claims 1 to 3, comprising a blower for sucking indoor air and an air inlet, passing the inhaled air through the virus removal unit to kill the virus Through the outlet, respiratory droplets of several people are passed through the removal unit again according to the updraft, and discharged to the outside air or returned to the room. system.
12. An anti-virus system according to any one of claims 1 to 3, wherein the anti-virus system is installed in an access passage of an airport or port, a passage through which the public enters, or an article transfer passage for quarantine of delivered goods It is equipped with a blower and an air inlet that sucks air inside, and passes the inhaled air through the virus removal unit to kill the virus, and then discharges it to the outside through the air outlet or returns to the quarantine space. anti-virus system for
13. The antivirus system according to claim 1 or 2, wherein the virus removal unit is applied to an air purifier, an air conditioner, or a hot air fan to remove bacteria and viruses of various respiratory diseases.
14. The method according to claim 1 or 2, wherein a virus removal unit is installed at the air inlet or outlet of the air conditioner of a transportation facility, and the air is blown into the guest room from the damper or diffuser installed in the ceiling air passage of the room to be quarantined connected to the blower of the air conditioner. , An antivirus system that creates a downdraft of clean air from which the virus has been removed from the ceiling to the floor of the cabin to block respiratory droplets between passengers and breathe clean air.
15. The antivirus system according to claim 1 or 2, wherein clean air from which various bacteria and viruses are removed is supplied by applying the irradiation chamber of the virus removal unit to the air conditioning equipment or system cooling/heating equipment of an underground facility or an above-ground facility.
16. [Claim 4] The method of claim 1 and 3, wherein, by applying the OH radical adhesive seal of the virus removal unit, it removes adhesiveness of various bacteria and viruses and simultaneously removes both yellow sand and fine dust to breathe with clean air similar to the air in the forest. antivirus system.
17. The antivirus system according to claim 1, wherein the antivirus system is applied to a ventilation device of a negative pressure ward having the virus removal unit or a ventilation device in a livestock shed.
18. The method of claim 5, wherein the respirator is composed of a gas mask, so that a virus removal unit and a virus collector are included in the gas mask to protect against an unexpected bacterial virus attack, and to capture the attacked bacterial virus to identify the type antivirus system.

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