KR200385033Y1 - An air cleanning apparatus for indoor air combines with lighting fixtures - Google Patents

Abstract

The present invention relates to an indoor air purifying device for a lighting lamp to purify indoor air contaminated with various contaminants. An anion generator is installed on the lighting lamp, a photocatalytic material is coated on the cover glass of the lighting lamp, and a UVA is installed for the photocatalyst. It is configured to activate the function to purify the air at the same time as the lighting. Compared to the prior art to purify the air with only one anion or a photocatalyst function, the present invention performs a greatly improved air purification function with two combined effects. The prior art purifies the air at the same time as the lighting of the lamp, there is a disadvantage that the function is stopped when the lights, such as going to bed or going out. The present invention allows the air purification function to be performed without interruption by installing a circuit to operate separately from the lamp so that the air purification function by the negative ion generation continues. As an add-on, it installs more fragrance cartridges to help improve health, and produces large amounts of natural negative ions to create indoor air, such as air in deep mountain forests, to create indoor air purification and lighting that contributes to health promotion. There is a purpose.

Description

An air cleanning apparatus for indoor air combines with lighting fixtures}

The present invention relates to an indoor air purifying device. More specifically, anion generators are installed in various colored lights attached to a ceiling or a wall of an existing room, and a photocatalyst material is coated on a lamp cover glass or plastic. The present invention relates to an indoor air purifier for a lighting lamp that purifies indoor polluted air at the same time as lighting.

Negative ions refer to atomic elements that carry negative (-) electrons from the valence electrons in the air, and occur mainly in deep mountains or under coastal waterfalls. Artificial generation is mainly caused by electrical devices. The principle is that when a high-pressure negative high voltage is applied to the needle electrode (needle point), the molecules in the air are released at a high speed with enough energy to cause ionization of negative electrons from the needle tip by high-energy processes. Collide with to generate negative ions.

In general, the anion neutralizes and precipitates various gaseous pollutants such as nitrogen oxides, sulfur oxides, hydrocarbons, carbon dioxide, and VOC substances such as formaldehyde, toluene, and tobacco smoke to purify the air, and remove the bacteria and bacterial odors. . In addition, it helps neutralize various harmful electromagnetic waves and prevent and treat various chronic diseases such as neuralgia, asthma and insomnia. It also helps the body to recover from fatigue and relieve stress and improve learning.

It is used to attach to an air purifier by using the effect of such anions, or it is also used as a stand type anion air purifier. There is no need to clean the filter, the hassle of replacement or cost, no noise, compact size, regardless of the location. Most of these anion air purifiers have been controversial in terms of ozone and nitrogen oxides that occur incidentally when anions are generated by applying a high voltage to metal needlepoint discharge electrodes (e.g., public publications 190-00123). In particular, there is a concern that ozone below the reference level may have a fatal adverse effect on the human body due to lack of oxygen in an enclosed space.

Conventional technologies such as anion generating lamps include anion generating air purifiers (especially, published 1994-4004876). Also, a method of generating negative ions by applying a high voltage to a needle point cannot remove the problem of the anion air purifier. would.

In addition, the conventional negative ion air purifier or anion air purifying lamp, etc., all have a disadvantage in that contaminants that precipitate during the ionization of the discharge electrode are attached to the discharge electrode, thereby degrading anion generation efficiency. None of the negative ion generators have been solved.

On the other hand, the photocatalyst is irradiated with ultraviolet rays to the metal oxide semiconductor to remove contaminants, odors and the like, and TiO ₂ (Titanium dioxide) is widely used as a representative photocatalyst. When ultraviolet rays having a wavelength in the range of 300 to 400 nm irradiated by sunlight or fluorescent light are irradiated onto the surface of the TiO ₂ coated object, electrons are transferred to the conduction band to form electrons and holes. Since these electrons and holes have very strong oxidation and reducing power, they react with water vapor (H ₂ O) or oxygen (O ₂ ) in the air to generate strong OH radicals, H radicals, etc. It oxidizes and decomposes all organic matter and pollutants in the same state as it is heated, and it is nitrogen oxide, hydrocarbon, carbon monoxide, sulfur oxide, ozone, etc., which are gaseous pollutants in the air, and formaldehyde, toluene, xylene, which are VOC substances. Purifies the air by oxidatively decomposing benzene, radon, tobacco smoke and its odors, and other ammonia odors. There is also a growth-promoting effect of the organism, such as sun exposure while protecting eyesight.

Due to this effect of photocatalyst, it is widely used in composite air purifiers such as Hilter, electrostatic precipitating, photocatalyst, etc. which are recently released, and conventional techniques such as photocatalyst air purification lighting have a technique of coating a reflector of a lamp (actually, public 0184967). effect of the photocatalyst is a visible or UV light source is fully irradiation (照射), the more the particles of TiO ₂ less, as the support (coated area) of the TiO _2, is proportional to big is the effect, the technology is reflected on the reflection plate I wonder how it will work with as few light sources as possible and as thin as a coating. Conventional techniques described above are difficult to expect a great effect due to the lack of light source and lack of support.

As described in the related art, negative ion generating air purification lamps equipped with an anion generating device have been pointed out as a disadvantage of generating harmful substances such as ozone or nitrogen oxide, or decreasing anion generation efficiency.

Accordingly, the present invention provides a large amount of negative ions released without the generation of harmful substances, no deterioration of the generation efficiency, long anion release and high air residual rate in the lighting of FPL, FLR FCL, etc. It is to provide an indoor air purifying device for a lighting lamp that has a photocatalytic material which is much more effective than that of the technology of the present invention, so that anion generation function and air purification function by the photocatalytic reaction are performed.

Indoor air purification device for a lighting lamp according to the present invention,

In the lamp, the negative ion generator is installed on the base panel of the lamp, a plurality of UVA LEDs are installed on the base panel of the lamp, and the photocatalyst is coated on the cover glass of the lamp,

The negative ion generator,

Each of the circuit components of the high voltage generator that generates the input power at a high voltage for generating negative ions is impregnated with a strong insulator ceramic and embedded in a case. And a discharge tube for transmitting a high voltage of the discharge pin to the discharge pin, and a discharge unit attached to an end of the discharge tube to radiate negative ions into the atmosphere, wherein the discharge tube includes: a plurality of conductive wires coated with a plurality of negative ion generating materials; The negative ion generating material is coated on the inner wall to form a coating material that insulates the plurality of wires from the outside, and the discharge pin of the discharge portion is characterized by coating TiO ₂ .

The anion generating material may be coated with a tourmaline solution in nano or micron units, or an anion generating and far infrared ray emitting mineral, in which a tourmaline solution is mixed with a single or two or more materials such as gemstone, elvan, diamond, biotite, biotite, etc. It characterized in that the coating.

The conducting wire of the discharge tube is characterized in that the multi-wire structure is formed by coating a plurality of strands of metal conducting wire on the coating material, characterized in that the conducting wire of aluminum alloy material having high conductivity and high heat resistance.

In addition, the coating material is a silicone rubber coating material, but the inner wall of the tourmaline powder and the anion generation such as the ear lapis lazuli and ultra-fine powders, such as far-infrared radiation minerals, such as bincho charcoal is selected or coated with a single material, characterized in that the coating It is done.

Cut the middle of the conductor to be spaced at intervals of 1 ~ 4cm, insert the fine powder granules of minerals such as tourmaline powder or precious stone, and fix the cut conductors, wrapped with a coating material coated with tourmaline powder or mineral powder on the inner wall Configure.

The discharge pin connected to the end of the discharge tube may be a needle needle of alloy of various metals, and the nanoTiO ₂ solution may be coated on the needle, or an alloy of stainless steel, titanium, aluminum, copper, etc. may be 2 to 5 microns in size. Made of metal yarn in the form of a bundle of nanoTiO ₂ solution is used to coat. That is, the discharge portion (discharge pin) attached to the end of the discharge tube, the needle needle or the bundle-shaped metal yarn may be selectively used in the discharge tube, that is, the structure of cutting or not cutting the wire.

Therefore, the structure of the anion generator as described above, by coating an anion radiating material on the conducting wire and the coating material of the anion discharge tube, and coating a nano TiO ₂ solution on the discharge pins, anion generation without incidental generation of harmful substances such as ozone and NOx The advantage is that the efficiency lasts without reduction.

In addition, the lamp according to the present invention is characterized in that a plurality of UVA LED is installed on the base panel of the lamp, and the photocatalytic function of sterilization and air purification is performed by coating the photocatalyst by visible light or ultraviolet light on the lamp cover. have.

In the negative ion generating device according to the present invention, when various circuits are installed in the negative ion generating unit, the steel insulator is impregnated and sealed, and the discharge tube (coated wire) directed to the discharge part is formed of the silicone rubber film having the highest insulating property. When using a lamp, there is an advantage that the circuit is not affected by the high heat dissipation or the function of the discharge tube.

Photocatalyst is effective in removing odors and harmful bacteria, such as removing gaseous pollutants and tobacco smell, as seen in the prior art. The photocatalyst has an effect that the larger the support (coating surface) of the TiO ₂ is, the more the light source is, the greater the effect. However, the photocatalyst lighting technology of the prior art could not expect the desired effect because the support of the TiO ₂ and the light source were not enough. .

According to the present invention, various shapes of 10 to 40 mesh-sized glass beads coated with nano TiO ₂ reacting with visible or ultraviolet light on the outer circumference of a lamp cover are attached to the outer circumference with a transparent binder or oxidized on the glass surface. Nano-TiO ₂ sol or gel-coated glass is used by the film-forming technique which cultured the thin film of silicon. Glass beads can be used to select the shape or size with the highest photocatalytic efficiency.

Glass with such glass beads or film-forming technology is also 4 to 5 times more effective than ordinary glass, with a high degree of integration, such as a coating of TiO ₂ several times more than coating on ordinary glass surfaces. And the reason to coat on the outer circumference of the case glass is that when the photocatalyst is irradiated with light source and catalyzes the contact with air, it is necessary to make contact with air. Because.

By replacing the glass portion with a high-strength plastic, glass beads coated with nano TiO ₂ for plastics may be attached to a transparent binder.

In addition, nano TiO ₂ is coated on the reflector of the base panel such as a lamp, the outer circumference of the stabilizer _circuit housing, the outer wall bracket of the housing, the lamp case, and the outer circumference of the housing to maximize the photocatalyst support and to prevent contaminants charged during anion discharge. To prevent contamination of the components. TiO ₂ is an excellent antifouling material and has the advantage that the lamp is not steamed when the photocatalytic coated lamp is used in a bathroom lamp due to its super hydrophilicity.

The photocatalytic function oxidizes and contaminates the pollutants precipitated by the release of negative ions, exerting synergistic effects on air purification, and reducing the amount of neutralizing and settling the pollutants with negative ions. It acts to increase the rate.

The photocatalyst light source is equipped with a number of UVA LEDs in addition to the ultraviolet light or visible light irradiated from the fluorescent lamp to the main body of the lamp base panel or the outer wall of the ballast housing to compensate for the shortage of the ultraviolet light source in the fluorescent lamp. Used as a mood, it is effective in two stone two groups.

UVA is harmless to human body and TiO ₂ is a UV blocking agent. Since photocatalyst glass is mostly located under the UVA LED in this design, there is no need to worry about damage to UVA. It can be seen that the photocatalytic effect is significantly improved compared to the prior art by securing the support of the sufficient photocatalyst and sufficient light source.

The photocatalyst, as TiO ₂ , exerts redox power in response to UV, and has been developed to act as a photocatalyst by adding an additive that reacts to visible light.

In the prior art, although there is an air purification lamp having one function of anion or photocatalyst, there has not yet been a lamp for purifying air by the simultaneous effect of two functions as in the present invention. The photocatalyst oxidizes and decomposes the fine pollutants neutralized and precipitated by the anion, and due to the synergistic effect, the air purification effect is significantly improved compared to the existing air purification lamp having one function.

The prior art is to purify the air at the same time as the lighting of the lamp, there is a disadvantage that its function is stopped when the lights off. Indoor air pollution is always polluted by indoor inflow of polluted outside air and pollutants generated indoors, and it is difficult to see that the air purification function is not performed at all times and that the function is stopped. There is a face. The present invention, in order to perform the air purification function without interruption, the anion or photocatalyst function is the negative ion is generated even after the lights out or the photocatalytic function to operate, the circuit and sensor are installed in the ballast circuit housing in parallel with the remote control or string (string) Gives the function to turn off only by using. In other words, the switch is separately configured so that the operation of the lamp, anion generator and UVA LED can be operated independently.

The above-described additional functions are added according to the purpose of the lamp in addition to purifying the indoor air with a function which is much improved than the conventional air purifying lamps by the conventional techniques.

The fragrance cartridge is attached to the lamp to make the indoor air more refreshed and refreshed. The sintered body can be coated and the fragrance can be refilled with the female screw nut as the porous metal body and the porous metal body as the sachet. When you watch TV, read, study, or work, you can improve work efficiency and learning ability, and it helps to recover from physical and mental fatigue and relieve stress.

The incense has been used as an adjuvant treatment for various diseases in the West and called "Aromatherapy" in the West. Inflammation, asthma, cold, hair growth, immunity enhancement, etc. In fact, it helps health with various effects.

Aroma is a highly volatile anion and is known to have the greatest effect due to its synergy when combined with anion.

The present invention is simple in structure, requires no cleaning or maintenance cost, is inexpensive and economical, and purifies the air with much improved functions such as the air purifying light of one function of the prior art, The photocatalytic function of the bactericidal effect and the aromatherapy effect also show the effect of air purification and health promotion.

Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings.

1a to 1e is a view showing the configuration of the negative ion generator applied to the present invention, the negative ion generator applied to the present invention, as shown in Figure 1a, generating a high voltage for generating an input power source with a high voltage for negative ion generation Each negative circuit part is built in one case and impregnated with a steel insulator ceramic to form a negative ion generating unit 130 consisting of a single unit and a negative high voltage from the negative ion generating unit 130 as a discharge pin. It consists of a discharge tube 131 for transmitting, and an emission portion 132 attached to an end of the discharge tube 131 to radiate negative ions into the atmosphere.

As shown in FIG. 1B, the discharge tube 131 may include a plurality of conductive wires 11 coated with a plurality of negative ion generating materials and a plurality of conductive wires 11 coated with an anion generating material on an inner wall thereof. It is composed of a covering material 12 to insulate, and characterized in that the discharge pin of the discharge portion 132 is coated by TiO ₂ . Here 11a is a coating film such as tourmaline solution or mineral solution coated on the conductive wire 11, 12a is a tourmaline powder or mineral powder coating film coated on the inner wall of the coating material (12).

The anion generating material may be coated with a tourmaline solution in nano or micron units, or an anion generating and far infrared ray emitting mineral, in which a tourmaline solution is mixed with a single or two or more materials such as gemstone, elvan, diamond, biotite, biotite, etc. It characterized in that the coating.

The conducting wire 11 of the discharge tube 131 is characterized by a multi-wire structure formed by coating a plurality of strands of metal conducting wire with the covering material, and is characterized by using a conducting wire made of aluminum alloy material having high conductivity and high heat resistance. .

In addition, the coating material 12 is a silicone rubber coating material, the inner wall of the tourmaline powder and the anion generation such as the jewels and the like, the far-infrared radiation minerals, or ultra fine powder such as bincho charcoal mixed or selected as a single coating It is characterized by.

On the other hand, as shown in Figure 1c, by cutting the middle of the discharge tube 131 spaced at intervals of 1 ~ 4cm, and put the fine powder particles 13 of minerals, such as tourmaline or the precious stone, and cut the conductor ( 11) are fixed and constructed by wrapping the coating 12 'with the tourmaline and mineral powder coated on the inner wall (12'a).

The discharge pin of the discharge portion 132 connected to the end of the discharge tube 131 may be a needle needle made of alloy of a number of metals, but may be composed of a plurality of spinning pin structure as shown in Figure 1a and may also be configured as a needle structure as shown in Figure 1d. As shown in FIG. 1E, an alloy such as stainless steel, titanium, aluminum, copper, etc. may be used as a bundle of metal yarns having a size of 2 to 5 microns, but the discharge part 132 is coated with a nanoTiO ₂ solution. Use by attaching. Here, the discharge portion 132 attached to the end of the discharge tube 131, the radiating tube, that is, to selectively use the metal pin of the spinning pin, needle needle or bundle type in the structure of cutting or not cutting wire Can be.

2 and 3 is an exploded perspective view showing the overall configuration of the FPL having the air purification and health promotion function to which the technique of the present invention is applied, and a cross-sectional view of the overall configuration, as shown, the base panel 90 with a built-in power supply And a lamp holder clip 101 attached to the base panel 90, the ballast circuit of the lamp, the negative ion generating unit 130, and the lamp socket 102 inside the lower ballast circuit housing 110. ), But the ballast circuit and the negative ion generating unit 130 is placed between both sides of the socket 102, the outer wall of the ballast circuit housing 110 surrounds the housing with a metal bracket 111, the lower end The through hole is drilled in the hole, and the lower end of the ballast circuit housing 110 is penetrated, and the upper end of the small metal pipe 122 is attached to be connected to the through hole of the housing outer wall bracket 111, and the male thread 122 is disposed at the lower end of the pipe. And make a male thread It is thereby provided with an internally threaded nut (123).

Here, the anion generator unit 130, the discharge tube 131 and the discharge unit 131, which is the core configuration of the present invention, is equipped with an anion generator having a configuration as described with reference to Figures 1a to 1e, As a result, anion is generated without releasing harmful substances such as ozone or nitrogen oxides.

In addition, the lower cover 120 is made of glass, but through the through hole 122A so that the metal pipe 122 penetrates downward, the metal pipe 122 penetrates the through hole 122A of the glass. Make it protrude downward.

The discharge tube 131 downward from the negative ion generating unit 130 installed in the ballast circuit housing 110 to the negative ion emitting unit 132 is a pipe 122 passing through the lamp cover 120. ) Is inserted into the inside and protrudes downward, and the negative ion releasing portion 132 is led out directly under the lamp cover glass 120 together with the lamp extinguishing string 106.

The ballast circuit housing 110 and the outer wall brackets 111 are fastened by inserting bolts into both sides of the bracket coupling holes 121 and the base panel coupling holes 121.

The photocatalyst coated cover 120 (hereinafter also referred to as 'photocatalyst cover') is a glass coated with a photocatalyst and is formed by drilling a plurality of discharge holes 133 penetrating the inner circumferential surface thereof, and the emitting hole is a lamp. It radiates heat radiation of (100) and accelerates convection of air to promote the effects of negative ions and photocatalysts.

The photocatalyst cover 120 has a female thread nut on the male thread 122 of the lower end of the pipe, which is provided at the lower end of the round pipe 122 connected to the ballast housing outer wall bracket 111 and passes through the through hole 122A of the glass. Tighten to 123, and fasten it to fix it to the upper base panel 90. At this time, the rubber packing 124 is inserted between the female nut 123 and the glass to prevent damage to the glass.

UVA LEDs I05 are placed on the inner circumferential surface of the base panel 90 to be turned on at the same time as the lamps, and further enhance the photocatalyst performance by enriching the light source of the lamp, which is the light source of the photocatalyst, and the LED is turned off even when the lamp is turned off. It will be used as a subtle mood.

Only the lights are turned off together with the ballast circuit in the ballast circuit housing 110, and the negative and UVA LEDs 105 are provided with a circuit to operate, so that the negative ion generating device and the UVA LED are turned off using the remote controller or the string 106. 105 continues to operate, and in addition to the above negative ion generation to perform the air purification function as a photocatalytic function.

As the negative ion emitter 132 is located directly below the photocatalyst cover 120, the pollutants neutralized and precipitated by the negative ions are rapidly and powerfully purged by the oxidation and decomposition of the powerful photocatalyst immediately above.

The incense cartridge is inserted into the incense cartridge 150 in the incense holder clip 152 and attached to the lamp 100 so that the incense cartridge is oriented through the discharge hole 133 by heat dissipation after the lamp is turned on.

Alternatively, a method of attaching the porous metal sintered body to the ballast housing outer wall bracket 111 and the pipe 122 as a binder, making the female screw nut 123 made of the porous metal body, and refilling the fragrance may also be applied.

When power is applied to the lamp with the above-described configuration, anion is generated at the same time as the lamp is turned on, and ultraviolet light or visible light of the lamp and the ultraviolet light of the UVA LED are irradiated onto the photocatalyst glass to generate a photocatalytic function. The effect is to purify the air, and the aroma scented from the fragrance cartridge combines with the anions to produce the greatest synergistic effect.

In the straight FLR, which has a similar shape to the FPL, the lamp socket is located at both ends, and a socket and a ballast circuit are provided in a housing on one side, and the ballast circuit, the socket, the negative ion generating unit, and the like are installed in the FPL. Then, the lower photocatalyst cover glass drills through-holes under both sockets, and attaches to the base panel in the same configuration as in the FPL. In FPL, there is only one coupling bolt of the base panel cover glass, but the two sides are different from the FPL, and the structure, functions, and effects of the anion, photocatalyst, and smell are the same as in FPL.

Figure 4 is an exploded perspective view showing another embodiment of the present invention, as shown in the upper portion of the cover glass as shown in Figure 1, the cover 120 is composed of a flat glass or flat plastic structure, the lamp base 90 Fixed to the bottom by using a fixing means (120b) (for example, a chain or a support member), the flat cover 120 is formed with a plurality of projection rods (120a) on the surface, the projection rod (120a) The glass beads coated with the nanoTiO 2 are coated on the formed surface. In addition, a plurality of UVA LEDs 105 are installed in the lamp base panel 90.

Therefore, since the anion generator and the photocatalyst coated flat cover 120 are located at an appropriate interval and are located in the open space, the pollutants neutralized and precipitated by the anion action on the upper side are quickly and powerfully purified by the oxidative decomposition of the strong photocatalyst on the lower side. Happens.

5 is an exploded perspective view of an FCL having an air purification and health promotion function according to another embodiment of the present invention, and FIG. 6 is a partially exploded perspective view and a cross-sectional view of the FPL and anion generator. The photocatalyst cover glass and the structure of bonding the glass to the upper base panel 90 are the same, but the UVA LED 105 is attached to the ballast housing outer wall bracket 111 different from the FPL, and the socket 102 ) Is connected to the wire from the ballast and coupled with the terminal pin of the lamp 100, and the shape of the lamp is the same as the FPL in terms of the structure, function, and effect of anion generation, photocatalyst, smell, etc. Do.

In some cases, the negative ion emitting part 132 may protrude toward the lower side of the base panel 110 coupled with the cover glass so that the negative ion emitting part 132 may be positioned.

Figure 7 is a perspective view showing the overall configuration of the lamp having the technology of the present invention is applied to another embodiment, the air purification and health promotion function, as shown in the rounded base panel to the ceiling mounted fixed plate is schematically 90 is attached, a cylindrical pillar bracket 111 is vertically attached to the bottom thereof, a support bracket to which the lamp 100 and its socket are attached to the cylindrical pillar bracket 111, and a glover supporting the lamp. The bracket 125 is formed integrally and is attached to the cylindrical pillar bracket, and the upper end of the cylindrical pipe is attached to the base panel, and the attached pipe penetrates into the cylindrical pillar bracket 111 and protrudes downward, and the lower end of the pipe. It is provided with a male screw thread, and provided with a female screw nut 123A coupled thereto, and tightened to fix the cylindrical pillar bracket 111 to the base panel 90.

The negative ion generating unit 130 and the stabilizer circuit unit 112 are placed in the cylindrical column bracket 111, and the negative ion generating tube 131 of the negative ion generating unit is laid and inserted into a pipe downwardly into the cylindrical column. Protruding downward from the cylindrical bracket like the string 106, the negative ion discharge portion 132 is located.

The photocatalyst coated glove glass cover 120 surrounding the lamp 100 is fastened and attached to the support bracket 125 by bolts 121, which are coupling screws. When fastening, the rubber packing 124 is inserted between the glass and the bracket to prevent damage to the glass.

UVA LED 105 is provided with a plurality of thin wires attached to the upper surface of the photocatalyst glove glass cover 120, the light is simultaneously turned on, and the light source of the photocatalyst is more abundant, and after being turned off Used as mood. The holder clip 152 into which the fragrance cartridge 150 is inserted is attached to the lamp, and the lamp is directed by heat dissipation of the lamp 100.

Alternatively, a method of attaching the porous metal sintered body to the pillar bracket 111 as a binder and making the female screw nut 123 of the porous metal to refill the fragrance may also be applied.

Photocatalyst coated glove glass cover 120 is currently available in three to four, can be used to produce a beautiful shape attached to the large petals on the ceiling. Nano TiO ₂ is coated on the outer circumference of the ceiling fixing plate, the base panel 90A, the cylindrical bracket 111, the glove glass bracket 125, and the like, maximizing the photocatalyst support to maximize the photocatalytic effect, It prevents the members from being contaminated with fine contaminants and is characterized by the above configuration. (TiO ₂ coating is excluded when the cylindrical bracket 111 is coated with a metal sintered body of incense storage.)

When power is applied to the lamp, the light is turned on and negative ions are released from the negative ion emitter to neutralize and precipitate pollutants in the room air, and the neutralized and precipitated pollutants are strongly photocatalytic action of the photocatalyst glass cover 120 located above. It is oxidized and decomposed by the air, and quick and powerful air purification occurs. The incense cartridge attached to the lamp is emitted by the heat dissipation of the lamp, and the incense is a ceiling-mounted lamp in the living room that exerts a synergistic effect by synergy with anion.

Although the embodiment is not shown in the drawings, in the other lighting of the ceiling lamp for living room, a metal base is attached to a round metal base panel to which a power supply is applied, to which a metal support bracket for attaching five to six light bulbs is attached. The unit is formed as a panel, and the arrangement of the fluorescent lamp at the lower end of the round base panel, the structure of the anion generator, or the panel of the photocatalyst cover glass is the same as in the above-described embodiment, and the bulbs are applied to the five to six bulb support brackets. The cover glass is made of photocatalyst glass, and the bulb is attached to a bulb in which a plurality of UVA LEDs are embedded.

The central cover glass and 5-6 bulb cover glass are all photocatalyst supports, and the UVA LED bulb provides a sufficient photocatalyst light source to exert enormous photocatalytic effect.After the round fluorescent lamp is turned off, the LED bulb is It is not turned off but used as a mood light.

As described above, the photocatalyst cover glass used in the present invention uses glass, and a flat cover glass may be used as curved glass.

In the lamp cover glass of the FPL, FCL of FIG. 2 to FIG. 7 or the like, or a square or rectangular shape, in order to maximize the photocatalyst support, a plane having a size of 2 to 5 times the area of the lamp base panel NanoTiO ₂ -coated glass beads are attached to the outer circumference of curved or curved glass or plastic with a transparent bind, or by using a film forming technique of glass, the nanoTiO ₂ sol or gel is coated to hang the ceiling pipe or chain. It can be used by hanging it on a fixed plate or a base panel.

On the other hand, in each of the above embodiments in order to accelerate the circulation of the air may be further installed under the negative ion discharge portion.

The anion, photocatalyst, and composite air purifying lights of the present invention not only provide indoor lighting but also purify indoor air, and bacteria in the air can grow due to filter contamination caused by the negligence of conventional filter air purifiers, It is economical and convenient to clean the air without the worry of replacing filter or cleaning dust collection plate without worrying about re-contamination by depositing pollutants due to contamination of dust collecting plate due to negligence such as cleaning. Has the effect of purifying.

The present invention can greatly purify the air without interruption and much better air purification function than the anion, photocatalyst, single air purification lamp of the prior art, and can be used semi-permanently by replacing the lamp as compared to the conventional one-time air purification lamp. It is economical and does not generate one-time waste, thus protecting the environment.

Complex air purification lights such as anions, photocatalysts, and aromas of the present invention have the effect of promoting health in addition to purifying the air.

1a to 1e is a view showing the structure of the negative ion generator applied to the present invention.

Figure 2 is an exploded perspective view of the air purification device for a lamp according to the present invention.

3 is a sectional view of the schematic configuration of FIG. 2;

Figure 4 is an exploded perspective view showing another embodiment of the present invention.

5 is an exploded perspective view of the FCL to which the technique of the present invention is applied in another embodiment.

6 is a partially exploded perspective view and cross-sectional view of FIG.

Figure 7 is a perspective view of the overall configuration of the fluorescent lamp applied the technology of the present invention in another embodiment.

<Description of Symbols for Components in Drawings>

11: lead wire 11a: coating film of the lead wire

12: coating material 12a: coating material coating film

13: tourmaline or anion generating mineral grains

90: base panel

100: fluorescent lamp 101: lamp support holder clip

102: fluorescent lamp socket 105: UVA LED

106: lamp off line 110: ballast circuit housing

111: ballast circuit housing outer wall bracket 112: electronic ballast circuit

120: lamp cover photocatalyst glass 120a: protrusion bar

121: bolts and holes 122: pipes and male threads

122 A: pipe through hole 123: female screw nut

123A: Cylindrical female threaded nut 124: Rubber packing

125: photocatalyst glass glover bonding bracket

130: negative ion generating unit 131: negative ion emitting tube (coated wire)

132: anion discharge unit (discharge pin) 133: discharge hole

150: incense cartridge 152: incense cartridge holder clip

Claims (13)

In the lighting, Install an anion generator on the base panel of the lamp, Install a plurality of UVA LED on the base panel of the lamp, It is composed by coating a photocatalyst on the cover of the lamp, The negative ion generator, Each circuit part of the high voltage generator which generates the input power at a high voltage for generating negative ions is built in one case and impregnated with a strong insulator ceramic to form a negative ion generator unit consisting of one unit and negative (-) from the negative ion generator unit. And a discharge tube for transmitting the high voltage of) to the discharge pin, and a discharge unit attached to the end of the discharge tube to radiate negative ions into the atmosphere. The discharge tube is composed of a plurality of conductors coated with a plurality of anion generating material and a coating material in which the anion generating material is coated on the inner wall to insulate the plurality of conductive wires from the outside, and the discharge pin of the discharge unit is coated with TiO ₂ . Configured by The lamp cover is an air purifier for a lamp according to claim ₁ , wherein TiO ₂ is coated on the outer surface of the UVA LED as a photocatalytic material for photocatalytic reaction based on light of the lamp, lamp light, and natural light of the lamp. According to claim 1, wherein the conductive wire of the discharge pipe, As a conductor of aluminum alloy material having high conductivity and high heat resistance, several strands of metal conductors may be coated with a tourmaline solution in nano or micron units, or single or two minerals such as precious stones, elvan, diamond, biotite, biotite, etc. Coating of anion generation and far-infrared radiation minerals mixed with a solution of two or more substances and tourmaline solution, The covering material, Air cleaning device for a lighting lamp, characterized in that the tourmaline powder, or any one or two or more mixed powders of minerals such as precious stone, elvan stone, diamond stone, biotite, biotite. The method of claim 1, wherein the discharge pipe, Cut the middle of the conductor to be spaced at intervals of 1 ~ 4cm, put the tourmaline or the powder of the mineral particles, and wrap the cut portion with a coating material coated with tourmaline or mineral powder on the inner wall to cover the air for lighting Purification device. The method of claim 1, wherein the discharge unit, Stainless steel, titanium, aluminum, copper, etc. made of 2 to 5 microns bundle of metal yarn or a needle needle form of air cleaning device for a lamp, characterized in that the coating by nano-Tio2 solution. The method of claim 1, wherein the lamp cover, It consists of a plurality of glass formed of a plurality of emission hole groups for air venting, and by attaching glass beads coated with nano Tio2 reacting to visible or ultraviolet light on the outer surface of the lamp cover glass with a transparent binder on the outer periphery of the glass Air purifier for illuminating lamp, characterized in that. The method of claim 1, wherein the lamp cover, A plurality of emission hole groups for aeration air is composed of a plurality of glass formed, and after forming a porous thin film on the outer surface of the lamp cover glass, nano-Tio2 sol or gel for coating air, characterized in that the coating is configured Purifier. The method of claim 1, wherein the lamp cover, An air purifier for a lighting lamp comprising a high-strength transparent plastic having a plurality of discharge holes and attaching glass beads coated with nano TiO ₂ for plastics with a transparent binder. The method according to any one of claims 1 to 7, A ballast circuit and a socket are installed in the center of the lamp base panel where the lamp holder of the lamp is installed, and a ballast circuit housing in which the negative ion generating unit is built is attached. The metal pipe is installed in the downward direction of the ballast circuit housing, The discharge pipe connected to the negative ion generating unit is inserted into the metal pipe, Form a through hole in the lamp cover and expose the end of the metal pipe downward and fasten the cover by tightening with a female screw, Air purifier for the lamp, characterized in that the discharge unit of the negative ion generator is installed to be exposed to the lower portion of the lamp cover. The method of claim 8, Coating the porous metal sintered body on the outer wall bracket of the ballast housing or the metal pipe, and the female screw nut is composed of a porous metal body to refill the porous metal fragrance for use. The method of claim 1, wherein the lamp lamp and the negative ion generator is separated by a switch to be operated by a different operation switch, the negative ion generator and the UVA is configured to be operable by a shared switch or a separate switch. Air purifier for a lamp, characterized in that. In the lamp having a lamp holder is installed on the lamp base panel with a built-in power supply, the ballast circuit housing is installed in the lamp base panel is provided with a ballast circuit housing is built in the ballast circuit is connected to the lamp socket, The lamp base panel has a plurality of UVA LED is installed, The circuit part of the negative ion generator is internal to the ballast circuit housing, The metal pipe is fixedly installed below the ballast circuit housing, and the discharge tube of the negative ion generator is inserted into the metal pipe. The discharge tube is coated with a plurality of metal conductors coated with tourmaline solution, a coating material with tourmaline powder coated on the inner wall, and a spin pin coated with TiO ₂ solution is attached to the end thereof. The transparent base is fixed to the lamp base panel by using a fixing means to be fixed to the lower side is installed, the cover air cleaning device for the lamp characterized in that the TiO ₂ photocatalyst material is coated. The glass cover of claim 11, wherein a plurality of protrusion rods are formed on the front surface of the cover to extend the cross-sectional area of the photocatalyst material, and the glass beads coated with TiO ₂ on the surface including the protrusion rods are formed using a transparent binder. Air purifying device for a lamp, characterized in that configured to adhere and coat a photocatalytic material. The air purifier for a lamp according to claim 11 or 12, wherein the outer wall bracket or the metal pipe of the ballast housing is coated with a porous metal sintered body used for refilling the fragrance with a porous metal.