JP3105720U - Portable pest control device - Google Patents

Abstract

An object of the present invention is to provide a portable pest control device that can safely, easily and inexpensively control pests.
A portable pest control device is connected to a portable power supply unit, and generates an ultraviolet ray by electric power supplied from a power supply. An optical fiber 520 for transmitting ultraviolet light, a high voltage generator connected to the portable power supply unit 510 and generating a high voltage by electric power supplied from a power supply, and a conductive wire connected to the high voltage generator and transmitting high voltage The optical fiber 520 includes a high-voltage conducting portion 530, and the optical fiber 520 includes a core that transmits ultraviolet light, and a clad formed on a coating around the core. An exposed portion for emitting ultraviolet light to the outside is formed, and the high-voltage conductive portion is configured such that the conductive wire passes around or near the optical fiber or the exposed portion. It is arranged so that the insects gathered in the ultraviolet rays emitted from the exposed portion can easily come into contact with the high-voltage conductive wire.
[Selection] Fig. 10

Description

  The present invention relates to a portable pest control device that irradiates ultraviolet rays using an optical fiber.

  Households, kitchens, cooking utensils, cooking utensils, medical equipment, shoes and clothing, human bodies, trains, airplanes, etc. Harmful microorganisms such as mold and small animals such as flies and cockroaches often breed in trouble.

  The use of disinfectants and disinfectants such as hydrogen peroxide is not always possible given the effects on the human body, and it is difficult to use them in humid places and in environmental pollution.

  Therefore, there has been proposed a device for sterilizing and disinfecting the human body without danger by effectively using ultraviolet rays.

  While some organisms have "negative phototacticity" to avoid ultraviolet rays, many organisms have "positive phototacticity" that collects in ultraviolet rays. In particular, many insects have positive phototacticity, and insect traps and insecticides utilizing this property have been developed.

  The mechanism is such that a metal wire with a high voltage of 1000 V to 1500 V is stretched around an ultraviolet lamp, and insects that come into contact with this wire are electrocuted.

  However, this apparatus has a drawback that the ultraviolet lamp must use a household power supply of 100V or a 12V power supply for vehicles. Therefore, it is impossible to carry it anytime and anywhere.

  On the other hand, completely portable "traps" and "insect killers" that apply a voltage of 1000 V or more using dry batteries have been developed. For example, a tennis racket type seems to be suitable for catching flying insects at first glance by swinging, but it is in the form of chasing insects flying around and running away, sustaining it, and treating many insects It takes a lot of effort and is not always an efficient method.

  The present invention has been made in view of the above problems, and an object of the present invention is to provide a portable pest control device that can safely, easily and inexpensively control pests.

(1) The present invention
A portable pest control device,
An ultraviolet ray generating section connected to the portable power supply section and generating ultraviolet rays by electric power supplied from the power supply;
An optical fiber that is connected to the ultraviolet ray generating section and propagates the ultraviolet ray generated in the ultraviolet ray generating section;
A high voltage generator connected to the portable power supply and generating a high voltage by electric power supplied from the power supply;
Including a high-voltage conductive unit connected to the high-voltage generating unit and configured by a conductive line that conducts a high voltage,
The optical fiber is
Including a core that transmits ultraviolet light and a clad formed on the coating around the core,
An exposed portion for exposing ultraviolet light to the outside by exposing a part of the core is formed on the clad,
The high-voltage conducting unit includes:
The conductive wire is arranged so as to pass around or near the optical fiber or the exposed portion,
It is characterized in that the insects gathered in the ultraviolet rays emitted from the exposed part are easily contacted with the conductive wire to which a high voltage is applied.

  The ultraviolet ray generating section can be composed of, for example, an ultraviolet lamp.

  The optical fiber is composed of a core and a clad having different refractive indexes of light. Here, the core is a light guide portion of the optical fiber specified by the high refractive index region, and the clad is formed in a film around the core and has a lower refractive index than the core.

  The optical fiber may be a clad type optical fiber (for example, a step index optical fiber) in which the refractive index changes discontinuously in the radial direction of the fiber and transmits light by total reflection, or the optical fiber may change in refractive index continuously to change the light by refraction. (A convergent optical fiber for transmitting the light), for example, a graded index optical fiber.

  The material of the optical fiber may be glass, plastic, or another material.

  Here, the optical fiber is formed in a straight stick shape, and an exposed portion is provided.

  One or more exposed portions may be provided. For example, it may be formed continuously in a groove shape or may be formed discontinuously.

  The exposed portion can be formed, for example, by making a cut, scratching, cutting, making a hole, making a groove, or making a cut in the outer periphery of the optical fiber.

  In this case, the clad may be cut, scratched, cut, drilled, or grooved, or the clad and core may be partially cut, scratched, or cut off. Alternatively, holes or holes may be formed.

  Note that a plurality of optical fibers may be included.

  By combining a plurality of optical fibers, it becomes possible to irradiate necessary and sufficient ultraviolet rays over a wider range.

  Here, the ultraviolet ray generated by one ultraviolet ray generating section may be distributed to a plurality of optical fibers, or a corresponding ultraviolet ray generating section may be provided for each optical fiber.

  As the power supply unit, a portable power supply such as a dry battery or a rechargeable battery can be used.

  The high voltage generator can be realized by a transformer or the like.

  The conductive wire constituting the high-voltage conductive portion can be realized by, for example, a metal wire, a carbon wire, or the like.

  According to the present invention, with a simple configuration in which an exposed portion is provided in the cladding, ultraviolet light is emitted from the exposed portion, light emitted from the optical fiber collects insects, and the collected insects contact the conductive wire with high voltage. And get electrocuted.

  The use of optical fibers requires very little power, so a dry cell power supply can be sufficient. Also, its light weight allows it to be used anywhere from outdoors to indoors.

(2) The portable pest control device of the present invention
A protector is provided around the conductive line of the high-voltage conductive part.

  In this way, safety can be ensured so that a person does not accidentally touch the conduction of the high-voltage conduction portion.

(3) The portable pest control device of the present invention is:
Further including a main body frame constituting an outer frame of a predetermined virtual surface and a grip portion connected to the main body frame,
The plurality of optical fibers are arranged at predetermined intervals on a predetermined virtual surface inside the main body frame.

  The plurality of optical fibers may be arranged, for example, in parallel at a predetermined interval inside the main body frame, may be arranged in a lattice, or may be arranged radially so as to form a fan shape. Is also good.

  The main body frame may be rectangular (including rectangles and squares), fan-shaped, or circular (oval or shaped like a tennis racket).

  The conductive wire disposed so as to pass around or near the optical fiber or the exposed portion may be disposed, for example, in parallel with the optical fiber, or may be disposed orthogonal to the optical fiber.

  In this way, the pests can be collected more efficiently.

(4) The portable pest control device of the present invention
The exposed portion is
The optical fiber is formed as one or a plurality of holes provided in the cladding of the optical fiber.

  One hole may be provided, or a plurality of holes may be provided.

  Here, the one or more holes are provided in a portion closer to the light source than in a distal end portion of the optical fiber farthest from the light source.

In addition, the position of the hole, the size of the hole, the direction of the hole, the shape of the hole, the number of holes, and the interval at which the holes are arranged can be appropriately set according to the purpose. The equipment is
The exposed portion is
The optical fiber clad is formed as a lateral groove having a predetermined width and a predetermined length along the outer periphery to expose the core.

  For example, the cladding may be cut off once (360 degrees) along the outer circumference with a predetermined width. By doing so, it is possible to irradiate the ultraviolet rays in the direction of 360 degrees along the outer circumference of the optical fiber.

  Alternatively, a predetermined length (for example, an outer peripheral portion corresponding to a predetermined angle θ) may be cut out along the outer periphery.

  One or more vertical grooves may be provided.

  Here, the one or more vertical grooves are provided in a portion closer to the light source than in a distal end portion of the optical fiber farthest from the light source.

  Further, the position of the vertical groove, the size of the vertical groove (width and length of the vertical groove), the shape of the vertical groove, the number of the vertical grooves, and the interval at which the vertical grooves are arranged can be appropriately set according to the purpose. .

(6) The portable pest control device of the present invention is:
The exposed portion is
The optical fiber is characterized in that the cladding is formed as a lateral groove having a predetermined width and a predetermined length along the axial direction to expose the core.

  For example, the clad may be cut from end to end along the axial direction with a predetermined width. By doing so, it is possible to irradiate ultraviolet rays in a predetermined direction along the axial direction of the optical fiber.

  Also, a predetermined length may be cut out along the axial direction.

  One or more lateral grooves may be provided.

  Here, the one or more lateral grooves are provided in a portion closer to the light source than in a distal end portion of the optical fiber which is farthest from the light source.

  The position of the lateral groove, the size of the lateral groove (width and length of the lateral groove), the shape of the lateral groove, the number of lateral grooves, and the interval at which the lateral grooves are arranged can be appropriately set according to the purpose.

(7) The portable pest control device of the present invention
The exposed portion is
The cladding of the optical fiber is formed in a spiral shape with a predetermined width and a predetermined length along the outer periphery to form a spiral groove exposing the core.

  In this way, ultraviolet rays can be irradiated in a 360-degree direction around the optical fiber.

  The spiral groove may be provided from end to end of the optical fiber, or may be provided in a part of the optical fiber.

  In addition, one spiral groove may be provided, or a plurality of spiral grooves may be provided.

  Here, the one or more spiral grooves are provided in a portion closer to the light source than in a tip portion of the optical fiber which is farthest from the light source.

  The position of the spiral groove, the size of the spiral groove (the width and length of the spiral groove), the shape of the spiral groove, the number of spiral grooves, the interval at which the spiral grooves are arranged Can be appropriately set according to the purpose.

  Hereinafter, preferred embodiments of the present invention will be described with reference to the drawings.

  The present embodiment described below does not limit the contents of the present invention described in the claims of the utility model in any way.

  FIG. 10 is a diagram for describing the portable pest control device of the present embodiment.

  The simple pest control device 500 according to the present embodiment is connected to a portable power supply unit 510 and generates an ultraviolet ray by using electric power supplied from a power supply. An optical fiber 520 that propagates the ultraviolet light generated in the above, a high voltage generator (not shown) connected to the portable power supply unit 510 and generating a high voltage by electric power supplied from the power supply, and a high voltage connected to the high voltage generator and 530-1, 530-2, and 530-3.

  The grip portion 560 is a portion that the user holds (grips) during use, and may include a power supply unit 310, a city ultraviolet ray generation unit and a high voltage generation unit (not shown) therein.

The optical fiber 520 includes a core that transmits ultraviolet light, and a clad formed on the coating around the core. An exposed portion for exposing a part of the core and radiating the ultraviolet light to the outside is formed in the clad. The high-voltage conductive portion is arranged such that the conductive wires 530-1, 530-2, and 530-3 pass around or near the optical fiber 520 or the exposed portion, and collect the ultraviolet rays emitted from the exposed portion. The optical fiber 520 may be configured as a set of a plurality of optical fibers so that the insects easily come into contact with the high-voltage conductive wire.

  By combining a plurality of optical fibers, it becomes possible to irradiate necessary and sufficient ultraviolet rays over a wider range.

  Here, the ultraviolet ray generated by one ultraviolet ray generating section may be distributed to a plurality of optical fibers, or a corresponding ultraviolet ray generating section may be provided for each optical fiber.

  The ultraviolet ray generating section can be composed of, for example, an ultraviolet lamp.

  The optical fiber 520 includes a core and a clad having different refractive indexes of light. Here, the core is a light guide portion of the optical fiber specified by the high refractive index region, and the clad is formed in a film around the core and has a lower refractive index than the core.

  Note that the optical fiber 520 may be a clad type optical fiber (for example, a step index optical fiber) whose refractive index changes discontinuously in the radial direction of the fiber and transmits light by total reflection, or may be a refractive index whose refractive index changes continuously and is refracted. A convergent optical fiber for transmitting light) (for example, a graded index optical fiber) may be used.

  The material of the optical fiber may be glass, plastic, or another material.

  Here, the optical fiber is formed in a straight stick shape, and an exposed portion is provided.

  One or more exposed portions may be provided. For example, it may be formed continuously in a groove shape or may be formed discontinuously.

  The exposed portion can be formed, for example, by making a cut, scratching, cutting, making a hole, making a groove, or making a cut in the outer periphery of the optical fiber.

  In this case, only the clad may be cut, scratched, cut, drilled, or grooved, or the clad and core may be partially cut, scratched, or cut. Alternatively, holes or holes may be formed.

  The power supply unit 510 can use a portable power supply such as a dry battery or a rechargeable battery.

  The high voltage generator can be realized by a transformer or the like.

  The conductive wire constituting the high-voltage conductive portion can be realized by, for example, a metal wire, a carbon wire, or the like.

  According to the present invention, with a simple configuration in which an exposed portion is provided in the cladding, ultraviolet light is emitted from the exposed portion, light emitted from the optical fiber collects insects, and the collected insects contact the conductive wire with high voltage. And get electrocuted.

  The use of optical fibers requires very little power, so a dry cell power supply can be sufficient. Also, its light weight allows it to be used anywhere from outdoors to indoors.

  Further, a protector 540 is provided around the conduction line of the high voltage conduction part.

  In this manner, safety can be ensured so that a person does not accidentally touch the conductive wires 530-1, 530-2, and 530-3 of the high-voltage conductive portion.

  The switch 512 may be a switch that is energized only when pressed, a switch that only switches on and off, or a combination of both.

  FIGS. 12A and 12B are views for explaining another example of the portable pest control device of the present embodiment.

  The portable pest control device 500'-1 of FIGS. 12A and 12B includes a main body frame 560 constituting an outer frame of a predetermined virtual surface (a rectangular surface in this case) and a grip portion connected to the main body frame. 550.

The grip unit 550 includes a power supply unit, an ultraviolet light generation unit, a high voltage generation unit, and the like (not shown).
See
The plurality of optical fibers 520-1, 520-2, ... are arranged at predetermined intervals on a predetermined virtual surface inside the main body frame 560. The plurality of optical fibers 520-1, 520-2,... May be arranged inside the main body frame 560 at predetermined intervals, for example, in parallel, may be arranged in a lattice, or may be in a fan shape. May be arranged radially.

  The main body frame may be rectangular (including rectangles and squares), fan-shaped, or circular (oval or shaped like a tennis racket).

  The optical fibers 520-1, 520-2,... Or the conducting wires 530-1, 530-2,. , May be arranged in parallel with the optical fibers 520-1, 520-2,..., For example, as shown in FIG. May be arranged orthogonally.

  In this way, the pests can be collected more efficiently.

  FIGS. 1A and 1B are diagrams for explaining the configuration of the optical fiber of the present embodiment.

  As shown in FIG. 1A, an optical fiber 20 according to the present embodiment is connected to a power supply unit 40, and an ultraviolet light generation unit 30 that generates ultraviolet light by electric power supplied from a power supply, and is connected to the ultraviolet light generation unit. And an optical fiber 20 that propagates the ultraviolet light generated in the ultraviolet light generating section.

Here, the optical fiber 20 includes a core (inner layer) through which ultraviolet rays pass, and a clad (outer layer) having a refractive index different from that of the core and formed on the coating around the core,
The clad is formed with an exposed portion for exposing a part of the core and leaking ultraviolet rays to the outside, and is configured so that the exposed portions leak ultraviolet rays.

  Further, if a voltage / current variable device provided by the power supply unit 40 is provided, the “ultraviolet irradiation intensity” can be adjusted, and more appropriate ultraviolet irradiation can be performed.

  The material of the optical fiber 20 may be glass or plastic. The optical fiber 20 has such a property that light traveling in the core (inner layer) portion is totally reflected inside the cladding (outer layer), so that the light reaches far. As a result, if the cladding is damaged or the fiber itself bends significantly, light may leak or attenuate, and a situation may occur in which light cannot be transmitted well. Therefore, it is preferable to use the optical fiber without bending (in a straight line).

  In the present embodiment, by exposing a part of the core (inner layer) from the cladding (outer layer) of the optical fiber with holes or grooves, it is possible to easily irradiate ultraviolet rays over a wide range. By adjusting "the size, number, interval, and position of holes" and "the number, angle, and width of grooves", ultraviolet irradiation suitable for the purpose can be performed.

  On the other hand, a large number of types of optical fibers have been produced, from as thin as 1 mm or less to as many times as thick. Further, the combination of the diameters of the optical fibers enables sterilization and disinfection according to the application.

  Further, as shown in FIG. 1B, a plurality of optical fibers may be included. At this time, the light generated by one ultraviolet ray generating section may be distributed to a plurality of optical fibers, or a plurality of ultraviolet ray generating sections may be provided so that each optical fiber generates one ultraviolet ray. A part may be provided.

  FIGS. 2A and 2B are views for explaining a case where an exposed portion is formed by making a hole in the cladding of the optical fiber.

  As shown in FIG. 2A, holes 110-1 to 110-12 are formed in the cladding of the optical fiber 100. Then, as shown in FIG. 2B, a part of the core (the inner layer of the optical fiber) 160 is exposed from a hole (for example, 130 or 140) formed in the cladding (the outer layer of the optical fiber) 150, and ultraviolet rays are emitted from the exposed portion. Is done.

  Further, by devising the shape of the hole formed in the cladding (outer layer) 150 of the optical fiber 100, the range 120 that can be irradiated with ultraviolet light can be adjusted, and the ultraviolet light can be irradiated in a target direction. For example, as shown in FIG. 2B, the shape of the hole may be cylindrical 140 or conical 130. When the cone 130 is formed, the ultraviolet irradiation range 120-1 is increased by increasing the angle θ around the vertex of the cross section of the cone, and the ultraviolet irradiation range 120-1 is reduced by decreasing the angle θ. be able to.

  FIGS. 3A and 3B are diagrams for explaining a case where the cladding of the optical fiber is taken along the outer circumference by a predetermined width and a predetermined length to form an exposed portion as a lateral groove exposing the core. is there.

  As shown in FIG. 3A, lateral grooves 210-1 to 210-11 are provided in the cladding of the optical fiber 200 so as to be perpendicular to the axial direction 202 of the optical fiber 200.

  Then, as shown in FIG. 3B, a part of the core (inner layer) 260 is exposed from a lateral groove (for example, 230) provided in the cladding (outer layer) 250 of the optical fiber 200, and ultraviolet rays are emitted from the exposed part.

  Here, the degree of emission of the ultraviolet rays can be adjusted by the intervals at which the lateral grooves are arranged. Therefore, an optimum lateral groove may be provided according to the application of sterilization irradiation.

  Also, the degree of ultraviolet emission can be adjusted depending on the length and location of the lateral groove.

  For example, as shown in FIG. 3B, a lateral groove 230 may be provided so as to go around the cladding (outer layer) of the optical fiber. In this manner, ultraviolet rays can be emitted in a direction of 360 degrees around the outer circumference of the optical fiber.

  Further, the ultraviolet irradiation range around the groove can be adjusted by the angle θ at which a part of the clad is cut off as the lateral groove.

  FIG. 4 is a view for explaining the width and length (angle) of the lateral groove and the irradiation range of the ultraviolet rays.

  For example, as shown in FIG. 4, a lateral groove 240 may be provided in a part of the cladding (outer layer) 250 of the optical fiber. In this way, ultraviolet rays can be emitted to a predetermined area 220 around the optical fiber.

  Here, by appropriately setting the width l1 and the length l2 of the lateral groove, the irradiation range of the ultraviolet light can be adjusted.

  FIGS. 5A to 5D illustrate a case where the cladding of the optical fiber is removed by a predetermined length and a predetermined length along the axial direction to form an exposed portion as a lateral groove exposing the core. FIG.

  As shown in FIG. 5A, a vertical groove 310 having a predetermined width 13 and a predetermined length 14 is formed in the cladding of the optical fiber 300 along the axial direction 302 of the optical fiber 302.

  Then, as shown in FIG. 5B, a part of the core (inner layer) 360 is exposed from the vertical groove (for example, 330) formed in the cladding (outer layer) 350 of the optical fiber 300, and ultraviolet rays are emitted from the exposed part. (See 320).

  Here, when arranging the optical fiber in the optical fiber sterilizing / disinfecting apparatus or setting the optical fiber sterilizing / disinfecting apparatus, the direction in which the lateral groove is directed can be adjusted to adjust the direction in which the ultraviolet rays are irradiated.

  Here, the emission position of the ultraviolet rays can also be adjusted by the position at which the lateral groove is provided (for example, the position in the axial direction). Therefore, a vertical groove may be provided at an optimum position according to the use of sterilization irradiation.

  For example, if a vertical groove 332 is provided as shown in FIG. 5C, the vicinity of 322 becomes an ultraviolet emission position, and if a vertical groove 334 is provided as shown in FIG. Position.

  FIG. 11 is a view for explaining a case in which the cladding of the optical fiber is spirally taken along the outer periphery with a predetermined width and a predetermined length to form an exposed portion as a spiral groove exposing the core. FIG.

  As shown in the figure, a spiral groove 910 having a predetermined width 15 and a predetermined length is formed in the cladding of the optical fiber 900 along the outer periphery of the optical fiber.

  By doing so, a part of the core (inner layer) 960 is exposed from the spiral groove 930 opened in the cladding (outer layer) 950 of the optical fiber 900, and ultraviolet rays are emitted from the exposed part, so that it is used for sterilization. be able to. In addition, it is possible to irradiate ultraviolet rays in a 360-degree direction around the optical fiber.

  FIGS. 6A and 6B show an example of an optical fiber disinfection and disinfection apparatus in which a plurality of optical fibers are combined and arranged on a panel.

  For example, as shown in FIG. 6A, the ultraviolet ray generating section 410 and a plurality of optical fibers 420-1, 420-2, 420-3,...

  Here, as shown in, for example, 420-1, 420-2, and 420-3, optical fibers having different positions where the vertical grooves are provided (light emitting fibers having different ultraviolet irradiation positions) may be combined. The irradiation range of the ultraviolet light can be adjusted by the combination pattern.

  When a plurality of optical fibers are combined, the plurality of optical fibers may be arranged in parallel on the panel in a line.

  Further, as the ultraviolet ray generating unit, a fluorescent lamp type light source 410 may be used as shown in FIG. 6A, or a fluorescent lamp type light source 412 may be used as shown in FIG. 6A.

  FIG. 7 is a diagram for explaining the ultraviolet ray generating unit.

  The ultraviolet generator 30 includes an ultraviolet light source 32, a reflector, and a reflector 34. Here, the reflecting plate and the reflecting mirror 34 are installed so that the reflected ultraviolet light is focused on the cross section of the optical fiber, and the ultraviolet light emitted from the ultraviolet light source 32 is guided toward the optical fiber 20 by the reflecting plate and the reflecting mirror 34.

  The ultraviolet light source can be composed of, for example, an ultraviolet lamp.

  FIG. 8 is a diagram for explaining the connection unit.

  Flexible joints 52-1 to 52-3 may be provided at a connection portion 50 between one or a plurality of optical fibers 20-1 to 20-3 and the ultraviolet ray generating section 30. By doing so, the angle of the optical fibers 20-1 to 20-3 can be freely adjusted.

  FIG. 9 is a diagram for explaining another example of the connection unit.

  The connecting portion 50 between one or a plurality of optical fibers 20-1 to 20-5 and the ultraviolet ray generating section 30 may have a curved surface. For example, as shown in FIG. 9, a hemispherical surface may be used, or a full spherical surface (not shown) may be used.

  When the connecting portion 50 is formed as a curved surface as described above, it is easy to simultaneously connect the optical fibers in multiple directions.

FIGS. 1A and 1B are diagrams for explaining the configuration of the optical fiber of the present embodiment. FIGS. 2A and 2B are views for explaining a case where an exposed portion is formed by making a hole in the cladding of the optical fiber. FIGS. 3A and 3B are views for explaining a case where the cladding of the optical fiber is taken along the outer periphery by a predetermined width and a predetermined length to form an exposed portion as a lateral groove exposing the core. is there. It is a figure for explaining width and length (angle) of a horizontal groove, and an irradiation range of ultraviolet rays. FIGS. 5A to 5D illustrate a case where the cladding of the optical fiber is removed by a predetermined length and a predetermined length along the axial direction to form an exposed portion as a lateral groove exposing the core. FIG. FIGS. 6A and 6B show an example of an optical fiber disinfection and disinfection apparatus in which a plurality of optical fibers are combined and arranged on a panel. It is a figure for explaining an ultraviolet generating part. It is a figure for explaining a connection part. It is a figure for explaining other examples of a connection part. It is a figure for explaining a portable pest control device of this embodiment. It is a figure for explaining the case where a clad of an optical fiber is spirally taken by a predetermined length and a predetermined length along the outer circumference, and the exposed part is formed as a spiral groove exposing the core. FIGS. 12A and 12B are views for explaining another example of the portable pest control device of the present embodiment.

Explanation of reference numerals

Reference Signs List 20 optical fiber 30 ultraviolet ray generating part 32 ultraviolet ray light source 34 reflector, reflector 40 power supply part 50 connecting part 52-1 to 52-3 flexible joint 100 optical fiber 110 hole 150 clad 160 core 200 optical fiber 210 lateral groove 250 clad 260 core 300 optical fiber 310 vertical Groove 350 Clad 360 Core 400 Optical fiber sterilizer 410 UV generator 412 UV generator 420-1 to 420-3 Optical fiber 430 Panel 500 Portable pest control device 510 Power supply 512 Switch 520 Optical fiber 530-1, 530-2, 530 -3 Conductor 540 Protector

Claims (7)

A portable pest control device,
An ultraviolet ray generating section connected to the portable power supply section and generating ultraviolet rays by electric power supplied from the power supply;
An optical fiber that is connected to the ultraviolet ray generating section and propagates the ultraviolet ray generated in the ultraviolet ray generating section;
A high voltage generator connected to the portable power supply and generating a high voltage by electric power supplied from the power supply;
Including a high-voltage conductive unit connected to the high-voltage generating unit and configured by a conductive line that conducts high voltage,
The optical fiber is
Including a core that transmits ultraviolet light and a clad formed on the coating around the core,
An exposed portion for exposing ultraviolet light to the outside by exposing a part of the core is formed on the clad,
The high-voltage conducting unit includes:
The conductive wire is arranged so as to pass around or near the optical fiber or the exposed portion,
A portable pest control device wherein insects gathered in ultraviolet rays radiated from the exposed portion are configured to easily come into contact with a high-voltage conductive wire. In claim 1,
A portable pest control device, wherein a protector is provided around a conductive wire of the high-voltage conductive part. In any one of claims 1 and 2,
Further including a main body frame constituting an outer frame of a predetermined virtual surface and a grip portion connected to the main body frame,
The portable pest control device, wherein the plurality of optical fibers are arranged at predetermined intervals on a predetermined virtual surface inside the main body frame. In any one of claims 1 to 3,
The exposed portion is
A portable pest control device, wherein the device is formed as one or a plurality of holes provided in a cladding of the optical fiber. In any one of claims 1 to 4,
The exposed portion is
A portable pest control device, wherein the cladding of the optical fiber is formed as a lateral groove having a predetermined width and a predetermined length along an outer periphery to expose a core. In any one of claims 1 to 5,
The exposed portion is
A portable pest control device, wherein the cladding of the optical fiber is formed as a lateral groove having a predetermined width and a predetermined length along an axial direction to expose a core. In any one of claims 1 to 6,
The exposed portion is
A portable pest control device, wherein the cladding of the optical fiber is spirally formed along the outer periphery by a predetermined width and a predetermined length to form a spiral groove exposing the core.

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