JP5117922B2 - Insect trapping device - Google Patents

Description

  The present invention relates to an insect trapping device that attracts insects with light and captures the attracted insects.

  In food and pharmaceutical manufacturing facilities, insects are the majority of foreign matter mixed into products. Among them, flying insect groups (hereinafter referred to as insects) such as chironomids and small flies that come from outside occupy the highest rank. In order to control these insects, insect traps are installed in the building.

  A widely used insect trapping device has a configuration in which insects are attracted by a light source (ultraviolet lamp), an adhesive sheet is spread near the light source, and the attracted insects are captured by the adhesive sheet. For this reason, the brightness of the light source and the position of the adhesive sheet affect the insect capture performance.

  However, since the distance between the light source and the adhesive sheet must be separated to some extent, even if the insect is attracted to the light source of the insect trapping device, all the attracted insects will move to the position of the adhesive sheet. Not limited to that, spills occurred.

  In order to eliminate trapping, it is possible to increase the number of insect trapping devices. However, it is necessary to secure the installation location, so there is a limit to expansion. Further, when the number of ultraviolet lamps is increased, there is a problem that a new insect is attracted from the outside depending on the installation location.

Then, the insect pest control instrument which unified the lighting fixture and the insect trapping device and aimed at the improvement of capture performance is proposed (patent document 1).
As shown in FIG. 15, the pest control device 140 of Patent Document 1 includes a light guide 142 having a hollow inside, an ultraviolet light source 143, and a visible light source 145, and the light guide 142 has a light guide. A hole 146 that communicates the inside and outside of the body 142 is provided.

  The ultraviolet light L <b> 2 is reflected by the reflection layer 148 provided outside the light guide body 142, and is irradiated from the surface on the side where the reflection layer 148 is not arranged, and attracts the insects 43. The attracted insect 43 is drawn into the light guide 142 from the hole 146 by the air flow 154 generated by the fan 152 that sucks the air in the light guide 142.

The insects 43 drawn into the light guide 142 are guided to the insect capturing box 151 by the air current 154 and captured by the adhesive sheet 149.
Thus, in patent document 1, the insect capture performance was improved by using the airflow 154 sucked by the fan 152.

However, the ultraviolet light L2 from the ultraviolet light source 143 is reflected by the reflective layer 148 and passes through the light guide film 144. Since the insect 43 is attracted by the ultraviolet light L2 that has passed through the light guide film 144 and is drawn from the hole 146, the amount of ultraviolet light L2 that can be used to attract the insect 43 is reduced, and the insect 43 is attracted in a large space. Hateful.
JP 2007-289053 A

  In view of the above facts, an object of the present invention is to capture insects efficiently in a large space.

The insect trapping device according to the invention of claim 1 is provided in the planar light emitter that emits light, the ventilation path provided on the back surface side of the light emitting surface of the planar light emitter, and the planar light emitter. A suction port for drawing insects from the light emitting surface of the planar light emitter into the ventilation path, a suction means for sucking air from the ventilation path, and passing the air sucked by the suction means to capture the insects And a capturing means.

  According to the invention of claim 1, the planar light emitter emits light. A suction port is provided on the light-emitting surface of the planar light-emitting body, and the insect attracted to the light-emitting surface is drawn in by the air sucked by the suction means from the suction port to the ventilation path. The trapped insect is captured by a capture means.

  As described above, the planar light-emitting body exposed to the outside emits light, so that the surface emitting light even in a large space appears to be a large insect.

  In addition, a suction port for drawing insects from the light emitting surface to the ventilation path is provided on the light emitting surface of the planar light emitter, so that insects attracted by the planar light emitter can be directly captured on the surface of the planar light emitter. Thereby, it is possible to prevent spillage due to the conventional separation of the light source and the suction port.

Further, if the insect trapping device is attached to, for example, a shutter that opens and closes a plurality of doorways provided in the cargo receiving chamber and the inner wall surface of the shutter, insects that have come to the doorway at the time of receiving the cargo can be captured at the stage of cargo receiving.
At this time, by emitting light from the inner wall toward the room, light does not leak outward, and even if the light emitting area is widened, the problem of attracting new insects from the outside with the light of the insect trapping device is Does not occur.

  According to a second aspect of the present invention, in the insect trapping device according to the first aspect, the planar light emitter has a light-transmitting light guide plate and a light source attached to an end surface of the light guide plate. It is characterized by that.

According to invention of Claim 2, a light source is attached to the end surface of a light-guide plate, a light-guide plate is irradiated from a side surface, and is light-emitted.
Thereby, since the light can be emitted directly from the planar light emitter, not the reflected light, the planar light emitter emits light efficiently.
According to a third aspect of the present invention, in the insect trapping apparatus according to the second aspect, a reflection sheet is attached to the back side of the light guide plate.
Thereby, the light which goes to the back surface side can be directed to the light emission surface side, and a light emission surface can be brightened efficiently.

Invention according to claim 4, in insect apparatus according to claim 1, is characterized in that the planar light emitter is a light-emitting panels forming the light emitting surface in the light-emitting substance emits light when a voltage is applied Yes.
According to invention of Claim 4 , the light emission surface of the light emission panel is shape | molded with the luminescent substance.
Thereby, since it is a self-light-emitting form, an apparatus can be designed compactly.

The invention described in claim 5 is the insect trap device according to claim 4, on the back side of the front Symbol emitting panel is characterized by attaching the reflective sheet.
According to the invention of claim 5, the reflection sheet is provided on the back surface side of the light emission panel.
This makes it possible to direct the light toward the rear surface side to the light-emitting surface side, it can brighten efficiently emitting surface.

Invention according to claim 6, Oite the insect according to any one of claims 1 to 5, wherein the planar light emitters and ultraviolet light emitted from the wavelength of the ultraviolet region, the visible light region And visible light that emits light at a wavelength of.

According to the invention described in claim 6 , the planar light emitter emits light in two wavelength regions of the ultraviolet light region and the visible light region.
Thereby, compared with the light source of only one wavelength range, the kind of insect which can be attracted can be increased and the capture performance can be improved regardless of day and night.
The two light source units may emit light at the same time to mix two types of light, or may emit light separately by dividing the light emission time according to the time zone.

The invention according to claim 7, Oite the insect according to any one of claims 1 to 6, wherein the suction port is characterized by a long hole through the planar light emitter.
According to the seventh aspect of the present invention, the planar light emitter is provided with a long hole serving as a suction port.
For this reason, since the circumference | surroundings of a long hole become a light emission surface, light is scattered and an insect approaches the long hole and is attracted | sucked, without noticing a long hole.

The invention of claim 8 is the insect trap device according to any one of claims 1 to 6, wherein the suction port is characterized in that a gap formed by arranging the planar light emitter.
According to the invention described in claim 8 , the gap formed by arranging the planar light emitters is used as the suction port.
This eliminates the need for processing the suction port on the light emitting surface of the planar light emitter, and facilitates the manufacture of the planar light emitter.

The invention according to claim 9, in insect trap device according to any one of claims 1-8, wherein the air passage is a feature that it is a cylindrical body in which the planar light emitter is mounted on one side Yes.
According to the ninth aspect of the present invention, the cylindrical body having the planar light-emitting body attached to one surface is the ventilation path.
Thereby, an insect can be easily drawn in from the suction port provided in the planar light-emitting body to the ventilation path.

The invention according to claim 10, in the insect trap device according to any one of claims 1-8, wherein the air passage is inside said tubular body formed of the planar light emitter as tubular It is characterized by that.
According to the tenth aspect of the present invention, the inside of the planar light-emitting body formed in a cylindrical shape is a ventilation path.
Thereby, all directions can be made into a light emission surface, and the attraction efficiency of the insect per unit installation area becomes high.

  Since the present invention is configured as described above, insects can be efficiently captured in a large space.

(First embodiment)

As shown in FIG. 1, the insect trapping apparatus 10 according to the first embodiment includes a planar light emitter 24 that emits light.
The planar light-emitting body 24 includes a light guide plate 12 that is formed in a flat plate shape and has short sides arranged vertically, and a light source 16 that is attached to an upper end surface 12E of the light guide plate 12. The light source 16 irradiates the end surface 12E of the light guide plate 12 to cause the surface 12S of the light guide plate 12 to emit light (light emitting surface).

The light guide plate 12 is provided with a plurality of long holes 14 penetrating from the light emitting surface 12S to the back surface 12B. The long hole 14 is opened with a width d parallel to the long side.
The light guide plate 12 is formed of a material having light transmission performance, such as an acrylic plate or a polycarbonate plate.

  The light source 16 emits light at a wavelength in the ultraviolet region (about 250 nm to about 410 nm) that attracts insects 43 (flying insects such as chironomids and small flies). For example, a cold cathode tube or an LED is used. ing.

  Thus, by using the light guide plate 12, the entire plane can be widened to the light emitting surface 12, and the visibility of the ultraviolet light can be enhanced even if the light guide plate 12 is arranged in a wide space. Further, since ultraviolet light is emitted directly from the light emitting surface 12S instead of reflected light, the transmission loss of the ultraviolet light is reduced, and the insects 43 can be attracted efficiently.

  As shown in FIG. 2A, a reflection sheet 18 that reflects ultraviolet light is attached around the light source 16 and the back surface 12 </ b> B of the light guide plate 12. By the reflection sheet 18, ultraviolet light directed from the light source 16 toward the direction other than the end surface 12 E of the light guide plate 12 is directed toward the end surface 12 E of the light guide plate 12, and ultraviolet light directed toward the rear surface 12 B of the light guide plate 12 is emitted as the light emitting surface. Turn to the 12S side. Thereby, an ultraviolet-ray can be efficiently irradiated from the light emission surface 12S.

  As shown in FIGS. 1 and 2B, the light guide plate 12 is attached to the opening of the rectangular box 22, and the back surface 12 </ b> B side is a ventilation path 20.

  Accordingly, the long hole 14 is a suction port that sucks the air V1 from the light emitting surface 12S to the ventilation path 20, and the width d of the long hole 14 is a width that can attract the insects 43 attracted to the light emitting surface 12S. Has been.

  A storage chamber 29 for storing a suction fan 26 and a capture bag 28, which will be described later, is provided at the lower portion of the box body 22.

  The partition plate 31 that partitions the storage chamber 29 and the ventilation path 20 is attached with a suction fan 26 that sucks the air V2 from the ventilation path 20 and discharges the air V3 from the discharge port 23 provided on the side surface of the storage chamber 29. ing.

  Inside the storage chamber 29, on the discharge side of the suction fan 26, there is attached a capture bag 28 that allows the air V <b> 2 sucked by the suction fan 26 to pass and captures the insects 43 sucked together with the air from the long holes 14. Yes.

As shown in FIG. 3A, a damper device 30 for opening and closing the entrance is attached to the entrance of the capture bag 28 so that the captured insect 43 does not escape from the capture bag 28.
The damper device 30 includes a cylindrical body 32 that is formed in a cylindrical shape and attaches the inlet portion of the capture bag 28 to the outer peripheral surface, and a wind pressure damper 34 that automatically opens and closes the opening 32A of the cylindrical body 32 by air pressure. is doing.

  The wind pressure damper 34 includes a shielding portion 34A that shields the opening portion 32A, a weight portion 34B having a weight attached to an end portion thereof, and a bent portion 35 that bends the boundary between the shielding portion 34A and the weight portion 34B at an angle θ. Have.

A weight 36 for pressing the shielding portion 34A against the opening portion 32A by its own weight is attached to the weight portion 34B.
Further, a pin hole (not shown) is formed in the bent portion 35, and a pin 38 attached to the closed portion 32B of the cylindrical body 32 is inserted.

  With this configuration, the wind pressure damper 34 is supported by the pin 38 and can be rotated about the pin 38 by an angle θ. For example, when the suction fan 26 is in operation, as shown by a broken line, the shielding portion 34A is pushed down by an angle θ by the pressure of the air discharged by the suction fan 26, passes through the pushed-down space, and air and insects. 43 is guided to the capture bag 28.

  On the other hand, when the suction fan 26 is stopped, as shown by the solid line, the opening 32A is closed by the shield 34A by the weight 36, and the captured insect 53 is prevented from escaping from the opening 32A.

  As described above, the insect trapping apparatus 10 is configured such that the light emitting surface 12S exposed to the outside emits ultraviolet light, and the visibility of the light emitting surface 12S can be ensured even in a large space. The insect 43 attracted to the ultraviolet light from the light emitting surface 12S is drawn into the ventilation path 20 from the long hole 14 at the position of the light emitting surface 12S, and is captured by the capture bag 28 via the ventilation path 20. Moreover, since the trapped insect 43 is confined by the wind pressure damper 34, it is not escaped.

Thereby, the insect 43 can be efficiently captured in a large space.
As shown in FIG. 3B, a funnel device 33 using a funnel 37 may be used as means for preventing the captured insect 43 from escaping from the capture bag 28.

  That is, the funnel device 33 includes a cylindrical portion 39 and a funnel 37 provided inside the cylindrical portion 39, and a capture bag 28 is attached to the outer peripheral surface of the funnel 37.

  The funnel 37 is joined to the upper end of the cylindrical portion 39 on the inlet side having a wide opening area, and the area gradually decreases toward the outlet. At this time, the outlet of the funnel 37 is inserted into the capture bag 28.

  The upper end portion of the cylindrical portion 39 is attached to the discharge port of the suction fan 26, and the air discharged from the suction fan 26 is guided to the capture bag 28 while being narrowed.

With this configuration, even when the suction fan 26 is stopped, the insects 43 can be prevented from escaping from the capture bag 28 because the tip of the funnel 37 is thin.
Next, an installation example of the insect trapping apparatus 10 will be described.
As shown in FIG. 4, the insect trap 10 is attached to the wall surface 45 of the receiving room 40 of the food manufacturing facility.

  An opening 136 for receiving the cargo from the rear door of the truck bed 42 is opened on the wall surface 45 of the cargo receiving chamber 40. The opening 136 is closed by the shutter 44 after receiving is completed.

  A plurality of openings 136 are provided in the wall surface 45, and the insect trapping device 10 is embedded in the wall 45 with the light emitting surface 12 </ b> S facing indoors inside the wall surface between the shutters 44.

  In such a configuration, when the shutter 44 is opened for receiving cargo, the insect 43 enters the cargo receiving chamber 40 through the gap between the opening 136 and the truck bed 42. The insect trapping device 10 is arranged in the immediate vicinity of the place where the insect 43 invades, and can capture the insect 43 at the stage of receiving goods.

  In addition, the light emitting surface 12S of the insect trapping device 10 is attached to the room, and ultraviolet light does not leak outward. Thereby, even if the light emission surface 12S is wide, the new insect 43 is not attracted from the outside by the ultraviolet light from the insect capturing device 10.

Next, a comparative experimental example of the trapping effect of the insects 43 will be described.
The experiment shows the capture effect of the conventional adhesive paper method that captures insects attracted by ultraviolet light with adhesive paper and the suction method that sucks insects attracted by ultraviolet light by suction fan 26 and captures them by capture bag 28. The purpose was to understand superiority.

  For the experimental apparatus, the widely used capture apparatus was used as it was for the adhesive paper system. Specifically, the light source is a 20 W fluorescent lamp that emits ultraviolet light, and an adhesive paper is provided near the light source.

  On the other hand, a suction type insect trap was used as a prototype. As the light source, two fluorescent lamps of 10 W emitting ultraviolet light were used side by side in order to make the attracting force of the insect paper and the adhesive paper the same. A suction fan (diameter 80 mm) was attached at a position of about 20 cm below the light source, and the air around the two fluorescent lamps was sucked downward. Moreover, the nonwoven fabric capture bag was arrange | positioned at the discharge port of the suction fan. At this time, the wind speed at the position of the suction port of the suction fan was about 1.1 m / sec.

  In the experiment method, an adhesive trapping device and a suction trapping device were set apart from each other in the same experimental building. The time period from 6:00 in the evening to 6:00 in the following morning was taken as the capture time, and each capture device was operated continuously.

  At this time, the shutter 44 provided on the wall facing the outside of the building was automatically opened every 15 minutes, and was kept open for 15 seconds and then closed. This movement was repeated for the acquisition time. The same experiment was conducted for 2 nights (twice).

  As shown in FIG. 5, when compared with the number of insects 43 captured, the results of the experiment were more for the suction type insect trapping device, the first time being 1.8 times that of the adhesive insect trapping device, and the second time being 2.7 times. Met. The average was 2.3 times, demonstrating the superiority of the suction type insect trap.

(Second Embodiment)
As shown in FIG. 6A, the insect trapping apparatus 46 according to the second embodiment is provided with the light source 16 on the end face of the upper end 12U and the end face of the lower end 12D of the light guide plate 12. The other configuration is the same as that of the first embodiment.

 By irradiating the light guide plate 12 from the upper end 12U and the lower end 12D with the light source 16, the ultraviolet light from the light emitting surface 12S can be increased, and the attracting effect of the insects 43 can be enhanced.

  On the other hand, in the insect trapping device 48 shown in FIG. 6B, the light source 16 provided on the end face of the upper end 12U of the light guide plate 12 is the light source 16 that emits ultraviolet light, but the light source 50 provided on the end face of the lower end 12D is visible. The light source emits light at a wavelength in the light region.

  In this manner, the insect trapping device 48 irradiates the upper end of the light guide plate 12 with the ultraviolet light source 16 and the lower end with the visible light source 50. Thereby, compared with the case where it irradiates with the light source of only one wavelength range, the kind and quantity of the insect attracted can be increased.

  At this time, the light source 16 and the light source 50 may emit light at the same time so that two kinds of light are mixed in the light guide plate 12, or the light emission time of the light source 16 and the light source 50 is divided according to the time zone, and is emitted separately. You may let them.

(Third embodiment)
As shown in FIG. 7A, the insect trapping device 52 according to the third embodiment opens a plurality of long holes 56 in parallel with the short side direction of the light guide plate 54, and A light source 58 is attached to one end. The other configuration is the same as that of the first embodiment.

  The long hole 56 is provided to penetrate from the light emitting surface 54S of the light guide plate 54 to the back surface 54B (not shown), and serves as a suction port for air sucked into the ventilation path 20 (not shown).

  By irradiating the light guide plate 54 from the long side, the moving distance of the ultraviolet light within the light guide plate 54 can be shortened. Thereby, the ultraviolet light from the light emission surface 54S can be increased and the attracting effect of the insect 43 can be improved.

  Moreover, the light source 58 can also be attached to the edge part of the long side of the both sides of the light-guide plate 54 like the insect trapping apparatus 60 shown in FIG.7 (B).

  Thereby, the light guide plate 54 can be irradiated by the light source 58 from both end portions, the ultraviolet light from the light emitting surface 54S can be increased, and the attracting effect of the insects 43 can be enhanced.

  7C, an ultraviolet light source 58 is attached to one end of the long side of the light guide plate 54, and a visible light source 64 is attached to the other end. You can also.

  Thereby, the light guide plate 54 can be irradiated with two different light sources, and the types and amounts of insects that can be captured can be increased.

(Fourth embodiment)
As shown in FIG. 8A, the insect trapping apparatus 70 according to the fourth embodiment has a plurality of circular through holes 68 opened in a staggered manner in the light guide plate 66, and both of the long sides of the light guide plate 66 are arranged. A light source 58 is attached to the end of the. Others are the same as those in the first embodiment.

The through hole 68 is opened with a diameter d that allows the insect 43 to be drawn.
Thereby, the moving distance of the ultraviolet light from the light source 58 can be shortened, the ultraviolet light from the light emission surface 66S can be increased, and the attracting effect of the insect 43 can be improved.

8B, an ultraviolet light source 58 is attached to one end on the long side of the light guide plate 66, and the other end on the long side of the light guide plate 54 is attached. A visible light source 64 can also be attached.
Thereby, the light guide plate 66 can be irradiated with the light source 58 and the light source 64, and the kind and amount of insects 43 that can be captured can be increased.

(Fifth embodiment)
As shown in FIG. 9A, the insect trapping apparatus 74 according to the fifth embodiment has two light guide plates 76A and 76B stacked in the vertical direction, and an upper end 76U of the upper light guide plate 76A. The light source 16 is attached to the lower end portion 76D of the lower light guide plate 76B, and the light source 16 is also attached to the overlapping portion of the light guide plate 76A and the light guide plate 76B. Others are the same as those in the first embodiment.

  A long hole 78 is opened along the long side of the light guide plate 76A. The long hole 78 penetrates from the light emitting surface 76S of the light guide plate 76A to the back surface 76B (not shown), and is opened with a width d that allows the insect 43 to be drawn. The elongated hole 78 is a suction port for sucking air from the light emitting surface 76S to the ventilation path 20. The light guide plate 76B has the same configuration.

  In this way, in addition to the light source 16 irradiating from the end portion 76U of the light guide plate 76A and the end portion 76D of the light guide plate 76B, the light source 16 also irradiates from the overlapping portion of the light guide plate 76A and the light guide plate 76B. Thereby, the ultraviolet light from the light emission surface 76S can be increased and the attracting effect of the insect 43 can be improved.

9B, the ultraviolet light source 16 is attached to both ends of the light guide plate 76A and the short side of the light guide plate 76B, and the light guide plate 76A and the light guide plate 76B are overlapped. A visible light source 50 may be attached to the mating portion.
Thereby, the light guide plate 54 can be irradiated with two different light sources, and the types and amounts of insects that can be captured can be increased.

(Sixth embodiment)
As shown in FIG. 10A, the insect trapping device 82 according to the sixth embodiment has a plurality of light guide plates 84 arranged in parallel in the vertical direction.

  A long hole is not opened in the light guide plate 84. The light guide plates 84 are arranged with a gap 86 between the adjacent light guide plates 84 and a width d, and the width d is a width that allows the insects 43 to be drawn. Further, the gap 86 serves as a suction port for sucking air from the light guide plate 84 to the ventilation path 20 (not shown).

The light source 16 is attached to the upper end face 84U of the light guide 84, and irradiates the end face 84U. Others are the same as those in the first embodiment.
This eliminates the need for processing a long hole in the light guide plate 84 and facilitates the manufacture of the light guide plate 84.

  Moreover, you may arrange the light guide 90 in parallel with the short side (horizontal direction) like the insect trap 88 shown in FIG.10 (B). That is, the light guides 90 having no elongated holes are arranged with a gap 92 between adjacent light guides 90 having a width d. At this time, the width d is a size into which the insect 43 is drawn, and the gap 92 having the width d serves as a suction port for sucking air from the light guide plate 84 to the ventilation path 20 (not shown).

  Further, the light source 58 is attached to the long side of the insect capturing device 88 and the light source 58 irradiates the end portion 92E of the light guide 90.

  Thereby, the trouble of processing the long hole in the light guide 90 becomes unnecessary, and the manufacture of the light guide 90 becomes easy.

(Seventh embodiment)
As shown in FIG. 11, in the insect trapping apparatus 100 according to the seventh embodiment, a light guide plate 102 is formed into a cylindrical shape, and an annular light source 101 is attached to an upper end face 102U.

  The light source 101 irradiates the light guide plate 102 from the end surface 102U and causes the outer peripheral surface of the light guide plate 102 to emit light. At this time, a reflection sheet 108 that reflects ultraviolet light is provided on a portion of the outer peripheral surface of the light source 101 other than the side facing the end surface 102 </ b> U of the light guide plate 102 and on the inner side of the light guide plate 102.

The reflection sheet 108 directs the ultraviolet light emitted from the light source 101 toward the end face 102 U of the light guide plate 102, and directs the ultraviolet light toward the inside of the light guide plate 102 to the outside of the light guide plate 102.
Thereby, the ultraviolet light from the outer periphery of the light guide plate 102 can be increased.

  A plurality of elongated holes 104 opened in the vertical direction are provided on the outer periphery of the light guide plate 102. The width d of the long hole 104 is set to a size that allows the insect 43 to be drawn in, and serves as a suction port when air is sucked by the suction fan 26.

In addition, a cylindrical storage chamber 110 that supports the lower end of the light guide plate 102 is provided in the lower part of the insect trap 100.
Inside the light guide plate 102 is a ventilation path 106, and a suction fan 26 is provided at the lower end of the ventilation path 106 and the partition portion of the storage chamber 110.

  Further, a capture bag 28 is attached to the discharge side of the suction fan 26 inside the storage chamber 110 to capture the insects 43 drawn from the suction port 104. At this time, the air is discharged from the discharge port 112 provided on the wall surface around the storage chamber 110.

  Thereby, the directionality which can attract the insect 43 is lost, and the insect 43 can be attracted in a wide range. Moreover, all directions can be used as the light emitting surface, and the attracting efficiency of the insects 43 per unit installation area is increased.

  Note that, as shown in FIG. 11C, a fin 114 that turns the air sucked from the suction port 104 may be attached near the suction port 104 of the ventilation path 106. At this time, if the fin 114 is inclined at a predetermined angle with respect to the vertical direction, a swirl component can be given to the sucked air. The air to which the swirl component is given becomes a tornado shape in the ventilation path 106, and the insects 43 can be strongly drawn from the suction port 104.

(Eighth embodiment)
As shown in FIG. 12, the insect trapping apparatus 116 according to the eighth embodiment has the light guide plate 120 formed into a cylindrical shape.

  A part of the cylindrical light guide plate 120 is provided with a notch 120K extending from the upper end 120U to the lower end 120D of the light guide plate 120 in the vertical direction, and the notch 120K has a straight light source 118 that generates ultraviolet light. Is installed.

In addition, a reflection sheet 121 is provided on the inner peripheral surface of the light guide plate 120, and reflects ultraviolet light directed toward the inner side of the light guide plate 120 toward the outer peripheral surface 120S.
Thereby, the light source 118 can irradiate the notch 120K of the light guide plate 120, and the surface 120S of the light guide plate 120 can emit light.

  In addition, the light guide plate 120 is provided with a plurality of long holes 106 in the horizontal direction, and the inside is a ventilation path 104. The long hole 106 is opened with a width d that allows the insect 43 to be drawn in, and serves as a suction port when air is sucked into the ventilation path 104.

  A storage chamber 110 is provided below the insect trapping device 116, and the storage chamber 110 supports the lower end of the light guide plate 120. The storage chamber 110 stores a suction fan 26 and a capture bag 28 which will be described later.

  A suction fan 26 that sucks the air V <b> 2 of the ventilation passage 104 and discharges the air V <b> 3 from the discharge port 112 provided in the storage chamber 110 is attached to the partition between the ventilation passage 104 and the storage chamber 110. A catching bag 28 for catching the sucked insects 43 is attached to the discharge side of the suction fan 26.

  Thereby, the insect 43 attracted to the light guide plate 120 can be drawn into the ventilation path 104 from the suction port 106. The sucked insect 43 is captured by the capture bag 28.

  Thereby, the directionality at the time of attracting the insect 43 can be eliminated, and the insect can be attracted from around the insect trapping device 116. Further, it is not necessary to form a separate ventilation path on the back side of the light guide plate 120, and the configuration is simplified.

(Ninth embodiment)
As shown in FIG. 13, the insect trapping apparatus 122 according to the ninth embodiment has a light guide plate 124 formed into a columnar shape.

  A storage chamber 110 is provided at two locations on the upper and lower sides of the light guide plate 124, and a suction fan 26 and a capture bag 28 are provided in the storage chamber 110, respectively. Other configurations are the same as those in the eighth embodiment.

  Thereby, the suction speed for sucking the insect 43 at the position of the suction port 106 can be increased, and the insect 43 can be captured more reliably.

(Tenth embodiment)
As shown in FIG. 14, the insect trapping apparatus 130 according to the tenth embodiment has a light emitting panel 132.

The light emitting panel 132 has a surface 132S formed of a light emitting material that emits light when a voltage is applied, such as an organic EL (EL) material or an inorganic EL material.
Other configurations are the same as those of the first embodiment.
Thereby, since the light emission panel 132 light-emits directly, an apparatus can be designed compactly.

It is a figure which shows the basic composition of the insect trapping device which concerns on the 1st Embodiment of this invention. It is a figure which shows the partial detail of the insect trapping apparatus which concerns on the 1st Embodiment of this invention. It is a figure which shows the basic composition of the escape prevention means of the insect trap which concerns on the 1st Embodiment of this invention. It is a figure which shows the example of attachment of the insect trap which concerns on the 1st Embodiment of this invention. It is a figure which shows an example of the capture performance of the insect trap of this invention. It is a figure which shows the basic composition of the insect trapping device which concerns on the 2nd Embodiment of this invention. It is a figure which shows the basic composition of the insect trapping device which concerns on the 3rd Embodiment of this invention. It is a figure which shows the basic composition of the insect trapping device which concerns on the 4th Embodiment of this invention. It is a figure which shows the basic composition of the insect trapping device which concerns on the 5th Embodiment of this invention. It is a figure which shows the basic composition of the insect trapping device which concerns on the 6th Embodiment of this invention. It is a figure which shows the basic composition of the insect trapping device which concerns on the 7th Embodiment of this invention. It is a figure which shows the basic composition of the insect trapping device which concerns on the 8th Embodiment of this invention. It is a figure which shows the basic composition of the insect trapping device which concerns on the 9th Embodiment of this invention. It is a figure which shows the basic composition of the insect trapping device which concerns on the 10th Embodiment of this invention. It is a figure which shows the basic composition of the insect trapping apparatus of a prior art example.

Explanation of symbols

10 Insect trapping device 12 Light guide plate 14 Suction port (long hole)
16 Light source (ultraviolet light)
18 Reflective sheet 20 Ventilation path 22 Box body 24 Planar light-emitting body 26 Suction fan (suction means)
28 Capture bag (capture means)
50 Light source (visible light)
102 Light guide plate (cylinder)
132 Light guide plate (light emitting panel)

Claims (10)

A planar light emitter that emits light;
A ventilation path provided on the back side of the light emitting surface of the planar light emitter;
A suction port that is provided in the planar light emitter and draws insects from the light emitting surface of the planar light emitter into the ventilation path;
A suction means for sucking air from the ventilation path;
Capture means for passing the air sucked by the suction means and capturing the insects;
Insect trapping device.   The insect capturing device according to claim 1, wherein the planar light emitter has a light-transmitting light guide plate and a light source attached to an end surface of the light guide plate. The insect trapping apparatus according to claim 2, wherein a reflection sheet is attached to the back side of the light guide plate. The insect trapping device according to claim 1, wherein the planar light emitter is a light emitting panel in which the light emitting surface is formed of a light emitting substance that emits light when a voltage is applied. The insect trapping apparatus according to claim 4, wherein a reflection sheet is attached to the back side of the light emitting panel. The insect trapping apparatus according to any one of claims 1 to 5, wherein the planar light emitter emits ultraviolet light that emits light at a wavelength in the ultraviolet light region and visible light that emits light at a wavelength in the visible light region. The insect trapping device according to any one of claims 1 to 6, wherein the suction port is a long hole penetrating the planar light emitter. The insect trapping device according to any one of claims 1 to 6, wherein the suction port is a gap formed by arranging the planar light emitters. The insect trapping device according to any one of claims 1 to 8, wherein the ventilation path is a cylindrical body having the planar light emitter attached to one surface.   The insect trapping device according to any one of claims 1 to 8, wherein the ventilation path is an inner side of the cylindrical body formed with the planar light emitting body as a cylindrical shape.

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