JP3213543U - Pest control light - Google Patents

Abstract

Provided is a pest control lamp that suppresses power consumption while maintaining moderate lighting illuminance in the vicinity of the light source position, does not cause light damage to plants, and has an effect of repelling pests. A non-translucent socket fixed in the horizontal direction at the upper end of a support bar, a vertical lamp attached to the upper center of the socket, and a translucent coating on the entire surface of one side. A globe sphere 1 provided with a layer 12 is provided. The vertical lamp 3 has at least a columnar side light emitter group 31 in which a plurality of vertically long light emitters 30 are arranged close to each other so as to stand upright. Each light emitter 30 in the columnar side light emitter group 31 emits side light along the columnar peripheral side surface, and a part of the light emitted from the side light is reflected and refracted by the coating layer 12 of the globe sphere 1. Then, the lower part of the socket is irradiated while adjusting the amount of light with a color for controlling specific insects. [Selection] Figure 2

Description

  The present invention relates to a pest control lamp that controls the flying of pests by lighting light.

  Various types of pest control lamps have been developed and proposed in the past for controlling pests from coming in from the light.

  As a conventional technique, for example, Patent Document 1 discloses an insect repellent device that can suppress a harmful action caused by a nocturnal insect that has fallen. This insect repellent (100) has a buried part with one end buried in the ground and a pillar (110) having a light source (120) at the other end, and is arranged around the pillar (110). Covers the sleeve part (130) having a predetermined spacing part (132) between the column (110), the reflection dish (135) part provided above the sleeve part (130), and the light source (120). A glove sphere (140) fixed on the reflector plate, and a net attached to the column (110) below the sleeve (130). Member (150).

JP, 2006-208912, A

However, it has been difficult for conventional pest control lamps to keep the lighting illuminance near the light source position moderate.
That is, if a reflector is attached to the top of the column and a vertical light source is attached to the reflector, the light from the light source is blocked by the reflector, resulting in insufficient illuminance at the lamp source, which is directly below the attachment position. There was a case. If a region with insufficient illuminance occurs even partially, the effect of repelling specific pests cannot be fully exhibited.

  On the other hand, if a light source with a wide illuminance distribution in the illuminant direction is used to eliminate such illuminance shortage, or if the light source is additionally turned off near the illuminant where the illuminance is low, the illuminance will increase and demonstrate the repellent effect of certain pests However, there was a case where so-called light pollution that adversely affects the growth of cultivated plants due to too high illuminance and lighting heat occurred. In addition, additional light extinction increases power consumption.

  Accordingly, an object of the present application is to provide a pest control lamp that suppresses power consumption while maintaining moderate lighting illuminance in the vicinity of the light source position, does not cause light damage to plants, and has a pest repellent effect.

  In order to solve the above-described problems, the pest control lamp according to the present invention has the following configurations. Note that the numerals and alphabetical characters that are described after the following configuration names are symbols that are added for convenience in understanding with reference to the configuration of the embodiment, and do not specify the concept or shape of the configuration.

The pest control light of the present invention is basically
A support bar 40 erected vertically on the installation surface;
A non-translucent socket 2 that is spread and fixed horizontally at the upper end of the support bar;
A vertical lamp 3 attached to the upper center of the socket;
A pest control lamp comprising a globe sphere 1 made of a translucent body that is attached to the upper center of the socket and covers the socket 2 and the vertical lamp 3 together in a spherical or polygonal shape,
The vertical lamp 3 has at least a plurality of vertically long light emitters 30 that emit light to the side and a columnar side light emitter group 31 that is erected in a columnar shape,
The socket 2 has a plan view shape larger than the plan view shape of the vertical lamp 3, and shields direct irradiation light downward from the light emitter 31;
The globe sphere 1 is formed in a plan view shape larger than the plan view shape of the socket 2, and a translucent coating layer 12 is applied to the entire surface of one side of a spherical or polygonal translucent body,
Each of the light emitters 30 of the columnar side light emitter group 31 emits side light to the surrounding side along the columnar peripheral side surface, and a part of the light emitted from the side light is emitted from the coating layer 12 of the globe sphere 1. The light is reflected and refracted, and the lower part of the socket 2 is irradiated with a control color for a specific insect.

The vertical lamp 3 is
A plurality of vertically long light emitters 31 that emit light in a lateral direction from the plate surface, and a columnar side light emitter group 31 that is erected in a columnar shape;
An annular upper luminous body group in which the luminous body 30 that emits light upward is annularly disposed on the top surface portion of the columnar lateral luminous body group 31;
Each of the light emitters 30 of the columnar side light emitter group 31 emits side light to the surrounding side along the columnar peripheral side surface, and a part of the light emitted from the side light is emitted from the coating layer 12 of the globe sphere 1. Reflecting and refracting and irradiating the lower part of the socket 2 with a control color to a specific insect,
Each of the light emitters 30 of the upper light emitter group emits light upward from the columnar top surface to the periphery upward, and part of the light emitted from the upper light emitters is reflected and refracted and transmitted by the coating layer 12 of the globe sphere 1. It is preferable to irradiate the lower part with a control color to a specific insect.

Alternatively, the vertical lamp 3 is
By arranging a plurality of light emitters 31 extending in the vertical direction in a cylindrical shape, a light emitter group having a central space in the vertical direction at the central portion of the cylindrical shape,
A fan 34 for blowing air upward or downward in the central space,
The light emitter comprises a plurality of LED light emitting elements on the outer surface,
It is preferable to cool the light emitter 31 during light emission by blowing air from the fan 34.

The coating layer 12 includes a yellow pigment,
The lower coating layer 12B in the range below the maximum diameter part of the globe sphere is
It is preferable that the coating film thickness is larger than the central coating film layer 12A in the central range in the height direction including the maximum diameter portion of the globe sphere.

In the form having this lower coating layer 12B, further, the lower coating layer 12B in the range below the maximum diameter portion of the globe sphere,
The layer boundary (the lower layer boundary 14L) with the central coating layer 12A in the central range in the height direction including the maximum diameter portion of the globe sphere is set to be equal to or lower than the height of the lower end of the luminous body group. It is preferred that

Alternatively, the coating layer 12 includes a yellow pigment,
The upper coating layer 12D in the range above the maximum diameter portion of the globe sphere may have a coating thickness greater than the central coating layer 12A in the central range in the height direction including the maximum diameter portion of the globe sphere. preferable.

  In the form having the lower coating layer 12B, the upper coating layer 12D in the range above the maximum diameter portion of the globe sphere and the central coating film in the center range in the height direction including the maximum diameter portion of the globe sphere. The layer boundary with the layer 12A (upper layer boundary 13L) is preferably set to be equal to or higher than the height of the upper end of the luminous body group.

  As described above, according to the present invention, there is provided a pest control lamp that keeps power illuminance in the vicinity of the light source position moderately, does not cause light damage to plants, and has a pest repellent effect while suppressing power consumption. Can be provided.

The front view which shows the example of the installation state of the pest control lamp which concerns on Example 1 of this invention. FIG. 3 is an enlarged partial cross-sectional view of the lighting part of the pest control lamp according to the first embodiment when viewed from the front. The bottom view of the removed globe sphere 1. FIG. The top view of the socket 2 of the state which removed the globe sphere 1 and the lamp | ramp 3. FIG. The top view of each structure of the lamp | ramp 3 of a decomposition | disassembly state. The front view enlarged view which shows the variation of the example of the lighting part of a pest control lamp. The graph which shows the relationship between the horizontal distance of each form example abcd shown in FIG. 6, and illumination intensity. The graph which shows the relationship between the horizontal distance of each form example ace of a pest control light, and illumination intensity. The graph which shows the relationship between the wavelength of each form example de of a pest control lamp, and scorched earth.

Hereinafter, the pest control lamp according to the embodiment will be described. The pest control lamp of the present invention has, as its basic configuration, a support bar 40 standing vertically on an installation surface as shown in FIG.
A non-translucent socket 2 that is spread and fixed horizontally at the upper end of the support bar;
A vertical lamp 3 attached to the upper center of the socket;
And a globe sphere 1 made of a translucent body that is attached to the upper center of the socket and covers the socket 2 and the vertical lamp 3 together in a spherical or polygonal shape.
The support bar 40 is provided with a blade-like fixing member 42 and a fixing screw 43 at the lower end, and this part is embedded in the installation part G, and the lower part of the support bar near the upper part of the embedded part is connected to the fixed pile 1 by the wire 52. It is stretched from the side. An upper portion of the support bar 40 is provided with a sleeve-like expanded short cylinder 41 having a gap around the support bar, and discharges air inside the globe sphere 1.
As shown in FIG. 2, the upper end of the support rod 40 is fixed to the non-translucent plate-like socket 2 fixed in the globe sphere 1 in a horizontal direction, and is erected at the upper center of the socket. The vertical lamp 3 that irradiates light to the side periphery and upward is connected through the connecting screw cylinder 25.

In these configurations, at least
The vertical lamp 3 has at least a plurality of vertically long light emitters 30 that emit light to the side and a columnar side light emitter group 31 that is erected in a columnar shape,
The socket 2 has a plan view shape larger than the plan view shape of the vertical lamp 3, and shields direct irradiation light downward from the light emitter 31;
The globe sphere 1 is formed in a plan view shape larger than the plan view shape of the socket 2, and a translucent coating layer 12 is applied to the entire surface of one side of a spherical or polygonal translucent body,
Each of the light emitters 30 of the columnar side light emitter group 31 emits side light to the surrounding side along the columnar peripheral side surface, and a part of the light emitted from the side light is emitted from the coating layer 12 of the globe sphere 1. The light is reflected and refracted, and the lower part of the socket 2 is irradiated with a control color for a specific insect.

(Glove sphere 1)
As shown in FIGS. 2 and 3, the globe sphere 1 is a spherical or three-dimensional transparent body (for example, an acrylic or glass transparent globe) that covers and accommodates the vertical lamps 3 and that is open only at the bottom. ), A donut-shaped bottom is extended to the lower part of the spherical or three-dimensional translucent body, and a thinner donut-shaped fixing plate 11 is fixed to the lower surface of the donut-shaped bottom. The fixing plate 11 is formed with a plurality of pin holes 11H each having a long hole having an insertion portion and spaced apart in the circumferential direction when viewed from the bottom. A donut-shaped inner hole edge of the fixing plate 11 is a central hole 10H.

  The globe sphere 1 has a coating layer 12 formed on the entire inner surface of the translucent body. As described later, the coating layer 12 is defined by dividing the coating range into an upper portion, a central portion, a lower portion, and a bottom portion.

(Socket 2)
As shown in FIGS. 2 and 4, the socket 2 is composed of a partially spherical plate-shaped body having a circular shape in plan view, and a frame body 21 in which the fixing plate 11 is fitted and fixed, and an inner upper surface of the frame body 21 horizontally. The bottom plate 210, the vertical connecting screw cylinder 25 fitted and fixed in the central hole of the bottom plate 210, the locking claw 22F for fixing the hole edge of the central hole 10H of the globe ball 1 and the globe ball 1 Support rods 24B erected at a plurality of locations to support the fixed plate 11 and support pins 23 that are inserted into the pin holes 11H of the globe sphere 1 and pin the globe sphere 1. The support pins 23 and the locking claws 22F are continuously formed as shown in a plan view of the socket 2 in an exploded state (FIG. 4), and the bottom surface 210 of the frame body 21 that supports them is reinforced by ribs 22L extending to the center. ing. The three ribs 22 </ b> L extend toward the center in plan view and are continuous with a double frame portion 26 formed in a short cylindrical shape on the outer periphery of the connecting screw frame 25. The double frame portion 26 is connected to a support rod 40 and a short cylinder 41 at the upper end of the support rod via an elastic cover frame 27 covering the periphery.

(Vertical lamp 3)
As shown in FIGS. 2 and 5, the vertical lamp 3 is
A plurality of light emitters 31 extending in the vertical direction are provided in a cylindrical shape and in a columnar shape, thereby forming a columnar side light emitter group 31 having a central space in the vertical direction at the central portion of the cylindrical shape,
The entire lower portion of the columnar side issuer group is covered, and the lower ends of the plurality of light emitting bodies 31 extending in the vertical direction are fixed and screw-connected to the connecting screw cylinder 25 of the socket 2 so as to be adjustable in height. A lower cover 32,
A ring-shaped upper light-emitting body group in which a light-emitting body 30 that emits light upward is annularly arranged on the top surface portion of the columnar side light-emitting body group 31;
The entire upper portion of the columnar side issuer group is collectively covered, the upper ends of the plurality of plate-like light emitting bodies 30 extending in the vertical direction are fixed, and the upper part of the annular upper light emitting body group is covered with a translucent body. A flattened crown-shaped upper cover 33;
The fan 34 is fixed to the center of the upper surface of the lower cover 33 and blows air upward in the central space.

Among these, the plate-like light emitters 30 of the columnar side light emitter group 31 emit light laterally to the peripheral side along the columnar peripheral side surface, and a part of the light emitted from the side light is applied to the globe sphere 1. The light is reflected and refracted by the film layer 12, and the lower part of the socket 2 is irradiated with a color for controlling a specific insect. Each plate-like light emitter 30 includes a plurality of LED light emitting elements 30L arranged on the outer surface.
Further, the light emitting body 31 at the time of light emission is cooled by the air blown above the fan 34. The cooling air is exhausted from the vent hole 321 of the lower socket 32, and after the air in the globe sphere 1 is circulated, it is exhausted to the outside through the gap between the short cylinder 41 and the support rod 40.

In addition, each light emitter 30 of the upper light emitter group is annularly arranged on the top surface portion of the columnar side light emitter group 31 and is covered with a flat spherical crown upper cover 33 so as to be columnar. The diffused light is diffused upward or laterally from the top surface of the glass, and a part of the diffused light is reflected and refracted and transmitted by the coating layer 12 of the globe sphere 1, and a specific insect is located below the socket 2. Irradiate with control color.
(Coating layer 12)
The coating layer 12 is a translucent colored coating layer containing a yellow pigment and a slight amount of green pigment.

The coating layer 12 is formed by coating on the entire inner surface of the globe sphere 1, and the surface area of the layer is divided into four areas shown in FIG. That is,
Among the spherical inner surfaces of the globe sphere, a central coating layer 12A consisting of a range in a predetermined height direction including the maximum diameter portion in plan view;
Of the spherical inner surface of the globe sphere, the lower coating layer 12B, which is the lower part of the central coating layer 12A and has a range in the height direction of one third or less of the total height of the globe sphere 1,
A bottom coating layer 12C consisting of a donut-shaped area over the entire top surface of a horizontal perforated disk that is integrally connected from the lower end of the globe of the globe sphere;
Among the spherical inner surfaces of the globe spheres, there is an upper coating layer 12D which is the upper portion of the central coating layer 12A and has a range in the height direction of one third or less of the total height of the globe sphere 1.

  In Example 1 shown in FIG.2 and FIG.6b, lower coating-film layer 12D of the range below the position of the height direction of the largest diameter part of the globe sphere 1 is the height direction containing the largest diameter part of a globe sphere. The coating thickness is larger than the central coating layer within the range of 2 to 4 times the central coating layer 12A in the central range. The coating thickness is formed by overcoating at 2 °, 3 ° or 4 °.

  Moreover, in Example 1, as shown in FIG. 2, the lower coating layer 12B in the range below the maximum diameter portion of the globe sphere and the center coating in the center range in the height direction including the maximum diameter portion of the globe sphere. The layer boundary with the film layer 12A (lower layer boundary 14L) is set to be equal to or lower than the height of the lower end of the luminous body group. In this case, transmission downward is reduced and upward. Reflection increases.

  In Example 2 shown in FIG. 6c, the upper coating layer 12D in the range above the maximum diameter portion of the globe sphere 1 has a central coating layer 12A in the center range in the height direction including the maximum diameter portion of the globe sphere. The coating film thickness is larger than the central coating film layer within the range of 2 to 4 times. The coating thickness is formed by overcoating at 2 °, 3 ° or 4 °.

  At this time, as shown in FIG. 6c, the upper coating layer 12D in the range above the maximum diameter portion of the globe sphere, and the central coating layer 12A in the center range in the height direction including the maximum diameter portion of the globe sphere, The upper layer boundary (upper layer boundary 13L) is set equal to or higher than the height of the upper end of the luminous body group.

FIG. 6 is a form comparison diagram of three embodiments a, b, and c in which the form of the coating layer 12 is formed on the globe sphere 1 and a reference form d for comparison.
In Embodiment a, as Example 3, the yellow coating layer 12 is uniformly formed on the entire inner surface of the spherical light-transmitting body of the globe sphere 1 by a single coating.
In the embodiment b, as described in Example 1, the yellow coating layer 12 is uniformly coated on the entire surface of the spherical light-transmitting body of the globe sphere 1 to form the inner surface by uniform coating once, and then the range of about one third of the lower part. The same yellow coating layer 12 is formed on the inner surface in double thickness by overcoating in the lower range including the horizontal lower layer boundary 14L.
In Embodiment c, as described in Example 2, the yellow coating layer 12 is uniformly coated on the entire surface of the spherical light-transmitting body of the globe sphere 1 to form an inner surface by uniform coating once, and then the upper part is approximately a quarter range. The same yellow coating film layer 12 is formed on the inner surface in double thickness by repeated coating (upper range including the horizontal upper layer boundary 13L).
In the embodiment d, as a reference form for comparison, a clear (transparent) coating layer 12 is uniformly applied once on the entire inner surface of the spherical light-transmitting body of the globe sphere 1.

  In FIG. 7, the vertical axis represents the illuminance (Lx), and the horizontal axis represents the distance from the point directly below the lamp (center of the support bar) at a position 2 m below the light source. It is a graph to show. The illuminance of Embodiment b (Example 1) and Embodiment c (Example 2) was measured in a state where no shadow was produced by the socket portion.

  As a result of the illuminance measurement, as shown in FIG. 7d, in the reference form d, the illuminance immediately below is very low in a transparent glove sphere in which light is not internally reflected. On the other hand, in the embodiment abc, by installing the globe ball 1 with a spherical yellow paint, the illuminance of about 22 Lx to 60 Lx is maintained even in the range of 0 m to 5 m directly below the lamp, The shortage has been resolved. This is because part of the LED light is irregularly reflected on the painted surface inside the sphere.

  Moreover, as can be seen by comparing the embodiment a and the embodiment bc, the lower coating layer 12B or the upper coating layer 12D is formed thicker than the central coating layer 12C, so As a result, the illuminance in the range of 4 m was improved. That is, in Embodiment a, the illuminance increases rapidly from 75 Lx to about 83 Lx as the distance approaches 0 m, whereas in Embodiments b and c, a large amount of light is irregularly reflected, so The illuminance in the range of 4 m is about 50 to 75 Lx, and the illuminance near the support bar is slightly cut. Of these, when the zenith portion of the globe sphere is painted darker as in embodiment c, more light is diffusely reflected by the upper coating layer 12D, and in the vicinity of the lamp source (range of 0 to 3 m) by indirect irradiation. The illuminance is about 70 to 75 Lx. Further, when the lower part is painted darkly as in the embodiment b, more light is diffusely reflected by the lower coating layer 12B and the bottom coating layer 12C, and is refracted or attenuated when transmitted to the lower coating layer 12B. By doing so, the illuminance in the vicinity of the lamp source (range of 0 to 3 m) is about 50 to 58 Lx.

  Further, in the embodiment b, the illuminance is slightly lowered as a whole to a range slightly separated from the lamp source (range of 0 to 10 m) as compared with the embodiment c. This is because the downward transmitted light is reduced, and it is shown that further dimming adjustment can be performed downward when the lower coating layer 12B and the bottom coating layer 12C are thickened.

  By such dimming adjustment, it is possible to avoid the growth failure of the cultivated plant for the purpose of controlling the present pest control lamp. For example, crops such as ginger are damaged by strong light exceeding 60 Lx, and the leaves are yellowed due to light damage just below the lamp source (range 0-4 m). On the other hand, it is possible to avoid growth damage to the cultivated plant at the light source, that is, light damage, by adjusting the dimming to just below the vicinity (range of 0 to 3 m) as in the embodiment c. In addition, it has been found that there is an influence on growth in cultivated plants such as camellia, spinach, green perilla, edamame, chrysanthemum, carnation, rose, starches, delphinium, and rice.

  FIG. 8 is a result of illuminance measurement when each of the embodiments a and c and the comparative example e in which a spherical bulb that irradiates and diffuses light vertically is used as a lamp in a ginger field. Compared with embodiment e, as in embodiments a and c, by using a cone-shaped lamp that irradiates laterally and upwardly, the excessive illuminance in the vicinity of the support rod (0 m to 2 m) is cut to 85 Lx or less. You can see that On the other hand, in the vicinity of the lamp source (2 m to 5 m) slightly away from the immediate vicinity of the support rod (0 m to 2 m), the illuminance is slightly increased in the embodiments a and c, as compared with the embodiment e. It is shown that a slight adjustment of light increase can be achieved by providing the coating layer 12.

  In particular, when the embodiments a and c are compared, the illuminance can be a constant illuminance of about 70 to 74 Lx in the vicinity of the lamp source (range of 0 to 3 m).

  FIG. 9 shows the tip of the central coating layer, that is, the side of the lamp at the center height, where the light intensity (au) is the vertical axis and the wavelength nm is the horizontal axis for each lamp of Embodiments d and e. The measurement result of the wavelength distribution at the time of measuring is shown. By changing the lamp, it is possible to suppress the peak of the light intensity distribution and to obtain a smooth light intensity distribution as a whole. In particular, there is a large change in the wavelength distribution tendency by using a cone-shaped lamp that irradiates laterally and upward as in the embodiment d. That is, the light intensity is gradually increased as a whole at a wavelength of 430 to 550 nm, and a gradual peak is generated at the wavelength of 550 to 600 nm without numerous peaks of light intensity and variations among peaks. Thus, the light intensity at a wavelength of 500 to 750 nm is gradually decreased with the overall increase. In particular, by including the light intensity in both the wavelength range of 500 to 550 nm and the wavelength range of 630 to 700 nm with a comparatively strong intensity, the activity of suppressing the activity of moths, and the effect of suppressing egg laying of Otagakoga and Yotoga Is obtained.

  In this way, by performing not only dimming adjustment but also slight light-intensity adjustment, it is possible to set the illuminance at the light source that is suitable for cultivated plants without light obstruction and that has a pest repellent effect. . Specifically, by changing the combination of the lower, upper and bottom coating layers on the globe sphere and changing the thickness of each range of coating layers, the optimal amount of light and pest control can be selected according to the cultivated plant. The light quality can be freely changed to the optimum. In addition, the adjustment of the coating film thickness / darkness controls the transmission and reflection of light, so there is very little loss, and the same effect can be obtained while using a lamp with low power consumption.

  In addition, this invention is not limited to each embodiment mentioned above, A various change is possible by the combination of the said structures, extraction, or the combination with a well-known technique. For example, as a combination of each of the upper, lower, and bottom coating layers that are thicker than the central coating layer, the upper, lower, and bottom are all thick coating layers, and the upper and bottom coating layers are thick. And those having a thick coating layer only at the bottom. In addition, it is possible to change the shape of the globe sphere and the shape of the socket in a plan view, such as adjusting the position of the boundary layer up and down and adjusting the thickness.

4 Support rod 2 Socket 3 Vertical lamp 1 Globe sphere 30 Light emitter 30L Light emitting element 33 Upper light emitter cover 12 coating layer 12A central coating layer 12B lower coating layer 12C bottom coating layer 12D upper coating layer 34 fan 13L , 14L layer boundary

Claims (7)

A support bar erected vertically on the installation surface;
A non-translucent socket fixed horizontally extending at the upper end of the support bar;
A vertical lamp mounted in the upper center of the socket;
A pest control lamp comprising a globe ball made of a translucent body attached to the upper center of the socket and covering the socket and the vertical lamp in a spherical or polygonal shape,
The vertical lamp has at least a plurality of vertically long light emitters that emit light to the side and a columnar side light emitter group 31 erected in a columnar shape,
The socket has a plan view shape larger than the plan view shape of the vertical lamp, and shields direct irradiation light downward from the light emitter,
The globe sphere has a plan view shape larger than the shape of the socket in plan view, and a translucent coating layer is applied to the entire surface of one side of the spherical or polygonal translucent body,
Each of the light emitters of the columnar side light emitter group 31 emits side light to the surrounding side along the columnar peripheral surface, and a part of the side light is reflected and refracted by the coating layer of the globe sphere. A pest control light that is transmitted through and irradiates the lower part of the socket with a control color for a specific insect. The vertical lamp is composed of a columnar side light emitter group 31 formed by standing a plurality of vertically long plate-shaped light emitters that emit light in the lateral direction from the plate surface, and light emission that emits light upward. A ring-shaped upper light emitting body group formed by annularly arranging a body on the top surface portion of the columnar side light emitting body group 31;
Each of the light emitters of the columnar side light emitter group 31 emits side light to the surrounding side along the columnar peripheral surface, and a part of the side light is reflected and refracted by the coating layer of the globe sphere. Transmits and illuminates the lower part of the socket with a specific insect control color,
Each light emitter of the upper light emitter group emits light upward from the columnar top surface to the surrounding upper part, and a part of the light of the upper light is reflected and refracted by the coating layer of the globe sphere, and below the socket, The pest control lamp according to claim 1, wherein the pest control light is irradiated with a control color to a specific insect. The vertical lamp is
By arranging a plurality of light emitters extending in the vertical direction in a cylindrical shape, a light emitter group having a central space in the vertical direction at the central portion of the cylindrical shape, and a fan for blowing air upward or downward in the central space And comprising
The light emitter is provided with a plurality of LE light emitting elements on the outer surface, and the light emitter at the time of light emission is cooled by blowing air from a fan.
The pest control lamp according to claim 1 or 2. The coating layer contains a yellow pigment,
The lower coating layer in a range below the maximum diameter portion of the globe sphere has a coating thickness larger than that of the central coating layer in the central range in the height direction including the maximum diameter portion of the globe sphere. The pest control light according to any one of 2 and 3. The layer boundary between the lower coating layer in the range below the maximum diameter portion of the globe sphere and the central coating layer in the central range in the height direction including the maximum diameter portion of the globe sphere is the lower end of the luminous body group. Set equal to or below the height,
The pest control lamp according to claim 4. The coating layer contains a yellow pigment,
The upper coating layer in the range above the maximum diameter portion of the globe sphere has a coating thickness greater than the central coating layer in the central range in the height direction including the maximum diameter portion of the globe sphere. The pest control light according to any one of 2, 3, 4, and 5. The layer boundary between the upper coating layer in the range above the maximum diameter portion of the globe sphere and the central coating layer in the central range in the height direction including the maximum diameter portion of the globe sphere is the upper end of the luminous body group. The pest control lamp according to claim 6, which is set to be equal to or higher than the height.