Combined photo-thermal insect expelling equipment

Abstract

The utility model relates to the technical field of bio-fertilizer treatment equipment, in particular to combined type photo-thermal insect expelling equipment which comprises at least one equipment body, the equipment body comprises at least two photo-thermal insect expelling devices, and the photo-thermal insect expelling devices convey materials subjected to separation treatment to the adjacent next-stage photo-thermal insect expelling devices to be treated again. The photo-thermal insect repelling device comprises a feeding mechanism, a photo-thermal insect repelling lamp, an insect receiving plate and a washing insect repelling mechanism, mesh holes allowing flies and insects to penetrate through are formed in the working face of the feeding mechanism, the insect receiving plate is obliquely arranged below the material bearing section of the working face, and an insect guiding groove is formed in the lower end of the insect receiving plate. The photo-thermal insect repelling lamp is arranged above the feeding mechanism and drives flies and insects to escape towards the insect receiving plate through meshes, the washing insect repelling mechanism is arranged above the insect receiving plate and washes the flies and insects on the insect receiving plate into the insect guide groove, and equipment blockage caused by adhesion of the flies and insects is avoided.

Description

TECHNICAL FIELD

[0001] The utility model relates to biological fertilizer processing equipment technical field, concretely relates to a combined light heat insect expelling device. BACKGROUND

[0002] At present, when separating flies and insects in the separated soil or other mixed biological fertilizer, the fertilizer is conveyed by using the conveyor with the mesh, the light heat insect expelling lamp is arranged above the conveyor, and the flies and insects escape from the mesh and fall on the insect receiving device below during the conveying of the fertilizer. Because the surface of the flies and insects is relatively humid, the flies and insects are easy to adhere on the insect receiving device, and the device is easy to be blocked, so manual auxiliary operation is required, the labor environment of the workers is poor, and the labor intensity is high. In addition, in order to ensure the separation effect of the flies and insects, a large-size device is required to realize long-time irradiation, or repeated operation is required for a batch of materials. SUMMARY

[0003] The utility model solves the technical problem to provide a combined light heat insect expelling device which can improve the separation efficiency, reduce the labor intensity and has small land occupation.

[0004] In order to solve the above technical problem, the utility model adopts the technical scheme that a combined light heat insect expelling device comprises a device body, the device body comprises at least two light heat insect expelling devices, the upper light heat insect expelling device conveys the separated material to the adjacent lower light heat insect expelling device and separates again, the light heat insect expelling device comprises a feeding mechanism, a light heat insect expelling lamp, an insect receiving plate and a flushing insect expelling mechanism, the feeding surface of the feeding mechanism is provided with the mesh for the flies and insects to pass through, the insect receiving plate is inclinedly arranged below the material receiving section of the working surface of the feeding mechanism, the light heat insect expelling lamp is arranged above the feeding mechanism, the light heat insect expelling lamp drives the flies and insects conveyed by the feeding mechanism to pass through the mesh and escape to the insect receiving plate, the low end of the insect receiving plate is provided with a guide insect groove, and the flushing insect expelling mechanism is arranged on the insect receiving plate and flushes the flies and insects on the insect receiving plate to the guide insect groove. The device body comprises at least two light heat insect expelling devices arranged in series, the mixed material containing the flies and insects is sequentially subjected to fly separation treatment at each light heat insect expelling device, and the treatment effect of the mixed material is effectively improved through multiple treatments.

[0005] As a preferred scheme, each light heat insect expelling device is vertically arranged, and the feeding mechanism of the upper light heat insect expelling device conveys the material to the feeding mechanism of the lower adjacent light heat insect expelling device. Each light heat insect expelling device is vertically arranged, which not only facilitates the sequential conveying of the mixed material between the light heat insect expelling devices, but also helps to reduce the volume and space occupation of the device body.

[0006] As an optional solution, a material guiding mechanism is arranged between the two adjacent light-heat insect expelling devices, the material guiding mechanism is arranged at the end of the feeding mechanism of the upper light-heat insect expelling device and transfers the material to the feeding mechanism of the lower light-heat insect expelling device. The material guiding mechanism can improve the transfer effect of the mixed material between the two light-heat insect expelling devices.

[0007] As an optional solution, the light-heat insect expelling device further comprises a cover arranged on the feeding mechanism and forming a feeding channel with the material receiving section of the working surface of the feeding mechanism, at least one light-heat insect expelling lamp is arranged in the cover along the feeding channel; the material guiding mechanism is provided with a material guiding channel, which is communicated with the feeding channels of the upper and lower light-heat insect expelling devices. The cover can concentrate light and heat, thereby improving the insect expelling effect of the light-heat insect expelling lamp.

[0008] As an optional solution, the flushing insect expelling mechanism comprises a flushing pipe arranged above the insect receiving plate, the flushing pipe is communicated with a water supply device and flushes water to the insect receiving plate; by flushing water to the insect receiving plate, the flies on the insect receiving plate can be flushed into the insect guiding groove, thereby avoiding the flies from being adhered to the insect receiving plate due to the wet surface of the flies.

[0009] Alternatively, the flushing insect expelling mechanism comprises a flushing pipe and a blowing pipe, the flushing pipe is communicated with a water supply device and flushes water to the insect receiving plate, the blowing pipe is communicated with a blowing device and blows air to the insect receiving plate. By combining flushing and blowing, the flushing effect on the flies can be improved, thereby avoiding the flies from being adhered to the insect receiving plate.

[0010] As an optional solution, a fly-water separation mechanism is further included, each insect guiding groove is communicated with the fly-water separation mechanism and delivers the fly-water mixture to the fly-water separation mechanism. The fly-water separation mechanism can separate the flies from the sewage.

[0011] As an optional solution, the insect guiding groove of the upper light-heat insect expelling device is communicated with the insect guiding groove of the lower light-heat insect expelling device, the insect guiding groove of the lowermost light-heat insect expelling device is communicated with the fly-water separation mechanism, and the fly-water separation mechanism is shared by the device bodies.

[0012] As an optional solution, a sewage purification mechanism is further included, each fly-water separation mechanism is communicated with the sewage purification mechanism and delivers the separated sewage to the sewage purification mechanism. The sewage purification mechanism can purify the sewage separated from the flies, thereby saving water resources and reducing production cost.

[0013] As an optional solution, a fly cleaning mechanism is arranged in the insect guiding groove. The fly cleaning mechanism can clean the flies.

[0014] As an optional solution, the device body further comprises a material loading hopper arranged on the feeding mechanism of the uppermost light-heat insect expelling device and communicated with the feeding channel of the feeding mechanism; the material loading hopper facilitates the feeding of the device body.

[0015] And / or, the device body further comprises a waste receiving and guiding mechanism, which is arranged at the discharging end of the feeding mechanism of the lowermost light-heat insect expelling device. The waste receiving and guiding mechanism is arranged to facilitate the collection of waste and the delivery of the waste to a designated location.

[0016] Compared with the prior art, the utility model has the beneficial effects that 1, the device body includes at least two light-heat insect expelling devices, each light-heat insect expelling device is arranged in series, and mixed material containing flies and insects is processed in turn through the plurality of light-heat insect expelling devices, so that the flies and insects can be fully separated, and the fly and insect separation effect is effectively improved; 2, in the light-heat insect expelling device, the inclined insect receiving plate is arranged below the working surface of the feeding mechanism, and the flushing insect expelling mechanism is arranged on the insect receiving plate, under the action of the light-heat insect expelling lamp, the flies on the feeding mechanism escape downward and fall on the insect receiving plate, and under the action of the inclined insect receiving plate and the flushing insect expelling mechanism, the flies can be all transferred to the insect guiding groove, so that the blockage is effectively avoided, manual frequent participation is not needed, and the labor intensity of the operator is reduced; 3, the flushing insect expelling mechanism avoids the adhesion of flies on the insect receiving plate to cause the blockage of the equipment through the flushing water or the combination of flushing water and air blowing; 4, the cover body is arranged on the feeding mechanism, and the light-heat insect expelling lamp is arranged in the cover body, the cover body plays the role of heat and light concentration, and the driving and separation effect of the light-heat insect expelling lamp on the flies is improved; 5, the flies separated from the mixed material are further separated at the insect and water separation mechanism, and the sewage after the separation of the flies can be reused after being purified through the sewage purification mechanism, so that the resource waste and production cost are reduced. BRIEF DESCRIPTION OF DRAWINGS

[0017] In order to more clearly illustrate the technical scheme in the embodiments of the utility model or the prior art, the drawings needed to be used in the following embodiment or prior art description will be briefly introduced, and obviously, the drawings in the following description are only some embodiments of the utility model, and other drawings can be obtained by those skilled in the art without creative labor on the premise of the drawings.

[0018] Figure 1 It is a structural schematic view of the device body;

[0019] Figure 2 It is a structural schematic view of the combined light-heat insect expelling device;

[0020] Figure 3 It is a top view schematic view of the light-heat insect expelling device;

[0021] Figure 4 It is a structural schematic view of the light-heat insect expelling device;

[0022] In the diagram: 1. Equipment body; 11. Photothermal insect repellent device; 111. Feeding mechanism; 112. Photothermal insect repellent lamp; 113. Insect receiving plate; 114. Flushing insect repellent mechanism; 115. Insect guide trough; 116. Material guiding mechanism; 117. Cover; 118. Insect-water separation mechanism; 119. Wastewater purification mechanism; 1110. Fly and insect cleaning mechanism; 1111. Loading hopper; 1112. Waste receiving and discharging mechanism; 1113. Grading device; 2. Connecting frame. Detailed Implementation

[0023] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model. Example

[0024] like Figures 1-4 As shown, a combined photothermal insect repellent device includes a device body 1, which includes at least two photothermal insect repellent devices 11 arranged in series. The upper-level photothermal insect repellent device 11 conveys the mixture after fly and insect separation to the adjacent lower-level photothermal insect repellent device 11 for further processing. Through multiple processing, a better fly and insect separation effect is achieved, which is conducive to improving the fly and insect separation efficiency. Preferably, the photothermal insect repellent devices 11 are arranged vertically. In two adjacent photothermal insect repellent devices 11, the upper one is the upper-level photothermal insect repellent device 11, and the lower one is the lower-level photothermal insect repellent device 11. The mixture containing flies and insects is sequentially processed by multiple photothermal insect repellent devices 11 from top to bottom to ensure that the flies and insects are separated fully and efficiently.

[0025] Please see Figure 4The light-heat insect expelling device 11 comprises a feeding mechanism 111, a light-heat insect expelling lamp 112, an insect receiving plate 113 and a flushing insect expelling mechanism 114. The feeding mechanism 111 is a conveyor provided with mesh holes on the working surface. When the feeding mechanism 111 conveys the mixture, the mixture is on the material receiving section of the working surface, and the flies in the mixture can pass through the mesh holes. The mesh holes are multiple and uniformly distributed. The insect receiving plate 113 is obliquely arranged below the material receiving section of the working surface. The flies fall on the insect receiving plate 113 after passing through the mesh holes. The light-heat insect expelling lamp 112 is arranged above the feeding mechanism 111. The light-heat insect expelling lamp 112 is a light-heat insect expelling light source in the prior art, which can emit light and heat having a driving effect on flies. Under the irradiation of the light-heat insect expelling lamp 112, the flies in the mixture on the material receiving section will pass through the mesh holes and escape downward, and fall on the insect receiving plate 113. The low end of the insect receiving plate 113 is provided with a guide insect groove 115. The flushing insect expelling mechanism 114 is arranged on the insect receiving plate 113. Under the joint action of the flushing insect expelling mechanism 114 and the inclined plate surface of the insect receiving plate 113, the flies falling on the insect receiving plate 113 move to the guide insect groove 115 and finally fall into the guide insect groove 115.

[0026] The feeding mechanism 111 is preferably a belt conveyor with a grid form belt. The belt surface of the belt conveyor is the working surface. The grid holes on the belt are the mesh holes for flies to pass through. The upper end surface of the upper layer belt in the belt conveyor is the material receiving section of the working surface. The insect receiving plate 113 is obliquely arranged between the upper layer belt and the lower layer belt. When the feeding mechanism 111 conveys the mixture, the mixture is conveyed on the upper layer belt, and under the irradiation of the light-heat insect expelling lamp 112, the flies escape from the mesh holes on the upper layer belt and fall on the insect receiving plate 113.

[0027] In actual use, the mixture containing flies is added to the feeding mechanism 111 of the top-level light-heat insect expelling device 11. During the feeding process of the feeding mechanism 111 of the top-level light-heat insect expelling device 11, the flies escape downward to the insect receiving plate 113 due to the irradiation of the light-heat insect expelling lamp 112, and then fall into the guide insect groove 115 along the insect receiving plate 113. Finally, the material on the feeding mechanism 111 is conveyed to the feeding mechanism 111 of the adjacent lower-level light-heat insect expelling device 11, and the mixture is processed again by the light-heat insect expelling device 11. The mixture containing flies is processed by multiple separation processes, so that the flies in the mixture can be fully separated.

[0028] A waste receiving and discharging mechanism 1112 is further arranged at the discharging end of the feeding mechanism 111 of the last-level light-heat insect expelling device 11. The mixture after multiple fly separation processes is finally conveyed to the waste receiving and discharging mechanism 1112, and then conveyed to the designated material collection place by the waste receiving and discharging mechanism 1112. The waste receiving and discharging mechanism 1112 is a belt conveyor or other form of conveying equipment, and is preferably a concave belt conveyor with a concave conveying surface.

[0029] When the light-heat insect expelling devices 11 are vertically arranged, a material guiding mechanism 116 is arranged between two adjacent light-heat insect expelling devices 11. The material guiding mechanism 116 is in the form of a material guiding cylinder or the like. The material guiding mechanism 116 is arranged at the end of the material feeding mechanism 111 of the upper light-heat insect expelling device 11. The material feeding mechanism 111 of the upper light-heat insect expelling device 11 feeds the mixed material to the material guiding mechanism 116. The material guiding mechanism 116 guides the mixed material to the material feeding mechanism 111 of the lower light-heat insect expelling device 11.

[0030] The light-heat insect expelling device 11 further comprises a cover 117. The cover 117 covers the material feeding mechanism 111. The cover 117 cooperates with the material receiving section of the working surface of the material feeding mechanism 111 to form a material feeding channel. The light-heat insect expelling lamp 112 is arranged in the cover 117. There is at least one light-heat insect expelling lamp 112 arranged along the material feeding channel. The material feeding mechanism 111 feeds the mixed material along the material feeding channel. The mixed material is separated into insects and flies by the light-heat insect expelling lamp 112 when the mixed material is in the material feeding channel.

[0031] The material guiding mechanism 116 is provided with a material guiding channel. For example, when the material guiding mechanism 116 is in the form of a material guiding cylinder, the inner cavity of the material guiding cylinder is the material guiding channel. When the material guiding mechanism 116 is in the form of a material guiding plate, the material guiding channel is formed on the side of the material guiding plate facing the material feeding mechanism 111. The material guiding channel is in communication with the material feeding channels of the upper and lower light-heat insect expelling devices 11. The material feeding mechanism 111 of the upper light-heat insect expelling device 11 feeds the mixed material to the material feeding mechanism 111 of the lower light-heat insect expelling device 11 through the material guiding channel.

[0032] The device body 1 further comprises a charging hopper 1111. The charging hopper 1111 is arranged on the material feeding mechanism 111 of the uppermost light-heat insect expelling device 11. The charging hopper 1111 is in communication with the material feeding channel of the uppermost light-heat insect expelling device 11. The charging hopper 1111 facilitates the charging of the device body 1.

[0033] In each light-heat insect expelling device 11, the separated insects and flies are fully transferred to the insect guiding groove 115 by the cooperation of the flushing insect expelling mechanism 114 and the inclined insect receiving plate 113. The flushing insect expelling mechanism 114 is in the form of water flushing or water flushing combined with air blowing.

[0034] Specifically, when the flushing and expelling mechanism 114 is a flushing type, the flushing and expelling mechanism 114 comprises one or more flushing pipes arranged above the fly board 113 and communicated with a water supply device comprising a water pump, a water storage container and the like, the water supply device flushing water to the fly board 113 through the flushing pipes, under the action of the inclined fly board 113, the flies on the fly board 113 are flushed into the fly guide groove 115; when the flushing and expelling mechanism 114 is a flushing and blowing combined type, the flushing and expelling mechanism 114 comprises a flushing pipe arranged above the fly board 113 and communicated with a water supply device, and a blowing pipe arranged above the fly board 113 and communicated with a blowing device in the form of a gas pump, when the water supply device flushes water to the fly board 113 through the flushing pipe, the blowing device blows air to the fly board 113 through the blowing pipe, the combination of flushing and blowing can further avoid the flies sticking to the fly board 113. The blowing pipe can be provided with blowing holes, and the blowing pipe can be provided in multiple to improve the blowing range and achieve the best flushing effect.

[0035] The device body 1 further comprises a fly and water separation mechanism 118, which is a separation device of existing technology such as a pulsator type separator or a sieve plate type separator, for separating flies from water. Each fly guide groove 115 is directly or through a pipeline communicated with the fly and water separation mechanism 118, and delivers water containing flies to the fly and water separation mechanism 118 for separation treatment.

[0036] Each fly guide groove 115 can be respectively provided with a fly and water separation mechanism 118, or can share one fly and water separation mechanism 118, when each fly guide groove 115 shares one fly and water separation mechanism 118, each fly guide groove 115 can be respectively communicated with the fly and water separation mechanism 118, or the fly guide groove 115 located in the upper layer can be communicated with the fly guide groove 115 located in the lower layer through a connecting pipe, and the fly guide grooves 115 in each layer are communicated layer by layer, and then the fly guide groove 115 in the lowermost layer is communicated with the fly and water separation mechanism 118.

[0037] The fly guide groove 115 can be arranged in an inclined form with one end high and one end low, at this time, the fly and water mixture in the fly guide groove 115 flows along the inclined fly guide groove 115 and finally flows to the fly and water separation mechanism 118 or the fly guide groove 115 in the lower layer; the fly guide groove 115 can also be provided with an outlet at the middle position, and the fly guide groove 115 is inclined to the outlet at each position, at this time, the fly and water mixture in the fly guide groove 115 flows to the outlet and finally flows to the fly and water separation mechanism 118 or the fly guide groove 115 in the lower layer.

[0038] As an optional embodiment, the device body 1 further comprises a sewage purification mechanism 119, which is a sewage treatment device of filtering type, sedimentation type or other type in the prior art. The insect-water separation mechanism 118 is communicated with the sewage purification mechanism 119, and the insect-water separation mechanism 118 delivers the sewage separated from the flies and insects to the sewage purification mechanism 119 for purification treatment. The purified water can be reused at the water supply device, thereby reducing production cost and saving water resources.

[0039] In some embodiments, the device body 1 further comprises a grading device 1113, which is a fly and insect grading device in the prior art. The grading device 1113 can grade the flies and insects according to the size of the flies and insects. The flies and insects separated by the insect-water separation mechanism 118 are delivered to the grading device 1113 for grading.

[0040] As a preferred embodiment, the guide channel 115 is provided with a fly and insect cleaning mechanism 1110. The fly and insect cleaning mechanism 1110 performs preliminary cleaning on the flies and insects during the delivery of the flies and insects in the guide channel 115. Specifically, the guide channel 115 is a U-shaped channel, and the fly and insect cleaning mechanism 1110 is a water flushing type brush device, which is installed on the wall of the guide channel 115. The water flushing type brush device rotates and brushes the flies and insects during the flow of the insect-water mixture in the guide channel 115. The fly and insect cleaning mechanism 1110 can also be a driven brush device with a driving component. The brush device rotates and brushes the flies and insects during the flow of the insect-water mixture in the guide channel 115.

[0041] As an optional embodiment, please refer to Figures 1-3 The device body 1 can be provided as two or more, and each device body 1 is arranged laterally, and a connecting frame 2 is arranged between adjacent device bodies 1. The connecting frame 2 is connected with the two device bodies 1, and the connecting frame 2 is provided with a man platform corresponding to each layer of the light-heat fly control device. The staff can climb to the man platform, and perform maintenance and other operations on the light-heat fly control device corresponding to the man platform. The connecting frame 2 is further provided with a climbing ladder. Each device body 1 can work independently, thereby improving production efficiency.

[0042] When the device body 1 is two or more, each device body 1 can share one insect-water separation mechanism 118.

[0043] In the description of the present specification, the description referring to the terms "one embodiment", "an example", "a specific example" and the like means that the specific features, structures, materials or characteristics described in connection with the embodiment or example are included in at least one embodiment or example of the present application. In the present specification, the illustrative description of the above terms does not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described can be combined in any one or more embodiments or examples in a suitable manner.

[0044] The above is only a preferred specific implementation of the present application, but the protection scope of the present application is not limited to this. Any person skilled in the art, within the technical range disclosed by the present application, according to the technical scheme and the application concept of the present application, makes equivalent replacement or changes, should be covered within the protection scope of the present application.

Claims

1. A combined photothermic insect repelling device, characterized in that: The device body (1) comprises at least two photothermal insect repellent devices (11), the upper photothermal insect repellent device (11) delivers the separated material to the adjacent lower photothermal insect repellent device (11) and separates again, the photothermal insect repellent device (11) comprises a feeding mechanism (111), a photothermal insect repellent lamp (112), an insect receiving plate (113) and a flushing insect repellent mechanism (114), the feeding surface of the feeding mechanism (111) is provided with a mesh for the fly to pass through, the insect receiving plate (113) is obliquely arranged below the material receiving section of the working surface of the feeding mechanism (111), the photothermal insect repellent lamp (112) is arranged above the feeding mechanism (111), the photothermal insect repellent lamp (112) drives the fly delivered by the feeding mechanism (111) to pass through the mesh and escape to the insect receiving plate (113), the low end of the insect receiving plate (113) is provided with a guide groove (115), and the flushing insect repellent mechanism (114) is arranged on the insect receiving plate (113) and flushes the fly on the insect receiving plate (113) to the guide groove (115).

2. The combined photothermal insect repelling device according to claim 1, characterized in that: The photothermal insect repellent devices (11) are vertically arranged, and the feeding mechanism (111) of the upper photothermal insect repellent device (11) delivers the material to the feeding mechanism (111) of the lower adjacent photothermal insect repellent device (11).

3. The combination photothermal vermin control device according to claim 2, wherein: A material guiding mechanism (116) is further arranged between the two adjacent photothermal insect repellent devices (11), the material guiding mechanism (116) is arranged at the end of the feeding mechanism (111) of the upper photothermal insect repellent device (11) and transfers the material to the feeding mechanism (111) of the lower photothermal insect repellent device (11).

4. The combination photothermal vermin control device of claim 3, wherein: The photothermal insect repellent device (11) further comprises a cover body (117), the cover body (117) is arranged on the feeding mechanism (111) and forms a feeding channel with the material receiving section of the working surface of the feeding mechanism (111), at least one photothermal insect repellent lamp (112) is arranged in the cover body (117) along the feeding channel; the material guiding mechanism (116) is provided with a material guiding channel, and the material guiding channel communicates with the feeding channels of the upper and lower photothermal insect repellent devices (11).

5. The combination photopyroptical vermin-deterrent device of claim 4 wherein: The flushing insect repellent mechanism (114) comprises a water flushing pipe arranged above the insect receiving plate (113), the water flushing pipe communicates with a water supply device and flushes water to the insect receiving plate (113); Or, the flushing insect repellent mechanism (114) comprises a water flushing pipe and a gas blowing pipe, the water flushing pipe communicates with a water supply device and flushes water to the insect receiving plate (113), and the gas blowing pipe communicates with a gas blowing device and blows gas to the insect receiving plate (113).

6. The combination photothermal vermin control device of claim 5, wherein: The device further comprises an insect-water separation mechanism (118), each guide groove (115) communicates with the insect-water separation mechanism (118) and delivers the insect-water mixture to the insect-water separation mechanism (118).

7. The combination photothermal vermin control device of claim 6, wherein: The guide groove (115) of the upper photothermal insect repellent device (11) communicates with the guide groove (115) of the lower photothermal insect repellent device (11), the guide groove (115) of the lowermost photothermal insect repellent device (11) communicates with the insect-water separation mechanism (118), and the insect-water separation mechanism (118) is shared by each device body (1).

8. The combined photothermal vermin control device according to claim 6 or 7, characterized in that: The sewage purification mechanism (119) is communicated with each fly-water separation mechanism (118) and receives the separated sewage from the fly-water separation mechanism (118).

9. The combination photothermal vermin control device of claim 5, wherein: The fly cleaning mechanism (1110) is arranged in the fly guide groove (115).

10. The combination photothermal vermin control device of claim 4, wherein: The device body (1) further comprises a charging hopper (1111) arranged on the feeding mechanism (111) of the uppermost photothermal fly expelling device (11) and communicated with the feeding channel of the feeding mechanism (111). And / or, the device body (1) further comprises a waste receiving and discharging mechanism (1112) arranged at the discharging end of the feeding mechanism (111) of the lowermost photothermal fly expelling device (11).

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