Remote multifunctional intelligent pest monitoring device

Abstract

The invention discloses a remote multifunctional intelligent pest monitoring device which structurally comprises a monitoring mechanism composed of a power supply box, a data transmission box, a wireless transmitter, a supporting plate and a camera shooting mechanism, the upper end face of the power supply box is provided with the data transmission box, and the data transmission box is electrically connected with the power supply box. Residual pests on the surface of a camera can be effectively cleaned through a wiping strip, monitoring of the camera is prevented from being blocked, a motor runs under transmission of a belt, two belt pulleys synchronously drive two worms to rotate, two sliding blocks on each worm slide in the opposite direction, and thus the camera is protected from being damaged. According to the pest monitoring device, the two linkage supporting rods hinged to the two sliding blocks are in synchronous internal and external linkage, the lifting supporting plate is supported to conduct stable lifting work, the height of the camera is adjusted, and pests distributed at different heights can be comprehensively monitored.

Description

Technical Field

[0001] The present invention relates to the technical field of intelligent pest monitoring, and more specifically, to a remote multi-functional intelligent pest monitoring device. Background Art

[0002] Remote multi-functional intelligent pest monitoring mainly uses technologies such as sensors, cameras, and the Internet of Things to monitor pest activities in real time and transmit the data to the cloud for analysis; then, users can remotely view the data through mobile phones or computers and take timely measures; however, when the existing remote multi-functional intelligent pest monitoring devices are used outdoors, the cameras are easily blocked by pest residues, and it is impossible for people to arrive at the camera surface in time for cleaning, resulting in inaccurate monitoring data of pests. Moreover, when used outdoors, a solar panel is needed to generate electricity to provide power for the entire device. When it rains, the solar panel is exposed outdoors for a long time, causing water to enter the gaps and affecting the subsequent efficient power generation effect, which easily leads to power failure of the remote multi-functional intelligent pest monitoring device during use and inability to monitor the pest situation outdoors in time. Summary of the Invention

[0003] The technical solution adopted by the present invention to achieve the technical purpose is: a remote multi-functional intelligent pest monitoring device, the structure of which includes a monitoring mechanism composed of a power supply box, a data transmission box, a wireless transmitter, a support plate, and a camera mechanism. The data transmission box is installed on the upper end surface of the power supply box and is electrically connected. A wireless transmitter is arranged outside the data transmission box to remotely transmit the data of the data transmission box to the user's mobile phone or computer for remotely viewing the pest monitoring data. A support plate is installed outside the data transmission box, and a camera mechanism is installed at the edge end of the support plate. The camera mechanism transmits the captured pest situation to the data transmission box. Its characteristics are as follows: The camera mechanism includes a controller, a driving wheel, a rotating disk, a camera, and a cleaning mechanism. The controller is installed on the upper surface of the support plate, and the controller drives the driving wheel to rotate inside the support plate. The driving wheel drives the rotating disk installed in the middle of the support plate to rotate. The rotating disk drives the camera to rotate at the bottom of the support plate. A cleaning mechanism is also fixedly installed at the bottom of the support plate, and the cleaning mechanism is located outside the camera. The cleaning mechanism is composed of a support arm, a limiting strip, an installation groove, and a wiping strip. The support arm is fixed to the bottom of the support plate, and a limiting strip is arranged on one side of the support arm. The arc end of the support arm is embedded with an installation groove, and the wiping strip is installed at the arc end of the support arm. The wiping strip is in an arc-shaped structure and fits on the spherical surface structure of the camera.

[0004] As a further improvement of the present invention, an installation base is provided at the bottom of the wiping strip, and an installation bottom block is fixed to the middle of the bottom of the installation base. The installation bottom block is slidably installed inside the installation groove, and one side of the installation base is limited and blocked by a limit stop strip. The installation groove and the installation bottom block have the same structure, both of which are trapezoidal surface structures with a narrow upper end and a wide lower end.

[0005] As a further improvement of the present invention, a limit rotating shaft is also provided in the middle of the support arm, and a limit rotating plate is connected to the left side of the limit rotating shaft and is shaft-connected. A plugging rod is provided at the left end of the limit rotating plate and is connected by a spring, so that the plugging rod is elastically plugged inside the installation bottom block to resist and limit the installation bottom block slidably installed inside the installation groove.

[0006] As a further improvement of the present invention, a lifting support plate is installed at the bottom of the power supply box, and a support bottom plate is provided below the lifting support plate. A lifting mechanism is provided on the upper surface of the support bottom plate. The lifting support plate is supported above the support bottom plate through the lifting mechanism. Moving wheels are also provided at the four corners of the bottom of the support bottom plate to drive the overall movement of the device to monitor pests; The lifting mechanism is composed of a motor, a pulley, a belt, a worm, a sliding block and a linkage strut. The motor is fixedly installed on the upper surface of the right end of the support bottom plate, and the output end of the motor drives the pulley to rotate synchronously. The two pulleys are synchronously transmitted through the belt, and the pulley drives the worm to rotate. The worm is inserted into the sliding block through clearance fit and is threadedly connected. The upper surface of the sliding block is hinged to the lower end of the linkage strut, and the upper end of the linkage strut is hinged to the bottom surface of the lifting support plate. There are two worms, and the threads at both ends of each worm are opposite, synchronously driving the two sliding blocks arranged on the same worm to slide in the opposite direction.

[0007] As a further improvement of the present invention, a storage box is also provided at the upper right end of the upper surface of the lifting support plate, and a drainage groove is embedded at the lower end inside the storage box. A solar panel is also installed inside the storage box. The inclined lower end of the solar panel is located above the drainage groove. A bottom plate is provided on the bottom surface of the solar panel, and a guide post is fixed inside the bottom plate. The guide post guides the upper end of the multi-stage electric push rod installed inside the storage box to slide. The multi-stage electric push rod is controlled by a power supply installed inside the storage box to operate, so as to push the inclined upper end of the bottom plate to drive the solar panel to tilt and rotate upward around the inclined lower end positioning shaft, and move the solar panel out of the storage box to receive sunlight for power generation work. The electric energy generated by the solar panel is stored in the storage box installed on the upper surface of the support bottom plate.

[0008] As a further improvement of the present invention, an opening and closing plate is also installed at the upper end inside the storage box and is connected by a shaft. A guiding chute is embedded inside the opening and closing plate, and a sliding shaft provided at the inclined upper end of the solar panel slides inside the guiding chute. When the solar panel rotates obliquely and moves out of the storage box, the opening and closing plate can be tilted upwards to ensure that the solar panel receives sunlight.

[0009] As a further improvement of the present invention, a limiting mechanism is also installed on the upper side of the multi-section electric push rod. The limiting mechanism is composed of a contact plate, a connecting shaft, a fixed pipe and a spring. The contact plate is fixed on the upper side surface of the multi-section electric push rod, and the contact plate is connected to the fixed pipe through the connecting shaft. The spring is connected between the fixed pipe and the inner wall of the storage box. The spring is in an arc structure and is on the same circle center as the axis of the lower end of the multi-section electric push rod connected to the inside of the storage box.

[0010] The beneficial effects of the present invention are as follows: 1. During the rotation of the camera in the present invention, it comes into contact with the wiping strip. The wiping strip can effectively clean the pests remaining on the surface of the camera, avoiding obstruction of camera monitoring. And through the operation of the motor, under the transmission of the belt, the two belt pulleys drive the two worm gears to rotate synchronously. The two sliding blocks on each worm gear slide in opposite directions, so that the two linkage struts hinged to the two sliding blocks move in and out synchronously, supporting the lifting and lowering tray to perform stable lifting and lowering work, adjusting the height of the camera, and enabling comprehensive monitoring of pests distributed at different heights. 2. In the present invention, by starting the multi-section electric push rod to extend and push the solar panel to rotate obliquely and move out of the storage box, at the same time, the opening and closing plate can be tilted upwards to ensure that the solar panel receives sunlight. On the contrary, in case of rain, when the solar panel is retracted into the storage box, the opening and closing plate is pulled back to cover the upper surface of the storage box to protect the solar panel, avoiding water ingress at the gaps of the solar panel and affecting the subsequent efficient power generation effect of receiving sunlight for power generation. Description of the Drawings

[0011] Figure 1 It is a schematic structural diagram of a remote multi-functional intelligent pest monitoring device of the present invention.

[0012] Figure 2 It is a three-dimensional structural diagram of the monitoring mechanism of the present invention.

[0013] Figure 3 It is an internal structural diagram of the camera mechanism of the present invention.

[0014] Figure 4 It is a three-dimensional disassembled structural diagram of the cleaning mechanism of the present invention.

[0015] Figure 5 This is a three-dimensional structure schematic diagram of the lifting mechanism of the present invention.

[0016] Figure 6 This is an internal structure schematic diagram of the storage box of the present invention.

[0017] Figure 7 This is a working state structure schematic diagram of the solar panel of the present invention.

[0018] Figure 8 This is a structure schematic diagram of the limiting mechanism of the present invention.

[0019] In the figure: support bottom plate - 1, lifting mechanism - 11, motor - 111, pulley - 112, belt - 113, worm - 114, sliding block - 115, linkage strut - 116, lifting support plate - 2, monitoring mechanism - 3, power supply box - 31, data transmission box - 32, wireless transmitter - 33, support plate - 34, camera mechanism - 35, controller - 351, driving wheel - 352, rotating disk - 353, camera - 354, cleaning mechanism - 355, support arm - 3551, limit rotating shaft - 5511, limit rotating plate - 5512, insertion rod - 5513, limit stop bar - 3552, installation groove - 3553, wiping strip - 3554, installation base - 5541, installation bottom block - 5542, storage box - 4, drainage groove - 41, solar panel - 42, bottom plate - 421, guide post - 422, sliding shaft - 423, opening and closing plate - 43, guide chute - 431, multi - joint electric push rod - 44, power supply - 45, limiting mechanism - 46, abutting plate - 461, connecting shaft - 462, fixed tube - 463, spring - 464, battery storage box - 5, moving wheel - 6. Specific embodiments

[0020] The following further describes the present invention with reference to the accompanying drawings: Embodiment

[0021] As shown in the attached Figure 1 to the attached Figure 5 figures: A remote multi-functional intelligent pest monitoring device of the present invention, its structure includes a monitoring mechanism 3 composed of a power supply box 31, a data transmission box 32, a wireless transmitter 33, a support plate 34, and a camera mechanism 35. The upper end surface of the power supply box 31 is installed with and electrically connected to the data transmission box 32. A wireless transmitter 33 is arranged outside the data transmission box 32 to remotely transmit the data of the data transmission box 32 to the user's mobile phone or computer for remotely viewing the pest monitoring data. A support plate 34 is installed outside the data transmission box 32, and a camera mechanism 35 is installed at the edge end of the support plate 34. The camera mechanism 35 transmits the photographed pest situation to the data transmission box 32. The camera mechanism 35 includes a controller 351, a driving wheel 352, a rotating disk 353, a camera 354, and a cleaning mechanism 355. The controller 351 is installed on the upper surface of the support plate 34, and the controller 351 drives the driving wheel 352 to rotate inside the support plate 34, and the driving wheel 352 drives the rotating disk 353 installed in the middle of the support plate 34 to rotate. The rotating disk 353 drives the camera 354 to rotate at the bottom of the support plate 34. A cleaning mechanism 355 is also fixedly installed at the bottom of the support plate 34, and the cleaning mechanism 355 is located outside the camera 354; The cleaning mechanism 355 is composed of a support arm 3551, a limit stop bar 3552, an installation groove 3553, and a wiping strip 3554. The support arm 3551 is fixed to the bottom of the support plate 34, and a limit stop bar 3552 is arranged on one side of the support arm 3551. The arc end of the support arm 3551 is embedded with an installation groove 3553, and the wiping strip 3554 is installed at the arc end of the support arm 3551. The bottom of the wiping strip 3554 is provided with an installation base 5541, and an installation bottom block 5542 is fixed to the middle of the bottom of the installation base 5541. The installation bottom block 5542 is slidably installed inside the installation groove 3553, and the limit stop bar 3552 limits and blocks one side of the installation base 5541. A limit rotating shaft 5511 is also arranged in the middle of the support arm 3551, and a limit rotating plate 5512 is connected to the left side of the limit rotating shaft 5511 and is axially connected. A plugging rod 5513 is arranged at the left end of the limit rotating plate 5512 and is connected by a spring, so that the plugging rod 5513 is elastically plugged inside the installation bottom block 5542 to resist and limit the installation bottom block 5542 slidably installed inside the installation groove 3553, improving the firmness of installing the wiping strip 3554 at the arc end of the support arm 3551 and ensuring that the wiping strip 3554 maintains an efficient wiping and cleaning effect on the camera 354.

[0022] As a further improvement of the present invention, a lifting support plate 2 is installed at the bottom of the power supply box 31, and a support bottom plate 1 is arranged below the lifting support plate 2. A lifting mechanism 11 is arranged on the upper surface of the support bottom plate 1. The lifting support plate 2 is supported above the support bottom plate 1 through the lifting mechanism 11. Moving wheels 6 are also arranged at the four corners of the bottom of the support bottom plate 1 to drive the overall movement of the device to monitor pests. The lifting mechanism 11 is composed of a motor 111, a pulley 112, a belt 113, a worm 114, a sliding block 115 and a linkage strut 116. The motor 111 is fixedly installed on the upper surface of the right end of the support bottom plate 1, and the output end of the motor 111 drives the pulley 112 to rotate synchronously. The two pulleys 112 are synchronously transmitted through the belt 113. The pulley 112 drives the worm 114 to rotate. The worm 114 is inserted into the interior of the sliding block 115 by clearance fit and is threadedly connected. The upper surface of the sliding block 115 is hinged to the lower end of the linkage strut 116, and the upper end of the linkage strut 116 is hinged to the bottom surface of the lifting support plate 2. In the present invention, when monitoring pests, shooting is carried out by the cameras 354 on both sides. During the shooting process, the controller 351 starts the driving wheel 352 to drive the rotating disc 353 to rotate, so that the cameras 354 rotate 360° in all directions for monitoring, improving the monitoring range. At the same time, when the cameras 354 rotate, they come into contact with the wiping strips 3554. The wiping strips 3554 can effectively clean the pests remaining on the surface of the cameras 354, avoiding obstruction of the cameras 354 during monitoring. And through the operation of the motor 111, the two pulleys 112 are synchronously driven by the belt 113 to drive the two worms 114 to rotate. The two sliding blocks 115 on each worm 114 slide in opposite directions, so that the two linkage struts 116 hinged to the two sliding blocks 115 move in and out synchronously, supporting the lifting support plate 2 to perform stable lifting work, adjusting the height of the cameras 354, and being able to comprehensively monitor pests distributed at different heights. And the monitoring data is remotely transmitted to the user's mobile phone or computer through the data transmission box 32 and the wireless transmitter 33 to remotely view the pest monitoring data.

[0023] In a preferred technical solution, the wiping strip 3554 is in an arc-shaped structure and fits on the spherical surface structure of the camera 354. When the camera 354 rotates, it comes into contact with the wiping strip 3554, so as to clean the pests remaining on the surface of the camera 354, thus ensuring that the camera 354 can accurately shoot and monitor pests. A preferred technical solution is that the installation groove 3553 and the installation bottom block 5542 have the same structure, both of which are trapezoidal surface structures with a narrow upper end and a wide lower end. After the installation bottom block 5542 slides into the installation groove 3553, the wiping strip 3554 will not fall off upward from the arc end of the support arm 3551, and can only be slid and disassembled left and right. At the same time, it is convenient to disassemble and replace the wiping strip 3554, avoiding the wiping strip 3554 being worn due to long-term wiping and cleaning, resulting in the inability to maintain an efficient wiping and cleaning effect on the camera 354; A preferred technical solution is that there are two worm gears 114, and the threads at both ends of each worm gear 114 are opposite. The two sliding blocks 115 provided on the same worm gear 114 are synchronously driven to slide in opposite directions, so that the two linkage struts 116 hinged to the two sliding blocks 115 are synchronously linked inside and outside, supporting the lifting and lowering of the lifting support plate 2 to work stably. Thus, the height of the camera mechanism 35 at the upper end of the lifting support plate 2 is adjusted, and pests distributed at different heights can be comprehensively monitored. Embodiment 2: On the basis of Embodiment 1, as shown in the attached Figure 6 to the attached Figure 8 shown: A storage box 4 is also provided at the right end of the upper surface of the lifting support plate 2, and a drainage groove 41 is embedded in the lower end of the storage box 4. A solar panel 42 is also installed inside the storage box 4, and the inclined lower end of the solar panel 42 is located above the drainage groove 41. A bottom plate 421 is provided on the bottom surface of the solar panel 42, and a guide column 422 is fixed inside the bottom plate 421. The guide column 422 guides the upper end of the multi-section electric push rod 44 installed inside the storage box 4 to slide, and the multi-section electric push rod 44 is controlled to operate by the power supply 45 installed inside the storage box 4, so as to push the inclined upper end of the bottom plate 421 to carry the solar panel 42 to rotate upward around the inclined lower end positioning axis, and move the solar panel 42 out of the storage box 4 to receive sunlight for power generation. The solar panel 42 stores the generated electricity in the storage box 5 installed on the upper surface of the supporting bottom plate 1. An opening and closing plate 43 is also installed at the upper end of the storage box 4 and is connected with an axis. The opening and closing plate 43 is embedded with a guide slide groove 43 1, and the sliding shaft 423 arranged at the inclined upper end of the solar panel 42 slides inside the guide slide groove 431, and when the solar panel 42 is tilted and rotated to move out of the storage box 4, the opening and closing plate 43 can be tilted upward to lift up to ensure that the solar panel 42 receives sunlight. On the contrary, when it rains, the solar panel 42 is stored back into the storage box 4 and the opening and closing plate 43 is pulled back to cover the upper surface of the storage box 4 to protect the solar panel 42 and prevent water from entering the gap between the solar panel 42 and affecting the subsequent efficient power generation effect. A limiting mechanism 46 is also installed on the upper side of the multi-section electric push rod 44, and the limiting mechanism 46 consists of a contact plate 461, a connecting shaft 462, a fixed tube 463 and a spring 464. The contact plate 461 is fixed on the upper side surface of the multi-section electric push rod 44, and the contact plate 461 and the fixed tube 463 are connected by a connecting shaft 462, and the spring 464 is connected between the fixed tube 463 and the inner wall of the storage box 4; In the present invention, the multi-section electric push rod 44 is started to extend and push the solar panel 42 to tilt and rotate and move out of the storage box 4. At the same time, the opening and closing plate 43 can be tilted and lifted upward to ensure that the solar panel 42 receives sunlight. On the contrary, when it rains, the solar panel 42 is stored back into the storage box 4 and the opening and closing plate 43 is pulled back to cover the upper surface of the storage box 4 to protect the solar panel 42 and prevent water from entering the gaps in the solar panel 42, which may affect the subsequent efficient power generation effect and receive sunlight to generate electricity.

[0024] A preferred technical solution is that the spring 464 is in an arc structure and is concentric with the axis of the lower end of the multi-stage electric push rod 44 connected to the inside of the storage box 4. When the multi-stage electric push rod 44 starts to extend and the lower end rotates at a certain angle around the axis inside the storage box 4, under the abutting and limiting of the abutting plate 461, elastic buffering is carried out through the spring 464, which can effectively prevent the rotation angle range of the multi-stage electric push rod 44 from being too large. At the same time, elastic extrusion is applied through the spring 464 to ensure that the multi-stage electric push rod 44 can return to the original position after retraction, so as to ensure that the opening and closing plate 43 is reset to cover the upper surface of the storage box 4 for sealing. Any technical solution that uses the technical solution of the present invention or is designed by those skilled in the art under the inspiration of the technical solution of the present invention to achieve the above technical effects falls within the protection scope of the present invention.

Claims

1. A remote multifunctional intelligent pest monitoring device, comprising a monitoring mechanism (3) consisting of a power supply box (31), a data transmission box (32), a wireless transmitter (33), a support plate (34), and a camera mechanism (35), wherein the data transmission box (32) is installed on the upper end surface of the power supply box (31) and is electrically connected, a wireless transmitter (33) is arranged outside the data transmission box (32) to remotely transmit data from the data transmission box (32) to a user's mobile phone or computer for remote viewing of the pest monitoring data, a support plate (34) is installed outside the data transmission box (32), and a camera mechanism (35) is installed at the edge end of the support plate (34), and the camera mechanism (35) transmits the captured pest situation to the data transmission box (32), characterized in that: The camera mechanism (35) comprises a controller (351), a driving wheel (352), a rotating disk (353), a camera (354) and a cleaning mechanism (355); the controller (351) is mounted on the upper surface of the support plate (34); the controller (351) drives the driving wheel (352) to rotate inside the support plate (34); the driving wheel (352) drives the rotating disk (353) mounted at the middle end of the support plate (34) to rotate; the rotating disk (353) drives the camera (354) to rotate at the bottom of the support plate (34); a cleaning mechanism (355) is also fixedly mounted at the bottom of the support plate (34); the cleaning mechanism (355) is located outside the camera (354); The cleaning mechanism (355) is composed of a support arm (3551), a limit stop bar (3552), a mounting groove (3553) and a wiping strip (3554); the support arm (3551) is fixed to the bottom of the support plate (34), and a limit stop bar (3552) is provided on one side of the support arm (3551); the mounting groove (3553) is embedded in the arcuate end of the support arm (3551), and the wiping strip (3554) is installed at the arcuate end of the support arm (3551).

2. A remote multifunctional intelligent pest monitoring device according to claim 1, characterized in that: A mounting base (5541) is provided at the bottom of the wiping strip (3554), and a mounting base block (5542) is fixed at the middle end of the bottom of the mounting base (5541); the mounting base block (5542) is slidably mounted inside the mounting groove (3553), and one side of the mounting base (5541) is limited and blocked by the limit stop bar (3552).

3. A remote multifunctional intelligent pest monitoring device according to claim 2, characterized in that: A limit rotation shaft (5511) is also provided in the middle of the support arm (3551), and the left side of the limit rotation shaft (5511) is connected to a limit rotation plate (5512) and is axially connected, and a plug-in rod (5513) is provided at the left end of the limit rotation plate (5512) and is connected via a spring, so that the plug-in rod (5513) is elastically plugged into the inside of the installation base block (5542) to resist and limit the installation base block (5542) slidably installed in the installation groove (3553).

4. A remote multifunctional intelligent pest monitoring device according to claim 1, characterized in that: A lifting support plate (2) is installed at the bottom of the power supply box (31), and a supporting base plate (1) is arranged below the lifting support plate (2). A lifting mechanism (11) is arranged on the upper surface of the supporting base plate (1), and the lifting support plate (2) is supported above the supporting base plate (1) by the lifting mechanism (11). Moving wheels (6) are also arranged at the four corners of the bottom of the supporting base plate (1) to drive the device to move as a whole to monitor pests; The lifting mechanism (11) is composed of a motor (111), a pulley (112), a belt (113), a worm (114), a sliding block (115) and a linkage support rod (116). The motor (111) is fixedly mounted on the upper surface of the right end of the supporting base plate (1), and the output end of the motor (111) drives the pulley (112) to rotate synchronously. The two pulleys (112) are synchronously transmitted through the belt (113). The pulley (112) drives the worm (114) to rotate. The worm (114) is inserted into the sliding block (115) with a clearance fit and is threadedly connected. The upper surface of the sliding block (115) is hinged to the lower end of the linkage support rod (116), and the upper end of the linkage support rod (116) is hinged to the bottom surface of the lifting support plate (2).

5. A remote multifunctional intelligent pest monitoring device according to claim 4, characterized in that: A storage box (4) is also provided at the right end of the upper surface of the lifting support plate (2), and a drainage groove (41) is embedded in the lower end of the storage box (4). A solar panel (42) is also installed inside the storage box (4), and the inclined lower end of the solar panel (42) is located above the drainage groove (41). A bottom plate (421) is provided on the bottom surface of the solar panel (42), and a guide column (422) is fixed inside the bottom plate (421). The guide column (422) is installed in the storage box (4) The multi-section electric push rod (421) is installed in the storage box (4). The upper end of the rod (44) is guided to slide, and the operation of the multi-section electric push rod (44) is controlled by a power supply (45) installed inside the storage box (4), thereby pushing the inclined upper end of the bottom plate (421) to carry the solar panel (42) and rotate upward around the inclined lower end positioning axis, so that the solar panel (42) is moved out of the storage box (4) to receive sunlight for power generation, and the solar panel (42) stores the generated electric energy in the storage box (5) installed on the upper surface of the supporting bottom plate (1).

6. A remote multifunctional intelligent pest monitoring device according to claim 5, characterized in that: An opening and closing plate (43) is also installed at the upper end of the storage box (4) and connected with an axis, a guide slide groove (431) is embedded in the opening and closing plate (43), and a sliding shaft (423) arranged at the inclined upper end of the solar panel (42) slides inside the guide slide groove (431).

7. A remote multifunctional intelligent pest monitoring device according to claim 5, characterized in that: A limiting mechanism (46) is also installed on the upper side of the multi-section electric push rod (44), and the limiting mechanism (46) is composed of a contact plate (461), a connecting shaft (462), a fixed tube (463) and a spring (464); the contact plate (461) is fixed to the upper side surface of the multi-section electric push rod (44), and the contact plate (461) and the fixed tube (463) are connected via the connecting shaft (462); the spring (464) is connected between the fixed tube (463) and the inner wall of the storage box (4).

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