A continuous electric shock mouse trap with rotating feeding plate

Abstract

The application discloses a kind of electric shock plate rotary feeding type continuous electric shock mousetrap, including shell, and the front upper portion of shell is equipped with into mouse chamber and electric mouse chamber, and into mouse chamber is equipped with into mouse mouth, and into mouse mouth is also equipped with gate, and the bottom end middle part of electric mouse chamber is equipped with electric shock plate material port, and the rear side of shell is equipped with storage mouse chamber, and the lower portion of storage mouse chamber is equipped with storage mouse box;Into mouse chamber, electric mouse chamber and storage mouse chamber are slidably installed with front mouse plate in front-rear direction, and storage mouse chamber is slidably installed with rear mouse plate in front-rear direction, and electric mouse chamber is slidably installed with side mouse plate in left-right direction, and the bottom of shell is also equipped with electric shock plate chamber, and the rotating feeding device for providing electric shock plate intermittently is equipped in electric shock plate chamber.The application is innovated and designed from multiple dimensions, and simultaneously meets the functions of electric mouse accuracy, mouse cleaning, continuous electric mouse and automatic replacement of electric shock plate.

Description

Technical Field

[0001] This invention relates to the field of mousetraps, and more particularly to a continuous electric shock mousetrap with a rotating electric shock plate feeding mechanism. Background Technology

[0002] A mousetrap, also known as a rat trap, is a device that uses physical methods to trap mice. Traditional mousetraps trap mice by causing them to lose their balance and then kill them with poison. However, this method cannot guarantee the mice will die precisely. Therefore, a new method uses an electric shock plate (voltage plate) to kill the mice. However, there are technical problems with using an electric shock plate: traditional fixed electric shock plates can only kill 4-5 mice. When a large number of mice accumulate on the plate, the current drops, making it difficult to guarantee the precise death of subsequent mice. Therefore, timely cleaning of the electric shock pad is crucial. In existing technologies, the main method is to flip the electric shock pad to clean up dead mice. While this method can effectively clean up the mice, after 3-4 shocks, the charred fur adhering to the surface will cause the current of the electric shock pad to decrease, resulting in a reduction in the effectiveness of subsequent electric shocks. Therefore, the electric shock pad usually needs to be replaced. However, the electric shock pad is generally located in the middle of the cage, making the replacement operation complicated, time-consuming, and labor-intensive, and failing to achieve a continuous electric shock effect for catching mice.

[0003] Therefore, this application urgently needs to provide a continuous electric shock rat trap with accurate electric rat control, rat cleaning function, and automatic electric shock plate replacement function, so as to achieve the effect of continuous electric rat control. Summary of the Invention

[0004] To solve the above-mentioned technical problems, the technical solution of the present invention is: a continuous electric shock rat trap with rotating electric shock plate feeding, comprising a housing, wherein a rat inlet chamber and an electric rat chamber are provided on the upper front side of the housing, a rat inlet is provided at the rat inlet chamber, and a gate is also provided at the rat inlet. An electric shock plate feeding port is provided at the middle of the bottom end of the electric rat chamber on the side away from the rat inlet chamber. A rat storage chamber is provided on the rear side of the housing, and a rat storage box is provided at the lower part of the rat storage chamber. A front rat-driving plate is slidably installed between the rat inlet chamber, the electric rat chamber, and the rat storage chamber in the front-back direction. A rear rat-trapping plate is slidably installed in the rat storage chamber in the front-back direction. Side rat-driving plates are slidably installed in the electric rat chamber on both sides of the electric shock plate feeding port in the left-right direction. An insulating support plate is provided in the middle of the electric shock plate feed inlet, dividing the feed inlet into a left feed inlet and a right feed inlet. An electric shock plate cavity is also provided inside the housing below the electric mouse cavity. The electric shock plate cavity is equipped with a rotary feeding device that simultaneously supplies electric shock plates to the left and right feed inlets. The rotary feeding device includes a support base, with storage boxes on both sides of the support base. Multiple upright electric shock plates are arranged in the storage boxes. Two rotary feeding assemblies are mounted on the support base, allowing the rotary feeding assemblies to... The rotating motion removes the upright electric shock plate from the storage box and rotates it to the left and right feed inlets, where it is placed flat. The electric shock plate cavity is also equipped with a positive terminal and a negative terminal. When the two electric shock plates are placed flat at the left and right feed inlets respectively, the two electric shock plates contact the corresponding positive and negative terminals and are energized. The front side of the support body is also connected to a flat-push unloading assembly, which can perform a flat-push operation to unload the two flat electric shock plates placed on the rotating material taking assembly into the rat storage cavity and fall into the rat storage box.

[0005] As a preferred technical solution, the rotary material handling assembly includes a rotary power component, the output end of which is fixedly connected to a rotary swing arm, and a mounting arm is connected inside the rotary swing arm via a material handling spring. A support plate is fixedly mounted at the end of the mounting arm. One side of the support plate is provided with a limiting block that constrains the bottom end of the upright electric shock plate. When the support plate is rotated to a flat position, the other side of the support plate can be supported on an insulating support plate. A magnetic suction component is also provided in the middle of the surface of the support plate.

[0006] As a preferred technical solution, the flat-push unloading assembly includes a flat-push force component, the output end of which is connected to a drive gear, a flat-push rack is slidably mounted on the support body along the front-back direction, the flat-push rack meshes with the drive gear, and a flat-push unloading plate is fixed to the end of the flat-push rack, the height of which corresponds to the flat-lying electric shock plate.

[0007] As a preferred technical solution, a limiting swing bracket is provided at the flat-push unloading plate. The limiting swing bracket is horizontally rotatably mounted on the support body via a vertical shaft. The limiting swing bracket includes an L-shaped limiting rod and a trigger rod. The front end of the L-shaped limiting rod extends to the front end of the flat-lying electric shock plate. The flat-push unloading plate is provided with a wedge block that cooperates with the trigger rod. A return spring is also provided at the limiting swing bracket. When the flat-push unloading plate moves backward to unload material, the wedge block pushes the trigger rod to rotate outward, and the L-shaped limiting rod swings outward to open. When the flat-push unloading plate moves forward, the wedge block releases the trigger rod, and the L-shaped limiting rod swings inward to close under the action of the return spring.

[0008] As a preferred technical solution, the storage box is a box structure with an open top and inner side. The bottom of the box structure is provided with a pad, and the inner side of the box structure is provided with a baffle. A push plate is slidably installed inside the box structure. Multiple electric shock plates are arranged on the pad and clamped by the baffle and the push plate. A push spring is provided between the outer side of the push plate and the box structure.

[0009] As a preferred technical solution, the electric shock plate cavity is provided with two support columns, the positive terminal and the negative terminal are installed on the top of the support columns, and the positive terminal and the negative terminal are connected to the discharge control system; the electric shock plate includes a metal plate and a plastic shell surrounding the lower part of the metal plate, and the surface of the plastic shell is provided with electrode clearance openings corresponding to the positions of the positive terminal and the negative terminal.

[0010] As a preferred technical solution, the top of the insulating support plate is provided with a urine drainage groove extending in the front-to-back direction, the front end of the urine drainage groove is closed and the rear end extends to the rat storage cavity.

[0011] As a preferred technical solution, the two side rodent-driving plates are slidably mounted on the rear rodent-trapping plate in the left and right directions. A side pushing force component is mounted on the rear rodent-trapping plate. A side pushing force gear is mounted on the output end of the side pushing force component. Two horizontally sliding side pushing gears are fitted on the side pushing force gears. The two side rodent-driving plates are respectively fixedly connected to the side pushing gears.

[0012] As a preferred technical solution, the top of the rear trapping plate is provided with a telescopic locking member that cooperates with the shell, the front side of the rear trapping plate is provided with a limiting block, and a driving structure that causes the rear trapping plate to move forward is also provided between the rear trapping plate and the mouse storage cavity.

[0013] As a preferred technical solution, the top of the electric mouse cavity is provided with an air exchange port, and the air exchange port is provided with filter cotton and an air exchange fan.

[0014] Due to the adoption of the above technical solution, the beneficial effects of this invention are: this invention features innovative structural design from multiple dimensions, simultaneously satisfying the functions of accurate electric mouse operation, mouse cleaning, and continuous electric mouse operation, as detailed below: I. This application utilizes the coordinated action of the front rat-driving board, the rear rat-trapping board, and the side rat-driving boards to drive rats into a confined space. Within this confined space, there is a corresponding electric shock board that can electrocute the rats, ensuring that the rats are accurately driven onto the electric shock board, significantly improving the accuracy of the rats being electrocuted. At the same time, the rearward movement of the front rat-driving board pushes away the rats on the surface of the electric shock board, promptly cleaning up the dead rats on the surface of the electric shock board without affecting the subsequent electric rat-killing effect. Second, the electric shock plate of this application is a replaceable consumable. It is pre-stored in a storage box in multiple arrangements. Then, the electric shock plate is automatically fed and replaced and automatically unloaded and discarded by a rotary feeding device, so as to achieve the purpose of automatic replacement of electric shock plates and realize a continuous and uninterrupted rodent trapping effect. At the same time, there is no need for manual replacement of electric shock plates. In addition, with the storage box containing multiple electric shock plates, it can meet the needs of continuous rodent trapping effect for a long time. When all electric shock plates are discarded, only the storage box and the rodent storage box need to be replaced. The operation is simple and efficient. Third, this application achieves a continuous and accurate rat-catching process by orderly and rationally planning the rat-trapping action, the electric rat action, the rat-pushing action, the electric shock plate loading action, and the electric shock plate unloading action, thereby significantly improving the rat-catching effect. Attached Figure Description

[0015] The following figures are intended only to illustrate and explain the present invention and do not limit the scope of the invention. Wherein: Figure 1 This is a schematic diagram of the structure of an embodiment of the present invention; Figure 2 This is a structural cross-section of an embodiment of the present invention. Figure 1 ; Figure 3 This is a structural cross-section of an embodiment of the present invention. Figure 2 ; Figure 4 This is a schematic diagram of the internal structure of the front side angle when the shell is removed in an embodiment of the present invention; Figure 5 This is a schematic diagram of the internal structure at the rear angle when the shell is removed in an embodiment of the present invention; Figure 6 This is a schematic diagram of the structure of the rotary feeding device according to an embodiment of the present invention; Figure 7 This is a partial structural schematic diagram of an embodiment of the present invention; Figure 8 This is a cross-sectional view of the electric shock plate in a flat position according to an embodiment of the present invention; Figure 9 This is a cross-sectional view of the electric shock plate in an upright position according to an embodiment of the present invention; Figure 10 This is a top view of the horizontal unloading assembly according to an embodiment of the present invention; Figure 11 This is a schematic diagram of the structure of the storage box according to an embodiment of the present invention; Figure 12 This is a top view of the storage box according to an embodiment of the present invention; Figure 13 This is a schematic diagram of the structure of the electric shock plate in an embodiment of the present invention. Figure 1 ; Figure 14This is a schematic diagram of the structure of the electric shock plate in an embodiment of the present invention. Figure 2 ; In the diagram: 100 - Shell; 101 - Mouse inlet cavity; 102 - Electric mouse cavity; 103 - Mouse storage cavity; 104 - Electric shock plate cavity; 105 - Mouse inlet; 106 - Gate; 107 - Ladder; 108 - Mouse storage box; 109 - Insulating support plate; 110 - Left feed inlet; 111 - Right feed inlet; 112 - Guide rail; 113 - Sensor; 114 - Filter cotton; 115 - Ventilation fan; 200 - Front rodent-proof board; 201 - Conveyor belt; 202 - Pulley; 300 - Rear trap plate; 301 - Locking pin; 302 - Telescopic motor; 400-Side rodent-repellent plate; 401-Side pushing force component; 402-Side push gear; 403-Gate swing arm; 500 - Support base; 501 - Plug-in slot; 502 - Support post; 503 - Positive terminal; 504 - Negative terminal; 600 - Storage box; 601 - Pad; 602 - Edge guard; 603 - Push plate; 700 - Rotary material handling assembly; 701 - Rotary swing arm; 702 - Material handling spring; 703 - Mounting arm; 704 - Support plate; 705 - Limiting block; 706 - Magnetic suction component; 800-Push-out unloading assembly; 801-Drive gear; 802-Push-out rack; 803-Push-out unloading plate; 804-L-shaped limit rod; 805-Trigger rod; 806-Wedge block; 900-Electrical shock plate; 901-Metal plate; 902-Plastic shell; 903-Electrode clearance opening; 904-Urine drainage tank; 905-Tearable sheet. Detailed Implementation

[0016] The present invention will be further described below with reference to the accompanying drawings and embodiments. In the following detailed description, only certain exemplary embodiments of the invention are described by way of illustration. Undoubtedly, those skilled in the art will recognize that various modifications can be made to the described embodiments without departing from the spirit and scope of the invention. Therefore, the drawings and description are illustrative in nature and not intended to limit the scope of the claims.

[0017] like Figures 1 to 5As shown, a rotating electric shock plate type continuous electric shock mousetrap includes a housing 100 with an enclosed internal space. The housing 100 is functionally divided into a mouse-entry chamber 101, an electric mouse-sniffing chamber 102, a mouse-sniffing storage chamber 103, and an electric shock plate chamber 104. The mouse-entry chamber 101 and the electric mouse-sniffing chamber 102 are located on the upper front side of the housing 100, and the mouse-sniffing storage chamber 103 is located on the rear side of the housing 100. The mouse-entry chamber 101, the electric mouse-sniffing chamber 102, and the mouse-sniffing storage chamber 103 are interconnected. The electric shock plate chamber 104 is isolated from other chambers and located below the electric mouse-sniffing chamber 102.

[0018] The mouse-entry cavity 101 has mouse-entry openings 105 on both the left and right sides, and gates 106 at each mouse-entry opening 105. Gates 106 can open or close the mouse-entry openings 105. To facilitate mouse climbing, a ladder 107 is provided below the gates 106. The ladder 107 can be rotated and stored within the housing 100, reducing the overall size of the product. Small ventilation holes are provided on the bottom surface of the mouse-entry cavity 101, and a bait box is located below these ventilation holes. In this embodiment, two mouse-entry openings 105, two gates 106, and two ladders 107 are provided to facilitate mouse entry from both sides. Two bait boxes are also provided to increase the trapping rate.

[0019] The lower part of the rat storage cavity 103 is provided with a rat storage box 108. The height of the rat storage box 108 is lower than the bottom of the rat inlet cavity 101 and the electric rat cavity 102. The rat storage box 108 can be pulled out from the back. The top of the rat storage box 108 is open and the inside contains anti-corrosion liquid, which can store a large number of dead rats without producing odor.

[0020] The electric shock plate cavity 104 is located below the electric mouse cavity 102. The electric mouse cavity 102 has an electric shock plate feed port at the middle of the bottom end on the side away from the mouse inlet cavity 101. An insulating support plate 109 is provided in the middle of the electric shock plate feed port. The insulating support plate 109 is fixedly connected to the housing 100. The insulating support plate 109 divides the electric shock plate feed port into a left feed port 110 and a right feed port 111. The left feed port 110 and the right feed port 111 are used to connect the electric mouse cavity 102 and the electric shock plate cavity 104. The electric shock plate is continuously supplied to the electric shock plate cavity 104 towards the left feed port 110 and the right feed port 111.

[0021] A front rat-driving plate 200 is slidably installed between the rat-entry cavity 101, the electric rat cavity 102, and the rat-storage cavity 103 in a front-to-back direction. A rear rat-trapping plate 300 is slidably installed in the rat-storage cavity 103 in a front-to-back direction. Side rat-driving plates 400 are slidably installed in the left-to-right direction on both sides of the electric shock plate inlet in the electric rat cavity 102. The front rat-driving plate 200 and the rear rat-trapping plate 300 work together to drive and trap the rat in the electric rat area, while the side rat-driving plates 400 drive and trap the rat on the electric shock plate at the electric shock plate inlet.

[0022] See Figure 4 and Figure 5 A guide rail 112 in the front-to-back direction is fixed to the top of the inner wall of the housing 100. The top of the front-drive mouse plate 200 is slidably mounted on the guide rail 112. The top, bottom, left, and right sides of the front-drive mouse plate 200 are close to the inner walls of the mouse inlet 101 and the electric mouse cavity 102, respectively. The housing 100 is also equipped with a power device to drive the front-drive mouse plate 200 to move back and forth. The power device includes a conveyor belt 201, which is mounted on pulleys 202. One of the pulleys 202 is equipped with a motor. The top of the front-drive mouse plate 200 is fixedly connected to a certain point of the conveyor belt 201. The motor can drive the front-drive mouse plate 200 to slide back and forth. Of course, the power device can also be replaced by a gear rack or screw structure.

[0023] See Figure 4 The top of the rear trapping plate 300 is also slidably mounted on the guide rail 112. The top of the rear trapping plate 300 is provided with a telescopic locking member that cooperates with the housing 100. A limiting block is provided on the front side of the rear trapping plate 300. The limiting block can abut against the outer bottom plate of the electric mouse cavity 102 for limiting. A driving structure is also provided between the rear trapping plate 300 and the mouse storage cavity 103 to move the rear trapping plate 300 forward. The driving structure can be a spring that pushes the rear trapping plate 300 from back to front, so that the limiting block abuts against the outer end of the electric mouse cavity 102. The telescopic locking member is a locking pin 301 that extends or retracts upward and a telescopic motor 302 that drives the locking pin 301 to extend or retract. When the telescopic locking member extends and is inserted into the top plate of the housing 100, the position of the rear mouse trap 300 is fixed. When the telescopic locking member retracts, the rear mouse trap 300 can slide along the guide rail 112.

[0024] See Figure 4Two side-drive rodent plates 400 are slidably mounted on the rear rodent trapping plate 300 in a left-right direction. A side-pushing force component 401 is mounted on the rear rodent trapping plate 300. A side-pushing force gear is mounted on the output end of the side-pushing force component 401. Two horizontally slidable side-pushing gear rails 402 are fitted onto the side-pushing force gear. The two side-drive rodent plates 400 are fixedly connected to the side-pushing gear rails 402 respectively. The side-pushing force component 401 is a rotary motor. When the rotary motor drives the side-pushing force gear to rotate, it drives the side-pushing gear rails 402 to slide horizontally, thereby causing the two side-drive rodent plates 400 to slide inwards or outwards simultaneously. The upper and lower ends of the side-drive rodent plates 400 are close to the inner wall of the electric rodent cavity 102.

[0025] See Figure 4 The top of the gate 106 is also slidably mounted on the guide rail 112. The gate 106 is controlled to open and close by a gate control device. The gate control device includes a gate rotary motor mounted on the rear mouse trapping plate 300. A gate swing arm 403 is fixed to the output end of the gate rotary motor. The gate swing arm 403 is provided with a limiting groove, and the gate 106 is provided with a slider that slides along the limiting groove. When the gate rotary motor rotates, the gate swing arm 403 pulls the gate 106 to move back and forth to open and close the mouse inlet 105.

[0026] A sensor 113 is provided at the center of the front end face of the rear trapping plate 300, and the sensor 113 faces the mouse entry cavity 101. Of course, the sensor 113 is not limited to the rear trapping plate 300, as long as it can detect the area where the mouse enters.

[0027] The electric mouse chamber 102 has a ventilation port at its top, and a filter cotton 114 and a ventilation fan 115 are provided at the ventilation port. When the ventilation fan 115 is activated, the gas inside the housing 100 is discharged to the outside of the housing 100 through the ventilation port and the filter cotton 114. The filter cotton 114 can be a composite filter cotton 114.

[0028] See Figure 6 The electric shock plate cavity 104 is equipped with a rotary feeding device that supplies electric shock plates to the left feed port 110 and the right feed port 111. This rotary feeding device can push and unload the electric shock plate located at the feed port, and then supply a new electric shock plate to the feed port. In this embodiment, the electric shock plate feed port is divided into two parts by an insulating support plate 109. The left electric shock plate is used for the positive electrode, and the right electric shock plate is used for the negative electrode. The insulating support plate 109 is narrow to ensure insulation. When the left electric shock plate and the right electric shock plate are laid flat, they can be supported on the insulating support plate 109. This also allows a mouse to simultaneously step on both the positive and negative electric shock plates to achieve an electric shock.

[0029] See Figures 6 to 10 The rotary feeding device includes a support base 500, which is fixedly connected to the housing 100. The support base 500 serves as the mounting base for the rotary feeding assembly and the horizontal unloading assembly, and as a positioning structure for the rotary feeding assembly. A storage box 600 is provided on each side of the support base 500. Multiple upright electric shock plates 900 are arranged inside the storage box 600. Two rotary feeding assemblies 700 are mounted on the support base 500. The rotary feeding assemblies 700 can rotate to remove the upright electric shock plates 900 from the storage box 600 and rotate them to the left and right feed ports 110 and 111 respectively, placing them horizontally. A positive terminal is also provided inside the electric shock plate cavity 104. When the two electric shock plates 900 are placed flat at the left feed port 110 and the right feed port 111 respectively, the two electric shock plates 900 are in contact with the corresponding positive and negative terminals and are energized. The front side of the support body 500 is also connected to a flat-push unloading assembly 800, which can perform a flat-push operation to unload the electric shock plates 900 placed flat on the rotating material picking assembly 700 into the mouse storage cavity 103 and fall into the mouse storage box 108.

[0030] See Figure 9The rotating material handling assembly 700 includes a rotating power component. A rotating swing arm 701 is fixedly connected to the output end of the rotating power component. An installation arm 703 is connected to the rotating swing arm 701 via a material handling spring 702. The installation arm 703 slides linearly with the rotating swing arm 701, and the two extend and retract via the material handling spring 702, without disengaging. A support plate 704 is fixedly mounted at the end of the installation arm 703. One side of the support plate 704 is provided with a limiting block 705 that constrains the bottom end of the upright electric shock plate 900. When the support plate 704 is rotated to a flat position, the other side of the support plate 704 can... The support plate 704 is supported by the insulating support plate 109. Simultaneously, the mounting arm 703 and the rotating swing arm 701 are in a vertical position, so the picking spring 702 is inactive, preventing the support plate 704 from sinking or tipping over when a mouse steps on it. A magnetic suction element 706 is also provided in the center of the surface of the support plate 704, which magnetically secures the electric shock plate 900, ensuring that the position of the electric shock plate 900 does not change when no force is applied. Therefore, when a mouse is pushed and cleaned on the surface of the electric shock plate 900, the electric shock plate 900 will not wobble. The rotating power component is a rotary motor mounted on the support base 500. When the rotary motor operates, it drives the rotating swing arm 701 to rotate, thereby driving the support plate 704 to rotate, switching back and forth between the upright and flat positions. See also... Figure 8 In its flat position, it is used to support the electric shock plate 900. See also... Figure 9 In its upright position, it is used to retrieve material from the upright electric shock plate 900. During the retrieval process, the retrieval spring 702 can retract to avoid obstruction, allowing the support plate 704 and the limiting block 705 to extend into the storage box 600. When the electric shock plate 900 is rotated to a flat position, the top of the electric shock plate 900 is slightly lower than the lower surface of the bottom plate of the electric mouse cavity 102 by about 1-2 mm, preventing the mouse from getting stuck and allowing the electric shock plate 900 to be pushed down from below the bottom plate inside the electric mouse cavity 102. At the same time, the bottom plate inside the electric mouse cavity 102 is also very thin, about 2-3 mm, so the mouse will not have a noticeable footstep drop. This application utilizes the limiting block 705 and the magnetic suction component 706 to smoothly remove the upright electric shock plate 900. At the same time, the magnetic force of the magnetic suction component 706 and the cooperation of the limiting block 705 are used to stably support the electric shock plate 900, preventing it from tipping over or moving due to being stepped on by a mouse.

[0031] In this embodiment, to avoid interference between the left and right electric shock plates 900 and the edges of the left and right feed ports 110 and 111 when they are rotated upwards to a horizontal position, the front-to-back dimensions of the left and right feed ports 110 and 111 are slightly larger than those of the left and right electric shock plates 900. The left and right opening dimensions of the left and right feed ports 110 and 111 are also slightly larger than those of the left and right electric shock plates 900. Furthermore, flexible plates are added to the left and right edges of the left and right feed ports 110 and 111, with their free ends naturally tilting downwards. When the left and right electric shock plates 900 are in a flat position, the free ends of the flexible plates contact the electric shock plates 900, effectively blocking the edge gap between the feed ports and the electric shock plates 900 to prevent mouse jamming, while also ensuring the smooth rotation of the electric shock plates 900. Of course, a plastic baffle can also be used. The plastic baffle is installed on the inner surface of the housing via a pivot and a torsion spring. The plastic baffle is horizontal in its natural state and can fill the gap between it and the electric shock plate 900. When the support plate 704 rotates upward, it will abut against the bottom of the plastic baffle, causing the plastic baffle to rotate upward and swing to avoid the impact.

[0032] See Figure 10 The flat-push unloading assembly 800 includes a flat-push force component. The output end of the flat-push force component is connected to a drive gear 801. A flat-push rack 802 is slidably mounted on the support base 500 in the front-back direction. The flat-push rack 802 meshes with the drive gear 801 for transmission. A flat-push unloading plate 803 is fixed to the end of the flat-push rack 802. The height of the flat-push unloading plate 803 corresponds to the horizontally placed electric shock plate 900, and the width of the flat-push unloading plate 803 can simultaneously correspond to both the left and right electric shock plates 900. The flat-push force component is a rotary motor mounted on the support base 500. When the rotary motor operates, it drives the drive gear 801 to rotate, thereby driving the flat-push rack 802 and the flat-push unloading plate 803 to move in the front-back direction, thus pushing the horizontally placed electric shock plate 900 forward into the mouse storage cavity 103 and causing it to fall into the mouse storage box 108.

[0033] See Figure 10A limiting swing bracket is provided at the flat unloading plate 803. The limiting swing bracket moves with the flat unloading plate 803. When the flat unloading plate 803 supports the flat electric shock plate 900, the limiting swing bracket blocks and limits the rear end of the electric shock plate 900. When the flat unloading plate 803 pushes the electric shock plate 900 to unload, the limiting swing bracket opens to avoid it. The limiting swing frame is horizontally rotatably mounted on the support base 500 via a vertical shaft. The limiting swing frame includes an L-shaped limiting rod 804 and a trigger rod 805. The front end of the L-shaped limiting rod 804 extends to the front end of the flat-lying electric shock plate 900. The flat-push unloading plate 803 is provided with a wedge block 806 that cooperates with the trigger rod 805. The limiting swing frame is also provided with a return spring. When the flat-push unloading plate 803 moves backward to unload material, the wedge block 806 pushes the trigger rod 805 to rotate outward, and the L-shaped limiting rod 804 swings outward to open. When the flat-push unloading plate 803 moves forward to return to its original position, the wedge block 806 releases the trigger rod 805, and the L-shaped limiting rod 804 swings inward to close under the action of the return spring. In addition to being linked, the L-shaped limiting rod 804 and the flat-push unloading plate 803 can also be used to limit the forward direction of the flat-lying electric shock plate 900.

[0034] See Figure 11 and Figure 12The storage box 600 is a box structure with an open top and inner side. An opening for inserting the storage box 600 is provided on the surface of the housing 100. A pad 601 is provided at the bottom of the inner side of the box structure. The pad 601 is used to raise the height of the electric shock plate 900 so that the bottom of the electric shock plate 900 does not contact the bottom surface of the box structure, thereby facilitating the insertion of the limiting block 705 into the bottom of the electric shock plate 900. A retaining edge 602 is provided at the inner side of the box structure. A push plate 603 is slidably installed inside the box structure. Multiple electric shock plates 900 are arranged on the pad 601 and clamped by the retaining edge 602 and the push plate 603. A pushing spring is provided between the outer side of the push plate 603 and the box structure. The pushing spring is used to push the push plate 603 to slide inward, thereby ensuring that the electric shock plates 900 are discharged one by one. Meanwhile, the two baffles 602 at the ends of the box structure are completely open, providing space for the support push plate 603 and the limiting block 705 to extend into the bottom of the storage box 600, so that the limiting block 705 can move to the bottom of the electric shock plate 900 and the electric shock plate 900 can be easily removed. The outer end of the storage box 600 is provided with a handle to facilitate pulling the storage box 600 outward for replacement. The end of the support base 500 corresponds to the storage box 600. The end of the support base 500 is provided with an insertion groove 501 for accommodating the inner end of the storage box 600. A limiting baffle 602 is also provided in the insertion groove 501. A locking pin is provided at the outer end of the storage box 600, and a rotating locking piece that cooperates with the locking pin is provided on the outer surface of the housing 100. After all the electric shock plates 900 in the storage box 600 are used up, the storage box 600 is taken out by the handle, and then a new storage box 600 filled with electric shock plates 900 is replaced. The new storage box 600 is inserted from the outside of the housing 100 inward. The inner end of the storage box 600 is inserted into the insertion slot 501 and abuts against the limiting stop 602. At this time, the outer end of the storage box 600 is flush with the outer surface of the housing 100. Finally, the rotating locking piece is rotated to lock the rotating locking piece onto the locking pin to limit the storage box 600.

[0035] In this embodiment, the electric shock plate 900 is a consumable that can be automatically replaced, and the storage box 600 is a container for holding the electric shock plate 900. When all the electric shock plates 900 are used up, a new storage box 600 can be directly replaced. Of course, the electric shock plates 900 can also be arranged and installed in the storage box 600 by oneself.

[0036] The electric shock plate cavity 104 is provided with two support pillars 502, which are made of insulating material. The positive terminal 503 and the negative terminal 504 are respectively located at the top of the two support pillars 502. The positive terminal 503 and the negative terminal 504 are connected to the discharge control system via wires. When the electric shock plate 900 is in a flat position, the electric shock plate 900 contacts and is energized with either the positive terminal 503 or the negative terminal 504. (See also...) Figure 13 and Figure 14 The electric shock plate 900 includes a metal plate 901 and a plastic shell 902 surrounding the lower part of the metal plate 901. The surface of the plastic shell 902 has electrode clearance openings 903 corresponding to the positive terminal 503 and the negative terminal 504. The metal plate 901 has a metal conductive block located at the electrode clearance opening 903, and the metal conductive block is flush with the surface of the plastic shell 902. When the electric shock plate 900 is in a flat position, the metal conductive block contacts and energizes the positive terminal 503 or the negative terminal 504. The plastic shell 902 surrounds the metal plate 901, ensuring the overall strength of the electric shock plate 900 and separating adjacent upright metal plates 901, facilitating material handling by the electric shock plate 900. In this embodiment, the limiting stop 602 is located at the bottom, limiting the bottom end of the electric shock plate 900 and preventing jamming when the electric shock plate 900 rotates to discharge material. The plastic shell 902 of the electric shock plate 900 is provided with tiny tear-off tabs 905. These tear-off tabs 905 are thin, easily torn plastic sheets. These tabs 905 can create a micro-connection between two connected electric shock plates 900, ensuring a relatively stable arrangement of all electric shock plates 900 and preventing them from easily scattering. Simultaneously, when the support plate 704 lifts the innermost electric shock plate 900 upwards, the tear-off tabs 905 between the electric shock plates 900 break, allowing the electric shock plate 900 to easily detach from the limiting baffle 602 and smoothly rotate upwards with the support plate 704. The positive terminal 503 and negative terminal 504 can be conductive spring terminals, ensuring stable contact with the electric shock plate 900. The use of a metal plate 901 facilitates magnetic fixation by magnetic blocks.

[0037] The housing 100 also includes a power supply system and a discharge control system. The discharge control system is connected to the positive terminal 503 and the negative terminal 504 via wires to supply power to the metal plate 901. The discharge control device can communicate with the internal sensor 113. When the sensor 113 detects a mouse, the discharge control device controls the metal plate 901 to discharge at high voltage, killing the mouse when it simultaneously steps on both electric shock plates 900.

[0038] In this embodiment, the housing 100, the front rodent-driving plate 200, the rear rodent-trapping plate 300, the side rodent-driving plate 400, and other structures that may come into contact with the metal plate 901 are all made of non-metallic materials. In this embodiment, two independent electric shock plates 900 are used, corresponding to two rotating feeding assemblies 700 and two storage boxes 600. The left rotating feeding assembly 700 is used to remove the standing electric shock plate 900 from the left storage box 600 and lay it flat, while the right rotating feeding assembly 700 is used to remove the standing electric shock plate 900 from the right storage box 600 and lay it flat. The two rotating feeding assemblies operate synchronously, but in opposite directions. The left and right electric shock plates 900 each correspond to an electric shock plate feeding port. By using two electric shock plates 900 together, the space for the electric rodent is increased. Compared to a single electric shock plate 900, the height of the two electric shock plates 900 when standing is reduced by half, which can reduce the height of the storage plate and thus reduce the overall height of the rodent trap. When mice are electrocuted or die, stress causes them to urinate, resulting in pollution. Therefore, a urine-collecting groove 904 extending in the front-to-back direction is provided at the top of the insulating support plate 109. The front end of the urine-collecting groove 904 is closed, and the rear end extends to the mouse storage cavity 103. The electric shock plates 900 on the left and right sides are located on both sides of the urine-collecting groove 904, and the edges of the electric shock plates 900 can be supported on both sides of the urine-collecting groove 904. At this time, the urine generated will be partially collected by the urine-collecting groove 904 and enter the mouse storage box 108. In order to collect as much urine as possible, when the electric shock plate 900 is laid flat, it is not completely horizontal, but has an inclination angle towards the guide groove. This inclination angle can be 2-4°, which can meet the requirement of urine flowing towards the guide groove, while not affecting the placement of the electric shock plate 900 and not affecting the mice's trampling.

[0039] In this embodiment, the outer shell of the mousetrap is approximately 40cm long, 25cm wide, and 20-25cm high. The planar dimensions of a single electric shock plate 900 are approximately 6×7cm. The number of electric shock plates 900 that can be pre-installed in the storage box 600 can be designed according to the overall dimensions of the mousetrap, and can reach more than 7 plates.

[0040] The working principle of this embodiment is as follows: Before catching the rat, the climbing ladder 107 rotates to the outside, the rat inlet 105 opens, the front rat-driving board 200 is located at the front end, the rear rat-trapping board 300 is located at the connection between the electric rat chamber 102 and the rat storage chamber 103, the two side rat-driving boards 400 are located at the left and right ends respectively, and there are two flat electric shock boards 900 at the electric shock board feed inlet. When a rat enters the rat-entry chamber 101 through the ladder 107 and the rat-entry opening 105, it is detected by the internal sensor 113. The gate 106 closes first, trapping the rat inside. Then, the front rat-driving plate 200 moves horizontally from front to back to drive the rat away, stopping when it approaches the front end of the side rat-driving plate 400 and the front end of the electric shock plate's feed opening. The side rat-driving plates 400 then move horizontally from the outside to the inside to drive the rat away, stopping when they approach the left and right edges of the electric shock plate's feed opening. At this point, the rat is forced to step on the flat electric shock plate 900. When the rat moves and simultaneously steps on both electric shock plates 900, it is subjected to a high-voltage electric shock, resulting in the rat's death. Then, the telescopic locking mechanism... Unlocked, the front rat-driving plate 200 continues to move forward horizontally. During the horizontal movement, it pushes the side rat-driving plates 400 and the rear rat-trapping plate 300 together toward the rat-storage cavity 103. At the same time, the bottom of the front rat-driving plate 200 pushes the dead rat toward the rat-storage cavity 103 and drops it into the rat-storage box 108 below, completing the timely removal of the rat. Then, all structures are reset to their initial state. The front rat-driving plate 200 moves forward to the front end, the two side rat-driving plates 400 move to the left and right ends respectively, and the rear rat-trapping plate 300 moves forward horizontally under the action of the driving structure and abuts against the connection between the electric rat cavity 102 and the rat-storage cavity 103 through the limiting block, and is locked by the telescopic locking member, and then waits for the next rat to enter. The same steps are used to drive away and shock the next rat. The dead rat is pushed into the rat storage box 108. The same steps are repeated three times. After the next electric shock is completed, in addition to the action of the front rat drive plate 200, the horizontal push force component also moves synchronously, causing the horizontal push unloading plate 803 to move forward. The wedge block 806 pushes the trigger rod 805 to rotate outward, and the L-shaped limit rod 804 swings outward to open. The horizontal push unloading plate 803 pushes the electric shock plate 900 against the front end of the electric shock plate 900 and pushes the electric shock plate 900 and the dead rat together into the rat storage cavity 103 and then into the rat storage box 108, completing the automatic unloading and disposal of the electric shock plate 900. Then, the front drive plate, rear trapping plate 300, and side rat-driving plate 400 reset, while the flat-push unloading plate 803 moves forward, the wedge block 806 releases the trigger rod 805, and the L-shaped limit rod 804 swings inward to close under the action of the reset spring. At the same time, the two rotating power components drive the rotating swing arm 701 to rotate, causing the two support plates 704 to swing from horizontal to vertical. When they swing to the vertical position, the ends of the two support plates 704 rotate into the corresponding storage boxes 600, contact the electric shock plate 900 inside the storage box 600, and push the electric shock plate 900 outward against the push spring until it reaches the limit. The locking block 705 is locked at the bottom of the electric shock plate 900. At the same time, the electric shock plate 900 is attracted to the support plate 704 by the magnetic suction component 706. At this time, the two support plates 704 rotate upward, causing the attracted electric shock plate 900 to switch from the upright position to the flat position. When the two electric shock plates 900 move to the flat position, they correspond to the left feed port 110 and the right feed port 111. At the same time, the bottom of the two electric shock plates 900 contacts the positive terminal 503 and the negative terminal 504, and the two electric shock plates 900 are energized, completing the automatic feeding and replacement of the electric shock plate 900. All structures return to the initial state, waiting for the next electric mouse.

[0041] In this application, the same electric shock plate 900 can be used two, three, or four times. Alternatively, it can be used five or six times before replacing the electric shock plate 900. The number of shocks can be selected based on the application or the user's actual needs. Of course, the electric shock plate 900 can also be replaced immediately after each mouse shock. However, this application reduces the number of electric shock plates 900 used by promptly cleaning the surface of the electric shock plate 900 before replacement, thus saving costs.

[0042] In the description of this invention, it should be understood that the terms indicating orientation or positional relationship in this invention are based on the orientation or positional relationship shown in the drawings, and are only for the convenience of describing this invention and simplifying the description, and are not intended to indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this invention.

[0043] In the description of this invention, it should be noted that the terms "center," "upper," "lower," "left," "right," "vertical," "horizontal," "inner," and "outer," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are used only for the convenience of describing the invention and for simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on the invention. Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.

[0044] In the description of this invention, it should be noted that, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "linking" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal connection of two components. Those skilled in the art can understand the specific meaning of the above terms in this invention based on the specific circumstances.

[0045] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of this invention is defined by the appended claims and their equivalents.

Claims

1. A continuous electric shock rat trap with rotating electric shock plate feeding mechanism, comprising a housing, characterized in that: The upper front part of the housing is provided with a rat inlet and an electric rat cavity. The rat inlet has a rat inlet and a gate. The electric rat cavity has an electric shock plate feed port at the middle of the bottom end on the side away from the rat inlet. The rear side of the housing is provided with a rat storage cavity. The lower part of the rat storage cavity is provided with a rat storage box. A front rat drive plate is slidably installed between the rat inlet, the electric rat cavity, and the rat storage cavity in the front-back direction. A rear rat trapping plate is slidably installed in the rat storage cavity in the front-back direction. Side rat drive plates are slidably installed in the electric rat cavity on both sides of the electric shock plate feed port in the left-right direction. An insulating support plate is provided in the middle of the electric shock plate feed inlet, dividing the feed inlet into a left feed inlet and a right feed inlet. An electric shock plate cavity is also provided inside the housing below the electric mouse cavity. The electric shock plate cavity is equipped with a rotary feeding device that simultaneously supplies electric shock plates to the left and right feed inlets. The rotary feeding device includes a support base, with storage boxes on both sides of the support base. Multiple upright electric shock plates are arranged in the storage boxes. Two rotary feeding assemblies are mounted on the support base, allowing the rotary feeding assemblies to... The rotating motion removes the upright electric shock plate from the storage box and rotates it to the left and right feed inlets, where it is placed flat. The electric shock plate cavity is also equipped with a positive terminal and a negative terminal. When the two electric shock plates are placed flat at the left and right feed inlets respectively, the two electric shock plates contact the corresponding positive and negative terminals and are energized. The front side of the support body is also connected to a flat-push unloading assembly, which can perform a flat-push operation to unload the two flat electric shock plates placed on the rotating material taking assembly into the rat storage cavity and fall into the rat storage box.

2. The continuous electric shock rat trap with rotating electric shock plate feeding as described in claim 1, characterized in that: The rotating material handling assembly includes a rotating power component. The output end of the rotating power component is fixedly connected to a rotating swing arm. An installation arm is connected inside the rotating swing arm via a material handling spring. A support plate is fixedly installed at the end of the installation arm. One side of the support plate is provided with a limiting block to constrain the bottom end of the upright electric shock plate. When the support plate is rotated to a flat position, the other side of the support plate can be supported on an insulating support plate. A magnetic suction component is also provided in the middle of the surface of the support plate.

3. The continuous electric shock rat trap with rotating electric shock plate feeding as described in claim 1, characterized in that: The flat-push unloading assembly includes a flat-push force component, the output end of which is connected to a drive gear. A flat-push rack is slidably mounted on the support body along the front-back direction. The flat-push rack meshes with the drive gear for transmission. A flat-push unloading plate is fixed to the end of the flat-push rack. The height of the flat-push unloading plate corresponds to the horizontally placed electric shock plate.

4. The continuous electric shock rat trap with rotating electric shock plate feeding as described in claim 3, characterized in that: A limiting swing bracket is correspondingly provided at the flat-push unloading plate. The limiting swing bracket is horizontally rotatably mounted on the support body via a vertical shaft. The limiting swing bracket includes an L-shaped limiting rod and a trigger rod. The front end of the L-shaped limiting rod extends to the front end of the flat-lying electric shock plate. The flat-push unloading plate is provided with a wedge block that cooperates with the trigger rod. A return spring is also provided at the limiting swing bracket. When the flat-push unloading plate moves backward to unload material, the wedge block pushes the trigger rod to rotate outward, and the L-shaped limiting rod swings outward to open. When the flat-push unloading plate moves forward, the wedge block releases the trigger rod, and the L-shaped limiting rod swings inward to close under the action of the return spring.

5. The continuous electric shock rat trap with rotating electric shock plate feeding as described in claim 1, characterized in that: The storage box is a box structure with an open top and inner side. The bottom of the box structure is provided with a pad, and the inner side of the box structure is provided with a baffle. A push plate is slidably installed inside the box structure. Multiple electric shock plates are arranged on the pad and clamped by the baffle and the push plate. A push spring is provided between the outer side of the push plate and the box structure.

6. The continuous electric shock rat trap with rotating electric shock plate feeding as described in claim 1, characterized in that: The electric shock plate cavity is provided with two support columns, and the positive terminal and the negative terminal are installed on the top of the support columns. The positive terminal and the negative terminal are connected to the discharge control system. The electric shock plate includes a metal plate and a plastic shell that surrounds the lower part of the metal plate. The surface of the plastic shell is provided with electrode clearance openings corresponding to the positions of the positive terminal and the negative terminal.

7. The continuous electric shock rat trap with rotating electric shock plate feeding as described in claim 1, characterized in that: The top of the insulating support plate is provided with a urine drainage groove extending in the front-to-back direction. The front end of the urine drainage groove is closed and the rear end extends to the rat storage cavity.

8. The continuous electric shock rat trap with rotating electric shock plate feeding as described in claim 1, characterized in that: The two side rodent-driving plates are slidably mounted on the rear rodent-trapping plate in the left and right directions. A side pushing force component is mounted on the rear rodent-trapping plate. A side pushing force gear is mounted on the output end of the side pushing force component. Two horizontally sliding side pushing gears are mounted on the side pushing force gears. The two side rodent-driving plates are respectively fixedly connected to the side pushing gears.

9. A continuous electric shock rat trap with rotating electric shock plate feeding as described in claim 1, characterized in that: The top of the rear trapping plate is provided with a telescopic locking member that cooperates with the housing, the front side of the rear trapping plate is provided with a limiting block, and a driving structure that causes the rear trapping plate to move forward is also provided between the rear trapping plate and the mouse storage cavity.

10. A continuous electric shock rat trap with rotating electric shock plate feeding as described in claim 1, characterized in that: The electric mouse chamber has an air vent at the top, and the air vent is equipped with a filter and an air fan.

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