Electric shock mouse trapping device

Abstract

The utility model relates to an electric shock mouse trapping device. The electric shock mouse trapping device comprises a main shell, a power module and at least two cage bodies. The power module is connected to the main shell. The at least two cage bodies at least have a combined state relative to the main shell. The cage body is provided with a first end and a second end, and the first end and the second end are oppositely arranged. The cage body is hollow, an inlet is formed in the second end of the cage body, and the inlet is communicated with the inner space of the cage body. The cage body is connected with at least two electrode pieces. And in the combined state, the first ends of the at least two cage bodies are positioned and connected to the main shell from different angles of the peripheral side of the main shell. And the at least two electrode pieces connected with the cage body are electrically connected to the power supply module. And the power supply module outputs electric energy to the electrode parts in each cage body, so that a certain voltage exists between at least two electrode parts in any cage body. Due to the fact that the power module can provide electric energy for the electrode pieces in the at least two cage bodies at the same time, the mouse catching and killing efficiency is guaranteed, and meanwhile the hardware cost can be effectively reduced.

Description

Technical Field

[0001] The present application relates to the field of mouse catching technology, and in particular to an electric mouse catching device. Background Art

[0002] Rats, a species of rodent in the order Rodentia and family Muridae, are often found near sewers, kitchens, garbage dumps, and trash cans. They can spread pathogens such as plague, hemorrhagic fever, leptospirosis, typhus, and tick-borne relapsing fever. Rats also chew books, clothing, and furniture, impacting human living environments.

[0003] Traditional rodent control methods typically use electric shock devices to kill rats. When a rat enters the device, it receives a shock of a certain voltage, killing it. While hiding, rats often move close to the edges of walls or obstacles, so electric shock devices are typically placed close to these walls or obstacles.

[0004] To improve rat hunting efficiency, it is necessary to hunt rats in both the forward and reverse directions of their path. However, because traditional electric rat detectors generally have only a single entrance, at least two electric rat detectors must be placed in opposite directions along the rat's path to achieve the desired effect. This significantly increases the cost of hunting rats while improving their efficiency. Summary of the Invention

[0005] Based on this, the present invention provides an electric shock mouse-catching device that can solve or at least alleviate the above technical problems.

[0006] The utility model provides an electric shock mouse catching device, comprising:

[0007] main housing;

[0008] a power module connected to the main housing; and

[0009] At least two cages are in at least a combined state relative to the main shell; the cages have a first end and a second end arranged opposite to each other, the cages are hollow and have an entrance at the second end, and the cages are connected to at least two electrode members; in the combined state, the first ends of the at least two cages are respectively positioned and connected to the main shell from different angles on the outer periphery of the main shell, and the at least two electrode members connected to the cages are electrically connected to the power module.

[0010] In the above-described electric mouse trap, each cage is positioned at a different angle relative to the center of the main housing when in the combined state. During use, at least two cages are combined relative to the main housing, with the entrances of each cage facing in different directions. This allows entrances to be arranged in opposite directions of a mouse's path. This allows mice crawling in different directions along the path to enter the cage entrances, increasing the chances of mice entering the cage and thereby improving mouse capture efficiency within a certain period of time. When at least one cage is combined relative to the main housing, the power module outputs electrical energy to the electrode elements in each cage, creating a certain voltage between at least two electrode elements in any cage, thereby electrically capturing and killing mice that enter the cage through the entrance. Because the power module can simultaneously supply electrical energy to the electrode elements in at least two cages, compared to providing a separate power module for each cage, hardware costs can be effectively reduced while maintaining mouse capture efficiency.

[0011] In one embodiment, the main shell has at least three docking surfaces, two of which are arranged in opposite directions, and another docking surface is arranged between the two docking surfaces in opposite directions; two of the at least two cage bodies are also in an active state relative to the main shell, and in the active state, the two cage bodies can select two of the at least three docking surfaces for docking.

[0012] In one embodiment, the main shell has a side surface, and the direction of the side surface is opposite to the direction of the other docking surface; the main shell is movably connected to a button on the side surface, and / or the main shell is provided with an electrical interface on the side surface.

[0013] In one embodiment, one of the at least two cage bodies is also in an active state relative to the main shell body, and the main shell body has two docking surfaces, one of which is arranged on opposite sides of the main shell body, and the other is arranged between the one docking surface and the other cage body along the opposite directions; in the active state, one of the cage bodies can select one of the two docking surfaces for docking.

[0014] In one embodiment, the main shell accommodates at least two female connectors, and the cage body is connected to at least one male connector; the power module is electrically connected to the at least two female connectors; the at least two electrode members are electrically connected to the at least one male connector; and the female connector and the male connector can form a conductive fit by plugging together.

[0015] In one embodiment, the cage body is connected to two male connectors; one of the at least two electrode members is electrically connected to one of the two male connectors, and the other electrode member is electrically connected to the other of the two male connectors; the two male connectors are spaced apart; the male connector includes an inner contact member and an insulating tube connected to the cage body, the insulating tube is sleeved on the outer periphery of the inner contact member, and in the combined state, the inner contact member forms a conductive contact with the female connector.

[0016] In one embodiment, the cage includes a cover shell and a bottom plate, and the cover shell is detachably connected to the bottom plate; and the at least two electrode members are mounted on the inner surface of the bottom plate.

[0017] In one embodiment, the cover shell has a first position and a second position relative to the base plate; in the first position, the cover shell and the base plate form a positioning fit along the relative direction between the cover shell and the base plate; in the second position, the cover shell and the base plate form a movable fit along the relative direction between the cover shell and the base plate.

[0018] In one embodiment, the cover shell is connected to a male connector and a conductive spring sheet, the conductive spring sheet is electrically connected to the male connector, and the conductive spring sheet slides against the base plate; when the cover shell is in the first position, the conductive spring sheet abuts against the electrode member, or the conductive spring sheet abuts against the conductive member electrically connected to the electrode member.

[0019] In one embodiment, the power supply module is accommodated in the main shell, and the power supply module includes a power supply component, a DC-DC converter electrically connected to the power supply component, and a high-voltage transformer electrically connected to the DC-DC converter, and the high-voltage transformer is electrically connected to the at least two electrode components; and / or, along the relative direction between the first end and the second end, among the at least two electrode components, the distance value between one electrode component and the other electrode component is in the range of 20 mm to 35 mm. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 FIG1 is a three-dimensional schematic diagram of an electric shock mouse trap device in a combined state according to an embodiment of the present application.

[0021] Figure 2a for Figure 1 The three-dimensional schematic diagram of the electric shock mouse trap device in the active state is shown.

[0022] Figure 2b for Figure 2a The exploded view of the electric mouse trap shown.

[0023] Figure 3aFIG1 is a perspective diagram of an electric shock mouse trap device according to another embodiment of the present application in a combined state.

[0024] Figure 3b for Figure 3a The three-dimensional schematic diagram of the electric shock mouse trap device in the active state is shown.

[0025] Figure 4 for Figure 1 The figure shows an exploded schematic diagram of the main housing and power module in the electric mouse trap.

[0026] Figure 5 for Figure 1 The diagram shows a partial schematic diagram of the main housing and power module of the electric mouse trap, wherein the front shell is hidden.

[0027] Figure 6 for Figure 1 The figure shows a three-dimensional cross-sectional view of the main housing and the power module in the electric mouse trap.

[0028] Figure 7 for Figure 1 A three-dimensional schematic diagram of the cage in the electric mouse trap shown.

[0029] Figure 8 for Figure 7 Schematic diagram of the exploded cage body in the electric mouse trap shown.

[0030] Figure 9 for Figure 7 A three-dimensional schematic diagram of the cover shell in the cage shown.

[0031] Figure 10 for Figure 9 A perspective cutaway view of the housing is shown.

[0032] Figure 11 for Figure 9 The cover is shown in a perspective cross-sectional view from another angle.

[0033] Figure 12 for Figure 7 A three-dimensional schematic diagram of the bottom plate in the cage shown.

[0034] Figure 13 for Figure 11 A perspective cutaway view of the base plate is shown.

[0035] Reference numerals: 100, electric mouse trap; 20, main housing; 201, docking surface; 202, side; 21, button; 22, housing; 241, through hole; 242, electrical interface; 243, connecting column; 23, bottom housing; 30, power module; 31, power supply unit; 32, high-voltage transformer; 33, control module; 331, travel switch; 40, cage; 401, first end; 402, second end; 403, entrance; 41, cover; 42, bottom plate; 421, inner surface; 422, groove; 423, bait slot; 424, slide; 4 25. First segment; 426. Second segment; 427. Recess; 43. Block; 431. Stop portion; 432. Guide portion; 433. Raised portion; 44. Conductive spring; 441. Contact portion; 45. Conductive member; 50. Electrode member; 60. Female connector; 601. First wire ear; 61. Female mounting bracket; 62. Nut member; 70. Male connector; 71. Inner contact member; 72. Insulating tube; 73. Male mounting bracket; 731. First mounting member; 732. Second mounting member; 74. Notch; 75. Second wire ear; F1. Locking direction. DETAILED DESCRIPTION

[0036] The following will clearly and completely describe the technical solution of this application in conjunction with the accompanying drawings. Obviously, the embodiments described are only part of the embodiments of this application, not all of them. Based on the embodiments in this application, all other embodiments obtained by ordinary technicians in this field without making any creative efforts are within the scope of protection of this application.

[0037] In the description of this application, it should be noted that the terms "center," "upper," "lower," "left," "right," "vertical," "horizontal," "inner," and "outer," etc., indicating orientations or positional relationships, are based on the orientations or positional relationships shown in the accompanying drawings and are intended solely to facilitate the description of this application and simplify the description. They do not indicate or imply that the devices or components referred to must have a specific orientation, be constructed, or operate in a specific orientation. Therefore, they should not be construed as limitations on this application. Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.

[0038] In the description of this application, it should be noted that, unless otherwise expressly specified or limited, the terms "installed," "connected," and "connected" should be understood in a broad sense. For example, they may refer to fixed connections, detachable connections, integrated connections, mechanical connections, electrical connections, direct connections, indirect connections through an intermediate medium, or internal communication between two components. Those skilled in the art will understand the specific meanings of the above terms in this application based on the specific circumstances.

[0039] The technical solutions provided by the embodiments of the present application are described below with reference to the accompanying drawings.

[0040] Figures 1 to 13 FIG. 1 shows an electric mouse trapping device 100 according to at least one embodiment of the present invention. Figure 1 and Figure 2a The electric mouse-catching device 100 uses a certain voltage to shock mice, thereby catching and killing mice and achieving the purpose of preventing and controlling rodent pests.

[0041] In some embodiments, combined Figures 1 to 2b As shown, the electric mouse trap device 100 includes: a main housing 20, a power module 30 and at least two cages 40. The power module 30 is connected to the main housing 20. The at least two cages 40 are at least in a coupled state relative to the main housing 20. The cage 40 has a first end 401 and a second end 402, and the first end 401 and the second end 402 are arranged opposite each other. The cage 40 is hollow and has an inlet 403 at the second end 402, which is connected to the internal space of the cage 40. At least two electrode members 50 are connected to the cage 40. In the coupled state, the first ends 401 of the at least two cages 40 are respectively positioned and connected to the main housing 20 at different angles from the outer periphery of the main housing 20. The at least two electrode members 50 connected to the cage 40 are electrically connected to the power module 30.

[0042] In the electric mouse trap 100 of the present application, each cage 40 is positioned at a different angle relative to the center of the main housing 20 when in a coupled state. During use, at least two cages 40 are coupled relative to the main housing 20, with the entrances 403 of each cage 40 facing in different directions. This allows the entrances 403 to be positioned along the forward and reverse directions of a mouse's path. This allows mice crawling along different directions along the path to enter the entrances 403 of each cage 40, increasing the chances of mice entering the cage 40 and thereby improving mouse capture efficiency within a certain timeframe. When at least one cage 40 is coupled relative to the main housing 20, the power supply module 30 outputs electrical energy to the electrode members 50 in each cage 40, creating a certain voltage between at least two electrode members 50 in any cage 40, thereby electrically capturing and killing mice that enter the cage 40 through the entrances 403. Since the power supply module 30 can simultaneously provide power to the electrode members 50 in at least two cages 40 , compared with the situation where a separate power supply module 30 is provided for each cage 40 , the hardware cost can be effectively reduced while ensuring the efficiency of killing mice.

[0043] Optionally, a snap-fit ​​structure is provided between the cage 40 and the main housing 20, ensuring that the cage 40 maintains a stable position relative to the main housing 20 when engaged. The electrode member 50 is electrically connected to the power module 30 via electrical terminals and wires. Optionally, the power module 30 is fully or partially housed within the main housing 20.

[0044] In some embodiments, combined Figures 1 to 2b As shown, the main housing 20 has at least three docking surfaces 201, two of which are arranged in opposite directions, and another docking surface 201 is arranged between two of the docking surfaces 201 in opposite directions. Two of the at least two cages 40 are also movable relative to the main housing 20. In the movable state, the two cages 40 can select two of the at least three docking surfaces 201 for docking.

[0045] Specifically, to simplify the description and facilitate understanding, one of the two opposing mating surfaces 201 will be referred to as the first mating surface, and the other will be referred to as the second mating surface. The other mating surface 201 disposed between the two mating surfaces 201 will be referred to as the third mating surface. Specifically, when the first and second mating surfaces are disposed on opposite sides of the main housing 20, the third mating surface is located between the two opposing sides. Furthermore, the third mating surface is oriented substantially perpendicular to the direction of separation between the first and second mating surfaces.

[0046] Specifically, in the combined state, the first docking surface, the second docking surface, or the third docking surface is opposite to the first end 401 of the cage body 40, and one of the first docking surface, the second docking surface, and the third docking surface forms a positioning connection with the first end 401 of one cage body 40, and the other docking surface 201 forms a positioning connection with the first end 401 of the other cage body 40.

[0047] Specifically, in the active state, at least one of the two cages 40 is not positioned in contact with the main housing 20, that is, at least one cage 40 is not in contact with the first, second, or third contact surfaces, and thus the two cages 40 do not form a defined positional distribution relationship. Specifically, in the active state, one of the cages 40 may be separated from the main housing 20. Alternatively, one of the cages 40 may be movably connected to the main housing 20, for example, by a chain of a certain length, or by a cage 40 rotatably arranged around the main housing 20.

[0048] Specifically, in the active state, when the first and second docking surfaces are selected to dock two cages 40, respectively, the two cages 40 are arranged approximately along a straight line after the combination is formed, and the entrances 403 of the two cages 40 are oriented in opposite directions. The structure of the electric mouse trap 100 is thus capable of adapting to a generally linear mouse path. In the active state, when one of the first and second docking surfaces is selected to dock one cage 40, and the third docking surface is selected to dock the other cage 40, the two cages 40 are arranged approximately along a zigzag line after the combination is formed. The structure of the electric mouse trap 100 is thus capable of adapting to a generally zigzag mouse path. Therefore, by selecting different two of the at least three docking surfaces 201 to dock the two cages 40, the electric mouse trap 100 can adapt to different mouse paths. More specifically, the mouse path is formed within the constraints of a wall or obstacle.

[0049] In some embodiments, the main housing 20 has four docking surfaces 201. Two of the four docking surfaces 201 are oriented in opposite directions, and the other two docking surfaces 201 are also oriented in opposite directions. Furthermore, the four docking surfaces 201 are distributed along the periphery of the main housing 20. Furthermore, the shape of the outer edge of the main housing 20 is approximately rectangular. Specifically, the number of docking surfaces 201 is not limited to three or four; the number and orientation of the docking surfaces 201 can be adjusted based on the desired mouse activity path.

[0050] More specifically, when the mouse's movement path is intersecting, each of the four mating surfaces 201 of the main housing 20 can correspond to a cage 40. That is, in the combined state, the main housing 20 is positioned and connected to the four cages 40, with each cage 40 positioned at a branching path of the movement path. More specifically, three of the four mating surfaces 201 of the main housing 20 can correspond to a cage 40, which can also accommodate a T-shaped mouse movement path.

[0051] In some embodiments, combined Figure 1 As shown, the main housing 20 has a side surface 202, which is oriented opposite to the orientation of the other mating surface 201. Specifically, the side surface 202 and at least three mating surfaces 201 are arranged around the outer periphery of the main housing 20. More specifically, the orientation of the side surface 202 can be understood as being opposite to the orientation of the third mating surface.

[0052] Specifically, combined Figure 4 As shown, the main housing 20 has a button 21 movably connected to the side 202. More specifically, the button 21 can be used to switch the power module 30 between the start and stop states. More specifically, an electrical circuit is formed between the power module 30 and the electrode member 50, and the button 21 can be used to switch the electrical circuit between the conduction state and the disconnection state.

[0053] Specifically, combined Figure 4 As shown, the main housing 20 is provided with an electrical interface 242 on the side 202. More specifically, the electrical interface 242 is electrically connected to the power module 30. The power module 30 is charged via the electrical interface 242. More specifically, the power module 30 can also communicate with the outside world via the electrical interface 242. Furthermore, the output state of the power module 30 can be switched via the electrical interface 242, for example, to adjust the output voltage level of the power module 30.

[0054] In some embodiments, combined Figure 3a and Figure 3b As shown, one of the at least two cages 40 is movable relative to the main housing 20. The main housing 20 has two docking surfaces 201, one of which is located on opposite sides of the main housing 20, and the other of which is located between the first and second docking surfaces 201. In the movable state, one of the cages 40 can select one of the two docking surfaces 201 for docking. Specifically, to simplify the description and facilitate understanding, one of the at least two cages 40 is referred to as the first cage, and the other cage 40 is referred to as the second cage. The second cage can be in a state of being merely coupled to the main housing 20. More specifically, the second cage can be fixedly connected to the main housing 20, for example, integrally connected to the main housing 20, or adhesively bonded to the main housing 20.

[0055] Specifically, combined Figure 3a and Figure 3b As shown, to simplify the description and facilitate understanding, one of the two docking surfaces 201 is referred to as the fourth docking surface, and the other docking surface 201 is referred to as the fifth docking surface. It is understood that the fourth docking surface and the second cage body are respectively disposed on opposite sides of the main housing 20. The fifth docking surface is disposed between the fourth docking surface and the second cage body, along the direction relative to the fourth docking surface and the second cage body. In the active state, even if the second cage body remains positioned and connected to the main housing 20, the first cage body can select either the fourth docking surface or the fifth docking surface for docking. When the first end 401 of the first cage body is positioned and connected to the fourth docking surface, it can accommodate a generally straight mouse path. When the first end 401 of the first cage body is positioned and connected to the fifth docking surface, it can accommodate a generally curved mouse path.

[0056] In some embodiments, combined Figures 4 to 6As shown, the main housing 20 houses at least two female connectors 60, and the cage 40 is connected to at least one male connector 70. The power module 30 is electrically connected to the at least two female connectors 60. At least two electrode members 50 are electrically connected to the at least one male connector 70. The female connectors 60 and the male connector 70 can be electrically connected by plugging together. Specifically, the female connector 60 is in a stable position within the main housing 20, and the male connector 70 forms a positioning connection with the cage 40. Therefore, after the male connector 70 is inserted into the female connector 60, the relative position between the cage 40 and the main housing 20 is limited, and the female connector 60 and the male connector 70 form an electrically conductive contact. Specifically, when the male connector 70 is removed from the female connector 60, the male connector 70 is subjected to friction or a blocking force from the female connector 60, which prevents the male connector 70 and the female connector 60 from easily separating, thereby helping to maintain the connection between the cage 40 and the main housing 20.

[0057] Specifically, since the female connector 60 is housed in the main housing 20, it is not easy to come into contact with the user, thereby reducing the risk of the user receiving an electric shock due to operation when the female connector 60 carries a high voltage. Furthermore, the outer edge of the female connector 60 is spaced apart from the docking surface 201, thereby increasing the housing depth of the female connector 60 in the main housing 20, further reducing the risk of the female connector 60 coming into contact with the user's hand. More specifically, in combination with Figure 4 and Figure 6 As shown, the main housing 20 is provided with a through hole 241 on the mating surface 201, and the through hole 241 is provided in a one-to-one correspondence with the female connector 60. After the male connector 70 passes through the through hole 241, it can be inserted into the female connector 60.

[0058] Specifically, combined Figure 6 As shown, the female connector 60 has a first wire ear 601 , and the first wire ear 601 of the female connector 60 is electrically connected to the output positive electrode or the output negative electrode of the power module 30 .

[0059] Optionally, the number of female connectors 60 accommodated in the main housing 20 corresponds to the number of cages 40 , that is, electrical conduction between the power module 30 and the electrode member 50 in one cage 40 is achieved through one female connector 60 and one male connector 70 .

[0060] Optionally, combined Figure 4 and Figure 5 As shown, the number of female connectors 60 is several times the number of cages 40. That is, electrical communication between the power module 30 and the electrode member 50 in one cage 40 is achieved through several female connectors 60 and several male connectors 70. Specifically, any mating surface 201 of the main housing 20 corresponds to a plurality of female connectors 60, and these female connectors 60 are distributed parallel to the mating surface 201.

[0061] Furthermore, when two or more male connectors 70 are spaced apart on the end surface of the first end 401 of the cage body 40 , the male connectors 70 can prevent the cage body 40 from rotating relative to the main housing 20 around an axis perpendicular to the mating surface 201 .

[0062] In some embodiments, combined Figure 7 and Figure 8 As shown, a single cage 40 is connected to two male connectors 70. In the single cage 40, one of the at least two electrode members 50 is electrically connected to one of the two male connectors 70, and the other electrode member 50 is electrically connected to the other of the two male connectors 70, with the two male connectors 70 spaced apart.

[0063] Specifically, to simplify the description and facilitate understanding, one of the at least two electrode members 50 is briefly described as the first electrode member, and the other electrode member 50 of the at least two electrode members 50 is briefly described as the second electrode member. One of the two male connectors 70 is briefly described as the first male connector, and the other of the two male connectors 70 is briefly described as the second male connector. It can be understood that the first electrode member is electrically connected to the first male connector, and the second electrode member is electrically connected to the second male connector. The first electrode member and the second electrode member are spaced apart, and there is a potential difference between the first electrode member and the second electrode member. After the mouse enters the cage 40, when the mouse contacts the first electrode member and the second electrode member at the same time, the first electrode member and the second electrode member discharge electricity to the mouse, causing a fatal electric shock to the mouse.

[0064] Specifically, the power module 30 directly transmits a high potential difference between the first and second male connectors, eliminating the need for a separate boost circuit for each cage 40. This simplifies the structure within each cage 40 and reduces electrical hardware costs. The spacing between the first and second male connectors prevents arc discharge between the first and second male connectors, protecting the electric mousetrap 100 from damage caused by high arc temperatures. Specifically, the voltage directly applied between the first and second male connectors by the power module 30 is 200V, 800V, 1000V, 1500V, 1800V, 2000V, or other voltages that are harmful to mice.

[0065] Optionally, in the combined state, the first male connector is electrically connected to the positive output of the power module 30, and the second male connector is electrically connected to the negative output of the power module 30. It is understandable that in the combined state, the first electrode member is electrically connected to the positive output of the power module 30, and the second electrode member is electrically connected to the negative output of the power module 30.

[0066] Optionally, combined Figure 12and Figure 13 As shown, the first electrode member and the second electrode member are spaced apart along the direction of entry into the cage 40 through the inlet 403. Specifically, the number of first or second electrode members in a single cage 40 is not limited to one. Alternatively, one first electrode member may be positioned between two second electrode members along the direction of entry into the cage 40 through the inlet 403. Alternatively, one second electrode member may be positioned between two first electrode members along the direction of entry into the cage 40 through the inlet 403.

[0067] Optionally, combined Figure 13 As shown, the male connector 70 includes an inner contact 71 and an insulating tube 72 connected to the cage body 40. The insulating tube 72 is sleeved around the outer periphery of the inner contact 71. When engaged, the inner contact 71 forms conductive contact with the female connector 60. Specifically, when the first male connector is electrically connected to the positive output of the power module 30 via its inner contact 71, and the second male connector is electrically connected to the negative output of the power module 30 via its inner contact 71, because the insulating tube 72 is sleeved around the outer periphery of the inner contact 71, there is no potential difference between the outer peripheries of the first male connector and the second male connector. This reduces the risk of short circuits and discharges between the outer peripheries of the two male connectors 70, and reduces the risk of electric shock to the user.

[0068] In some embodiments, combined Figures 4 to 6 As shown, the main housing 20 includes a front shell 22 and a bottom shell 23 positioned and connected to the front shell 22. The front shell 22 is disposed on the upper side of the bottom shell 23, and the front shell 22 and the bottom shell 23 enclose a space for accommodating the power module 30 and the female connector 60. Specifically, all or part of the outer surface of the front shell 22 serves as the docking surface 201.

[0069] In some embodiments, combined Figures 4 to 6 As shown, the electric mouse trap device 100 further includes a female mounting bracket 61 connected to the main housing 20. The female connector 60 is mounted in the main housing 20 through the female mounting bracket 61.

[0070] Specifically, to simplify the description and facilitate understanding, the female connector 60 electrically connected to the positive output of the power module 30 is briefly described as the first female connector, and the female connector 60 electrically connected to the negative output of the power module 30 is briefly described as the second female connector.

[0071] In some embodiments, any one of the first docking surface, the second docking surface, and the third docking surface corresponds to a first female connector and a second female connector, respectively. Figure 5 As shown, each first female connector is mounted on one of the female mounting brackets 61. Further, the female mounting bracket 61 is connected to the face shell 22. More specifically, in combination with Figure 6As shown, a connecting post 243 is connected to the inner side of the face shell 22, and the female mounting bracket 61 is positioned and connected to the connecting post 243 via fasteners. Furthermore, after the first female connector is inserted into the female mounting bracket 61 from the outside, the nut member 62 is threadedly sleeved on the outer periphery of the first female connector, and the nut member 62 and the first female connector are pressed against the female mounting bracket 61 from two opposite directions, thereby maintaining the first female connector in a stable position relative to the female mounting bracket 61.

[0072] Optionally, combined Figure 5 As shown, the second female connector is connected to another female mounting bracket 61 , and further, the female mounting bracket 61 is connected to the bottom shell 23 .

[0073] In other embodiments, the main housing 20 is connected to a male connector, and the cage 40 is connected to a female connector. The power module 30 is electrically connected to at least two male connectors. At least two electrode members 50 are electrically connected to at least one female connector. The female and male connectors can be plugged together to form an electrically conductive connection. Furthermore, the male connector is disposed outside the main housing 20, and the female connector is housed within the cage 40.

[0074] Optionally, the power module 30 and the electrode member 50 may be connected electrically with each other by adopting other conductive structures in the form of plugging, screwing or locking.

[0075] In some embodiments, combined Figure 4 and Figure 5 As shown, the power module 30 includes a power supply 31 , a DC-DC converter electrically connected to the power supply 31 , and a high-voltage package 32 electrically connected to the DC-DC converter. The high-voltage package 32 is electrically connected to at least two electrode components 50 .

[0076] Specifically, power supply 31 is used to provide initial electrical energy. Furthermore, power supply 31 has a positive electrode and a negative electrode and is capable of outputting direct current (DC). More specifically, the output voltage of power supply 31 ranges from 3.7V to 4.2V. Optionally, power supply 31 is a lithium battery, dry cell battery, supercapacitor, or other device capable of outputting DC power. Optionally, power supply 31 can be recharged for cyclic use.

[0077] Specifically, the input end of the DC-DC converter is electrically connected to the output end of the power supply unit 31, and the DC-DC converter boosts the output voltage of the power supply unit 31. Optionally, the DC-DC converter can boost an input voltage of 3.7V to 4.2V to a DC output voltage of 6V. Furthermore, the input end of the DC-DC converter is electrically connected to the positive and negative electrodes of the power supply unit 31, respectively.

[0078] Specifically, the high-voltage transformer 32 is used to further increase the output voltage of the DC-DC converter. More specifically, the input of the high-voltage transformer 32 is connected to the output of the DC-DC converter. Optionally, the high-voltage transformer 32 can convert the input voltage into a high-voltage output of 2000V AC. Optionally, the output of the high-voltage transformer 32 is electrically connected to a female connector 60 mounted on the main housing 20. Optionally, the output of the high-voltage transformer 32 can also be electrically connected to a male connector mounted on the main housing 20.

[0079] Furthermore, the power module 30 includes a low-dropout linear regulator (LDO), whose input is connected to the output of the DC-DC converter and outputs a more stable voltage. Optionally, the LDO receives a 6V input voltage and, after stabilization, outputs a 6V output voltage with less fluctuation.

[0080] Optionally, a female mounting bracket 61 and the housing 22 enclose a space for accommodating the power supply 31 and the high-voltage package 32. More specifically, the power supply 31 and the high-voltage package 32 are supported on the upper side of the female mounting bracket 61.

[0081] In some other embodiments, the power module 30 is used to be electrically connected to an AC power source. The power module 30 regulates and boosts the AC power, and then outputs a higher DC voltage between different electrode elements 50 .

[0082] Further, combined with Figure 4 and Figure 5 As shown, the electric mouse trapping device 100 further includes a control module 33, which is electrically connected to the power module 30. Figure 4 As shown, the control module 33 includes a travel switch 331, the position of which corresponds to the button 21. When the button 21 slides relative to the main housing 20 to one of the positions, the travel switch 331 is triggered to conduct, enabling the power module 30 to output a DC voltage to the electrode member 50. Optionally, the control module 33 utilizes a PCBA structure.

[0083] More specifically, the control module 33 includes a microcontroller unit that outputs control signals to the DC-DC converter or high-voltage transformer 32. Optionally, a limit switch 331 is electrically connected to the microcontroller unit. Triggered by the limit switch 331, the microcontroller unit adjusts the operating state of the power module 30. Optionally, a low-dropout linear regulator (LDO) supplies power to the microcontroller unit, ensuring a more stable voltage and reliable operation.

[0084] In some embodiments, combined Figure 2a and Figure 7As shown, the edge shape of the end surface of the first end 401 of the cage body 40 is close to or consistent with the edge shape of the docking surface 201 .

[0085] In some embodiments, combined Figure 7 and Figure 8 As shown, the cage body 40 includes a cover 41 and a base plate 42, and the cover 41 and the base plate 42 are detachably connected. At least two electrode members 50 are mounted on the inner surface 421 of the base plate 42. Specifically, the cover 41 and the base plate 42 enclose an internal space for mice to enter. After the mice enter the cage body 40, they will crawl on the base plate 42 or lie on the base plate 42 if they die from electric shock, so there will be more contact between the base plate 42 and the mice. When the base plate 42 is contaminated by mice, or when the mice adhere to the electrode members 50 on the base plate 42 due to discharge, the difficulty of cleaning the cage body 40 can be reduced by separating the base plate 42 from the cover 41 and then connecting the replacement base plate 42 to the cover 41.

[0086] Optionally, the electrode member 50 is in sheet form and is attached to the inner surface 421 of the bottom plate 42. Specifically, the inner surface 421 of the bottom plate 42 is the surface of the bottom plate 42 used to form the boundary of the internal space. Figure 8 and Figure 13 As shown, the inner surface 421 of the bottom plate 42 is provided with a plurality of grooves 422 corresponding to the electrode members 50 . The electrode members 50 are accommodated in the corresponding grooves 422 .

[0087] Specifically, combined Figure 12 and Figure 13 As shown, the bottom plate 42 is provided with a bait trough 423 for receiving bait. The bait trough 423 is located away from the entrance 403 of the cage 40 relative to the electrode member 50 to attract mice into the cage 40 and into contact with the electrode member 50. Optionally, a second electrode member is disposed between the bait trough 423 and the first electrode member along the direction of entry into the cage 40. Optionally, the first electrode member is disposed between the bait trough 423 and the second electrode member along the direction of entry into the cage 40.

[0088] Optionally, combined Figure 12 and Figure 13As shown, along the relative direction between the first end 401 and the second end 402, the distance between one electrode member 50 and the other electrode member 50 of the at least two electrode members 50 connected to a single cage 40 ranges from 20 mm to 35 mm. This allows the distance between the two electrode members 50 to adapt to the distance between the forelimbs and hindlimbs of a mouse, thereby increasing the chances of the mouse making contact with both electrode members 50 simultaneously. This helps increase the probability of the mouse triggering an electric shock after entering the cage 40. Optionally, the distance between the two electrode members 50 is 20.6 mm, 23.5 mm, 24.8 mm, 25.4 mm, 26.2 mm, 27.5 mm, 28.9 mm, 29.7 mm, 30.2 mm, 31.5 mm, 32.8 mm, 33.9 mm, or other distance values.

[0089] In some other embodiments, the distance between the two electrode members 50 is not limited to the range of 20 mm to 35 mm. For example, in a direction perpendicular to the inner surface 421 of the base plate 42, the two electrode members 50 are stacked and insulated, so that in the projection direction along the normal of the inner surface 421 of the base plate 42, the projections of the two electrode members 50 have a similar area, that is, there is no spacing relationship between the two electrode members 50 along the relative direction between the first end 401 and the second end 402.

[0090] In some embodiments, combined Figure 8 As shown, the cover 41 has a first position and a second position relative to the base plate 42. In the first position, the cover 41 and the base plate 42 form a fixed fit along the relative direction between the cover 41 and the base plate 42. In the second position, the cover 41 and the base plate 42 form a movable fit along the relative direction between the cover 41 and the base plate 42. Specifically, the cover 41 switches between the first and second positions by sliding relative to the base plate 42. Specifically, the relative direction between the cover 41 and the base plate 42 is substantially parallel to the normal of the inner surface 421 of the base plate 42. To simplify the description and facilitate understanding, the relative direction between the cover 41 and the base plate 42 is referred to as the locking direction F1. When in the first position, the cover 41 and the base plate 42 form a mutual restriction along the locking direction F1, thereby preventing the cover 41 and the base plate 42 from separating in the locking direction F1, thereby providing the cage body 40 with a stable structure. When in the second position, there is no restrictive fit between the cover 41 and the bottom plate 42 along the locking direction F1 , and the cover 41 can be separated along the locking direction F1 .

[0091] Optionally, the sliding direction of the cover 41 relative to the bottom plate 42, that is, the relative direction between the first position and the second position, is substantially parallel to the relative direction between the first end 401 and the second end 402. Optionally, the sliding direction of the cover 41 relative to the bottom plate 42 is substantially perpendicular to the relative direction between the first end 401 and the second end 402, and substantially perpendicular to the normal to the inner surface 421 of the bottom plate 42.

[0092] In some embodiments, combined Figure 9 、 Figure 10 and Figure 12 As shown, one of the cover 41 and the base plate 42 is provided with a slide groove 424, and the other is connected to a clamping block 43. The clamping block 43 can be inserted into the slide groove 424 along the locking direction F1. The clamping block 43 can also slide in the slide groove 424 to switch the cover 41 between the first position and the second position.

[0093] Specifically, combined Figure 12 As shown, along the relative sliding direction between the cover 41 and the base plate 42, the slide groove 424 is formed with a first segment 425 and a second segment 426 that are connected. The width of the first segment 425 is smaller than the width of the second segment 426, and the width direction is parallel to the inner surface 421 of the base plate 42 and approximately perpendicular to the aforementioned relative sliding direction. The direction from the second segment 426 to the first segment 425 is approximately equivalent to the direction from the second position to the first position. Figure 9 and Figure 10 As shown, the block 43 includes a connecting stop portion 431 and a guide portion 432. The width of the stop portion 431 is smaller than the width of the stop portion 431 and larger than the width of the first segment 425. The width of the guide portion 432 is not larger than the width of the first segment 425.

[0094] Specifically, when the cover 41 is in the second position relative to the base 42, the latching portion 431 can pass through the second segment 426 of the slide slot 424 along the locking direction F1. When the cover 41 slides from the second position to the first position, the guide portion 432 inserts into the first segment 425. When the cover 41 is in the first position relative to the base 42, the latching portion 431 and the first segment 425 of the slide slot 424 are adjacent to each other along the locking direction F1. Because the latching portion 431 is wider than the first segment 425, the latching portion 431 cannot pass through the first segment 425 along the locking direction F1, thereby preventing the cover 41 from separating from the base 42 along the locking direction F1.

[0095] Optionally, combined Figure 10 and Figure 12As shown, the guide portion 432 is connected between the locking portion 431 and the housing 41. The bottom plate 42 is provided with a slide groove 424. More specifically, a slide groove 424 is provided on both sides of the bottom plate 42 along the width direction. Furthermore, the bottom plate 42 is provided with one or more slide grooves 424 on either side. The number of the blocks 43 corresponds to the number of the slide grooves 424.

[0096] Further, combined with Figure 10 and Figure 12 As shown, one of the block 43 and the base plate 42 is formed with a protrusion 433, and the other is provided with a recess 427. The protrusion 433 is arranged to protrude relative to the surface or edge adjacent to it. The recess 427 is arranged to be recessed relative to the surface or edge adjacent to it. When the cover 41 is in the first position relative to the base plate 42, the protrusion 433 is embedded in the recess 427. When the cover 41 moves from the first position to the second position, the protrusion 433 and the edge of the recess 422 are abutted, so that the movement of the protrusion 433 is restricted. The cover 41 can only leave the first position after the protrusion 433 or the edge of the recess 427 undergoes a certain deformation, thereby improving the stability of the cover 41 in the first position and preventing the cover 41 from automatically sliding to the second position.

[0097] Optionally, combined Figure 10 and Figure 12 As shown, the protrusion 433 is disposed on one side of the guide portion 432. The recess 427 is disposed on the edge of the first segment 425 of the sliding groove 424.

[0098] Optionally, by setting the length of the first segment 425 and the length of the guide portion 432 along the relative direction between the first end 401 and the second end 402, the cover 41 can be restricted from further movement when sliding from the second position to the first position.

[0099] In some embodiments, combined Figure 10 and Figure 11 As shown, the housing 41 is connected to a male connector 70 and a conductive spring 44, and the conductive spring 44 is electrically connected to the male connector 70. Optionally, all male connectors 70 are connected to the housing 41. Optionally, the housing 41 and the base plate 42 are each connected to at least one male connector 70. For example, the housing 41 is connected to one male connector 70, and the base plate 42 is connected to another male connector 70. Because the housing 41 is reusable and is connected to at least one male connector 70, the number of male connectors 70 connected to the base plate 42 can be reduced, which helps reduce the replacement cost of the base plate 42. Specifically, the male connector 70 connected to the housing 41 is electrically connected to the conductive spring 44.

[0100] Specifically, combined Figure 11 and Figure 12As shown, when the cover 41 slides relative to the bottom plate 42 between the first position and the second position, the conductive spring 44 slides against the bottom plate 42. Optionally, the conductive spring 44 abuts against the conductive member 45 electrically connected to the electrode member 50, thereby forming a conductive relationship between the male connector 70 connected to the cover 41 and the corresponding electrode member 50. Further, the conductive member 45 can be bent according to the shape of the inner surface 421 of the bottom plate 42. Further, the conductive member 45 is electrically connected to the first electrode member. Optionally, when the cover 41 is in the first position, the conductive spring 44 abuts against the electrode member 50, thereby forming a conductive relationship between the male connector 70 connected to the cover 41 and the corresponding electrode member 50. More specifically, the electrode member 50 can be bent according to the shape of the inner surface 421 of the bottom plate 42. More specifically, the conductive spring 44 abuts against the first electrode member.

[0101] In some embodiments, combined Figure 10 and Figure 13 As shown, the electric mousetrap device 100 further includes a male mounting bracket 73 connected to the cage 40. The male connector 70 is mounted on the outside of the cage 40 via the male mounting bracket 73. Specifically, the insulating tube 72 is mounted on the cage 40 via the male mounting bracket 73. Optionally, the male mounting bracket 73 includes a first mounting member 731 and a second mounting member 732, with the insulating tube 72 abutting between the first mounting member 731 and the second mounting member 732.

[0102] Optionally, the electric mousetrap device 100 includes at least two male mounting brackets 73. To simplify the description and facilitate understanding, one of the at least two male mounting brackets 73 is referred to as the first male mounting bracket, and the other is referred to as the second male mounting bracket. The first male mounting bracket is connected between one of the male connectors 70 and the housing 41, more specifically, between the first male connector and the housing 41. The second male mounting bracket is connected between the other male connector 70 and the base plate 42, more specifically, between the second male connector and the base plate 42.

[0103] Further, combined with Figure 11 As shown, the first male mounting bracket cooperates with the housing 41 to form a space that can roughly enclose the conductive spring 44. The conductive spring 44 has a contact portion 441 exposed outside the space. The contact portion 441 is used to abut the conductive member 45 or the electrode member 50. More specifically, the first male mounting bracket is provided with a notch 74, through which the contact portion 441 of the conductive spring 44 is exposed.

[0104] Optionally, combined Figure 10 As shown, the first male connector has a second wire ear 75 electrically connected to the inner contact member 71 thereof, and a wire is electrically connected between the second wire ear 75 and the conductive spring 44 .

[0105] The above embodiments are merely descriptions of the preferred embodiments of the present application and do not limit the scope of the present application. Without departing from the design spirit of the present application, various modifications and improvements made to the technical solutions of the present application by ordinary engineering and technical personnel in this field should fall within the scope of protection determined by the claims of the present application.

Claims

1. An electric shock mouse trap, characterized in that: include: main housing; A power module connected to the main housing; and At least two cages are in at least a combined state relative to the main shell; the cages have a first end and a second end arranged opposite to each other, the cages are hollow and have an entrance at the second end, and the cages are connected to at least two electrode members; in the combined state, the first ends of the at least two cages are respectively positioned and connected to the main shell from different angles on the outer periphery of the main shell, and the at least two electrode members connected to the cages are electrically connected to the power module.

2. The electric mouse-catching device according to claim 1, characterized in that: The main shell has at least three docking surfaces, two of which are arranged in opposite directions, and another docking surface is arranged between the two docking surfaces in opposite directions; two of the at least two cage bodies are also in an active state relative to the main shell, and in the active state, the two cage bodies can select two of the at least three docking surfaces for docking.

3. The electric shock mouse trap device according to claim 2, characterized in that: The main shell has a side surface, and the direction of the side surface is opposite to the direction of the other docking surface; the main shell is movably connected to a button on the side surface, and / or the main shell is provided with an electrical interface on the side surface.

4. The electric shock mouse trap according to claim 1, characterized in that: One of the at least two cage bodies is also in an active state relative to the main shell body, and the main shell body has two docking surfaces, one of which is arranged on two sides of the main shell body opposite to each other, and the other docking surface is arranged between the one docking surface and the other cage body along the opposite directions; in the active state, one of the cage bodies can select one of the two docking surfaces for docking.

5. The electric mouse-catching device according to claim 1, characterized in that: The main shell accommodates at least two female connectors, and the cage body is connected to at least one male connector; the power module is electrically connected to the at least two female connectors; the at least two electrode members are electrically connected to the at least one male connector; the female connector and the male connector can form a conductive fit by plugging.

6. The electric mouse-catching device according to claim 5, characterized in that: The cage body is connected to two male connectors; one of the at least two electrode members is electrically connected to one of the two male connectors, and the other electrode member is electrically connected to the other of the two male connectors; the two male connectors are arranged at an interval; the male connector includes an inner contact member and an insulating tube connected to the cage body, the insulating tube is sleeved on the outer periphery of the inner contact member, and in the combined state, the inner contact member forms a conductive contact with the female connector.

7. The electric mouse-catching device according to claim 1, characterized in that: The cage body includes a cover shell and a bottom plate, wherein the cover shell is detachably connected to the bottom plate; and the at least two electrode members are installed on the inner surface of the bottom plate.

8. The electric shock mouse trap device according to claim 7, characterized in that: The cover shell has a first position and a second position relative to the base plate; in the first position, the cover shell and the base plate form a positioning fit along the relative direction between the cover shell and the base plate; in the second position, the cover shell and the base plate form a movable fit along the relative direction between the cover shell and the base plate.

9. The electric mouse-catching device according to claim 8, characterized in that: The cover shell is connected to a male connector and a conductive spring sheet, the conductive spring sheet is electrically connected to the male connector, and the conductive spring sheet slides against the bottom plate; when the cover shell is in the first position, the conductive spring sheet abuts against the electrode member, or the conductive spring sheet abuts against the conductive member electrically connected to the electrode member.

10. The electric mouse-catching device according to claim 1, characterized in that: The power supply module is accommodated in the main shell, and the power supply module includes a power supply component, a DC-DC converter electrically connected to the power supply component, and a high-voltage transformer electrically connected to the DC-DC converter, and the high-voltage transformer is electrically connected to the at least two electrode components; and / or, along the relative direction between the first end and the second end, among the at least two electrode components, the distance value between one electrode component and the other electrode component ranges from 20 mm to 35 mm.

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