A trap for large animals. The system utilizes multi-containment areas for improved efficiency in herd animal trapping. The outer containment zone of the system is designed in such a way to promote animals further into the inner containment zone. The improved efficiency lowers overall cost of trap operation in terms of time, consumable bait replenishment and number of attempts on target animal groups. The system allows for independent and remote actuation of containment zone gates. Data is transmitted to a remote user and remote actuation of attracting or deterring audio can be done during trapping process. The architecture of the trap dissuades animals capable of jumping from doing so over the containment walls.

The present disclosure provides a smart animal capture device and system capable of determining whether an animal that has triggered a motion sensor is a desired target animal by taking a photograph and performing image recognition against an image database with images of the target animal species. The device is in wireless communication with a server and can thus be monitored and controlled remotely via a user device such as a mobile phone.

The present disclosure provides a smart animal capture device and system capable of determining whether an animal that has triggered a motion sensor is a desired target animal by taking a photograph and performing image recognition against an image database with images of the target animal species. The device is in wireless communication with a server and can thus be monitored and controlled remotely via a user device such as a mobile phone.

A rodent trap assembly includes a cylinder that has an access opening extending therein. A bait tray is coupled to the cylinder to contain rodent bait and the bait tray is positioned inside the cylinder. A dome is positionable on the cylinder and the dome has an entry way extending therethrough to facilitate a rodent to enter the dome to access the rodent bait in the bait tray. A ramp is removably attachable to the entry way to facilitate the rodent to access the entry way. A cup is removably positionable in the cylinder to capture the rodent when the rodent enters through the entry way and falls downwardly in the cylinder. A handle is coupled to the cup to facilitate the rodent to be relocated without requiring the user to touch the rodent.

Method and apparatus for a pest control device mounting system configured for mounting pest control devices in a building and using them to control pests. The pest control device mounting system including a mounting bracket, which may have a circumferential portion defining a portal. In some examples, the mounting bracket includes a flange portion suitable for attaching to the perimeter of a cavity in a building surface. The pest control device mounting system including a plug configured to be removably attached to the mounting bracket and to substantially close the portal when attached to the mounting bracket, wherein the plug is configured to accommodate a pest control device.

An apparatus for the capture and electrocution of pest animals is provided. The apparatus has a killing chamber, an electric accumulator, a high voltage transformer, three electrode plates located in the killing chamber and connectable to the high voltage transformer, and three stationary electrical contacts. A rotor having a horizontal rotating shaft and four axial walls, each with three electrode plates arranged consecutively in an axial direction, is lockable in four predetermined angular positions in each of which one of the four axial walls is horizontal and has the three electrode plates facing the killing chamber. Each axial wall of the rotor has three movable electrical contacts that are each connected to a respective one of the three electrode plates. The three movable contacts on a same one of the axial walls are temporarily and simultaneously connectable to respective stationary electrical contacts when the axial wall is horizontal.

An apparatus for the capture and electrocution of pest animals is provided. The apparatus has a killing chamber, an electric accumulator, a high voltage transformer, three electrode plates located in the killing chamber and connectable to the high voltage transformer, and three stationary electrical contacts. A rotor having a horizontal rotating shaft and four axial walls, each with three electrode plates arranged consecutively in an axial direction, is lockable in four predetermined angular positions in each of which one of the four axial walls is horizontal and has the three electrode plates facing the killing chamber. Each axial wall of the rotor has three movable electrical contacts that are each connected to a respective one of the three electrode plates. The three movable contacts on a same one of the axial walls are temporarily and simultaneously connectable to respective stationary electrical contacts when the axial wall is horizontal.

A flexible net structure and trap is provided that includes a net, an upper cord, and a secondary net. The net includes first flexible lines. The upper cord is attached to the net at an upper lateral edge and extends a first length of the net. The flexible net structure includes a wall portion that extends from the upper cord to a ground portion and the ground portion extends from a lower lateral edge to the wall portion. The collapsible net is configurable in a closed configuration where the first and second lengthwise ends are disposed proximate to each other. The secondary net is formed from second flexible lines. The secondary net is attached to the flexible net structure in the wall portion and is disposed on an interior side of the flexible net structure. The second flexible lines have a greater cut resistance than the first flexible lines.

A flexible net structure and trap is provided that includes a net, an upper cord, and a secondary net. The net includes first flexible lines. The upper cord is attached to the net at an upper lateral edge and extends a first length of the net. The flexible net structure includes a wall portion that extends from the upper cord to a ground portion and the ground portion extends from a lower lateral edge to the wall portion. The collapsible net is configurable in a closed configuration where the first and second lengthwise ends are disposed proximate to each other. The secondary net is formed from second flexible lines. The secondary net is attached to the flexible net structure in the wall portion and is disposed on an interior side of the flexible net structure. The second flexible lines have a greater cut resistance than the first flexible lines.

A trap for large animals. The system utilizes multi-containment areas for improved efficiency in herd animal trapping. The outer containment zone of the system is designed in such a way to promote animals further into the inner containment zone. The improved efficiency lowers overall cost of trap operation in terms of time, consumable bait replenishment and number of attempts on target animal groups. The system allows for independent and remote actuation of containment zone gates. Data is transmitted to a remote user and remote actuation of attracting or deterring audio can be done during trapping process. The architecture of the trap dissuades animals capable of jumping from doing so over the containment walls.