An electronic animal trap assembly for trapping an animal using motion detection includes a box that may be positioned on a support surface. The box has an open end and a rodent pass passes through the open end to enter the box. A door is hingedly coupled to the box and the door is selectively urged between an open position and a closed position. The door is aligned with the open end of the box such that the door selectively exposes and closes the open end. A control unit is coupled to the box and the control unit detects motion within the box. The control unit is operationally coupled to the door. The control unit selectively urges the door into the closed position when the control unit detects motion within the box. In this way the control unit traps the rodent in the box.

An electronic animal trap assembly for trapping an animal using motion detection includes a box that may be positioned on a support surface. The box has an open end and a rodent pass passes through the open end to enter the box. A door is hingedly coupled to the box and the door is selectively urged between an open position and a closed position. The door is aligned with the open end of the box such that the door selectively exposes and closes the open end. A control unit is coupled to the box and the control unit detects motion within the box. The control unit is operationally coupled to the door. The control unit selectively urges the door into the closed position when the control unit detects motion within the box. In this way the control unit traps the rodent in the box.

A gate for a feral hog trap is provided, comprising a frame having side frame assemblies, a top member, and a reinforcing member. Netting material is secured across the side frame assemblies and across the front of the frame. The netting material is attached to the frame using ropes which are secured to the frame members. The front netting material remains loosely gathered along a bottom edge and is preferably weighted to keep the bottom edge in contact with the ground. When feral hogs enter the gate, they pass under the front netting such that the netting falls back to the ground, making it difficult for the feral hogs to exit the gate as they step on the bottom edge of the front netting.

A gate for a feral hog trap is provided, comprising a frame having side frame assemblies, a top member, and a reinforcing member. Netting material is secured across the side frame assemblies and across the front of the frame. The netting material is attached to the frame using ropes which are secured to the frame members. The front netting material remains loosely gathered along a bottom edge and is preferably weighted to keep the bottom edge in contact with the ground. When feral hogs enter the gate, they pass under the front netting such that the netting falls back to the ground, making it difficult for the feral hogs to exit the gate as they step on the bottom edge of the front netting.

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.

Certain disclosed embodiments include a self-baiting, self-catching, continuous wild game trap and its associated systems and methods. Such embodiments can include a catch trap, a corral, a plurality of cameras, a feeder, and various associated components. The single panel can be further used in isolation to encourage directional travel for use in parks and wildlife areas or in rotational grazing operations. Further implementations include systems having one or more single panels capable of providing directional movement of animals such that the systems can be used to encourage directional movement of animals in parks and wildlife areas or for rotational grazing of animals.

Certain disclosed embodiments include a self-baiting, self-catching, continuous wild game trap and its associated systems and methods. Such embodiments can include a catch trap, a corral, a plurality of cameras, a feeder, and various associated components. The single panel can be further used in isolation to encourage directional travel for use in parks and wildlife areas or in rotational grazing operations. Further implementations include systems having one or more single panels capable of providing directional movement of animals such that the systems can be used to encourage directional movement of animals in parks and wildlife areas or for rotational grazing of animals.

An animal trap for safely trapping animals that may be safely set with a single hand. The trap has a frame with an opening and a pair of doors that are pivotally affixed to the frame adjacent to the opening. The doors are movable between an open and closed position. A rotating assembly is connected to each door through a corresponding linkage that are pivotally connected to the rotating assembly and one of the doors. The rotating assembly is rotatably affixed to the frame and rotatable between a set position and a tripped position about an axis. A spring biases one of the doors toward its closed position and when the rotating assembly is in its set position. A trigger mechanism is pivotally affixed to the frame and has a set position and a tripped position, rotating the trigger mechanism will trip the trap.

An animal trap for safely trapping animals that may be safely set with a single hand. The trap has a frame with an opening and a pair of doors that are pivotally affixed to the frame adjacent to the opening. The doors are movable between an open and closed position. A rotating assembly is connected to each door through a corresponding linkage that are pivotally connected to the rotating assembly and one of the doors. The rotating assembly is rotatably affixed to the frame and rotatable between a set position and a tripped position about an axis. A spring biases one of the doors toward its closed position and when the rotating assembly is in its set position. A trigger mechanism is pivotally affixed to the frame and has a set position and a tripped position, rotating the trigger mechanism will trip the trap.