A hunting decoy apparatus, wherein the decoy exhibits lifelike movements controlled mechanically by a user. The apparatus comprises an outer sleeve member and a movable slidable member slidably engaged within the outer sleeve member. The outer sleeve member attaches to the ground. The decoy stand is inserted into the movable sliding member and extends perpendicular from the outer sleeve member in an upward direction with a decoy on top. The distal ends of the slidable inner sleeve member and the outer sleeve member are connected by an extension limiting biasing element such as a spring or elastic cord. A tether is attachable to the proximal end of the movable slidable member. To activate movement of the decoy, the tether is pulled and released by the user causing the decoy and decoy stand to move within the slot forward and backwards. Small tugs on the tether by the user causes the decoy to move in lifelike movements creating the appearance the decoy is bobbing and pecking like a wild bird.

A rodent trap having a remote arming capability and a method of deploying a rodent trap in an unarmed state and then arming the trap after a wait period without the user having to again physically access the trap. The trap, preferably embodied as an electronic rodent trap, may be configured with wireless remote arming capability, timed arming functionality, activity based arming and the like. When in the unarmed state, the trap operates in a monitoring mode in which the trap can monitor and evaluate activity and/or interactions with the trap and can send and receive wireless communication signals.

An animal trapping device with a base length separating first and second ends of the base, a wire mesh cage assembly operably configured to surround the base and defining a base opening and a width, wherein the base is selectively, freely, and removably disposed within the base opening. The device also includes one or two opposing mesh entrances with a second free end elevated above an upper surface of the base and defining an exit aperture. The first and second wire mesh entrances, the wire mesh cage assembly, and the upper surface of the base defining an animal retention zone and the exit apertures of the first and second wire mesh entrances facing one another and at least partially aligned with one another.

An apparatus for holding a bait for rodents, the apparatus has a housing, a bait platform in the housing, and a passage opening for rodents to access the bait platform. The apparatus can be inserted into a manhole.

The present invention discloses an electric rat, killer, wherein a box body is of a hollow box body structure, the box body is provided with unidirectional doors on two sides, an infrared sensor inside, a bottom plate at the bottom and a top plate at the top, and the box body fixes the top plate and the bottom plate through buckling pieces; and a high-voltage module is arranged in the top plate, the infrared sensor detects a rat entering signal and transmits the signal to the high-voltage module to perform electric shock action, and a control key can be pressed to kill a rat by a manual electric shock mode. According to the present invention, the unidirectional doors are arranged on the two sides of the box body, thereby preventing a rat from escaping after entering the box body; the infrared sensor, a circuit board and an electrified net are provided for cooperation at the same time to kill a rat through electric shock, so that energy conservation and higher efficiency are achieved; and the box body fixes the bottom plate and the top plate through the buckling pieces, thereby facilitating disassembling and rat cleaning. Therefore, the present invention has the characteristic of energy conservation, capability of trapping rats continuously and higher efficiency.

A cable clamp and method of use for trapping animals, which can be clamped onto a drowning cable or wire at an appropriate position to provide the length of cable or wire with the amount of tension or slack necessary in the cable when it is anchored in the water and on shore, by using a cable clamp, longer drowning cables may always be used. The cable clamp includes a connector for connecting to a drowning cable anchor and a plate having a first aperture receiving a clamping bolt for clamping to a drowning cable. The plate also has a locating tab projecting from said plate to serve a locator guide to help a trapper position a drowning cable in tension under the clamping bolt. A channel tab extends upwardly from the plate at a distance from one side of the clamping bolt sufficient to form a channel through which a drowning cable can pass after passing by and contacting the locating tab.

The cable clamp can alternatively be used as a slide lock on a drowning cable or drowning rod in that the plate includes a is a trap connector aperture and a slide lock tab projecting upwardly from the plate at an end spaced from the trap connector aperture and including a third aperture through which a drowning cable or drowning rod can freely pass until an animal is trapped and the plate is canted at an angle to a drowning rod or drowning cable.

A mousetrap is provided, wherein an end of the mousetrap is a mouse passage entrance, a circuit mounting board is arranged between a base and an upper cover, and a circuit board, a battery and an electrode plate that are configured to form a current loop are mounted on the circuit mounting board. The shape of the electrode plates are all n-shaped, the opening directions are opposite, and the electrode plates are arranged staggered.

The present disclosure is directed to motion waterfowl decoys and methods of attracting waterfowl using same. The waterfowl decoy mimics the feeding behavior of live waterfowl by moving its head toward a surface without the remainder of their body moving in the same motion. The feeding motion is provided by rotating a spherical ball breast of the decoy, to which the head is attached. When the ball breast rotates, the head moves toward the surface while the body remains in its initial position. Rotation is provided using manually-provided pressure or a battery-driven device, such as a bilge pump or a gear motor. When rotation of the ball breast ceases to be provided, a counterweight in the ball breast returns to its initial position, moving the ball breast and head back to an upright position.

A device for spreading fowl decoys on the surface of a body of water. A hub sits below the surface is removably coupleable with up to four arm arrangements. Arm arrangements are jointed, allowing hub and arm arrangements to sit below the surface of the water while decoys float on surface. Hub is connected to an anchor on the bottom of the body of water, and can be displaced horizontally with a pull cord. Cords in the arm arrangements allow for near-random motion of attached decoys, simulating a swimming motion of fowl. Hub can be displaced vertically with a pull cord, causing the decoys to dip head first into the water, simulating a feeding motion of water fowl. Hubs can be combined by coupling arm arrangements from each hub. When displaced horizontally in the water, hubs not attached to the pull cord move semi-randomly, creating more random motion in decoys.

An enclosure-type electronic rat trap having an interior accessed through a trap entrance and a rat pathway that leads from the entrance to a baited end opposite the entrance is provided. At least three killing plates coupled to a high voltage circuit are positioned along the pathway in spaced relationship and a barrier extends into and constricts the pathway at a specified distance from a center plate in order to reduce the ability of the rat to escape the trap once the rat has traveled along the pathway sufficiently to initiate a killing cycle.