A wire grid security enclosure with heavy duty latch mechanism is utilized to secure contents while allowing viewing of the contents within. The enclosure includes a base mount onto which a lateral wall is positioned. The enclosure includes an upper panel that closes the top portion of the lateral wall as well as a first door and a second door that are opened to gain access to the enclosure. The first door and the second door are prevented from opening by a first hooked rod and a second hooked rod. The first hooked rod and the second hooked rod are removably engaged to the upper panel as well as to the first door and the second door. The first hooked rod and the second hooked rod connect via a first locking tab and a second locking tab that are positioned on the first hooked rod and the second hooked rod

A telescopic folding type pet cage door includes a lockset (1), a rotating handle (2), a locking rod (3) and guide rails (4). The pet cage door includes at least three folding units in a vertical direction, wherein the three folding units can be folded in sequence, and both ends of each folding unit are capable of sliding along the guide rails (4). The bottom folding unit is connected with a vertical lifting rod, a rotating handle (2) is disposed on the top of the lifting rod, a hook (2a) configured to hook the locking rod (3) is disposed on the end portion of the rotating handle (2), and when the hook (2a) hooks the locking rod (3), the lockset (1) carries out rotary locking on the rotary handle (2); and the lockset (1) is unlocked, the rotating handle (2) rotates, the hook (2a) is separated from the locking rod (3), the rotating handle (2) drives the lifting rod to move upwards or transversely, and the lifting rod drives the at least three folding units to be sequentially folded upwards or transversely.

A lifting and overturning type automatically-locked pet cage door includes a lifting handle, a hook shift liver, a spring, a rotting shaft and a pair of guide rails. The lifting handle is rotatably fixed on the upper end of a door body, and the hook shift lever is fixed on a crossbar above the door body; when the cage door is closed, the hook shift lever hooks the upper end of the door body under the action of the spring to realize locking; when the cage door is opened, the door body slides upwards along a pair of guide rails to drive the hook shift lever to rotate, and slides upwards to the maximum displacement position after being separated from the hook shift lever, and the door body rotates along the rotating shaft and is laid on the top of the pet cage.

A wire crate latch apparatus having, in a first embodiment, a pivoting member that is continually drawn to a closed position by gravity and that is deflected into a catch when the door having the pivoting member is swung closed. The latch apparatus further includes upper and lower stops to contain a distal end of the pivoting member and to hold the distal end in the position to hit an oblique portion of the catch when the door is closed. In a second embodiment, a sliding latch apparatus is deflected by a catch and is relatively inaccessible from inside of the wire crate by back plates on the latch and catch.

A barrier for a home is disclosed. The barrier includes two portions that are quickly slideable relative to each other to take expanded and contracted forms. The barrier includes a metal frame and wood panels engaged in the metal frame. Each of the two portions includes at least one wood panel such that, when the barrier portions are slid to and away from each other, the wood panels slide to and away from each other. The barrier includes a corner pet door that opens in the expanded or contracted forms.

A tensioned barrier, comprising a chain link or mesh fence providing a secure perimeter, is provided. The fence is tensioned by grabbing and holding one end of the mesh link, wrapping the mesh around a perimeter of the fence poles, including wrapping the mesh around the outside of corner poles, pulling the mesh at its distal end to create a tension in the mesh and then grabbing the distal end of the mesh and securing it to the final fence pole. The fence is created using a high strength small weave mesh that resists cutting and climbing. In one embodiment the fence is created adjacent a structure, using the structure as an element of the barrier. In another embodiment, a fully fenced area is created by placing the first fence pole at a small distance apart from the final fence pole, with the other poles forming a perimeter, and tensioning and wrapping the mesh around all of the poles, affixing the ends of the mesh to the first and final poles and providing a gate or door between the first and final poles.

An electric strand gate has at least one electric strand thereacross. The gate comprises an actuator which moves the electric strand up along a hoisting rail from a closed position to an open position, thereby providing clearance thereunderneath for passage of livestock, vehicles and or the like through the gate. The gate may have shuttles travelling along the hoisting rail, each of which is connected to a respective electric strand. The rail and shuttles may be configured so that electric strands are closer together when in the open position, thereby maximising clearance thereunderneath whilst moving apart in the closed position, so as to maintain the full height of the electric fence. The shuttles and the rail may be further configured so that the electric strands are electrically disconnected in the open position.

A barrier for a home is disclosed. The barrier includes two portions that are quickly slideable relative to each other to take expanded and contracted forms. The barrier includes a metal frame and wood panels engaged in the metal frame. Each of the two portions includes at least one wood panel such that, when the barrier portions are slid to and away from each other, the wood panels slide to and away from each other. The barrier includes a corner pet door that opens in the expanded or contracted forms.