A chute safety system for selectively enclosing a bovine in a calf shoot by selectively closing a rear gate assembly behind the bovine. The chute safety system comprises an entryway at a rear portion, a first side enclosure, a second side enclosure and a front gate assembly at a front portion, a trigger foot plate assembly and the rear gate assembly. The chute safety system can comprise a bovine enclosure defined by a space between the rear gate assembly, the first side enclosure, the second side enclosure, and the front gate assembly. The rear gate assembly comprises a rear gate crossbar having a crossbar distal end and a crossbar proximate end, a crossbar hinge and a crossbar rotational axis.

An animal head gate includes head gate doors each having a squeeze bar to trap the neck mounted between upper and lower rails. Adjustment of the spacing between the bars uses an eccentric crank operated by lever which cooperates with two manual latches on a rail at maximum and minimum spacing. A neck sweep bar is mounted on one gate and movable from a retracted position to a position forward of the squeeze bar across the head gate so as to engage the neck of the animal in front of the squeeze bar and to turn the neck and head. The head gate is held closed by front and rear abutment members each of which is formed as a roller which rotates to reduce friction under load. Each gate includes an upstanding torsion bar which twists when forces are applied to the squeeze bars from impact with the animal.

An animal head gate includes head gate doors each having a squeeze bar to trap the neck mounted between upper and lower rails. Adjustment of the spacing between the bars uses an eccentric crank operated by lever which cooperates with two manual latches on a rail at maximum and minimum spacing. A neck sweep bar is mounted on one gate and movable from a retracted position to a position forward of the squeeze bar across the head gate so as to engage the neck of the animal in front of the squeeze bar and to turn the neck and head. The head gate is held closed by front and rear abutment members each of which is formed as a roller which rotates to reduce friction under load. Each gate includes an upstanding torsion bar which twists when forces are applied to the squeeze bars from impact with the animal.

A livestock squeeze chute is operable in parallel-squeeze, V-squeeze and inverted-V squeeze configurations, and has a head gate with a novel guide track construction for robust rolling support of the gate panels, and a neck extender having uniquely positioned actuators that pull the neck extender upwardly into its working position. The squeeze panels are supported in suspended and hinged fashion from a set of movable supports that are displaceable laterally back and forth along a set of overhead support tracks. A pair of upper actuators are operable to move the hinged-equipped supports, and thereby relocate the tops of the squeeze panels, while a set of lower actuators are operable to relocate the bottom ends of the squeeze panels. The head gate's guide track uses two L-shaped bars and a cooperating U-channel to define a pair of enclosed channels in which roller carriages of the two gate panels are respectively received.

A directional lock or a headgear or interface assembly comprising one or more directional locks that include a catch arrangement for initiating or assisting in movement of a lock member of the direction lock. In some configurations, the catch arrangement assists movement of the lock member in only a portion of a range of travel of the lock member. In some configurations, the directional lock comprises a housing and a sleeve and the catch arrangement comprises a catch arm carried by the sleeve. The catch arm includes a catch end that contacts the lock member, which can be a lock washer in some configurations.

Systems and methods for sorting livestock including a livestock processing station, a computer network system, and a livestock routing mechanism. The livestock processing station confines the individual livestock, allowing individual livestock data to be collected and analyzed. The computer network system includes a programmable logic controller (PLC) for data input at the livestock processing station and a sorting application coupled to the PLC via a computer network, the sorting application for analyzing individual livestock data and assigning livestock to pens.

The present invention discloses, inter alia, a free dome range system (FDR) comprising at least one front elevated rail (FER); at least one rear elevated rail (RER); a plurality of mobile units, each of the plurality of mobile units movable along a member of a group consisting of: the at least one FER, the least one RER and any combination thereof. The invention also discloses a method of positioning at least one of a plurality of mobile units in an FDR comprising steps of providing a free dome range system (FDR) comprising at least one front elevated rail (FER); at least one rear elevated rail (RER); and the plurality of mobile units, each of the plurality of mobile units movable along a member of a group consisting of: the at least one FER, the least one RER and any combination thereof. The present invention further discloses a dairy farm characterized by (a) an array of n stalls side-by-side along an X axis on the dairy animal's level. Each of the stalls is configured by means of size and shape to accommodate a dairy animal, having a main axis Y that is substantially perpendicular to axis X, a front side and an opposite rear side; and (b) a common elevated road surface provided on a higher level, above the stalls. This upper road surface extends along the X axis and is constructed to allow free passage of mobile units, including mobile longitudinal milking units, in a direction along the X axis, along the Y axis, a rotation about the X axis, a rotation about the Y axis, a rotation about the Z axis, and any combination thereof. The present invention further discloses means and method that in a stall, a gate located between the animal and the feeding line is thereby configured to at least temporarily prevent or otherwise limit free access of said animal to its feed.

Livestock head gate assembly configured to be installed as part of a livestock chute for holding an animal, including a head gate frame and a pair of laterally spaced gate panels laterally shiftable relative to each other between a releasing condition and a holding condition. The gate panels cooperatively define a gate opening, with the gate panels permitting the animal to move through the gate opening in the releasing condition and removably engaging a neck of the animal in the holding condition to restrict animal movement through the gate opening. The head gate frame is configured to be pivotally attached to the chute frame at a pivot joint defining a lateral pivot axis such that the head gate is swingable away from the chute frame toward the holding condition to orient the neck along a longitudinal direction and restrict movement of a head of the animal.

Described is a system for milking animals, including cows, having an accommodation space in which the animals can walk around, and several stationary milking stations placed next to each other. Each milking station at a head end thereof includes a neck lock device which can be moved by way of an actuator device between a locked state in which a milking animal in said milking station can be locked at the neck by said neck lock device, and an open state in which a milking animal in said milking station is free to move its head in and/or out of the neck lock device. Also included is an automatic milking system for the automatic milking of milking animals and a control system that is actively connected to the actuator device of each neck lock device.

A system for automated horseshoeing. The system is a three cell concept generally including a tool change area, a gluing area and a modification area. The system generally include a platform for a horse to stand thereon wherein all working components are contained below. The system is configured so that a horse can stand on said platform and the working components move from hoof to hoof thereby allowing the horse to remain in a neutral standing position during the entire shoeing process without having to bend it's ankle. The automated horseshoeing process of the present specification is entirely monitored by a farrier.