Abstract: A system for operating a robotic arm, comprises a controller and a robotic arm. The controller receives an indication that a stall of a rotary milking platform in which a dairy livestock is located has moved into an area adjacent a robotic arm that is detached from the rotary milking platform. The controller also determines whether a milking cluster is attached to the dairy livestock. The robotic arm is communicatively coupled to the controller and extends between the legs of the dairy livestock if the controller determines that the milking cluster is not attached to the dairy livestock. The robotic arm does not extend between the legs of the dairy livestock if the controller determines that the milking cluster is attached to the dairy livestock.

Abstract: A system includes a robotic arm on which at least one camera is attached. It further includes a memory and a controller communicatively coupled to the memory. The memory stores historical information associated with a dairy livestock. The historical information include a previously-determined location of a teat of the dairy livestock. The controller moves the camera on the robotic arm toward the previously-determined location of the teat. The camera generates an image of the teat of the dairy livestock from a position to which it is moved, and the controller determines a current location of the teat of the dairy livestock based at least in part on the image.

Abstract: A method comprises receiving a displacement signal generated by a sensor, the displacement signal generated by the sensor in response to detecting movement of a piston from a retracted position in a cylinder toward an extended position in the cylinder. The method further comprises generating, in response to receiving the displacement signal, a valve control signal to be communicated to a valve located on a vacuum line connecting a vacuum source to a vacuum port of the cylinder. The valve control signal causes the valve to move from a first position in which a vacuum pressure is applied to the cylinder via the vacuum port to a second position in which atmospheric pressure is applied to the cylinder via the vacuum port.

Abstract: A system for operating a robotic arm comprises a carriage and a robotic arm. The carriage is mounted on a track adjacent to a rotary milking platform having a substantially circular perimeter and a stall for a dairy livestock. The carriage moves along a substantially straight portion of the track tangent to and outside the perimeter of the rotary milking platform at a rate based at least in part upon a speed of rotation of the rotary milking platform. The carriage moves in a direction corresponding to the direction of rotation of the rotary milking platform and such movement of the carriage is independent of any physical coupling between the carriage and the rotary milking platform. The robotic arm extends between the legs of the dairy livestock.

Abstract: A system includes a camera, a controller and a robotic arm. The camera generates an image of an udder of a dairy livestock. The controller determines a position of the udder of the dairy livestock based at least in part upon the image. The controller further determines a spray position based at least in part upon the determined position of the udder of the dairy livestock. Determining the spray position includes processing the accessed image to determine a tangent at the rear of the udder and a tangent at the bottom of the udder. The spray position is a position relative to the intersection of the two tangents. The robotic arm is communicatively coupled to the controller and positions a spray tool at the spray position.

Abstract: A system includes a milking stall to accommodate a dairy livestock and a robotic attacher. The robotic attacher extends under the dairy livestock and comprises a nozzle. The robotic attacher is operable to rotate such that, during a first operation, the nozzle is positioned generally on the bottom of the robotic attacher, and during a second operation, the nozzle is positioned generally on the top of the robotic attacher.

Abstract: A robotic attacher comprises a gripping portion, a vision system positioned on a first surface of the gripping portion, and at least one nozzle positioned on a second surface of the gripping portion. The gripping portion is rotates about a longitudinal axis such that during a first time, the vision system is positioned generally on the top of the gripping portion, and during a second time, the nozzle is positioned generally on the top of the gripping portion.

Abstract: A crowd gate control system includes a holding pen for dairy livestock, wherein the holding pen is adjacent to an entrance to a milking parlor. The system further includes a crowd gate positioned at a side of the holding pen. The crowd gate moves in relation to the entrance to the milking parlor. A controller is initiates a first mode of operation of the crowd gate prior to the crowd gate reaching the entrance to the milking parlor. The first mode of operation is a pre-forward reverse step. The crowd gate moves away from the entrance to the milking parlor prior to initiating movement towards the entrance.

Abstract: A method comprises extending a robotic attacher under a dairy livestock positioned in a milking stall, wherein the robotic attacher comprises a nozzle that is positioned generally on the bottom of the robotic attacher during a first operation. The method further comprises rotating the robotic attacher during a second operation such that the nozzle is positioned generally on the top of the robotic attacher.

Abstract: A system includes a first camera, a second camera, and a processor wherein the second camera has a higher resolution than the first camera. The processor is communicatively coupled to the first camera and the second camera and is operable to determine a center coordinate of an udder of a dairy livestock based at least in part upon visual data captured by the first camera. The processor is also operable to determine a position of a teat of the dairy livestock based at least in part upon the center coordinate and visual data captured by the second camera.

Abstract: A system comprises a memory and a processor. The memory stores information about a milking stall where a dairy livestock is located at a first time, and a coordinate location of the dairy livestock at a second time. The processor is communicatively coupled to the memory and determines if the coordinate location of the dairy livestock at the second time is different than the milking stall where the dairy livestock is located at the first time. If the coordinate location where the dairy livestock is located at the second time is not the milking stall, the processor generates an error flag associated with the dairy livestock.

Abstract: A system comprises a robotic arm operable to extend between the legs of a dairy livestock located in a milking stall of a rotary milking platform, a camera operable to generate an image signal corresponding to a rear of the dairy livestock, and a controller communicatively coupled to the robotic arm and the camera. The controller determines whether a milking claw is attached to the teats of the dairy livestock by receiving the image signal generated by the camera and processing the image signal. If it is determined based on the image signal that the milking claw is not attached, the controller controls the robotic arm to extend between the legs of the dairy livestock. If it is determined based on the image signal that the milking claw is attached, the controller controls the robotic arm not to extend between the legs of the dairy livestock.

Abstract: A milking robot comprises a robotic arm, a camera coupled to the robotic arm, a camera-facing nozzle coupled to the robotic arm, and a controller. The robotic arm extends in a longitudinal direction between the hind legs and from the rear of a dairy livestock located in a milking stall. The camera-facing nozzle sprays a protective layer of the camera with a cleanser. The controller communicates a signal instructing the camera-facing nozzle to spray the camera with cleanser.

Abstract: A method for operating a robotic arm, comprises determining a speed of rotation of a rotary milking platform, the rotary milking platform having a stall for a dairy livestock. The method continues by moving a carriage along a track positioned adjacent to the rotary milking platform at a rate that is based at least in part upon the determined speed of rotation of the rotary milking platform, wherein the carriage moves independently of the rotary milking platform and in a direction corresponding to a direction of rotation of the rotary milking platform. The method continues by extending a robotic arm that is coupled to the carriage between the legs of the dairy livestock, wherein the robotic arm remains extended between the legs of the dairy livestock for a period of time as the stall rotates adjacent to the robotic arm. The method concludes by retracting the robotic arm from between the legs of the dairy livestock as the stall rotates adjacent to the robotic arm.

Abstract: In certain embodiments, a system comprises a milk collecting system, a teat cup holder, and a cleansing hose system. The milk collecting system comprises a teat cup, a milk collector, and a milking hose system connecting the teat cup to the milk collector. The teat cup holder stores the teat cup of the milk collecting system such that a nozzle of the teat cup holder substantially aligns with an opening of the teat cup. The cleansing hose system connects the nozzle of the teat cup holder to one or more cleanser sources and operable to backwash at least a portion of the milk collecting system by injecting a cleanser from one or more of the cleanser sources through the nozzle and into the teat cup.

Abstract: A milking box comprises a stall portion having a longitudinal axis. A backplane is positioned in the stall portion and moves toward the rear of the stall portion along the longitudinal axis in response to pressure applied, and toward the front of the stall portion in response to pressure removed. A robotic attacher extends from the rear of the stall portion and between the hind legs of a dairy livestock. A controller determines the position of the backplane relative to the rear of the stall portion and determines a positional offset that increases as the dairy livestock moves toward the front of the stall and decreases as it moves toward the rear of the stall. The controller further communicates a signal to move the robotic attacher along the longitudinal axis. The amount of movement is determined at least in part according to the positional offset.

Abstract: A method for estrus detection includes storing location information associated with a dairy livestock. This information includes coordinate locations of the dairy livestock within a free stall pen at each of a plurality of times during a time period including a first time and a second time. The coordinate locations comprise at least a first (X, Y, Z) location of the dairy livestock at the first time and a second (X, Y, Z) location of the dairy livestock at the second time. The method further includes determining, based on at least the first and second (X, Y, Z) locations, a turn index parameter indicating a number of times the dairy livestock reverses directions during the time period. The method further includes determining whether the dairy livestock is likely to be in estrus based at least in part upon whether the determined turn index parameter is in excess of a baseline turn index parameter by more than a first predefined amount.

Abstract: A method for health monitoring comprises electronically receiving location information for a dairy livestock that is generated by a plurality of identification devices positioned in a pen that operate in conjunction with a tag worn by the dairy livestock. The method stores the location information associated with the dairy livestock, the location information comprising a location of the dairy livestock within the pen at each of a plurality of times during a first time period. The method determines, based on at least a portion of the stored location information, a turn index parameter indicating a number of times the particular dairy livestock reverses direction during the first time period. The method determines whether the particular dairy livestock is likely to be in estrus based at least in part upon whether the determined turn index parameter is in excess of a baseline turn index parameter by more than a predefined amount.

Abstract: A system for processing an image comprises a three-dimensional camera that captures an image of a dairy livestock and a processor communicatively coupled to the three-dimensional camera. The processor accesses a first pixel having a first depth location, a second pixel having a second depth location, and a third pixel having a third depth location. The processor determines that the second pixel is an outlier among the first pixel and the third pixel based upon the first depth location, the second depth location, and the third depth location, and discards the second pixel from the image based at least in part upon the determination.