Abstract: In certain embodiments, a system includes a three-dimensional camera and a processor communicatively coupled to the three-dimensional camera. The processor is operable to determine a first hind location of a first hind leg of a dairy livestock based at least in part on visual data captured by the three-dimensional camera and determine a second hind location of a second hind leg of the dairy livestock based at least in part on the visual data. The processor is further operable to determine a measurement, wherein the measurement is the distance between the first hind location and the second hind location. Additionally, the processor is operable to determine whether the measurement exceeds a minimum threshold.

Abstract: A system includes a robotic arm, an imaging device coupled to the robotic arm, a tail positioner coupled to the robotic arm, and a processor. The imaging device captures imaging data of a rearview of a dairy livestock through a field of view of the imaging device. The tail positioner is able to move from a down position to an up position. The processor is coupled to both the imaging device and the tail positioner and is configured to identify a tail of the dairy livestock within the imaging data captured by the imaging device and send one or more instructions to raise the tail positioner from the down position to the up position, thereby moving the tail out of the field of view of the imaging device.

Abstract: A system comprising a robotic arm and a robotic arm controller. The robotic arm receives instructions from the robotic arm controller and moves along a path. The robotic arm controller comprises an interface, a memory, and a processor. The interface communicates with the robotic arm. The memory stores a first path and a second path. The processor applies a decreasing weight to the waypoints of the first path and an increasing weight to the waypoints of the second path. The processor combines the weighted waypoints of the first path and the second path to generate a third path wherein the third path defines a transition path from the first path to the second path. The processor further instructs the robotic arm to transition from the first path to the second path by traversing the third path.

Abstract: A system that includes a three-dimensional (3D) camera configured to capture a 3D image of a rearview of a dairy livestock in a stall, a memory, and a processor. The processor is configured to obtain the 3D image, identify one or more regions within the 3D image comprising depth values greater than a depth value threshold, and apply the thigh gap detection rule set to the one or more regions to identify a thigh gap region. The processor is further configured to demarcate an access region within the thigh gap region and demarcate a tail detection region. The processor is further configured to partition the 3D image within the tail detection region to generate a plurality of image depth planes, examine each of the plurality of image depth planes, and determine position information for the tail of the dairy livestock in response to identifying the tail of the dairy livestock.

Abstract: A robotic attacher includes a main arm that is suspended vertically from a rail, and a supplemental arm that is coupled to and extends horizontally from the main arm along a longitudinal axis. The supplemental arm includes a pivot assembly that pivots a gripping portion around a vertical axis that is substantially parallel to the main arm of the robotic attacher, in a direction transverse to the longitudinal direction of the supplemental arm, and between at least a maximum-left position, a maximum-right position, and a centered position. The pivot assembly includes a first actuator that extends and retracts a first cable coupled to a left side of the gripping portion in order to pivot the gripping portion. The pivot assembly further includes a second actuator that extends and retracts a second cable coupled to a right side of the gripping portion in order to pivot the gripping portion.

Abstract: A system comprises a robotic arm, camera, and a controller. The camera is positioned on a surface of the robotic arm and emits a laser signal at an upward, non-zero angle relative to a longitudinal axis of the robotic arm. The controller instructs the robotic arm to grip a milking cup, and determines a position of a teat of the dairy livestock based at least in part upon the non-zero angle of the laser signal emitted by the camera. The controller instructs the robotic arm to move the milking cup towards the determined position of the teat between the hind legs of the dairy livestock from the rear, release the milking cup in response to the milking cup being attached to the teat. move in an upward direction towards an udder of the dairy livestock in conjunction with the robotic arm releasing the milking cup, and to move away from the teat.

Abstract: A system that includes a laser, a three-dimensional (3D) camera, a memory, and a processor. The processor is configured to determine the position of a first teat candidate relative to a second teat candidate, assign the first teat candidate and the second teat candidate as a left teat candidate or right teat candidate, and receive a teat identifier for a target teat. The processor is configured to determine whether the left or right teat candidate is within a teat location range of the target teat and to link the teat identifier with the left teat candidate or right teat candidate based on the determination.

Abstract: A system includes a linear carriage track positioned adjacent to a rotary milking platform, a robot carriage positioned on the carriage track such that the robot carriage may move along the carriage track from a first linear position to a second linear position, and a controller. The controller determines a movement of a milking stall of the rotary milking platform from a first rotational position to a second rotational position. The controller further determines the second linear position of the robot carriage on the carriage track corresponding to the movement of the milking stall of the rotary milking platform. The controller also communicates a position signal to a carriage actuator coupled to the robot carriage and the carriage track. The position signal causes the carriage actuator to move the robot carriage along the carriage track from the first linear position to the second linear position in conjunction with the movement of the rotary milking platform.

Abstract: A system that includes a laser, a memory, and a processor. The processor is configured to receive a teat position associated with an unknown teat, determine a first position distance between the teat position and a first teat, determine a second position distance between the teat position and a second teat, determine a third position distance between the teat position and a third teat, and determine a fourth position distance between the teat position and a fourth teat. The processor is further configured to compare the first position distance, the second position distance, the third position distance, and the fourth position distance to determine a smallest position distance from the unknown teat, identify a teat of the dairy livestock corresponding with the smallest position distance, associate a teat identifier for the unknown teat with the identified teat, and store the association in the memory.

Abstract: This invention is related to a double grab, its rinsing cup and milking machine provided therewith, and the method for automatically applying test cups to the teats of an udder of an animal to be milked. The double grab according to the invention includes: —a first housing part provided with a first magnet designed to hold a first teat cup; —a second housing part, installed substantially in a horizontal plane next to the first housing part, provided with a second magnet designed to hold a second teat cup; —whereby each housing part is provided with separate pivoting means that can be activated and is designed to make the related housing part pivot around a pivoting axis which in use, extends substantially in a horizontal direction, substantially in a widthwise direction of the arm.

Abstract: A system that includes a laser configured to generate a profile signal of at least a portion of a dairy livestock, a memory operable to store a teat detection rule set, and a processor. The processor is configured to obtain the profile signal and detect one or more edge pair candidates in the profile signal, compare the complementary distance gradients of each of the one or more edge pair candidates to a minimum distance gradient length to be considered an edge pair, and identify one or more edge pairs from among the one or more edge pair candidates based on the comparison. The processor is further configured to apply the teat detection rule set to the one or more edge pairs to identify one or more teat candidates from among the one or more edge pairs and determine position information for the one or more teat candidates.

Abstract: A method comprises receiving a flow of milk at an inlet of a manifold. The inlet comprises a first end coupled to a hose that receives a flow of milk from a teat cup and a second end terminating in a chamber of the manifold. The manifold comprises one or more other inlets and a plurality of outlets. The plurality of outlets includes one or more milk collector outlets and one or more drain outlets. The method proceeds by causing the flow of milk to be directed to a corresponding milk collector outlet by causing a shut-off valve corresponding to the inlet to open, and by causing a drain valve corresponding to the inlet to close. The method concludes by causing the flow of milk to be directed to a corresponding drain outlet by causing the drain valve corresponding to the inlet to open.

Abstract: A system comprises a milking box, a robotic attacher, a sensor, and a controller. The milking box has a stall to accommodate a dairy livestock. The stall comprises a first exit gate on a first side of the stall leading to a first sorting region and a second exit gate on a second side of the stall leading to a second sorting region. The robotic attacher extends from the rear between the hind legs of the dairy livestock. The sensor identifies the dairy livestock within the milking box stall. The controller selects and opens the first exit gate or the second exit gate based at least in part upon the identity of the dairy livestock in order to direct the first dairy livestock into either the first sorting region or the second sorting region.

Abstract: A valve apparatus comprises a housing, a solenoid operable to receive electrical current flow, and an enclosure, the enclosure housing the solenoid, a magnet coupled to the enclosure, a plunger comprising a stopper and a conductive portion, and a spring coupled to the plunger. When the solenoid receives a first current, the solenoid applies a first magnetic force onto the plunger causing the stopper to disengage from the housing outlet, the conductive portion of the plunger magnetically connects with the magnet, and the stopper remains disengaged from the housing outlet after the first period of time expires. When the conductive portion is magnetically connected to the magnet and the solenoid receives a second current, the solenoid applies a second magnetic force onto the plunger causing the conductive portion of the plunger to disconnect from the magnet so that the stopper engages with the housing outlet.

Abstract: Milking box or boxes for cows, each milking box having two entrance fences for entry and two exit fences, wherein one first entrance fence and one first exit fence form a first pair of fences positioned at a first side, and one second entrance fence and one second exit fence form a second pair of fences at a second side which is opposite the first side. This type of milking box used in a cow stable further comprises resting boxes, at least one feeder trough, a separation zone or zones, and walking paths, wherein at least the resting boxes are placed at the first side of the milking box or boxes, and that at the second side of the milking box or boxes at least one is placed selected from the group comprising at least one feeder trough, a separation zone or zones, or outdoors.

Abstract: A method of operating a robotic attacher, comprises extending a robotic attacher between the legs of a dairy livestock. The method further comprises attaching milking equipment to the dairy livestock using a gripping portion of the robotic attacher during a milking operation, wherein the gripping portion has a nozzle that is positioned away from a teat of the dairy livestock during the milking operation. The method further comprises rotating the gripping portion of the robotic attacher so that the nozzle is positioned to face a teat of the dairy livestock during a spraying operation.

Abstract: A system for operating a robotic arm, comprises a camera, a controller and a robotic arm. The camera captures an image of a rear of a dairy livestock located in a stall of a rotary milking platform. The controller receives the image and in conjunction with the stall of the rotary milking platform in which a dairy livestock is located moving into an area adjacent a robotic arm, determines whether a milking cluster is attached to the dairy livestock based at least in part upon the image. 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 milking robot comprises a frame that is movable along a guide track that is positioned adjacent to a rotary platform such that the frame can move in conjunction with the movement of the rotary platform. The milking robot further comprises a moveable arm having a first end that couples to the frame and a second end that extends in a longitudinal direction, and at least one gripper coupled to the movable arm at the second end. The gripper is extendable in the longitudinal direction of the movable arm.

Abstract: In certain embodiments, a system for applying disinfectant to the teats of a dairy livestock includes a carriage mounted on a track, the carriage operable to translate laterally along the track. The system further includes a robotic arm including a first member pivotally attached to the carriage such that the first member may rotate about a point of attachment to the carriage, a second member pivotally attached to the first member such that the second member may rotate about a point of attachment to the first member, and a spray tool member pivotally attached to the second member such that the spray tool member may rotate about a point of attachment to the second member. The robotic arm further includes a spray tool attached to the spray tool member.

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.