A method for milking a dairy animal using a milking device with a measuring device for a milk parameter, the method including identifying the dairy animal, determining a milking interval, attaching milking cups to the dairy animal, calculating, according to a first formula, an expected value for the milk parameter, milking the dairy animal, and detaching the milking cup when a first detachment criterion has been met. During the milking step and/or during the detaching step, use is made of the expected value of the milk parameter without determining the actual value of the milk parameter. The actual value is the value of the milk parameter if the milking takes place using a second detachment criterion which is stricter than the first detachment criterion. The method further includes measuring the actual value of the milk parameter for the present milking and updating the first formula.

Disclosed is a mechanical manifold valve for robotic milking that is designed to operate at varying pressures, and which is operated automatically according to the pressure in at least one of the teat cups, such that the pressure in that teat cup influences the operation of the manifold valve, thereby controlling the pressure in at least one additional teat cup.

An automatic milking system controlled by receiving a parameter representing a measured flow of milk extracted from at least one teat of an udder of an animal being milked in a milking operation via at least one teatcup of the milking system, wherein the milking system is controlled to stop the milking operation based on a first criterion indicating that the flow has reached a decline phase, and a second criterion indicating that the flow decreases faster than a threshold slope, the milking operation being stopped in response to fulfillment of the second criterion on or after a point in time when the first criterion has been fulfilled. As a result, a particular amount of milk is left in the udder of the animal, irrespective of an overall milking time for the animal.

An automatic milking system controlled by receiving a parameter representing a measured flow of milk extracted from at least one teat of an udder of an animal being milked in a milking operation via at least one teatcup of the milking system, wherein the milking system is controlled to stop the milking operation based on a first criterion indicating that the flow has reached a decline phase, and a second criterion indicating that the flow decreases faster than a threshold slope, the milking operation being stopped in response to fulfillment of the second criterion on or after a point in time when the first criterion has been fulfilled. As a result, a particular amount of milk is left in the udder of the animal, irrespective of an overall milking time for the animal.

A milking arrangement comprising a milking machine for milking an animal, wherein the milking arrangement comprises a control unit that is configured to obtain identity of the animal in connection with milking of the animal, obtain a reference point in time of a lactation cycle of the identified animal, determine to take at least one milk sample of the animal, when a predetermined time period has passed from the reference point in time; obtain a Haptoglobin level from the milk sample, compare the obtained Haptoglobin level with a Haptoglobin reference limit, and indicate health condition of the animal, based on the made comparison.

A milking system configured to milk animals includes a milking station, a first milk tank, and a second milk tank, a controllable valve arrangement configured to open or close a first branch and to open or close a second branch of a milk transport conduit, to control to which tank that milk is transported, and a control device configured to control the controllable valve arrangement. The milking system includes a sensor configured to sense a property of milk present in the first milk tank or of milk flowing towards the first milk tank, or a sensor configured to sense a property of a cooling arrangement for controlling the temperature of the milk in the first milk tank. The control device is configured to control the controllable valve arrangement based on information from the sensor.

A drive unit causes a rotating platform of a rotary milking parlor arrangement to move in a direction of rotation. The drive unit includes first and second drive motors arranged to engage a drive rail of the rotating platform and act on a respective side of the drive rail to cause the rotating platform to move. Each of the drive motors produces a respective pace signal indicating a rotational speed of the drive motor in question. A control unit receives the pace signals from each of the drive motors in each drive unit. The control unit compares the pace signal from the first drive motor with the pace signal from the second drive motor from each drive unit to establish a respective difference in the rotational speeds in the drive unit. If the difference exceeds a threshold value, the control unit triggers an alarm.

A milking system configured to milk animals includes at least one milking station, a milk tank, a transport conduit, a valve arrangement, and a cleaning arrangement that includes a delivery arrangement configured to deliver a first liquid into the milk transport conduit and to deliver a second liquid into the milk transport conduit, a pump, a controller configured to control the delivery arrangement, and a detector configured to detect that a delivery of the first liquid into milk transport conduit has ended. The detector is connected to the controller, which is configured, as a response to a signal from the detector that the delivery of the first liquid has ended, to activate the delivery arrangement to deliver the second liquid into the milk transport conduit subsequently to the ending of the delivery of the first liquid while there is a column of first liquid in the milk transport conduit.

A milking system configured to milk animals includes at least one milking station, a milk tank, a transport conduit, a valve arrangement, and a cleaning arrangement that includes a delivery arrangement configured to deliver a first liquid into the milk transport conduit and to deliver a second liquid into the milk transport conduit, a pump, a controller configured to control the delivery arrangement, and a detector configured to detect that a delivery of the first liquid into milk transport conduit has ended. The detector is connected to the controller, which is configured, as a response to a signal from the detector that the delivery of the first liquid has ended, to activate the delivery arrangement to deliver the second liquid into the milk transport conduit subsequently to the ending of the delivery of the first liquid while there is a column of first liquid in the milk transport conduit.

The present invention relates to a method for controlling devices within an agricultural network system via a network bus such as a physical network bus or a logical network bus, wherein the devices are controlled by means of control information which is transmitted to the devices by means of messages comprising a content and a header title, the method comprising steps for:—determining a function for performing thereof by a device in the network,—determining the content of a message to be transmitted,—compiling header title information for inclusion thereof in a header title for the message to be transmitted, wherein—the header title information comprises a predetermined number of data fields, such as preferably a network identifier, a device type designation, a function designation, a location designation and/or a group designation, for the purpose of determining on the basis of compliance with one or more of these data fields which device or devices receive(s) the message.