Abstract: A milk cart comprises a chassis, a storage tank coupled to the chassis, and a conveyor system comprising an exit configured to connect to a return line that terminates inside the storage tank. The return line comprises a first portion extending vertically towards a bottom of the inside of the storage tank, a second portion extending vertically in a direction towards a top of the inside the storage tank, and a base portion extending from the first portion to the second portion. The second portion is positioned at a lateral distance from an interior of a wall of the storage tank and further comprises an upper end comprising at least one opening.

Abstract: A space divider of a milking parlor arrangement for at least one milking parlor for milking milk-producing animals, wherein the space divider is arranged approximately parallel to a longitudinal axis of the animal to be milked, has an arm device having a milking cluster, which can be adjusted from a parking position to a working position and back. The arm device is arranged with the milking cluster in the parking position in the space divider and can be adjusted into the working position laterally to the animal to be milked between the front and rear legs thereof. The space divider may include a replaceable service unit.

Abstract: A milking arrangement includes robot milking stations connected to a milk conduit with an outlet end. A connection conduit connected to the outlet end includes an outlet member. A cleaning device for cleaning the milk conduit includes a cleaning conduit having a first connection member. A milk tank includes a second connection member. The outlet member is movable between and connectable to the first connection member in a primary state, and to the second connection member in a secondary state. A controller communicates with the milking stations, the cleaning device and a user interface. When determined to change the state, measures for preparing the arrangement for the change are automatically performed. Thereafter, the user interface indicates to an operator that the arrangement is ready for the change.

Abstract: A milking system includes several milking devices, each having a milk-carrying part, a temporary milk storage vessel, a milk pipe system, a milk storage tank, and a main milk pipe, which connects the temporary milk storage vessel to the milk storage tank. The milking system includes a first cleaning device having at least one first cleaning liquid supply and at least a pump, which cleaning device is configured to clean at least the milk-carrying part of at least one milking device and a part of the milk pipe system which connects the milk-carrying part to the temporary milk storage vessel, by transferring cleaning liquid from the cleaning liquid supply through at least the milk-carrying part of the at least one milking device and through said part of the milk pipe system to the temporary milk storage vessel by pumping. The temporary milk storage vessel includes a main pump for transferring liquid from the temporary milk storage vessel through the main milk pipe in the direction of the milk storage tank.

Abstract: A method of tending to livestock within a livestock confinement facility includes a vehicle having a support frame, a drive unit, and an elevated platform. The support frame extends vertically upward from a base and has a lower portion and an upper portion with the drive unit being operatively attached to the base. The elevated platform is affixed to the upper portion of the support frame and configured to support an operator thereon while moving along the livestock confinement facility. The method includes supporting the operator on the elevated platform within the livestock confinement facility. The method further includes moving the vehicle along a floor of the livestock confinement facility in order to move the operator along the livestock confinement facility from atop the elevated platform such that the operator tends to livestock from atop the elevated platform.

Abstract: A system for storing and cooling milk includes a cooling tank to store milk, a first sensor monitoring the filling level of milk in the cooling tank, and a cooling system cooling the milk in the cooling tank including a cooling device, a second sensor, and a control device. The cooling device includes an evaporator, a varying-capacity modulated scroll compressor connected with its suction side to the evaporator, a condenser connected to the high pressure side of the compressor, and an expansion valve interconnected between the condenser and the evaporator. The second sensor monitors a parameter indicative of the pressure at the suction side of the compressor. The control device is operatively connected to the first sensor to receive the monitored filling level, the second sensor to receive the monitored parameter, and the compressor to control the capacity thereof in response to the monitored filling level and the monitored parameter.

Abstract: A milking system includes a milking device, and a milk storage system having: a temporary milk storage vessel for temporarily storing milk from a plurality of milking operations, a milk pipe from the milking device to the temporary milk storage vessel, a milk tank for storing the milk from the temporary milk storage vessel, a control unit, a main milk pipe from the temporary milk storage vessel to the milk tank, a pressurized liquid supply which is controllable by the control unit and is provided and configured to supply a pressurized liquid, other than milk, to the milk storage system, a first and a second discharge provided on the main milk pipe, a selection device which is controllable by the control unit and is on the main milk pipe towards the first discharge or the second discharge, wherein the control unit is configured to perform a milk transferring action for transferring milk in the main milk pipe into the milk tank with the aid of the pressurized liquid, wherein the liquid transferring action inclu

Abstract: A process for cooling liquids wherein a coolant is cooled in a chiller during off-peak electrical demand periods, then directed to a first insulated storage vessel where it is stored until off-peak electrical demand periods have ended. During peak electrical demand periods, the coolant flows from the first insulated storage vessel to a flat plate heat exchanger, where a flow of liquid to be cooled, entering through a second conduit, is cooled. The cooled liquid exiting the heat exchanger is directed to a second insulated storage vessel where little or no further cooling of the liquid will be necessary during peak electrical demand periods.

Abstract: Example embodiments of the present invention relate to methods and arrangements for cooling milk in a milk storage tank of an automatic milking system comprising (i) measuring an amount of extracted milk by a milk flow meter; (ii) determining a cooling need for milk stored or to be stored in the milk storage tank based on the amount of milk; (iii) measuring a quantity indicative of a temperature of an inner surface area of a bottom portion of the milk storage tank; and cooling the bottom portion of the milk storage tank in consecutive periods, such that each period of cooling (?1, ?3) is followed by a respective period of non-cooling (?2, ?4), wherein the duration of each period of cooling and/or non-cooling is based on the measured quantity indicative of the inner surface area temperature, and the cooling need.

Abstract: A process for cooling liquids wherein a coolant is cooled in a chiller during off-peak electrical demand periods, then directed to a first insulated storage vessel where it is stored until off-peak electrical demand periods have ended. During peak electrical demand periods, the coolant flows from the first insulated storage vessel to a flat plate heat exchanger, where a flow of liquid to be cooled, entering through a second conduit, is cooled. The cooled liquid exiting the heat exchanger is directed to a second insulated storage vessel where little or no further cooling of the liquid will be necessary during peak electrical demand periods.

Abstract: The present invention relates to a method for cooling milk in a milk storage tank of an automatic milling system comprising the steps of (i) measuring an amount of extracted milk by means of a milk flow meter, (ii) determining a cooling need for milk stored or to be stored in said milk storage tank based on said amount of milk; (iii) measuring a quantity indicative of a temperature of an inner surface area of a bottom portion of the milk storage tank; and cooling said bottom portion of said milk storage tank in consecutive periods, such that each period of cooling (&tgr;1, &tgr;3) is followed by a respective period of non-cooling (&tgr;2, &tgr;4), wherein the duration of each period of cooling and/or noncooling is based on said measured quantity indicative of said inner surface area temperature, and said cooling need. The invention also relates to an arrangement for performing the method.

Abstract: A process for cooling liquids wherein a coolant is cooled in a chiller during off-peak electrical demand periods, then directed to a first insulated storage vessel where it is stored until off-peak electrical demand periods have ended. During peak electrical demand periods, the coolant flows from the first insulated storage vessel to a flat plate heat exchanger, where a flow of liquid to be cooled, entering through a second conduit, is cooled. The cooled liquid exiting the heat exchanger is directed to a second insulated storage vessel where little or no further cooling of the liquid will be necessary during peak electrical demand periods.

Abstract: The invention relates to a device (3) for taking a milk sample, which device (3) is provided with a first milk sampling device (4), the device (3) comprising switch means (6) with the aid of which cooling means (8) for cooling a sample liquid taken by the first milk sampling device (4) are activated automatically or manually.