Abstract:
Example embodiments related to a method of automatically milking animals, wherein the animals are allowed to move in area intended therefore. The area may include a resting area and a feeding area housing a milking station, whereby the animals are allowed to visit individually and which a selected group of the animals have to visit in order to move from the resting area to the feeding area. The method may establish a condition for low utilization of the milking station; and feed the animals by a feeding device when the condition for low utilization of the automatic milking machine is met to thereby entice animals in the resting area to move to the feeding area and to therewith present themselves at the milking station.
Abstract:
An apparatus for automatically milking an animal, comprising at least one teatcup having a teat entrance end (17a), and a movable arm (6, 40) for moving the teatcup toward a teat of an animal to be milked and attaching it thereto. The teat entrance end of the teatcup is arranged, while being moved by the movable arm (6, 40) toward the teat, to be held in relation to the movable arm (6, 40) at a level which is different from that of the teat entrance end (17a) of a further teatcup, when held in relation to the movable arm.
Abstract:
The present invention relates to a teat cleaning device having cleaning surfaces (27) on a base (9) wherein the cleaning surfaces (27) can be moved from a first position near to the periphery of said base (9) to a second position nearer to the center of said base (9).
Abstract:
A bolus, for introduction into a ruminant animal's reticulum to register pressure signals transmitted through fluids therein, has a case unit adapted for immersion in the fluids. A mechanical amplifier element extends out from the case unit and is adapted to be surrounded by the fluids in the reticulum and absorb mechanical energy from the pressure signals. A guide part conveys mechanical energy from the mechanical amplifier element to a sensor module in the interior of the case unit. The sensor module transduces the pressure signals into electric signals from which a processing module extracts data representing body movements, a heart beat rate, a respiratory rate, a respiratory depth and/or stomach activity of the animal. A communication module in the case unit receives the data and transmits output radio signals reflecting the data.
Abstract:
An apparatus for milking an animal provides a milking parlor (1) with a robotic manipulation device (25) and a milking stall (5) provided on a platform (3) moveable relative to the robotic manipulation device (25). An electric control system is adapted to vary the movement of the platform in response to the performance of the robotic manipulation device (25) in servicing the milking stall (5).
Abstract:
The present invention relates to a milking system comprising a first and at least a second animal area cluster, wherein each of the animal area cluster comprises at least one animal area and each animal area comprises at least one milking point, and where the first and at least second animal area cluster are arranged side by side characterised in a tunnel connecting each milking point in the first and second animal area cluster.
Abstract:
An automatic milking apparatus comprises a milking equipment having at least one teatcup (11), a robot arm (8) for attaching a teatcup to an animal's teat, an animal identification means (5, 6) for allowing identification of an animal individual, and an animal space (1) provided with an animal accepting/rejecting means (2) associated with a control means. A method of controlling the automatic milking apparatus is also described. According to the invention, said control means is programmed to allow an animal substantially in the beginning of its lactation period to be milked more often than in a later stage thereof.
Abstract:
The present invention relates to an apparatus and a method for recognizing and determining the position of a part of an animal. The apparatus comprises a source of structured light for illuminating a region expected to contain at least one part in such a way that an object illuminated by the light simultaneously or discrete in time is partitioned into at least two illuminated areas, where each two illuminated areas are separated by a not illuminated area, an image capture device arranged to capture at least one image formed by the light and provide an image signal, the apparatus further comprising image signal processing device to respond to the captured image signal and a control device to determine if the illuminated object is the part by comparing the image of the illuminated object to reference criteria defining different objects, and if the illuminated object is established to be the part of the animal, the position thereof is established, an animal related device and the device to guide the animal related device towards to the position of the part.
Abstract:
A milking parlor for animals comprising at least one milking stall arranged to receive an animal in a predetermined milking position, teat cups arranged to be used in milking the animal in the milking stall, a teat cup carrier arranged to store the teat cups in the milking stall when they are not used, and at least one robot arm provided with at least one gripping member arranged to grip a teat cup in the teat cup carrier and attach the teat cup on the teat of an animal in the milking stall. The teat cup carrier stores the teat cups in a storing area located at least partly in front of the front legs of the animal with respect to the direction of the animal when it stands in the predetermined milking position in the milking stall.
Abstract:
A monitoring unit (100) that determines parameters (p1, p2) of an attribute (P) of a liquid substance flowing (F) through a dielectric conduit (110) includes plural coil members (121, 122) encircling the dielectric conduit (110) that subjects a flow of the liquid substance to plural different electromagnetic fields (B(f)), and under influence thereof measuring circuitry registers corresponding impedance measures (z(f)) of the liquid substance. A processor (130) derives the parameters (p1, p2) of the attribute (P) based on the registered impedance measures (z(f)).