Static plant for preparing feed mixes for ruminant livestock, having a conveyor unit for conveying the feed mix ingredients, chain and/or screw feeders, feeders with weight sensors and supplementary conveyor belt, silos of solid ingredients, and silos of liquid ingredients, independently supplying two or more high-capacity mixers, via the conveyor unit by a dual flow, the mixers including weight control means, laser sensors and strain gauges. The invention allows for mixing to be controlled with increased accuracy and, consequently, improving the quality of the mix, using fully automated continuous operating cycles, the resulting mix being discharged onto any type of known device using discharging means, for its distribution.

In order to provide a feed mixture, a feed mixer is proposed which has a container. The container has a bottom and a wall which is connected to the bottom and delimits a filling opening, the area of which is greater than the area of the bottom. A rotatable auger is provided which can be rotated about an axis, the axis running substantially perpendicularly with respect to the bottom. The feed mixer has a pivoting device which is intended and suitable for pivoting the container during a mixing operation, in particular after a predefined time period or after a predefined number of revolutions of the at least one auger.

No new matter is added.

Described herein is an exemplary feed mixer apparatus that includes a feed mixer apparatus that includes, a mixing chamber for receiving feed, and having a mixing element situated therein for mixing the feed, a transmission having a plurality of gears and connected with a mixing element, a drive system having a plurality of drive system components, including the transmission, a torque sensor interconnected with at least one drive system component, a control unit having a display and a plurality of user inputs, wherein the control unit is in at least indirect communication with the transmission and the torque sensor, and wherein the control unit receives a plurality of outputs from one or more of the transmission and torque sensor, and based at least in part on the plurality of outputs, provides an output command to effectuate a gear change in the transmission.

Described herein is an exemplary torque sensing assembly for a feed mixer that includes, a frame of a feed mixer, the frame having a first frame portion and a second frame portion; a transmission having at least two speeds, a housing, an input shaft, and an output shaft, a load cell secured to a second frame portion of the frame; a mounting plate having a first side portion and a second side portion situated opposite the first side, the transmission secured by a plurality of fasteners to a top surface of the mounting plate, hinge rotatably connecting the first side portion to the first frame portion, and a load contact point situated in contact with the load cell, wherein a resultant torque is impartable to the housing to provide a downward force on the load cell, via the load contact point.

Described herein is an exemplary feed mixer apparatus that includes a mixing chamber for receiving feed material, and having a mixing element situated therein for mixing the feed material; a transmission having a plurality of gears and connected with a mixing element; a control unit having a display and a plurality of control panel inputs, wherein the control unit is in at least indirect communication with the transmission and the sensors, and wherein the control unit receives a plurality of outputs from one or more of the transmission and sensors, and based at least in part on the plurality of outputs, provides an output command to effectuate a gear change in the transmission, and wherein the control unit includes a processor, a memory, and a control program

Described herein is an exemplary feed mixer apparatus that includes a mixing chamber for receiving feed material, and having a mixing element situated therein for mixing the feed material; a transmission having a plurality of gears and connected with a mixing element; a plurality of mixing chamber sensors positioned to sense at least one of the volume and the level of feed material in the mixing chamber; a control unit having a display and a plurality of user inputs, wherein the control unit is in at least indirect communication with the transmission and the sensors, and wherein the control unit receives a plurality of outputs from one or more of the transmission and sensors, and based at least in part on the plurality of outputs, provides an output command to effectuate a gear change in the transmission.

A method and apparatus for feeding livestock is presented. The method includes feeding livestock using a mobile feed preparation apparatus comprising a processor and a first non-transitory computer readable medium in communication with the processor, wherein the mobile feed preparation apparatus can dispense a plurality of feed rations, each feed ration comprising a base feed and at least one of a plurality of feed additives. The method includes dispensing from the mobile feed preparation apparatus a first feed ration comprising the base feed and a first feed additive, wherein the dispensed first feed ration comprises a dispensed amount of the first feed additive.

A feed mixer for mixing material. The feed mixer includes a tub that defines a tub interior. A rotatable screw assembly is located in the tub interior. A conveyor assembly is pivotably located along an outer surface of the tub at a discharge opening. The screw assembly moves material towards the conveyor assembly as the screw assembly rotates. The conveyor assembly includes a conveyor and a positioning system configured to move the conveyor between a conveying state, a stowed state, and a maintenance state.

This disclosure presents a reptile cricket powder mixer, which comprises a shell, including a primary shell with primary through-holes provided on its lower surface at an interval and a secondary shell which is movably mounted at the lower end of the primary shell and is used to store calcium powder; an upper cover, which is mounted at the upper end of the primary shell; a powder adjusting ring, which is fixed inside the secondary shell, and secondary through-holes are provided on the surface of the ring at an interval aligned with the primary through-holes. In this disclosure, by rotating the secondary shell, you can change the area of alignment of the primary through-holes with the secondary through-holes, so as to control the quantity of the powder entering to or from the first or the secondary shell, or to conveniently recycle any excessive powder in the primary shell.

A treatment device for a liquid may include an air compressor configured to generate compressed air and an air dryer coupled downstream from the air compressor. The treatment device may also include an oxygen concentrator coupled downstream from the air dryer and configured to separate nitrogen and oxygen from the compressed dry air and output the nitrogen to the air dryer. The treatment device may also include an oxygen nanobubble generator coupled downstream from the oxygen concentrator and configured to generate oxygen nanobubbles within the liquid.