A forage bale feed out apparatus is described. The apparatus comprises a chassis arranged to be operatively mounted on or in association with a vehicle in use; feed out means comprising a feed out roller having an axis of rotational symmetry about which the roller is arranged to rotate, a drive motor arranged to rotate the feed out roller, conveying means for urging a bale towards said feed out roller as the size of a bale diminishes. The feed out roller is located at a feed out region, and the conveying means is orientated such that the end of the conveying means proximate the feed out region is elevated towards the axis of rotational symmetry of the feed out roller. The apparatus further comprises a spreader tool adapted to spread and distribute the forage bale portions fed out from the feed roller at the feed out region, wherein the spreader comprises a roller having an axis of rotational symmetry about which the roller is arranged to rotate. The spreader roller has radially extending tines at intervals which tines co operate in use to spread feed from a bale, and further comprising a spreader drive motor arranged to rotate the spreader roller, wherein the feed out roller and the spreader roller are parallel and driven in opposite directions.

A bale processor has a towed body that includes one or two hay bale shredders in the form of a flail drum. The bale processor is self-loading such that bales may be loaded in the processing tubs by a set of rear mounted arms and various conveyor chains. The processor also includes a grain tank, a grain metering system, and a grain cracker, all mounted in series. The grain cracker may have a choice of outputs, including back to the grain tank. The cracked grain is fed into the tub to be mixed with other feed materials, such as shredded straw, and is then discharged to the opposite side of the unit. There may be a feed chopper mounted downstream of the tub, such that the feed chopper receives both the grain material and the shredded hay feed. The feed chopper and the grain cracker operate independently, and may have different setting of size, speed, and weight or volume per minute or per unit of distance travelled. The output may have a curtain assembly to facilitate deposit in windrows.

A bale processor has a towed body that includes one or two hay bale shredders in the form of a flail drum. The bale processor is self-loading such that bales may be loaded in the processing tubs by a set of rear mounted arms and various conveyor chains. The processor also includes a grain tank, a grain metering system, and a grain cracker, all mounted in series. The grain cracker may have a choice of outputs, including back to the grain tank. The cracked grain is fed into the tub to be mixed with other feed materials, such as shredded straw, and is then discharged to the opposite side of the unit. There may be a feed chopper mounted downstream of the tub, such that the feed chopper receives both the grain material and the shredded hay feed. The feed chopper and the grain cracker operate independently, and may have different setting of size, speed, and weight or volume per minute or per unit of distance travelled. The output may have a curtain assembly to facilitate deposit in windrows.

An implement includes a bale cutting device, which includes a carrier that can be pivoted about a pivot axis, and a support connected to the carrier. A cutter bar is attached to and supported by the support so as to be movable at least substantially in the direction of a longitudinal extent of the support. The implement may include at least one pick-up for engaging a bale. In operation, the cutter bar is positioned on a far side of the bale, with the bale between the carrier and the cutter bar. The cutter bar may then be drawn inward into the bale to cut the bale approximately in half.

A dual rotary cutter bale processor operable in a first mode for producing ground material and dispersing ground material for a first use and a second mode for producing cut material and dispersing cut material from the processor for a second use, where the cut material is coarser than the ground material. Material is processed for feeding into a container, bunk, or tire, into windrows on the ground, making piles of material, spreading the material for use as animal bedding, and/or mulching newly seeded areas. A screen and moveable bypass door for each rotary cutter and a position of a deflector direct a cut path such that the bypass doors can be used to force the material through the screens to further reduce size of the material or the deflectors can be used so the material bypasses the screens for dispersal from the processor in a coarser state.

A straw processing system includes a straw pickup assembly, a straw chopper, and a straw distribution system. The straw pickup assembly picks up straw and passes it to the straw chopper for producing a straw feed stream flowing in a feed direction. The straw distribution system has a chamber with a feed inlet for receiving the straw feed stream, a central outlet, and at least a first outlet. The straw distribution system diverts at least a first fraction of straw from the straw feed into the first outlet in a first direction which is divergent from the feed direction. The central outlet discharges a fraction of the straw feed stream that continues to flow in the feed direction.

A work vehicle for working a swath of crop has at least one ground-engaging wheel or track mounted to the work vehicle and movable in a travel direction along a tread path. A first redistribution device is mounted to the work vehicle to move crop that is ahead of the at least one ground-engaging wheel or track relative to the travel direction. A second redistribution device is mounted to the work vehicle to move crop that is behind the at least one ground-engaging wheel or track relative to the travel direction. The first redistribution device is configured to open the swath of crop along substantially only the tread path ahead of the at least one ground-engaging wheel or track relative to the travel direction, and the second redistribution device is configured to close the swath of crop along the tread path behind the at least one ground-engaging wheel or track relative to the travel direction.

A work vehicle for working a swath of crop has at least one ground-engaging wheel or track mounted to the work vehicle and movable in a travel direction along a tread path. A first redistribution device is mounted to the work vehicle to move crop that is ahead of the at least one ground-engaging wheel or track relative to the travel direction. A second redistribution device is mounted to the work vehicle to move crop that is behind the at least one ground-engaging wheel or track relative to the travel direction. The first redistribution device is configured to open the swath of crop along substantially only the tread path ahead of the at least one ground-engaging wheel or track relative to the travel direction, and the second redistribution device is configured to close the swath of crop along the tread path behind the at least one ground-engaging wheel or track relative to the travel direction.

An apparatus and method for simulating the effects of dew are disclosed. The apparatus includes a moveable platform; a rotatable base, the rotatable base being connected to the platform; and a plurality of elongated rods for penetrating and spraying beneath the surface of a windrow. The rods radiate from a longitudinal axis of the rotatable base.

An apparatus and method for simulating the effects of dew are disclosed. The apparatus includes a moveable platform; a rotatable base, the rotatable base being connected to the platform; and a plurality of elongated rods for penetrating and spraying beneath the surface of a windrow. The rods radiate from a longitudinal axis of the rotatable base.