A track system for a vehicle, the vehicle having a drive axle, the track system comprising a drive sprocket including a hub structured to be connected to the drive axle, a plurality of teeth radially outward of the hub, a rim at least indirectly attached to the hub, the rim including: a body, a body outer surface, a recess in the rim body inward of the body outer surface, a resiliently deformable ring disposed in the recess, the ring structured and arranged with respect to the body so as to be less rigid than the body, a resiliently deformable tread extending outwardly of the rim-outer surface, the tread connected to the ring, a resiliently deformable track disposed around the drive sprocket, the track having a track-inner surface in contact with the tread.

A ground-engaging track system includes a track having a first track chain and a second track chain, and an idler having pockets formed in an outer idler rim to receive inboard rail protrusions on track links in the first track chain and the second track chain. The inboard rail protrusions project from an inboard link side, and a central pad of an upper rail surface in the track link includes an anti-scalloping bump-out formed on the inboard rail protrusion.

A ground-engaging track system includes a track having a first track chain and a second track chain, and an idler having pockets formed in an outer idler rim to receive inboard rail protrusions on track links in the first track chain and the second track chain. The inboard rail protrusions project from an inboard link side, and a central pad of an upper rail surface in the track link includes an anti-scalloping bump-out formed on the inboard rail protrusion.

An apparatus includes a base frame, first and second bins, first and second hydraulic assemblies, and a computer controller. The first hydraulic assembly is configured to selectively raise and lower the first bin relative to the base frame. The second hydraulic assembly is configured to selectively raise and lower the second bin relative to the base frame. The first and second hydraulic assemblies are individually actuable, and their actuation is coordinated by the controller. In another aspect, a method for transferring product using an apparatus includes inputting to a computer controller a first threshold rate of change in weight signals of a weight sensor; relaying a plurality of weight signals from the weight sensor to the controller; calculating a determination by the controller at least in part on whether the threshold rate of change has been exceeded; and automating actuation of a hydraulic assembly based on the determination.

To provide an idler of a crawler-type traveling device which secures the strength while suppressing an increase in the weight and cost, and a crawler-type traveling device provided with the same. An idler includes a hub section that is axially supported; a rim section that is disposed coaxially with the hub section; and plates that connect the hub section and the rim section. At least one of the hub section and the rim section has flange sections that rise toward the other. The plates are mounted to the flange sections.

To provide an idler of a crawler-type traveling device which secures the strength while suppressing an increase in the weight and cost, and a crawler-type traveling device provided with the same. An idler includes a hub section that is axially supported; a rim section that is disposed coaxially with the hub section; and plates that connect the hub section and the rim section. At least one of the hub section and the rim section has flange sections that rise toward the other. The plates are mounted to the flange sections.

Machine suitable for driving posts into the ground, in particular for a vineyard or orchard trellising structure, at predefined locations, with centimetric precision, the machine comprising: an electronic control unit, a GPS sensor, a driving column mounted on a vehicle chassis, via an articulated positioning adjustment system, the column comprising a pole and a slide mounted so as to be able to slide substantially vertically, a driving bell mounted on the slide, a post guiding device, which comprises a gripper mounted on the slide and a guide shoe mounted at the base of the pole, the guide shoe being able to move between a working position and a retracted position, the articulated positioning adjustment system allowing the driving bell and the guiding device to be positioned directly above one of the predefined locations and to drive the post in vertically there.

Machine suitable for driving posts into the ground, in particular for a vineyard or orchard trellising structure, at predefined locations, with centimetric precision, the machine comprising: an electronic control unit, a GPS sensor, a driving column mounted on a vehicle chassis, via an articulated positioning adjustment system, the column comprising a pole and a slide mounted so as to be able to slide substantially vertically, a driving bell mounted on the slide, a post guiding device, which comprises a gripper mounted on the slide and a guide shoe mounted at the base of the pole, the guide shoe being able to move between a working position and a retracted position, the articulated positioning adjustment system allowing the driving bell and the guiding device to be positioned directly above one of the predefined locations and to drive the post in vertically there.

A walk-behind, powered device includes an engine, a chassis configured to support the engine, a mobility assembly including a mobility assembly frame, a working assembly operably coupled to the engine to perform a working function responsive at least in part to operation of the engine, a control panel operably coupled to the chassis and comprising a control operator, and a height adjuster. The mobility assembly frame is configured to pivot relative to the chassis. The working assembly has a fixed orientation relative to the chassis. The height adjuster is configured to control positioning of the chassis relative to the mobility assembly frame based on a length of the height adjuster. The length of the height adjuster is changeable based on positioning of the control operator.

A walk-behind, powered device includes an engine, a chassis configured to support the engine, a mobility assembly including a mobility assembly frame, a working assembly operably coupled to the engine to perform a working function responsive at least in part to operation of the engine, a control panel operably coupled to the chassis and comprising a control operator, and a height adjuster. The mobility assembly frame is configured to pivot relative to the chassis. The working assembly has a fixed orientation relative to the chassis. The height adjuster is configured to control positioning of the chassis relative to the mobility assembly frame based on a length of the height adjuster. The length of the height adjuster is changeable based on positioning of the control operator.