The present disclosure describes a fastening system for an agricultural system. The fastening system includes a first mounting plate coupled to a first component of the agricultural system and a second mounting plate coupled to a second component of the agricultural system, in which the second mounting plate is configured to be aligned with the first mounting plate. The fastening system also includes a coupling assembly coupled to the first mounting plate by at least one retaining fastener, in which the coupling assembly comprises two clamping plates configured to move from a first position that facilitates alignment of the first and second mounting plates to a second position that at least partially sandwiches the first and second mounting plates between the two clamping plates of the coupling assembly. The at least one retaining fastener extends through the two clamping plates of the coupling assembly. At least one alignment fastener also extends through the two clamping plates and is configured to be selectively tightened while the coupling assembly is in the second position to establish a compressive force that drives the two clamping plates to couple the aligned first and second mounting plates to one another.

A three point connection dolly for connecting an articulating tractor to a plow includes a dolly having a three point plow hitch configured to connect to a plow. The dolly also includes a chassis frame with a tractor hitch extension configured to extend the three point plow hitch a distance from the articulating tractor sufficient to allow rear wheels of the articulating tractor to fully turn.

A bifurcatable mobile rock crusher and method of transporting the same comprising providing a first segment which is separately towable on the highway and providing a second segment which is separately towable on the highway, where each segment is configured to be combined into one unit and towed as a unit on the highway.

The present disclosure describes a fastening system for an agricultural system. The fastening system includes a first mounting plate coupled to a first component of the agricultural system and a second mounting plate coupled to a second component of the agricultural system, in which the second mounting plate is configured to be aligned with the first mounting plate. The fastening system also includes a coupling assembly coupled to the first mounting plate by at least one retaining fastener, in which the coupling assembly comprises two clamping plates configured to move from a first position that facilitates alignment of the first and second mounting plates to a second position that at least partially sandwiches the first and second mounting plates between the two clamping plates of the coupling assembly. The at least one retaining fastener extends through the two clamping plates of the coupling assembly. At least one alignment fastener also extends through the two clamping plates and is configured to be selectively tightened while the coupling assembly is in the second position to establish a compressive force that drives the two clamping plates to couple the aligned first and second mounting plates to one another.

A tractor, including a frame, a power wheel and a connecting assembly. The power wheel is rotatably arranged on a bottom of the frame. The connecting assembly is arranged on the frame and is configured to be attached to a goods carrier. The power wheel is rotatable relative to the frame to drive the frame to move, so as to drive the goods carrier to move synchronously through the connecting assembly. The connecting assembly is configured to move back and forth along a first direction relative to the frame to render a relative position between the goods carrier and the frame adjustable along the first direction. The first direction is a travelling direction of the tractor.

A virtual guidance apparatus assists movement of a loader for connection of a tool carrier with an implement. A vision sensor device generates implement image data representative of an image of an implement adjacent to the tractor. Based on the implement image data relative difference data is generated representative of a relative position between an implement attachment feature that is mutually coupleable with a corresponding carrier attachment feature for coupling the tool carrier with the implement. Based on the relative difference data, alignment guidance data is generated representative of an incremental movement for moving the loader relative to the implement. A visual movement instruction is displayed based on the implement image data and the alignment guidance data superimposed on a viewable image of the implement. The visual movement instruction provides instructions to the operator for moving the loader relative to the implement for coupling the tool carrier with the implement.

A snow grooming vehicle comprising a support frame; an engine; two tracks mounted on opposite sides of the support frame itself, coupled to and driven by the engine; and comprising a first plurality of bristles arranged in a portion of the snow grooming vehicle adjacent to the track so as to capture the snow collected on the track.

A tractor includes a frame defines longitudinal (nominally forward and backward), lateral (nominally left and right), and transverse (nominally up and down) directions (mutually orthogonal). First and second side structures connect by a width adjustment structure comprising beams of bearing length and bearing width capable of supporting loads (torque, bending, etc.) at any of a plurality of widths therebetween. Individual drive systems in the first and second sides each include a track, motor, sprocket, main idler, and bogey idlers. A carrier system secures, lifts, and descends an implement. Implements may be of any type, such as tillage, harrowing, furrowing, seeding, cultivation, personnel carrier, or the like. A controller is capable of directing the tractor based on a pre-determined course of travel, or a guided course in response to physical features in a farming field.

Disclosed herein is a frame apparatus for an agricultural work vehicle. The frame apparatus includes: an engine frame configured to support the engine of an agricultural work vehicle; a front frame connected to each of a front work machine and the engine frame to support the front work machine mounted in front of the agricultural work vehicle; a center case spaced apart from the front frame based on a first axis direction, and disposed behind the engine frame; a rear axle case coupled to the rear of the center case; side frames each coupled to each of the front frame and the rear axle case on both sides of the agricultural work vehicle; and a crossbar coupled to the side frames while connecting the side frames on both sides based on a second axis direction perpendicular to the first axis direction.

The disclosed technology relate to a device and system that include an outdoor power equipment power unit or cart configured to releasably couple a number of different interchangeable attachments or work implements to a common power unit, where some attachments include and/or require operator presence control, while other attachments do not include and/or require operator presence control. The outdoor power equipment power unit includes a power transfer coupling member operatively coupled to the drive shaft and configured to transfer rotational power to the associated attachment; and an operator presence actuation member operatively coupled to the operator presence control member, the operator presence actuation member configured to rotate in response to user actuation of the operator presence control member.