A multi-lobed wheel adapted to be mounted to an agricultural platform for traversal of an agricultural field generally traverse to adjacent rows of planted crops without crushing the individual plants. The multi-lobed wheel having a wheel hub including a central axis on which the multi-lobed wheel is configured to rotate and a plurality of spaced apart lobes defining an outer perimeter configured to make ground engaging contact with the agricultural field, the outer perimeter including structure presenting a plurality of gaps between the plurality of spaced apart lobes, the gaps shaped and sized to provide sufficient clearance for individual plants within a planted crop row so as to enable the multi-lobed wheel to pass over a planted crop row without crushing the individual plants therein.

An integrated gear assembly includes a conjoined carrier assembly coupling a reducing gear set to a differential gear set. This includes first, second and third coaxial sun gears. The first sun gear meshingly engages first gear elements of stepped pinion gears of the reducing gear set. The second sun gear meshingly engages third pinion gears of the differential gear set. The third sun gear meshingly engages fourth pinion gears of the differential gear set. The third pinion gears of the differential gear set axially overlap second gear elements of the stepped pinion gears of the reducing gear set. The fourth pinion gears of the differential gear set axially overlap the third pinion gears of the differential gear set.

A heat exchanger system for an agricultural vehicle. The heat exchanger system has at least two separate heat exchanger assemblies, where an adjustable baffle is used to vary the airflow between the heat exchanger assemblies, accordingly varying the cooling effect of the assemblies, based on system requirements. The adjustable baffle may be arranged to restrict or block at least a portion of a heat exchanger to reduce airflow through the exchanger, to provide a flow bypass of an exchanger, and/or to proportionally adjust the airflow through a pair of heat exchangers provided as part of a single heat exchanger assembly.

The present invention provides a hub cover for a wheel hub on a vehicle used for agriculture and a stud extension piece used to operatively affix the hub cover to the wheel hub. In a preferred embodiment, the hub cover comprises a polyethylene convex dome that is affixed to the wheel hub of the vehicle using a stud extension piece that couples the hub cover to an exposed wheel hub. The use of the hub cover minimizes crop damage caused by the exposed hubs of the vehicle in crop fields.

It is an object to provide a work vehicle being capable of suppressing an increase in temperature of a liquid crystal display device due to external factors. Regarding a tractor, which is a work vehicle in which a touch panel as a liquid crystal display device is provided in an instrumental panel in a cabin, a discharge opening for air, of which the temperature is adjusted by an air-conditioner unit, is provided on the upper portion of the instrumental panel, and a concave portion is provided in the instrumental panel, and the touch panel is provided on the bottom portion of the concave portion below the discharge opening.

Axle assembly includes first and second axle housings extending toward opposing sides of a vehicle frame with the axle housings aligned to define an axle axis, first and second wheel ends, first and second drive shafts disposed within the first and second axle housings, a gearbox having a first surface facing one side of the vehicle frame and a second surface facing the other side of the vehicle frame with the gearbox cantilevered outwardly relative to the aligned axle housings to define a gearbox axis parallel to a longitudinal axis of the vehicle frame and transverse to the axle axis, and an electric motor coupled to the second surface of the gearbox and extending toward the first side of the vehicle frame to define a motor axis that is parallel to and offset from the axle axis, transverse to the gearbox axis, and transverse to the longitudinal axis.

An air cleaning element comprises a generally rectangular frame comprising a first two opposing sides and a second two opposing sides; a plurality of rods supported on and extending between the first two opposing sides, wherein each rod is offset from its two adjacent rods; and a wire mesh sheet that is generally rectangular and corrugated around the plurality of rods. The sheet extends to and between the two opposing sides.

An autonomous work vehicle having a chassis, a power system disposed on the chassis, a field wheel system coupled to the chassis and the power system, and a hitch assembly. The power system is configured to power the autonomous work vehicle in an autonomous control mode. The field wheel system is configured to drive the autonomous work vehicle in a field in the autonomous control mode. The hitch assembly is configured to couple to a lead vehicle in a transport mode. The autonomous work vehicle may engage wheels of a transportation wheel system with a road to support the autonomous work vehicle on the road. The autonomous work vehicle may be coupled via the hitch assembly to the lead vehicle, then transported on a road. A brake system of the transportation wheel system may be coupled to the lead vehicle.

A work vehicle includes a power transmission unit having a differential device for transmitting power to left and right axles and a power transmission mechanism for transmitting power to the differential device, and a transmission shaft for transmitting power to the power transmission unit. The power transmission mechanism includes a first gear mechanism to which power from the transmission shaft is transmitted and a second gear mechanism for transmitting power from the first gear mechanism to the differential device.

Throttle control apparatus (810) for a vehicle and a mechanism (800) thereof is provided. A throttle control mechanism (800) includes a first throttle control assembly (802), a second throttle control assembly (804), a first cable (806), a second cable (808), a throttle control apparatus (810), a linkage (812) and a mounting bracket (814). The throttle control apparatus (810) includes a shaft housing (810), a pivot shaft, an intermediate lever (810L) and a lever (810R). The intermediate lever (810L) has a first portion (810Lf) defining a slot (810La) and a second portion (810Ls) defining a slot (810Lb). A first end (806f) of first cable (806) is connected to first throttle control assembly (802) and a second end (806s) of first cable (806) is movably connected to intermediate lever (810L). A first end (808f) of second cable (808) is connected to second throttle control assembly (804) and a second end (808s) of the second cable (808) is movably connected to intermediate lever (810L).