In one aspect, a system for detecting accumulations of field materials between ground engaging components of an agricultural implement may include first and second ground engaging components configured to rotate relative to soil within a field as the implement is moved across the field. The first and second ground engaging components may be spaced apart from each other along an axial direction of the shaft. The system may also include a sensor configured to detect field materials within a detection zone defined directly between the first and second ground engaging components and above the axis of rotation in a vertical direction of the agricultural implement. Furthermore, the system may include a controller communicatively coupled to the sensor, with the controller configured to determine a parameter associated with an accumulation of the field materials between the first and second ground engaging components based on data received from the sensor.

In one aspect, a system for detecting accumulations of field materials between ground engaging components of an agricultural implement may include first and second ground engaging components configured to rotate relative to soil within a field as the implement is moved across the field. The first and second ground engaging components may be spaced apart from each other along an axial direction of the shaft. The system may also include a sensor configured to detect field materials within a detection zone defined directly between the first and second ground engaging components and above the axis of rotation in a vertical direction of the agricultural implement. Furthermore, the system may include a controller communicatively coupled to the sensor, with the controller configured to determine a parameter associated with an accumulation of the field materials between the first and second ground engaging components based on data received from the sensor.

An agricultural roller comprises a tubular support and a series of pneumatic tyres mounted on the support. Each pneumatic tyre of the series has a respective uninflated envelope. The roller further comprises a series of tyres mounted on the support and interleaved in the series of pneumatic tyres. Each tyre has a respective envelope. The tyres are smaller than the pneumatic tyres while their envelope is narrower.

A working machine includes a vehicle body, a travel apparatus provided to a rear portion of the vehicle body, a fender provided above the travel apparatus, and hydraulic piping that is disposed between the travel apparatus and the fender and that extends from a front-portion side to a rear-portion side of the fender.

A castellated locking clip, for use with a Power Take Off safety guard, the locking clip including at least two castellations.

A dust restrictor is provided for eliminating dust and dirt accumulation between surfaces. The dust restrictor includes at least one dust restricting element and an attachment mechanism. The dust restricting element is disposed in a dust accumulating area of an arrangement. The attachment mechanism is provided for fixing each of the dust restricting elements to the dust accumulating area.

A dust restrictor is provided for eliminating dust and dirt accumulation between surfaces. The dust restrictor includes at least one dust restricting element and an attachment mechanism. The dust restricting element is disposed in a dust accumulating area of an arrangement. The attachment mechanism is provided for fixing each of the dust restricting elements to the dust accumulating area.

A work vehicle with a metering system, airflow system, and a covering structure moveable between various positions for user access includes features that facilitate assembly and/or disassembly of the metering system. The work vehicle has a venturi structure with a plurality of venturi tubes that are disposed in a compact arrangement.

A method of operating an implement carrying tillage elements in an agricultural field includes traversing the field with the implement while the tillage elements engage soil of the field, detecting a tillage event based on an operating parameter, recording a location of the tillage event with at least one computer, stopping the implement within the field in response to the tillage event, and generating a first representation of the tillage elements engaged with the soil. The first representation is generated with information from at least one sensor. The tillage elements are lifted to disengage the tillage elements from the soil, and a second representation of the tillage elements disengaged from the soil is generated. The implement is backed rearward through the field with the tillage elements disengaged from the soil, and a third representation of a portion of the soil worked by the tillage elements is generated.

A method for automating an agricultural work task includes specifying one or more site-specific target values or weighting factors with respect to process-related or agronomic quality criteria via an interface module according to which the work task is to be executed by the soil cultivation implement. The method includes converting the target values or weighting factors in an optimization module into process control variables representing working or operating parameters of the soil cultivation implement, and adjusting the process control variables in a stabilization module by activating positioning or operating units of the soil cultivation implement or the agricultural tractor. In the converting step, feedback data is included with respect to a status of a field surface before or after the cultivation by the implement and with respect to an operating status of the implement or the tractor in order to modify the process control variables.