A method for compacting a harvested material in a silo by an agricultural working machine includes determining via a control unit a density profile which represents a target density of the harvested material as a function of a silo position or a silo portion along a predetermined silo length of the silo, controlling via the control unit compaction work as a function of the density profile, and controlling via the control unit a travel speed of the working machine during the compaction work as a function of the density profile.

A control system for a working machine includes a ground engaging structure which performs a compaction operation by passing over a body of a harvested crop. The control system includes a controller and at least one sensor providing an input to the controller. The controller is configured to determine a state of compaction of a section of the body of the harvested crop based on at least the input from the sensor, and provides at least one output to control the movement of the working machine over the body of the harvested crop and also provides an indication to an operator of the working machine as to the state of compaction of the body of the harvested crop at a particular section thereof.

A sensor arrangement for detecting a density of harvested crops deposited as silage in a silo includes a source of a pressurized gaseous medium and an opening connected by a line to the source and which is movable along a surface of the silage. The gaseous medium is guided out of the opening from the source into the silage. The arrangement further includes a sensor for detecting a property of the medium flowing through the line, and an evaluation device connected to the sensor for providing an output signal containing information based on the signal of the sensor regarding the density of the silage.

A modular, low-profile apparatus for storing dry agricultural products has a horizontal configuration with coaxial aeration tubes and bi-directional distribution and dispensing augers. The apparatus provides access to dry agriculture products for storing, mixing, aerating, loading, unloading and processing.

A method for assisting a compaction-appropriate distribution of harvested material in a flat silo includes providing a silo vehicle having a control unit, ascertaining a dry-substance density to be achieved via the control unit, determining a maximally producible compaction pressure via the control unit, ascertaining a maximally permissible layer thickness via the control unit for the implementation of a distribution-and-compaction process, determining a layer thickness currently being applied during the implementation of the distribution-and-compaction process in a location-specific manner via a GPS receiver, comparing the maximally permissible layer thickness and the layer thickness currently being applied in the location-specific manner via the control unit in order to ascertain a target layer thickness, and driving a regulating device of a distribution tool provided on the silo vehicle to assimilate the layer thickness currently being applied to the target layer thickness via the control unit in an automated manner.

A method for compacting silage in a silo includes controlling a compacting vehicle via an electronic control device, passing over the silage deposited in the silo with the compacting vehicle, exerting a compacting action along a compacting path via the compacting vehicle, and varying the compacting action of the compacting vehicle in a location-dependent manner along the compacting path by the action of the control device.

A method for silaging harvested crops includes distributing and compacting silage consisting of shredded foliage plants in a silo. The silo is then sealed and then fermented in the silo. At least one part of the silage is flushed with an inert gas after an aerobic phase of the fermentation is detected with a first sensor. The inert gas may also be introduced into the silage if a penetration of atmospheric oxygen is detected in the silage with a second sensor.

A sensor arrangement for detecting a density of harvested crops deposited as silage in a silo includes a source of a pressurized gaseous medium and an opening connected by a line to the source and which is movable along a surface of the silage. The gaseous medium is guided out of the opening from the source into the silage. The arrangement further includes a sensor for detecting a property of the medium flowing through the line, and an evaluation device connected to the sensor for providing an output signal containing information based on the signal of the sensor regarding the density of the silage.

A method for assisting a compaction-appropriate distribution of harvested material in a flat silo includes providing a silo vehicle having a control unit, ascertaining a dry-substance density to be achieved via the control unit, determining a maximally producible compaction pressure via the control unit, ascertaining a maximally permissible layer thickness via the control unit for the implementation of a distribution-and-compaction process, determining a layer thickness currently being applied during the implementation of the distribution-and-compaction process in a location-specific manner via a GPS receiver, comparing the maximally permissible layer thickness and the layer thickness currently being applied in the location-specific manner via the control unit in order to ascertain a target layer thickness, and driving a regulating device of a distribution tool provided on the silo vehicle to assimilate the layer thickness currently being applied to the target layer thickness via the control unit in an automated manner.

A forage compactor is provided having a frame that has cross bars supporting risers that in turn support a shaft. At least one asymmetric wheel is supported by the shaft. The wheels can be paired whereby journals are used to connect to the shaft between recesses of respective wheels. Each wheel has a first side and a second side, each with radiused portions that turn forage away from the wheel. The wheels have a band that is flush with the outer portion of the wheel sides to prevent lifting of the forage. A storage assembly is provided and is integrated into the framework. The storage assembly can be stored within the frame when the compactor is in use, and can be deployed to a locked position in order to store the compactor. A hitch framework is provided that can attach to multiple categories of three point hitches.