Claas Selbstfahrende Erntemaschinen Gmbh

Sebastian Neu

Joachim Baumgarten

Christoph Heitmann

Andreas Wilken

Christoph Bussmann

Henner Voecking

Boris Kettelhoit

Bastian Bormann

Stefan Teroerde

Werner Fitzner

Markus Brune

Michael Losch

Stefan Terörde

Henner Vöcking

Willi Behnke

Bernd Holtmann

Thilo Krause

Christopher Vieregge

Udo Beschorn

Carsten Grove

Daniel Irmer

Gunnar Quincke

Sebastian Spiekermann

Arthur Berger

Sascha Dieckmeyer

Alexander Kirchbeck

Jonas Brandmeier

Klaus Schaefer

Lukas Eidhoff

Scott Wellensiek

Waldemar Thiesmann

Felix Herter

Dirk Lahmann

Benedikt Feldotto

Klaus Schäfer

Kai Bergmann

Marcel Vonde

Olaf Rehders

Michael Piontek

Jens Broer

Benjamin Mattich

René Middelberg

Matthias Escher

Axel Schröder

Christian Giesguth

Christoph Dierkes

Martin Kubbeler

Scott Wllensiek

Dr Joachim Baumgarten

Viktor Rempel

Sebastian Jütte

Martin Kübbeler

Dr Martin Kohlhase

A control system for an agricultural working machine has a control device which is connected, in terms of signals, to a display unit, a ground speed control lever, and a control panel, wherein at least the ground speed control lever comprises multiple control elements. The display unit is designed as a touch-sensitive screen including one or multiple visualization panes and several virtual control elements. A preferred quick-select function&#x2014;from a plurality of different quick-select functions for adjusting a performance parameter of the working machine&#x2014;is assigned to one of the control elements of the display unit, of the ground speed control lever, and of the control panel, the performance parameter being depictable with the aid of the display unit upon activation. The quick-select function can be activated with the aid of the display unit, and/or the ground speed control lever, and/or the control element.

Control system for an agricultural working vehicle

A method for determining a mass flow composed of bulk material, in particular grain, which is conveyed by means of a continuous, circulating conveyor, having planar conveyor elements, from a lower bulk material receiving area to a higher bulk material delivery area, in which the bulk material delivered by the conveyor is deflected by a guide surface disposed in the bulk material delivery area toward a measuring device, wherein the mass flow is determined by the measurement of a resulting force (F_G) exerted on a sensor surface of the measuring device, wherein at least two parameters having an effect on the force measurement, in particular parameters independent of bulk material properties, are compensated for. A control and regulating device for executing the method for determining a mass flow composed of bulk material is also provided.

Method for determining a mass flow composed of bulk material

This disclosure relates to a method and device for the operation of a combine harvester with multiple work elements for harvesting a crop via a driver assistance system. In one example implementation, a method for operating such a combine harvester includes determining separately a harvest setting for the crop and a machine configuration of the combine harvester, preselecting a process control strategy among a plurality of process control strategies based on the harvest setting and machine configuration wherein each of the plurality of process control strategies is aimed at fulfillment of at least one harvesting quality criterion stored in the memory of the combine harvester, and automatically determining at least one machine parameter for the work elements of the combine harvester according to the preselected process control strategy and controlling the work elements corresponding to the at least one machine parameter.

Method and apparatus for operating a combine harvester

A method for determining calibration data for a grain-loss sensor on a combine harvester includes measuring grain-loss quantities, which were left behind by the combine harvester during a harvesting operation, and measuring sensor grain-loss values by the grain-loss sensor during the harvesting operation. Reference marks are assigned to the measured grain-loss quantities and the measured sensor grain-loss values and the calibration data for the grain-loss sensor are determined on the basis of a reconciliation of the measured grain-loss quantities with the measured sensor grain-loss values according to the reference marks.

Method for determining calibration data for grain-loss sensor

A combine harvester includes a threshing unit for threshing picked-up crop to obtain grain, a driver assistance system, with a memory for storing data, for controlling the threshing unit, and a computing unit for processing at least the data stored in the memory. A sensor system ascertains at least a portion of the current harvesting-process state. A sensor configuration assigned to the sensor system is defined by the type and scope of operational sensors is stored or can be stored in the memory. A functional system model for at least a portion of the combine harvester is stored in the memory. The computing unit is designed to carry out an autonomous determination of a threshing-unit parameter based on the system model, and defines the system model forming a basis of the control of the threshing unit depending on the sensor configuration stored in the memory.

Combine harvester

An agricultural work machine for processing an agricultural work process, having numerous working units (-) and having a driver assistance system () for controlling the working units (-) according to at least one user-side specifiable work process strategy (A), which is aimed at fulfilling at least one quality criterion (Q), wherein the driver assistance system () comprises a memory () for storing data, and a computing device () for processing the data stored in the memory (), wherein the driver assistance system () has a graphical user interface (), via which at least a portion of the work process strategy (A) can be specified by a user. It is proposed that competing quality criteria (Q) that are weighted in relation to one another in accordance with a weighting variable (G) are entered into the work process strategy (A), and that the weighting variable (G) is visualized and can be specified by a user via a virtual operating element (-) of the graphical user interface ().

Agricultural work machine

A simulator of an agricultural working machine has a computer unit coupled to a display unit and a control unit. The agricultural working machine to be simulated has adjustable working parts and control elements that implement adjustment of the working parts and a software module that is stored in the computer unit. The software module depicts a process model of crop-processing processes to be implemented by the agricultural working machine and depicts the machine behavior resulting from the crop-processing processes. The process model and the machine behavior are visualized in the display unit and can be edited by the control unit.

Agricultural machine simulator

An agricultural harvesting machine has a header designed as a front attachment for cutting and picking up crop and a driver assistance system for controlling the header. The driver assistance system has a memory for storing data and a computing unit for processing the data stored in the memory. The header together with the driver assistance system forms an automated header, in that a plurality of selectable harvesting-process strategies is stored in the memory and in order to implement a selected harvesting-process strategy or the selected harvesting-process strategies, the computing device autonomously determines at least one machine parameter, a header parameter and specifies this to the header.

Agricultural harvesting machine

A self-propelled harvesting machine such as a combine harvester has multiple working units for processing crop picked up from a field, a driver assistance system for the sensor-supported control of the working units, an environmental sensor system for detecting environmental information and spatial areas of applicability located in the environment of the harvesting machine. The driver assistance system has a memory for storing data and a computing unit for processing data, including the data stored in the memory. A functional system model for at least one part of the harvesting machine is stored in the memory. The computing unit functions as a characteristic control on the basis of the system model and autonomously determines machine parameters of at least one working unit and specifies these to the particular working unit.

Harvesting system having a self-propelled harvesting machine

A combine harvester has a threshing unit for threshing picked-up crop to obtain grain, a driver assistance system for controlling the threshing unit which has a memory for storing data and a computing unit for processing the data stored in the memory. A functional system model for at least a portion of the combine harvester is stored in the memory. The computing unit is designed to carry out an autonomous determination of at least one threshing-unit parameter on a basis of the system model and, for depicting functional interrelationships, at least one family of characteristics (A-J) is assigned to at least one harvesting-process parameter. The at least one harvesting-process parameter is defined as an output variable of the at least one family of characteristics (A-J).

A combine harvester has a threshing unit for threshing picked-up crop to obtain grain and a driver assistance system for controlling the threshing unit. The driver assistance system includes a memory for storing data and a computing unit for processing the data stored in the memory. The threshing unit, together with the driver assistance system, forms an automated threshing unit, in that a plurality of selectable harvesting-process strategies is stored in the memory and in that, in order to implement the particular selected harvesting-process strategy, the computing device autonomously determines at least one machine parameter, for example, a threshing-unit parameter, and specifies the parameter to the threshing unit.

An agricultural working machine has at least one working unit and a display device for displaying or adjusting parameters of the working machine the at least one working unit of both. The display device has a display unit with jointly depictable display elements for visualization of parameter-based values, the display elements preferably arranged concentrically in a form of circular-ring sections. The display device also includes at least one bar display that at least partially encircles the display elements radially on the outer side. Indicator element for displaying a defined value are disposed on the at least one bar display.

Agricultural working machine having a display device

A method for automatic adjustment of at least one of several working units of a self-propelled harvesting machine involved in a harvesting process, includes the steps of initially modeling the harvesting process by at least one program map, based on a data base characteristic of a current harvesting process; determining an initial working point of the at least one of the working units on a basis of the initial modeling; adapting the at least one program map on a basis of data currently collected by measurements and which influence the harvesting process; determining a new working point of the at least one working unit depending on the adaptation of the program map; and iteratively approximating the new working point.

Method for adjusting at least one working unit of a self-propelled harvesting machine

An assistance system that optimizes the operation of a self-propelled agricultural working machine includes a device for determining working and efficiency parameters of the machine includes an arithmetic logic unit and a display unit. The arithmetic logic unit processes information generated by machine-internal sensor systems, external information and information stored in the arithmetic logic unit. One or more mathematical models describing the working process are stored in the arithmetic logic unit and derive efficiency parameters of the working machine from the available working parameters and, with consideration for monetary interrelationships, determine the opportunity costs of the working process and visualize the opportunity costs in the display unit.

Assistance system for optimizing vehicle operation

A method for operating an agricultural working machine that is configured with working assemblies, a control/regulating unit having a display unit and at least one interface for communication in order to control and/or regulate the working assemblies. In the method, an emotional state of an operator is recognized during an interaction with the working machine via the at least one interface and the operating mode of the working machine is adapted to the emotional state of the operator.

Method for operating an agricultural working machine

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Bad Laer, Germany

Sebastian Neu