IP Library › Granted Patent US 12,635,604
Granted Patent B2
US 12,635,604 · App. 18/072,156 · Granted May 26, 2026

Combine with a bypass device

Inventor: Markus Brune (Harsewinkel, DE)
Assignee: CLAAS Selbstfahrende Erntemaschinen GmbH
A01D41/1272A01D41/1275A01D41/1277A01D61/00
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Quick Facts
Patent No.
US 12,635,604
App. No.
18/072,156
Filed
Nov 30, 2022
Granted
May 26, 2026
Kind
B2
Art Unit
3671
USPC
460/7
Abstract

A self-propelled combine configured to collect and handle harvested material and a method for operating the self-propelled combine are disclosed. The combine may include a bypass device that includes an optical measuring device configured to determine one or more harvested material properties of the partial flow of harvested material. The bypass device may have at least one capacitive measuring device for determining the harvested material properties of the partial flow of harvested material.

Claims (59)

1 . A self-propelled combine configured to collect and handle harvested material, the combine comprising:

a grain elevator configured to convey a flow of harvested material from a conveying and cleaning device of the combine to a grain tank of the combine; and

a bypass device positioned at or relative to the grain elevator and configured to guide a partial flow of harvested material that is a part of the flow of harvested material that is guided through the grain elevator, the bypass device comprising an optical measuring device configured to determine one or more harvested material properties of the partial flow of harvested material and including at least one capacitive measuring device configured to determine the one or more harvested material properties of the partial flow of harvested material;

wherein the bypass device includes one or more of:

a feed opening through which the partial flow of harvested material from the grain elevator is configured to flow into the bypass device;

an outlet opening through which the partial flow of harvested material is configured to flow into the grain elevator after flowing through the optical measuring device; or

an intermediate opening through which the partial flow of harvested material is configured to flow into the grain elevator;

wherein the bypass device includes a collecting container configured to collect the partial flow of harvested material;

wherein the bypass device includes a screw conveyor configured to convey the partial flow of harvested material to the optical measuring device; and

wherein the collecting container is formed between the feed opening and the screw conveyor.

2 . The self-propelled combine of claim 1 , wherein the bypass device includes a collecting container configured to collect the partial flow of harvested material; and

wherein the at least one capacitive measuring device is positioned one or both of in or on the collecting container.

3 . The self-propelled combine of claim 2 , wherein the collecting container has at least one fill level sensor unit configured to detect fill level of the partial flow of harvested material in the collecting container.

4 . The self-propelled combine of claim 1 , further comprising a yield measuring device configured to measure yield of the flow of harvested material; and

wherein the yield measuring device is positioned one or both of in or on the grain elevator and is positioned at a predetermined distance from the bypass device.

5 . The self-propelled combine of claim 4 , wherein the yield measuring device is positioned between the bypass device and the grain tank.

6 . The self-propelled combine of claim 4 , wherein the yield measuring device is one of:

an optical yield measuring device;

a force-based yield measuring device; or

a capacitive measuring device.

7 . The self-propelled combine of claim 1 , wherein the bypass device includes a screw conveyor configured to convey the partial flow of harvested material to the optical measuring device.

8 . The self-propelled combine of claim 1 , wherein the collecting container has an at least sectional channel taper between the feed opening and the screw conveyor.

9 . The self-propelled combine of claim 8 , wherein the at least one capacitive measuring device of the bypass device is positioned one or both of in or on the channel taper of the collecting container.

10 . The self-propelled combine of claim 1 , wherein the optical measuring device is configured to determine one or more constituents of the partial flow of harvested material.

11 . The self-propelled combine of claim 1 , wherein the optical measuring device of the bypass device is configured to determine a moisture value of the partial flow of harvested material;

wherein the at least one capacitive measuring device is configured to determine an electrical capacitance of the partial flow of harvested material; and

further comprising a controller configured to:

access the moisture value and the electrical capacitance; and

determine a weight of the partial flow of harvested material.

12 . A self-propelled combine configured to collect and handle harvested material, the combine comprising:

a grain elevator configured to convey a flow of harvested material from a conveying and cleaning device of the combine to a grain tank of the combine; and

a bypass device positioned at or relative to the grain elevator and configured to guide a partial flow of harvested material that is a part of the flow of harvested material that is guided through the grain elevator, the bypass device comprising an optical measuring device configured to determine one or more harvested material properties of the partial flow of harvested material and including at least one capacitive measuring device configured to determine the one or more harvested material properties of the partial flow of harvested material;

wherein the bypass device includes each of:

a feed opening through which the partial flow of harvested material from the grain elevator is configured to flow into the bypass device;

an outlet opening through which the partial flow of harvested material is configured to flow into the grain elevator after flowing through the optical measuring device; and

an intermediate opening through which the partial flow of harvested material is configured to flow into the grain elevator.

13 . The self-propelled combine of claim 12 , wherein the bypass device includes a collecting container configured to collect the partial flow of harvested material;

wherein the bypass device includes a screw conveyor configured to convey the partial flow of harvested material to the optical measuring device; and

wherein the collecting container is formed between the feed opening and the screw conveyor.

14 . The self-propelled combine of claim 13 , wherein the collecting container has an at least sectional channel taper between the feed opening and the screw conveyor.

15 . The self-propelled combine of claim 14 , wherein the at least one capacitive measuring device of the bypass device is positioned one or both of in or on the channel taper of the collecting container.

16 . A method for operating a self-propelled combine that includes a grain elevator that conveys a flow of harvested material from a conveying and cleaning device of the combine to a grain tank of the combine, and a bypass device positioned at or relative to the grain elevator and that guides a partial flow of harvested material that is a part of the flow of harvested material that is guided through the grain elevator, the method comprising:

determining, using an optical measuring device of the bypass device, a moisture value of the partial flow of harvested material of the bypass device;

determining, using a capacitive measuring device of the bypass device, an electrical capacitance of at least a part of the partial flow of the harvested material; and

determining, based on the moisture value and the electrical capacitance, a weight of the partial flow of harvested material of the bypass device;

wherein the bypass device includes one or more of:

a feed opening through which the partial flow of harvested material from the grain elevator is configured to flow into the bypass device;

an outlet opening through which the partial flow of harvested material is configured to flow into the grain elevator after flowing through the optical measuring device; or

an intermediate opening through which the partial flow of harvested material is configured to flow into the grain elevator;

wherein the bypass device includes a collecting container that collects the partial flow of harvested material;

wherein the bypass device includes a screw conveyor that conveys the partial flow of harvested material to the optical measuring device; and

wherein the collecting container is formed between the feed opening and the screw conveyor.

17 . The method of claim 16 , wherein one or both of determining the moisture value of the partial flow of harvested material or determining the electrical capacitance of the capacitive measuring device is performed continuously during operation of the combine.

18 . The method of claim 16 , wherein a hectoliter weight of the partial flow of harvested material is determined by one or more of:

incorporating the moisture value and the electrical capacitance linearly;

incorporating the moisture value and the electrical capacitance quadratically; or

using the moisture value, the electrical capacitance, and a plurality of harvested material-dependent prefactors.

19 . The method of claim 16 , wherein in an event of failure of the optical measuring device of the bypass device, the moisture value of the partial flow of harvested material is determined using the capacitive measuring device of the bypass device.

20 . The method of claim 16 , wherein the weight comprises a hectoliter weight.

Assignments (1)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Dec 1, 2022
From: BRUNE, MARKUS
To: CLAAS SELBSTFAHRENDE ERNTEMASCHINEN GMBH
Reel/Frame 061945/0528 →
Priority Claims (1)
DE 10 2021 132 278.2 · Dec 8, 2021 · national
Continuity (1)
Related Publication 20230172105A1 · Jun 8, 2023
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