Described is a method for grinding workpieces, which comprise at least one cylindrical and profiled portion each, on one and the same grinding machine. The workpiece is ground initially in a first grinding operation in a first clamping in the grinding machine, said first grinding operation being followed by a second grinding operation once the first clamping has been released and then, before the start of the second grinding operation, a second clamping has been generated.

Described is a method for grinding workpieces, which comprise at least one cylindrical and profiled portion each, on one and the same grinding machine. The workpiece is ground initially in a first grinding operation in a first clamping in the grinding machine, said first grinding operation being followed by a second grinding operation once the first clamping has been released and then, before the start of the second grinding operation, a second clamping has been generated.

The present invention shows a process for gear manufacturing machining a workpiece by a tool on a gear manufacturing machine, wherein the workpiece is machined by a generating machining process in which the tool for gear manufacturing machining rolls off on the workpiece at a predefined center distance and axial cross angle, wherein the gear manufacturing machining preferably takes place on two flanks, with a desired tooth trace shape and/or tooth thickness of the gearing being generated by the generating machining process. The process is characterized in that an additional condition is predefinable and in that the center distance and the axial cross angle are determined in dependence on the desired tooth trace shape and/or tooth thickness of the gearing and on the additional condition.

The present invention shows a process for gear manufacturing machining a workpiece by a tool on a gear manufacturing machine, wherein the workpiece is machined by a generating machining process in which the tool for gear manufacturing machining rolls off on the workpiece at a predefined center distance and axial cross angle, wherein the gear manufacturing machining preferably takes place on two flanks, with a desired tooth trace shape and/or tooth thickness of the gearing being generated by the generating machining process. The process is characterized in that an additional condition is predefinable and in that the center distance and the axial cross angle are determined in dependence on the desired tooth trace shape and/or tooth thickness of the gearing and on the additional condition.

A bonding member (10) includes surface-processed silver surfaces (11a, 11b).

A method for grinding a gear toothing, in which a target value with a tolerance range is defined for the tooth width. The method includes: a) measuring the location of the surface of the tooth flanks of the gear at at least two axial positions offset in the direction of the axis of rotation; b) determining the actually present allowance of the gear based on the measured values determined in step a); c) grinding the toothing by radial infeed of the grinding tool relative to the toothing, c1) wherein the radial infeed corresponds to the target value of the tooth width, if the determination under step b) indicated that such an allowance is present on all tooth flanks that material will be removed from all tooth flanks, or c2) wherein the radial infeed takes place at a value higher than the target value of the tooth width, the higher value still corresponding to the tolerance range for the tooth width, if the determination under step b) indicated that such an allowance is present on all tooth flanks that material will be removed from all tooth flanks only with increased radial infeed.

A method for grinding a gear toothing, in which a target value with a tolerance range is defined for the tooth width. The method includes: a) measuring the location of the surface of the tooth flanks of the gear at at least two axial positions offset in the direction of the axis of rotation; b) determining the actually present allowance of the gear based on the measured values determined in step a); c) grinding the toothing by radial infeed of the grinding tool relative to the toothing, c1) wherein the radial infeed corresponds to the target value of the tooth width, if the determination under step b) indicated that such an allowance is present on all tooth flanks that material will be removed from all tooth flanks, or c2) wherein the radial infeed takes place at a value higher than the target value of the tooth width, the higher value still corresponding to the tolerance range for the tooth width, if the determination under step b) indicated that such an allowance is present on all tooth flanks that material will be removed from all tooth flanks only with increased radial infeed.

A hub flange has a fixed flange configured to receive a tool body. A flange socket is formed on the fixed flange for connection to a spindle shaft. A counterflange is detachably connected to the fixed flange. The fixed flange and the counterflange are connected to each other via a conical connection, wherein the conical connection is arranged coaxially to the tool axis and is formed by an inner cone and an outer cone received therein.

A method for grinding the toothing or the profile of a workpiece that has an axis of rotation and wherein an allowance is ground away from the surface of the tooth flanks of the toothing or the profile. The method includes the following steps: a) measuring the position of the surface of the tooth flanks of the toothing or the profile, wherein the measuring is carried out in at least two positions of the workpiece, which are arranged offset in the direction of the axis of rotation; b) determining the actually existing allowance of the workpiece that has not yet been ground, based on the measurement values from step a); c) determining at least one grinding parameter so that the material removal per time has a predetermined value or does not exceed a predefined value during grinding; and d) grinding the workpiece with the grinding parameters established in step c).

The present disclosure relates to a process for machining a gear workpiece (100) comprising a plurality of tooth spaces (6), each of which is defined by two tooth flanks (5.1, 5.2); in said process, a gear tooth-forming tool (1) is used in order to provide at least one subset of all the tooth flanks (5.1, 5.2) with a non-periodically distributed modification of the flank geometry.