Abstract: A method is provided for material-removing machining when moving a tool of a machine tool along a tool path, including providing a workpiece comprising a first workpiece portion and a second workpiece portion adjacent to the first workpiece portion, wherein the tool path comprises a first path section comprising path segments adapted to a geometry of the first workpiece portion, and a second path section comprising path segments adapted to a geometry of the second workpiece portion. The method comprises determining the first path section to cover the first workpiece portion except for a first edge section, determining the second path section to cover the second workpiece portion except for a second edge section, and determining a transition section of the tool path to cover the first edge section and the second edge section, such that the first and second path sections and the transition section cover the entire first and second workpiece portions.

Abstract: A feedback system for controlling a servo motor comprising at least one rotary angle sensor and at least one rotary speed sensor, wherein the rotary angle sensor supplies a measured rotary angle value to a computer, wherein the rotary speed sensor supplies a measured rotary speed value to the computer, the actual rotary speed values are the measured rotary angle values interpolated according to the integrated measured rotary speed values, and wherein at high rotary speeds, the actual rotary speed values are the calibrated measured rotary angle values, differentiated with respect to time, and at low rotary speeds, the actual rotary speed values are the measured rotary speed values.

Abstract: The invention relates to a process for digital, bidirectional data transmission between a processing unit and a position encoder, as based on the transmission of frames of a predetermined bit length, such that each frame is provided with at least an initial bit length for the transmission of data from the processing unit to the position encoder and at least a second bit length for the transmission of data from the position encoder to the processing unit; and such that the frame is provided with a time slot in which data is neither transmitted from the processing unit to the position encoder nor from the position encoder to the processing unit. In the time slot a triggering signal (external sync signal) is transmitted from the processing unit to the position encoder and this triggers the acquisition of position data.

Abstract: A feedback system for controlling a servo motor comprising at least one rotary angle sensor (3.2) and at least one rotary speed sensor (3.1), wherein the rotary angle sensor (3.2) supplies a measured rotary angle value (?) to a computer (2), wherein the rotary speed sensor (3.

Abstract: The invention relates to a method for synchronizing a bi-directional transmission of data between a transmitter and a receiver based on the transmission of frames (10) having a predefined bit length, with a predefined first bit length (20) being provided in each frame (10) for the transmission of data from the transmitter to the receiver and a predefined second bit length (30) for the transmission of data from the receiver to the transmitter, with a trigger pulse (40) being sent to the receiver parallel to and independently from the transmission of the data between the transmitter and receiver, which pulse triggers a data collection process at the receiver, wherein the frame (10) has a time slot (50), during which no information is transmitted from the transmitter to the receiver and also not from the receiver to the transmitter, and wherein the trigger pulse (40) is transmitted from the transmitter to the receiver during this time slot (50).

Abstract: The invention relates to a process for digital, bidirectional data transmission between a processing unit and a position encoder, as based on the transmission of frames of a predetermined bit length, such that each frame is provided with at least an initial bit length for the transmission of data from the processing unit to the position encoder and at least a second bit length for the transmission of data from the position encoder to the processing unit; and such that the frame is provided with a time slot in which data is neither transmitted from the processing unit to the position encoder nor from the position encoder to the processing unit. In the time slot a triggering signal (external sync signal) is transmitted from the processing unit to the position encoder and this triggers the acquisition of position data.

Abstract: The invention relates to a method for synchronizing a bi-directional transmission of data between a transmitter and a receiver based on the transmission of frames (10) having a predefined bit length, with a predefined first bit length (20) being provided in each frame (10) for the transmission of data from the transmitter to the receiver and a predefined second bit length (30) for the transmission of data from the receiver to the transmitter, with a trigger pulse (40) being sent to the receiver parallel to and independently from the transmission of the data between the transmitter and receiver, which pulse triggers a data collection process at the receiver, wherein the frame (10) has a time slot (50), during which no information is transmitted from the transmitter to the receiver and also not from the receiver to the transmitter, and wherein the trigger pulse (40) is transmitted from the transmitter to the receiver during this time slot (50).

Abstract: A method for analyzing an integrated circuit (or constituent parts thereof), a computer program implementing the method, and a computer configured to execute the program is disclosed. Analyzing the integrated circuit may include retrieving a design for the integrated circuit from a layout database, identifying the bond pads and gates included in the design of the integrated circuit, determining the connections between the bond pads and the gates, and determining whether a connection between a particular gate and a particular bond pad lacks a connection segment routed over a required layer.

Abstract: The novel apparatus permits precise measurements of parasitic capacitances. The apparatus has a test structure and a reference structure, each with two conductor tracks. In the reference structure, the two conductor tracks are always at the same potential. In the test structure, one conductor track is coupled to ground potential and the other conductor track to a different potential. The test structure and the reference structure are connected to a voltage potential and the charge which builds up on the test structure and the reference structure is registered. The parasitic capacitance can be calculated precisely from the charge difference. The conductors of the test structure and of the reference structure are arranged in such a way that each conductor perceives a relationship to capacitive parasitic effects in the same environment.

Abstract: An electrical circuit can be described by a layout and by a network list. A network list has one or more cells each having one or more cell entities. From an existing layout, intrinsic capacitance values and coupling capacitance values of the networks are determined for all of the cell entities. Using these capacitance values, the cell entities are classified into variants. These variants are used in the simulation of the behavior of the electrical circuit.

Abstract: An electrical circuit can be described by a layout and by a network list. A network list has one or more cells each having one or more cell entities. From an existing layout, intrinsic capacitance values and coupling capacitance values of the networks are determined for all of the cell entities. Using these capacitance values, the cell entities are classified into variants. These variants are used in the simulation of the behavior of the electrical circuit.

Abstract: The novel apparatus permits precise measurements of parasitic capacitances. The apparatus has a test structure and a reference structure, each with two conductor tracks. In the reference structure, the two conductor tracks are always at the same potential. In the test structure, one conductor track is coupled to ground potential and the other conductor track to a different potential. The test structure and the reference structure are connected to a voltage potential and the charge which builds up on the test structure and the reference structure is registered. The parasitic capacitance can be calculated precisely from the charge difference. The conductors of the test structure and of the reference structure are arranged in such a way that each conductor perceives a relationship to capacitive parasitic effects in the same environment.