Abstract: An instruction is executed to obtain a result that includes an output value and a result sign code. At least one operation is performed on at least a portion of a source value to provide the output value. The source value is located in a source location which includes a source position to include the source value and a source sign position to include a sign code of the source value. One or more controls of the instruction, including a preserve sign control, are checked to determine the result sign code. Based on, at least, the value of the preserve sign control being set to enabled, the result sign code is the sign code in the source sign position unmodified. The unmodified sign code is provided as the result sign code. The result including the output value and the result sign code is provided.

Abstract: A rotor shaft for an electric drive motor includes a hollow shaft that radially encloses a cavity, and a hollow lance that is arranged in the cavity and is fastened at both ends to the inside of the hollow shaft, wherein the lance has, in its circumferential wall, at least one opening, through which a coolant can flow from the lance into a region of the cavity that is delimited radially outwardly by the hollow shaft and radially inwardly by the lance.

Abstract: Proposed is an end-face stator lamination for a stator body of a stator of an electric machine, the end-face stator lamination being configured to be arranged on a planar end face of the stator body. The end-face stator lamination has one or more nozzle depressions which are each configured to form, together with the planar end face of the stator body, one or more corresponding cavities for receiving coolant. The end-face stator lamination further includes at each of the one or more nozzle depressions, a hole that is configured to form a coolant jet of coolant from the relevant cavity.

Abstract: A stator body for a stator of an electric machine has a base body with a plurality of stator laminations. The base body extends in an axial direction from a first outer end face to an opposite second outer end face. The base body includes at least one first axial coolant channel which runs in the axial direction through the base body. The base body also includes at least one second axial coolant channel which runs in the axial direction through the base body. The at least one second axial coolant channel has a greater radial distance from a central longitudinal axis of the stator body than the at least one first axial coolant channel.

Abstract: A rotor shaft has coaxial outer and inner tubes, a hollow shaft journal, and a connection tube. A first space is formed between an inner and outer wall of the inner tube. The inner tube has an inner tube wall opening. The hollow shaft journal has a first journal portion projecting out of the outer tube, and a second journal portion that is arranged coaxially in the outer tube, is spaced apart from the inner tube, and is fixedly connected in terms of rotation to the outer tube inner wall. A first connection tube end bears sealingly against a shaft journal inner wall in the first journal portion. The connection tube extends through and projects out of the second journal portion, and leads sealingly into the inner tube. A space that communicates with the first space is formed between a connection tube outer wall and a shaft journal inner wall.

Abstract: A stator for an electric machine of a motor vehicle includes with a laminated core in which at least one cooling channel runs, through which a cooling fluid for cooling the stator can flow, and at least one winding which is held on the laminated core and has a winding head. At least one ring is provided which adjoins a laminated core at least partially in the axial direction of the stator, has at least one guide channel which is connected fluidically to the cooling channel and through which the cooling fluid from the cooling channel can flow as a result, which guide channel has at least one outlet opening which is directed towards the winding head and via which the cooling fluid which flows through the cooling channel can be discharged from the ring and can be sprayed against the winding head.

Abstract: A system and method for providing a proactive message on a display of a vehicle is disclosed herein. The method includes providing a representation of a digital voice assistant of the vehicle on a display in a field of view of a user of the vehicle. The proactive message is determined by the digital voice assistant of the vehicle, and the representation of the digital voice assistant of the vehicle is adapted depending on the proactive message on the vehicle's display. The method further includes detecting a line of sight of the user of the vehicle towards the adapted representation of the digital voice assistant by an interior camera of the vehicle, and activating a voice recognition system of the digital voice assistant after detection of the line of sight of the user of the vehicle towards the adapted representation of the digital voice assistant on the vehicle's display.

Abstract: A laminated core for an electric machine, including at least three laminated core parts arranged in succession in the axial direction, specifically a first laminated core part which has at least two first temperature-control channels through which a temperature-control medium for controlling the temperature of the laminated core can flow, and a second laminated core part which axially adjoins a first axial end face of the first laminated core part and has at least one second temperature-control channel which is fluidically connected at least to the two first temperature-control channels and through which the temperature-control medium at least from the two first temperature-control channels can thus flow and which has a first flow cross section through which the temperature-control medium can flow.

Abstract: A computer system, processor, and method for processing information is disclosed that includes at least one computer processor; a main register file associated with the at least one processor, the main register file having a plurality of entries for storing data, one or more write ports to write data to the main register file entries, and one or more read ports to read data from the main register file entries; one or more execution units including a dense math execution unit; and at least one accumulator register file having a plurality of entries for storing data. The results of the dense math execution unit in an aspect are written to the accumulator register file, preferably to the same accumulator register file entry multiple times, and the data from the accumulator register file is written to the main register file.

Abstract: The present disclosure provides methods and intermediates for making Compound A or a pharmaceutical salt thereof, and/or a solvate of, which are useful as methods and intermediates for producing compounds for treating diseases and conditions related to mutant KIT and PDGFRA.

Abstract: An instruction configured to perform data conversion is executed. The executing the instruction includes determining that an overflow condition exists in a change of a value, specified by the instruction, from one data format to another data format. It is determined that an overflow result control of the instruction is set to a selected value. A result of executing the instruction is provided. The providing the result includes placing a chosen default value in a result location based on determining that the overflow condition exists and that the overflow result control is set to the selected value.

Abstract: A holding device for a disc-shaped component, in particular for a wafer, as part of a manipulator of an X-ray inspection system is disclosed. The holding device includes an X-ray tube and a detector in which the position and orientation of the component can be corrected by radial clamps. The radial clamps exert a force in the direction of the center of the component in the plane thereof. Access to the component is enabled for the X-ray tube on one side of the component and allows for a free space on the other side of the component for the beam cone of the X-ray tube.

Abstract: An instruction configured to perform data conversion is executed. The executing the instruction includes determining that an overflow condition exists in a change of a value, specified by the instruction, from one data format to another data format. It is determined that an overflow result control of the instruction is set to a selected value. A result of executing the instruction is provided. The providing the result includes placing a chosen default value in a result location based on determining that the overflow condition exists and that the overflow result control is set to the selected value.

Abstract: An instruction is executed to obtain a result that includes an output value and a result sign code. At least one operation is performed on at least a portion of a source value to provide the output value. The source value is located in a source location which includes a source position to include the source value and a source sign position to include a sign code of the source value. One or more controls of the instruction, including a preserve sign control, are checked to determine the result sign code. Based on, at least, the value of the preserve sign control being set to enabled, the result sign code is the sign code in the source sign position unmodified. The unmodified sign code is provided as the result sign code. The result including the output value and the result sign code is provided.

Abstract: An instruction to perform validity testing of a source value is executed. The executing the instruction includes obtaining the source value using at least one field of the instruction and obtaining a plurality of test controls using a field of the instruction. The one or more test controls of the plurality of test controls are used to specify which digit positions of the source value are to be tested for validity and what codes are valid codes for the digit positions specified to be tested. Validity testing of at least a portion of the source value is performed based on the plurality of test controls obtained using the field of the instruction, and the performing the validity testing provides a result. The result is provided for use in further processing.

Abstract: An instruction to perform validity testing of a source value is executed. The executing the instruction includes obtaining the source value using at least one field of the instruction and performing validity testing of at least a portion of the source value. The performing the validity testing is based on one or more test controls obtained using a field of the instruction. The performing the validity testing determines whether a format of the at least the portion of the source value adheres to a data format variation specified by, at least, the one or more test controls. The performing the validity testing provides a result, and the result is provided for use in further processing.

Abstract: An instruction to perform validity testing of a source value is executed. The executing the instruction includes obtaining the source value using at least one field of the instruction and obtaining a plurality of test controls using a field of the instruction. The one or more test controls of the plurality of test controls are used to specify which digit positions of the source value are to be tested for validity and what codes are valid codes for the digit positions specified to be tested. Validity testing of at least a portion of the source value is performed based on the plurality of test controls obtained using the field of the instruction, and the performing the validity testing provides a result. The result is provided for use in further processing.

Abstract: A method of producing a lipid-encapsulated RNA nanoparticle, comprising the steps a) flowing an aqueous solution comprising an RNA through a 1st tube having an inner diameter (ID) of between about 0.1? and 0.132?; b) flowing an ethanol solution comprising lipids through a 2nd tube having an ID of between about 0.005? and 0.02? at one third the flow rate of the aqueous solution through the 1st tube, wherein the lipids comprise a cationic lipid; and c) mixing the ethanol solution with the aqueous solution by flowing the ethanol solution and the aqueous solution into a mixing module consisting of the 2nd tube perpendicularly joined to the 1st tube; wherein the mixing produces an output solution flowing in the 1st tube comprising a turbulent flow of the RNA and the lipids in between about 10% to 75% ethanol v/v, and wherein the lipid-encapsulated RNA nanoparticles have a bilayer structure.

Abstract: A stator for an electric machine includes a stator body having a large number of stator grooves, wherein, in each stator groove in the radial direction, a plurality of conductors are arranged one above the other. A plurality of spacing elements are configured to maintain a predetermined spacing between the conductors and a spacing of the respective conductors from a groove wall of the stator body, wherein, within the stator groove, respective cooling channels, which are at least partially delimited by the respective conductors, are kept free, whereby a cooling fluid can flow directly along the conductors, wherein each of the conductors has in the cross section thereof an angular form, and each of the corners of the angular form is supported by a respective spacing element against an additional conductor and/or the groove wall.

Abstract: A method of producing a lipid-encapsulated RNA nanoparticle, comprising the steps a) flowing an aqueous solution comprising an RNA through a 1st tube having an inner diameter (ID) of between about 0.1? and 0.132?; b) flowing an ethanol solution comprising lipids through a 2nd tube having an ID of between about 0.005? and 0.02? at one third the flow rate of the aqueous solution through the 1st tube, wherein the lipids comprise a cationic lipid; and c) mixing the ethanol solution with the aqueous solution by flowing the ethanol solution and the aqueous solution into a mixing module consisting of the 2nd tube perpendicularly joined to the 1st tube; wherein the mixing produces an output solution flowing in the 1st tube comprising a turbulent flow of the RNA and the lipids in between about 10% to 75% ethanol v/v, and wherein the lipid-encapsulated RNA nanoparticles have a bilayer structure.