mhurhangee/ep-ind-claims huggingface dataset:
A data processing apparatus comprising: a processor unit configured to perform data processing operations in response to data processing instructions, said data processing instructions referencing program model registers; a set of physical registers configured to store data values which are subjected to said data processing operations; characterised by a tag storage unit configured to store for each physical register a tag value indicative of one of said program model registers, said processor unit configured to reference said tag storage unit in order to perform said data processing operations and said tag storage unit providing a one-to-one mapping between said program model registers and said physical registers; and a tag value exchanger configured to perform a tag switch to exchange two tag values in said tag storage unit, wherein said tag value exchanger is configured to perform said tag switch when said processor unit executes a predetermined data processing instruction, wherein said predetermined data processing instruction references two program model registers and for which a choice of which two physical registers are mapped to which of said two program model registers will have no effect on an outcome of said data processing operations, and said tag value exchanger is configured to perform said tag switch with respect to the tag values indicative of said two program model registers. a processor unit configured to perform data processing operations in response to data processing instructions, said data processing instructions referencing program model registers; a set of physical registers configured to store data values which are subjected to said data processing operations; characterised by a tag storage unit configured to store for each physical register a tag value indicative of one of said program model registers, said processor unit configured to reference said tag storage unit in order to perform said data processing operations and said tag storage unit providing a one-to-one mapping between said program model registers and said physical registers; and a tag value exchanger configured to perform a tag switch to exchange two tag values in said tag storage unit, wherein said tag value exchanger is configured to perform said tag switch when said processor unit executes a predetermined data processing instruction, wherein said predetermined data processing instruction references two program model registers and for which a choice of which two physical registers are mapped to which of said two program model registers will have no effect on an outcome of said data processing operations, and said tag value exchanger is configured to perform said tag switch with respect to the tag values indicative of said two program model registers.
Sensor device for determining rotational speed of a rotatable object (26; 2), comprising a sensor housing with a sensor segment, a mounting segment and a connector segment, the sensor segment and the connector segment being arranged on opposite sides of the mounting segment, wherein a sensing element is arranged at the sensor tip of the sensor segment, characterized in that sensor electronics are arranged inside the sensor segment, the sensor electronics comprising an integrated silicon-on-insulator circuit, wherein the integrated silicon-on-insulator circuit is embedded between flexible polymer substrates, such that the sensor device can withstand continuous operation temperatures of at least 200 °C.
Force measuring device for detecting a compressive force acting on the force measuring device in a main force direction by means of a rotationally symmetrical force measuring body, wherein an outer force output ring is connected to an inner force input element by way of a deformation body carrying deformation measuring elements, and wherein the inner force input element comprises a force input surface on which a first end of a rod-shaped force-transmitting element is arranged in a force-transmitting manner in such a way that a second end of the force-transmitting element opposite the first end projects from the inner force input element against the main force direction and can transmit a compressive force acting on the second end of the force-transmitting element to the force measuring body by way of the force input surface, wherein two or more radial support elements are arranged along a central axis extending through the inner force input element in the main force direction such that they are each spaced apart from one another and spaced apart from the inner force input element, said radial support elements being configured so as to be flexible in the axial direction and rigid in the radial direction, wherein the radial support elements abut the force-transmitting element in a force-transmitting manner, extend radially outwards and are fixed in a force-transmitting manner at a radially outer end to a support body which is rigidly connected to the outer force output ring such that the radial support elements counteract a tilting of the force-transmitting element from the central axis, characterised in that each of the two or more radial support elements comprises an inner fixing ring and an outer fixing ring, which are connected to each other by way of connecting webs extending in a radial direction.
A process for the production of a compound of formula or a salt thereof, comprising the steps of i) coupling by condensation a compound of formula with a compound of formula, or a salt thereof, ii) converting the nitrile function to hydroxy amidine, iii) removing the tert-butyl ether protecting group with a strong acid in the presence of a scavenger, at a temperature of -10 to 30 °C, iv) reducing the hydroxyl amidine or protected hydroxy amidine function to the amidine, leading to the product of formula, wherein, R is a C 1 to C 6 linear or branched aliphatic hydrocarbon chain optionally substituted with a C 6 to C 10 aromatic group. i) coupling by condensation a compound of formula with a compound of formula, or a salt thereof, ii) converting the nitrile function to hydroxy amidine, iii) removing the tert-butyl ether protecting group with a strong acid in the presence of a scavenger, at a temperature of -10 to 30 °C, iv) reducing the hydroxyl amidine or protected hydroxy amidine function to the amidine, leading to the product of formula,
A plate heat exchanger, comprising: a plurality of main plates (110; 370) having ridges and troughs to direct first and second flows of fluids across the main plates (110; 370) to exchange heat between the fluids while maintaining the first and second flows of fluids separate from each other; and a first end plate (120; 320) including first and second inlets (122; 322) to provide the first and second flows to the plurality of main plates (110; 370) and first and second outlets (122; 322) to output the first and second flows from the plurality of main plates (110; 370); and wherein the inward-facing surface of the first end plate (120; 320) is substantially flat and contacts the ridges of a first main plate among the plurality of main plates, wherein at least one slot (323, 325) is formed in the inward-facing surface to provide a fluid communication of the first fluid flow between the inlet (122; 322) and a cavity formed between the first end plate (120; 320) and the first main plate (110; 370), wherein the at least one slot (323, 325) connects to, and extends radially from, the first or second inlet (122; 322). a plurality of main plates (110; 370) having ridges and troughs to direct first and second flows of fluids across the main plates (110; 370) to exchange heat between the fluids while maintaining the first and second flows of fluids separate from each other; and a first end plate (120; 320) including first and second inlets (122; 322) to provide the first and second flows to the plurality of main plates (110; 370) and first and second outlets (122; 322) to output the first and second flows from the plurality of main plates (110; 370); and wherein
A separation system for hydrogen production from NH 3, comprising at least an hydrogen exhaust chamber, at least an hydrogen separation membrane and an ammonia distribution system, comprising a system suitable for inducing the formation of a plasma in the region between the hydrogen separation membrane and the ammonia distribution system, resulting in nearly complete dissociation of the NH3 molecules and subsequent diffusion of the resulting H and H2 through the hydrogen separation membrane, said separation system being characterized in comprising at least a single hydrogen exhaust chamber for H2, and in comprising an energy economizing global heat exchanger dedicated to an optimized recovery of the enthalpy provided to the feed NH 3 stream, by running in countercurrent, within the heat exchanger, the feed NH 3 stream and the product N 2 and H 2 stream (25,F), such as to maximize the energy efficiency of the system.
A piston, comprising: an upper wall surrounding a center axis and presenting a combustion surface; an outer rib extending from said upper wall to a base wall and presenting an outer surface; an inner rib disposed between said outer rib and said center axis and extending from said upper wall to said base wall; said upper wall and said ribs and said base wall presenting a cooling chamber therebetween; said outer rib including a plurality of ring grooves (32, 34, 36); said plurality of ring grooves (32, 34, 36) including a first ring groove being the ring groove closest to said combustion surface and a second ring groove being the ring groove second closest to said combustion surface; each of said ring grooves (32, 34, 36) including a pair of side flanks extending inwardly from said outer surface to a base flank; at least one of said side flanks of said second ring groove being disposed at an angle greater than 90 degrees relative to said base flank of said second ring groove, and the piston including an upper piston part and a lower piston part welded together and together forming said outer rib, characterized in that said side flanks of said first ring groove extend perpendicular to said base flank of said first ring groove; and in that one of said side flanks (56, 156) and said base flank of said second ring groove is provided by said upper piston part and the other side flank of said second ring groove is provided by said lower piston part. an upper wall surrounding a center axis and presenting a combustion surface; an outer rib extending from said upper wall to a base wall and presenting an outer surface; an inner rib disposed between said outer rib and said center axis and extending from said upper wall to said base wall; said upper wall and said ribs and said base wall presenting a cooling chamber therebetween; said outer rib including a plurality of ring grooves (32, 34, 36); said plurality of ring grooves (32, 34, 36) including a first ring groove being the ring groove closest to said combustion surface and a second ring groove being the ring groove second closest to said combustion surface; each of said ring grooves (32, 34, 36) including a pair of side flanks extending inwardly from said outer surface to a base flank; at least one of said side flanks of said second ring groove being disposed at an angle greater than 90 degrees relative to said base flank of said second ring groove, and the piston including an upper piston part and a lower piston part welded together and together forming said outer rib, characterized in that said side flanks of said first ring groove extend perpendicular to said base flank of said first ring groove; and in that one of said side flanks (56, 156) and said base flank of said second ring groove is provided by said upper piston part and the other side flank of said second ring groove is provided by said lower piston part.
A muscle trainer comprising a first curved, elongate spring element (10, 11) and a second curved, elongate spring element (10, 12), the two spring elements (10, 11, 12) being arranged with their concave sides facing each other, having joint elements at their respective end areas and being connected to each other at their two end areas via joints formed from the joint elements, wherein the muscle trainer is designed in one piece, the two spring elements (10, 11, 12) of the one-piece muscle trainer being connected to each other by resilient arcs arranged on each of the convex sides, or is composed of the first spring element (10, 11) and the second spring element (10, 12), and wherein the joint elements of the first spring element are designed as brackets, the brackets being bent in the direction of the concave side of the first spring element and partially enclosing the joint elements of the second spring element, the joint elements of the second spring element being rollers or having a rounded configuration, and a bracket in each case forming a bearing in which the joint element of the second spring element is mounted rotatably.
An antifungal composition comprising an antifungal agent and a compound of formula I:- wherein R 1 is a group selected from CHO; CN; C NH 2; C NHCH 3; C CH 3; COOH; and COOCH 3; R 2 is hydrogen, a hydroxyl group or an alkoxy group with 1 to 3 C atoms; R3 is a straight chain or branched alkyl or alkylene with 4 to 20 C atoms, that is optionally mono- or polysubstituted by a C 1 to C 4 alkyl group; R 4 is a hydroxyl group; R 5 is a halogen group; and R 6 is H or a C 1 to C 4 alkyl group; wherein the antifungal agent is azoxystrobin. wherein R 1 is a group selected from CHO; CN; C NH 2; C NHCH 3; C CH 3; COOH; and COOCH 3; R 2 is hydrogen, a hydroxyl group or an alkoxy group with 1 to 3 C atoms; R3 is a straight chain or branched alkyl or alkylene with 4 to 20 C atoms, that is optionally mono- or polysubstituted by a C 1 to C 4 alkyl group; R 4 is a hydroxyl group; R 5 is a halogen group; and R 6 is H or a C 1 to C 4 alkyl group;
Coaxial resistor for measuring an electric current, comprising a) a forward conductor for conducting the current to be measured, b) a return conductor located inside the forward conductor for conducting the current to be measured, the forward conductor and the return conductor being arranged coaxially and electrically connected in series and conducting the current in opposite current flow directions, and having c) a resistor element made of a resistance material, the resistor element being arranged in the forward conductor or in the return conductor so that the current flows through the resistor element, d) wherein the cross-section of at least the internal return conductor in a section plane perpendicular to the current flow direction is angular, e) wherein the external forward conductor consists of a plurality of flat, preferably rectangular plates, characterised in f) that the internal return conductor consists of a plurality of flat, preferably rectangular plates, and g) that the plates of the forward conductor on the one hand and the plates of the return conductor on the other hand are each arranged in pairs parallel to one another. a) a forward conductor for conducting the current to be measured, b) a return conductor located inside the forward conductor for conducting the current to be measured, the forward conductor and the return conductor being arranged coaxially and electrically connected in series and conducting the current in opposite current flow directions, and having c) a resistor element made of a resistance material, the resistor element being arranged in the forward conductor or in the return conductor so that the current flows through the resistor element, d) wherein the cross-section of at least the internal return conductor in a section plane perpendicular to the current flow direction is angular, e) wherein the external forward conductor consists of a plurality of flat, preferably rectangular plates, f) that the internal return conductor consists of a plurality of flat, preferably rectangular plates, and g) that the plates of the forward conductor on the one hand and the plates of the return conductor on the other hand are each arranged in pairs parallel to one another.
Emulsion concentrate with a content of water-insoluble oil components, hydrophilic nonionic emulsifiers, lipophilic coemulsifiers, polyols and water, which a. comprises less than 50% by weight of water-insoluble oil component - based on the total weight of the concentrate - b. comprises the components,, and in the weight ratio A:B:C:D = 1:(0.25-0.6):(0.25-0.6):(0.45-0.65), wherein it comprises an aqueous fraction of from 35 to 55% by weight. a. comprises less than 50% by weight of water-insoluble oil component - based on the total weight of the concentrate - - based on the total weight of the concentrate - b. comprises the components,, and in the weight ratio A:B:C:D = 1:(0.25-0.6):(0.25-0.6):(0.45-0.65),
A heatsink comprising: a heat exchange device having a flat base configured to interface with a heat source; and a plurality of heat exchange elements in a branched configuration having at least three levels of branching, characterized in the branched configuration extending in three dimensions, and having a fractal variation therebetween. a heat exchange device having a flat base configured to interface with a heat source; and a plurality of heat exchange elements in a branched configuration having at least three levels of branching, characterized in the branched configuration extending in three dimensions, and having a fractal variation therebetween.
A method for manufacturing columnar curved tempered glass, whereby bending and tempering of high temperature flat glass are divided into two stations (8, 9), bending is firstly carried out on the high temperature flat glass output by a heating furnace, the columnar extending direction of the curved glass is perpendicular to the direction the glass output from the heating furnace in the bending process, and then the formed curved glass is output to a tempering station, wherein the relative vertical position of each supporting roller of the glass supporting rollers in the bending mechanism at the bending station is adjustable, and the supporting rollers are arranged in a curve corresponding to the shape of the glass to be formed so as to enable the supported glass to start bending deformation, whereby the formed curved glass is output to the tempering station in the columnar extending direction of the curved glass to start tempering, characterized in that the formed curved glass is output to the tempering station by a transferring scroll wheel arranged between the adjacent supporting rollers.
A manufacturing method of laminate panels having a decoration layer wherein said method comprises a single pass inkjet printing method to form said decoration layer comprising the steps of: - printing copies of a decorative image, which represents a wood, with a printing unit on a web-shaped substrate by transmitting consecutive bitmap rows of the decorative image to the printing unit; wherein the wood is having wood grains which are oriented perpendicular to the bitmap rows of the decorative image; and wherein during said printing step the following steps are performed: - measuring dimensional changes in the web-shaped substrate; - compensating the dimensional changes by: - skipping at least one bitmap row of a copy of said copies; or - reprinting at least one bitmap row of a copy of said copies on the web-shaped substrate. - printing copies of a decorative image, which represents a wood, with a printing unit on a web-shaped substrate by transmitting consecutive bitmap rows of the decorative image to the printing unit; - measuring dimensional changes in the web-shaped substrate; - compensating the dimensional changes by: - skipping at least one bitmap row of a copy of said copies; or - reprinting at least one bitmap row of a copy of said copies on the web-shaped substrate. - skipping at least one bitmap row of a copy of said copies; or - reprinting at least one bitmap row of a copy of said copies on the web-shaped substrate.
Computer implemented method for rendering a tree structure of elements in a graphical user interface depending on a position of a pointing cursor relative to the rendered tree structure, comprising - generating at least a tree view of the tree structure being organized in a plurality of branches; and - determining the position of the pointing cursor relative to the tree view, the position consisting of a first position value according to a first direction and a second position value according to a second direction orthogonal to the first direction; said computer implemented method being characterized by further comprising - automatically selecting the branch for which the first position value of the pointing cursor is aligned with according to the first direction, as an active branch; - determining sub-levels of the active branch to be expanded, depending on the pointing cursor's second position value according to the second direction relative to indentations of the sub-levels; and - automatically updating the tree view by expanding the determined sub-levels of the active branch and collapsing the other branches. - generating at least a tree view of the tree structure being organized in a plurality of branches; and - determining the position of the pointing cursor relative to the tree view, the position consisting of a first position value according to a first direction and a second position value according to a second direction orthogonal to the first direction; said computer implemented method being characterized by further comprising - automatically selecting the branch for which the first position value of the pointing cursor is aligned with according to the first direction, as an active branch; - determining sub-levels of the active branch to be expanded, depending on the pointing cursor's second position value according to the second direction relative to indentations of the sub-levels; and - automatically updating the tree view by expanding the determined sub-levels of the active branch and collapsing the other branches.