mhurhangee/ep-ind-claims huggingface dataset:
A compound of the formula: or a pharmaceutically acceptable salt thereof, wherein: X is O or NR A; A is cycloalkyl, aryl or heterocyclyl; R 1 is hydrogen, OR B, N(R B) 2, SR B, or alkyl, aryl, or heterocyclyl; R 2 is hydrogen, halogen, cyano, OR B, N(R B) 2, SR B, alkyl, aryl, or heterocyclyl; each R 3 is independently halogen, alkyl, ortwo R 3 s may be taken together with the ring to which they are attached to provide cycloalkyl or heterocyclyl; each R 4 is cyano, halogen, hydroxy, nitro, R C, OR C, N(R C) 2, NHC R C, C R C, C N(R C) 2 or SO 2 R C; R A is hydrogen, cyano, nitro, R A1, SO 2 R A1 or SO 2 N(R A1) 2; each R A1 is independently hydrogen, alkyl, heteroalkyl, aryl, or heterocyclyl, each R 8 is independently hydrogen or alkyl; each R C is independently hydrogen, alkyl, heteroalkyl, aryl or heterocyclyl; n is 0-8; and m is 0-4; wherein the term "alkyl" means a straight chain, branched or cyclic hydrocarbon having from 1 to 20 carbon atoms; the term "alkyl" includes saturated hydrocarbons as well as alkenyl and alkynyl moieties; the term "alkenyl" means a straight chain, branched and/or cyclic hydrocarbon having from 2 to 20 carbon atoms and including at least one carbon-carbon double bond; the term "alkynyl" means a straight chain, branched or cyclic hydrocarbon having from 2 to 20 carbon atoms, and including at least one carbon-carbon triple bond. X is O or NR A; A is cycloalkyl, aryl or heterocyclyl; R 1 is hydrogen, OR B, N(R B) 2, SR B, or alkyl, aryl, or heterocyclyl; R 2 is hydrogen, halogen, cyano, OR B, N(R B) 2, SR B, alkyl, aryl, or heterocyclyl; each R 3 is independently halogen, alkyl, ortwo R 3 s may be taken together with the ring to which they are attached to provide cycloalkyl or heterocyclyl; each R 4 is cyano, halogen, hydroxy, nitro, R C, OR C, N(R C) 2, NHC R C, C R C, C N(R C) 2 or SO 2 R C; R A is hydrogen, cyano, nitro, R A1, SO 2 R A1 or SO 2 N(R A1) 2; each R A1 is independently hydrogen, alkyl, heteroalkyl, aryl, or heterocyclyl, each R 8 is independently hydrogen or alkyl; each R C is independently hydrogen, alkyl, heteroalkyl, aryl or heterocyclyl; n is 0-8; and m is 0-4; wherein the term "alkyl" means a straight chain, branched or cyclic hydrocarbon having from 1 to 20 carbon atoms; the term "alkyl" includes saturated hydrocarbons as well as alkenyl and alkynyl moieties; the term "alkenyl" means a straight chain, branched and/or cyclic hydrocarbon having from 2 to 20 carbon atoms and including at least one carbon-carbon double bond; the term "alkynyl" means a straight chain, branched or cyclic hydrocarbon having from 2 to 20 carbon atoms, and including at least one carbon-carbon triple bond.
A graphics processing unit (200; 700) comprising: an instruction decoder; a memory including plurality of memory devices (224A-224N; 714A-714B); compression logic to compress data to be written to the memory; and a streaming multiprocessor (325, 350) coupled with the memory, the streaming multiprocessor (325, 350) to concurrently execute multiple thread groups, wherein the streaming multiprocessor (325, 350) includes a single instruction, multiple thread, SIMT, architecture and the streaming multiprocessor (325, 350) is to execute multiple threads for multiple instructions; wherein the multiple instructions include a first instruction to cause a first portion of the streaming multiprocessor (325, 350) to perform a floating-point operation on multiple floating-point input operands (1602A-B; 1603A-B; 1604A-B) and a second instruction to cause a second portion of the streaming multiprocessor (325, 350) to perform an integer operation on multiple integer operands (1605A-1605B), the first instruction to execute concurrently with the second instruction; wherein the streaming multiprocessor (325, 350) includes a mixed precision core to perform operations for a third instruction of the multiple instructions, the mixed precision core to perform a first operation at a first precision and a second operation at a second precision. an instruction decoder; a memory including plurality of memory devices (224A-224N; 714A-714B); compression logic to compress data to be written to the memory; and a streaming multiprocessor (325, 350) coupled with the memory, the streaming multiprocessor (325, 350) to concurrently execute multiple thread groups, wherein the streaming multiprocessor (325, 350) includes a single instruction, multiple thread, SIMT, architecture and the streaming multiprocessor (325, 350) is to execute multiple threads for multiple instructions; wherein the multiple instructions include a first instruction to cause a first portion of the streaming multiprocessor (325, 350) to perform a floating-point operation on multiple floating-point input operands (1602A-B; 1603A-B; 1604A-B) and a second instruction to cause a second portion of the streaming multiprocessor (325, 350) to perform an integer operation on multiple integer operands (1605A-1605B), the first instruction to execute concurrently with the second instruction; wherein the streaming multiprocessor (325, 350) includes a mixed precision core to perform operations for a third instruction of the multiple instructions, the mixed precision core to perform a first operation at a first precision and a second operation at a second precision.
A moving work management device used in a mounting system comprising: a mounting device provided with a mounting section configured to mount a component on a mounting target, a supply section configured to load a feeder, including a holding member for holding a component, to a loading section having a mounting loading section from which the mounting section can pick up the component and a buffer loading section from which the mounting section cannot pick up the component, and a mounting control section configured to cause the mounting section to pick up the component from the feeder; and a moving work device provided with an accommodation section configured to accommodate the feeder and a moving control section, configured to move the feeder, for collecting the feeder from the supply section or loading the feeder to the supply section; wherein the moving work management device is provided with a management control section configured to create pre-arrangement information in which the moving work device loads standby feeders, to be used from the next time onward in the production of the mounting target, to the buffer loading section based on a production plan including multiple pieces of mounting condition information including information such as information on components, the arrangement order in which components are mounted, arrangement positions, and loading positions of the feeders from which components are picked up, the buffer loading section being arranged in accordance with the positions of the feeders from the next time onward, characterized in that the moving work management device is configured to control the moving work device by causing the standby feeders to stand by in the order in which the feeders to be used next will be used without performing detailed positional adjustments. wherein the moving work management device is provided with a management control section configured to create pre-arrangement information in which the moving work device loads standby feeders, to be used from the next time onward in the production of the mounting target, to the buffer loading section based on a production plan including multiple pieces of mounting condition information including information such as information on components, the arrangement order in which components are mounted, arrangement positions, and loading positions of the feeders from which components are picked up, the buffer loading section being arranged in accordance with the positions of the feeders from the next time onward, characterized in that the moving work management device is configured to control the moving work device by causing the standby feeders to stand by in the order in which the feeders to be used next will be used without performing detailed positional adjustments.
A method of identifying defective nozzles of a printhead having one or more ink planes, each ink plane comprising at least one row of nozzles supplied with a same ink, the nozzles in one ink plane being nominally divided into a plurality of neighbouring cells, each cell comprising a set of neighbouring nozzles, said method comprising the steps of: instructing each nozzle in one ink plane of the printhead to print a respective coded line pattern, each coded line pattern being represented by a column of printed pixels and absent pixels, the coded line patterns being defined by first and second coding schemes, the first coding scheme encoding a position of each nozzle within its respective cell and the second coding scheme encoding a position of each cell within its respective ink plane, firing each nozzle of the ink plane to print a test pattern comprising a plurality of neighbouring coded line patterns; imaging an area of the test pattern to obtain an imaged test pattern; decoding the imaged test pattern using the first and second coding schemes; and identifying the defective nozzles using the decoded imaged test pattern. instructing each nozzle in one ink plane of the printhead to print a respective coded line pattern, each coded line pattern being represented by a column of printed pixels and absent pixels, the coded line patterns being defined by first and second coding schemes, the first coding scheme encoding a position of each nozzle within its respective cell and the second coding scheme encoding a position of each cell within its respective ink plane, firing each nozzle of the ink plane to print a test pattern comprising a plurality of neighbouring coded line patterns; imaging an area of the test pattern to obtain an imaged test pattern; decoding the imaged test pattern using the first and second coding schemes; and identifying the defective nozzles using the decoded imaged test pattern.
An organic electrochemical transistor comprising source and drain connected by a conductive channel, a gate electrode, a catalytic layer and a biologic detection layer, wherein the catalytic layer is a composite material comprising noble metal nanoparticles and a conductive matrix selected from an organic conductive polymer or a conductive allotrope of carbon, wherein the catalytic layer is in direct contact with the gate electrode; wherein the biologic detection layer is in direct contact with the catalytic layer; wherein noble metal nanoparticles are grafted with thiophenol derivatives of formula: and wherein R moiety of thiophenol derivatives is selected from: • a charged moiety, preferably R moiety comprises a function selected from charged ternary amine, quaternary amine, sulfonate and phosphonate, more preferably thiophenol derivative is selected from 4- trimethylammonium thiophenol (IIa), 4-mercaptobenzenesulfonic acid (IIb), N -4-thiophenol- (2, 5 diamino) propenamide (IIc) and, 4- mercaptobenzenephosphonic acid (IId) or • a moiety comprising at least one aromatic group, preferably thiophenol derivative is selected from N -(4-mercaptophenyl)pyrene-1-carboxamide (IIIa) and 4-(tritylamino)benzenethiol (IIIb) wherein the catalytic layer is in direct contact with the gate electrode; wherein the biologic detection layer is in direct contact with the catalytic layer; wherein noble metal nanoparticles are grafted with thiophenol derivatives of formula: and wherein R moiety of thiophenol derivatives is selected from: • a charged moiety, preferably R moiety comprises a function selected from charged ternary amine, quaternary amine, sulfonate and phosphonate, more preferably thiophenol derivative is selected from 4- trimethylammonium thiophenol (IIa), 4-mercaptobenzenesulfonic acid (IIb), N -4-thiophenol- (2, 5 diamino) propenamide (IIc) and, 4- mercaptobenzenephosphonic acid (IId) or • a moiety comprising at least one aromatic group, preferably thiophenol derivative is selected from N -(4-mercaptophenyl)pyrene-1-carboxamide (IIIa) and 4-(tritylamino)benzenethiol (IIIb) • a charged moiety, preferably R moiety comprises a function selected from charged ternary amine, quaternary amine, sulfonate and phosphonate, more preferably thiophenol derivative is selected from 4- trimethylammonium thiophenol (IIa), 4-mercaptobenzenesulfonic acid (IIb), N -4-thiophenol- (2, 5 diamino) propenamide (IIc) and, 4- mercaptobenzenephosphonic acid (IId) or • a moiety comprising at least one aromatic group, preferably thiophenol derivative is selected from N -(4-mercaptophenyl)pyrene-1-carboxamide (IIIa) and 4-(tritylamino)benzenethiol (IIIb)
A method for providing a crystalline germanium layer on a base substrate having a crystalline surface, the method comprising: - cleaning the base substrate for removing contaminants and/or native oxides from the crystalline surface, - providing an amorphous germanium layer on the crystalline surface of the cleaned base substrate, and - crystallising the amorphous germanium layer by annealing the base substrate so as to provide a crystalline germanium layer, characterised in that providing the amorphous germanium layer is performed by exposing the base substrate to a hydrogen source and/or a non-reactive gas source during formation of the germanium layer; and in that the base substrate is a Si substrate having at least a surface with hexagonal symmetry. - cleaning the base substrate for removing contaminants and/or native oxides from the crystalline surface, - providing an amorphous germanium layer on the crystalline surface of the cleaned base substrate, and - crystallising the amorphous germanium layer by annealing the base substrate so as to provide a crystalline germanium layer,
Drain channel, comprising: - a lower tray with a bottom surface, an outlet opening arranged in the bottom surface and standing walls with horizontal flanges provided along the edge of the bottom surface; characterized by - one holder formed from two U-shaped profiles placed on the bottom surface of the lower tray, which U-shaped profiles comprises a substantially U-shaped cross-section with a bottom surface and standing walls along the bottom surface; wherein the two U-shaped profiles lie against standing walls of the lower tray. - a lower tray with a bottom surface, an outlet opening arranged in the bottom surface and standing walls with horizontal flanges provided along the edge of the bottom surface; - one holder formed from two U-shaped profiles placed on the bottom surface of the lower tray, which U-shaped profiles comprises a substantially U-shaped cross-section with a bottom surface and standing walls along the bottom surface;
Suction nozzle, in particular for a hard surface suction cleaner, comprising a suction mouth which is adjoined by a suction duct, the end of the suction duct facing away from the suction mouth being connectable to a source of vacuum for creating a suction flow, wherein the suction duct has a bottom wall and a top wall which are connected to one another via arcuately curved side walls (84, 85); and wherein the suction nozzle has two flexible wiper lips (62, 65) which define the suction mouth; characterized in that one of the two wiper lips has recesses at the free front edge thereof projecting from the suction duct and wherein at least one of the two wiper lips has, in the region of the suction mouth, a plurality of elevations facing towards the other wiper lip, wherein the elevations are arranged such that they are distributed over only a portion of the wiper lip.
A rotor of an electric machine comprising: - a magnetic mass extending along a longitudinal axis (X-X') including a plurality of housings, each housing being intended to receive a respective electrically-conductive bar, and at least over a portion of its length along the longitudinal axis (X-X') at least one opening extending radially from one of the housings and opening outwardly along a radial direction, substantially perpendicular to the longitudinal axis (X-X'), each opening being in the form of a groove whose cross-section perpendicular to the longitudinal axis (X-X') comprises: • a first portion with a substantially rectangular shape, the first portion opening towards one of the housings, and • a second portion with a substantially trapezoidal shape into which the first portion opens, the second portion opens outwards of the magnetic mass along a radial direction, - a short-circuit cage extending along the longitudinal axis (X-X') and including: • two short-circuit rings (24, 26) placed on either side of the magnetic mass along the longitudinal axis (X-X'), • a plurality of electrically-conductive bars, each electrically connecting the two short-circuit rings (24, 26), characterised in that the rotor comprises at least one electrically-insulating plug, the plug(s) being arranged inside the or each opening so as to seal the or each opening over at least one portion of its length along the longitudinal axis. - a magnetic mass extending along a longitudinal axis (X-X') including a plurality of housings, each housing being intended to receive a respective electrically-conductive bar, and at least over a portion of its length along the longitudinal axis (X-X') at least one opening extending radially from one of the housings and opening outwardly along a radial direction, substantially perpendicular to the longitudinal axis (X-X'), each opening being in the form of a groove whose cross-section perpendicular to the longitudinal axis (X-X') comprises: • a first portion with a substantially rectangular shape, the first portion opening towards one of the housings, and • a second portion with a substantially trapezoidal shape into which the first portion opens, the second portion opens outwards of the magnetic mass along a radial direction, • a first portion with a substantially rectangular shape, the first portion opening towards one of the housings, and • a second portion with a substantially trapezoidal shape into which the first portion opens, the second portion opens outwards of the magnetic mass along a radial direction, - a short-circuit cage extending along the longitudinal axis (X-X') and including: • two short-circuit rings (24, 26) placed on either side of the magnetic mass along the longitudinal axis (X-X'), • a plurality of electrically-conductive bars, each electrically connecting the two short-circuit rings (24, 26), • two short-circuit rings (24, 26) placed on either side of the magnetic mass along the longitudinal axis (X-X'), • a plurality of electrically-conductive bars, each electrically connecting the two short-circuit rings (24, 26),
The use of a polyalkylene glycol of general formula I HO-(A-O) p -(CH 2 CH 2 -O) m -(A-O) q -H wherein A is a C 3 - to C 20 -alkylene group or a mixture of such alkylene groups, m is a number of from 2 to 100 and p and q are each numbers of from 1 to 100, as an additive in a fuel for reducing fuel consumption in the operation of an internal combustion engine with this fuel.
A control unit for a process system in which at least one medium is transferred from at least one first state to at least one second state, characterized by a controller which is connected to at least one measuring instrument (30, 31, 32) for detecting at least one measurable variable of the medium in the first state and to at least one measuring instrument (34, 36) for detecting at least one measurable variable of the medium in the second state, the controller being further connected to at least one measuring instrument for detecting an energy consumption of the process system during the transfer of the medium from the at least one first state to the at least one second state, the controller comprising a processor which relates the energy consumption to the difference between the measurement variables of the medium in the first state and the second state, the controller comprising a memory means in which an ideal simulated physical comparison value without efficiency loss of the energy demand for transferring a defined amount of a medium from a defined first state to a defined second state is stored, the controller comprising a comparator which compares the ideal simulated physical comparison value without efficiency loss of the energy demand to the measured energy consumption based on the actual amount of the medium transferred from the first state to the second state, the controller comprising a display device which displays the result of the comparison. a controller which is connected to at least one measuring instrument (30, 31, 32) for detecting at least one measurable variable of the medium in the first state and to at least one measuring instrument (34, 36) for detecting at least one measurable variable of the medium in the second state, the controller being further connected to at least one measuring instrument for detecting an energy consumption of the process system during the transfer of the medium from the at least one first state to the at least one second state, the controller comprising a processor which relates the energy consumption to the difference between the measurement variables of the medium in the first state and the second state, the controller comprising a memory means in which an ideal simulated physical comparison value without efficiency loss of the energy demand for transferring a defined amount of a medium from a defined first state to a defined second state is stored, the controller comprising a comparator which compares the ideal simulated physical comparison value without efficiency loss of the energy demand to the measured energy consumption based on the actual amount of the medium transferred from the first state to the second state, the controller comprising a display device which displays the result of the comparison.
A cleaner head for a vacuum cleaning appliance, the cleaner head comprising: a main body supporting an agitator, the agitator comprising a rotatable cylindrical body that bears an elongate agitator formation for engaging a surface as the cylindrical body rotates, wherein the elongate agitator formation includes: a first agitator row that extends around the cylindrical body in a direction from a respective first edge of the cylindrical body towards a respective second edge in a first helical direction, the first agitator row extending from a position proximate the first edge towards or beyond a centre of the cylindrical body, and a second agitator row that extends around the cylindrical body in a direction from the second edge of the cylindrical body towards the first edge in a second helical direction that is counter to the first helical direction, the second agitator row extending from a position proximate the second edge towards or beyond the centre of the cylindrical body, the first and second agitator rows extend axially along the cylindrical body such that they do not overlap with one another, wherein the first agitator row comprises agitators of a first material and wherein the second agitator row comprises agitators of a second material that is different to the first material. a main body supporting an agitator, the agitator comprising a rotatable cylindrical body that bears an elongate agitator formation for engaging a surface as the cylindrical body rotates, wherein the elongate agitator formation includes: a first agitator row that extends around the cylindrical body in a direction from a respective first edge of the cylindrical body towards a respective second edge in a first helical direction, the first agitator row extending from a position proximate the first edge towards or beyond a centre of the cylindrical body, and a second agitator row that extends around the cylindrical body in a direction from the second edge of the cylindrical body towards the first edge in a second helical direction that is counter to the first helical direction, the second agitator row extending from a position proximate the second edge towards or beyond the centre of the cylindrical body, the first and second agitator rows extend axially along the cylindrical body such that they do not overlap with one another, wherein the first agitator row comprises agitators of a first material and wherein the second agitator row comprises agitators of a second material that is different to the first material.