mhurhangee/ep-ind-claims huggingface dataset:
Nozzle arrangement (4, 104, 204, 304) for a granulation device, having - a nozzle plate (40, 340, 440, 540, 640, 740, 840, 940, 1040, 1140, 1340, 1540) with nozzle holes (42, 1342), and - a pressure-regulating device (26, 126, 226, 426, 1126, 1510) comprising: - a basic body (30, 130, 230, 430) with a fluid-inlet side (32, 432) and also a fluid-outlet side, - a flow channel (46, 146, 246, 446,1146) which is configured in the basic body (30, 130, 230, 430) for fluid-conducting connection of the fluid-inlet side (32, 432) to the fluid-outlet side, and - an annular channel portion (50, 150, 250, 450, 550, 650, 850, 1050, 1150, 1350) which is connected for fluid conduction to the flow channel (46, 146, 246, 446, 1146) and configured in the region of the fluid-outlet side, characterised by a flow cross-section regulating element (52, 186, 274, 474, 996, 1098, 1198, 1298, 1482) which is movable relative to the annular channel portion (50, 150, 250, 450, 550, 650, 850, 1050, 1150, 1350) and/or to the flow channel (46, 146, 246, 446, 1146) for influencing a flow cross-section of the annular channel portion (50, 150, 250, 450, 550, 650, 850, 1050, 1150, 1350). - a nozzle plate (40, 340, 440, 540, 640, 740, 840, 940, 1040, 1140, 1340, 1540) with nozzle holes (42, 1342), and - a pressure-regulating device (26, 126, 226, 426, 1126, 1510) comprising: - a basic body (30, 130, 230, 430) with a fluid-inlet side (32, 432) and also a fluid-outlet side, - a flow channel (46, 146, 246, 446,1146) which is configured in the basic body (30, 130, 230, 430) for fluid-conducting connection of the fluid-inlet side (32, 432) to the fluid-outlet side, and - an annular channel portion (50, 150, 250, 450, 550, 650, 850, 1050, 1150, 1350) which is connected for fluid conduction to the flow channel (46, 146, 246, 446, 1146) and configured in the region of the fluid-outlet side, - a basic body (30, 130, 230, 430) with a fluid-inlet side (32, 432) and also a fluid-outlet side, - a flow channel (46, 146, 246, 446,1146) which is configured in the basic body (30, 130, 230, 430) for fluid-conducting connection of the fluid-inlet side (32, 432) to the fluid-outlet side, and - an annular channel portion (50, 150, 250, 450, 550, 650, 850, 1050, 1150, 1350) which is connected for fluid conduction to the flow channel (46, 146, 246, 446, 1146) and configured in the region of the fluid-outlet side,
Operating device for lighting means, having a circuit for dividing a rectified alternating voltage to direct voltages of lower levels, wherein the circuit comprises a Power Factor Correction, PFC, block comprising a plurality of half bridge converters (102, 103, 104) that are arranged such that the sum of the input voltage drops across the half bridge converters (102, 103, 104) corresponds to the value of the rectified alternating voltage, wherein the circuit is the first active stage in a power supply for the lighting means, each of the half bridge converters (102, 103, 104) is operated with a fixed frequency, and each of the half bridge converters (102, 103, 104) is operated with the same frequency.
A pharmaceutical composition for use in treating glioblastoma multiforme, wherein the pharmaceutical composition comprises: a first dsRNA comprising a sense strand and an antisense strand, wherein the antisense strand comprises a region of complementarity which is less than 30 nucleotides in length and which is substantially complementary to at least a part of an mRNA encoding a deltaEGFR; and a second dsRNA comprising a sense strand and an antisense strand, wherein the antisense strand comprises a region of complementarity which is less than 30 nucleotides in length and which is substantially complementary to at least a part of an mRNA encoding an IL-6, wherein the substantially complementary regions of complementarity are fully complementary to the respective mRNA or form not more than 4 mismatched base pairs upon hybridization, while retaining the ability to hybridize under the conditions most relevant to their ultimate application. a first dsRNA comprising a sense strand and an antisense strand, wherein the antisense strand comprises a region of complementarity which is less than 30 nucleotides in length and which is substantially complementary to at least a part of an mRNA encoding a deltaEGFR; and a second dsRNA comprising a sense strand and an antisense strand, wherein the antisense strand comprises a region of complementarity which is less than 30 nucleotides in length and which is substantially complementary to at least a part of an mRNA encoding an IL-6,
A roof window arrangement for use in an inclined roof structure including at least a first and a second roof window (1, 2), characterized in that the first roof window is located below the second roof window when seen in the direction of inclination of the 5 roof structure, each of the at least first and second roof windows comprising a mounting bracket (11, 21) and being interconnected by a connector bracket, wherein said connector bracket comprises a first connecting section connected to the mounting bracket of the first roof window and a second connecting section connected to the mounting bracket of the second roof window, said first connecting section extends in a first direction from a centre section of the connector bracket and is connected to the mounting bracket on the first roof window in a pivot connection, said second connecting section extends in a second direction from a centre section of the connector bracket and is connected to the mounting bracket on the second roof window in a fixed connection, and said first and second directions (D1, D2) are non-parallel. said connector bracket comprises a first connecting section connected to the mounting bracket of the first roof window and a second connecting section connected to the mounting bracket of the second roof window, said first connecting section extends in a first direction from a centre section of the connector bracket and is connected to the mounting bracket on the first roof window in a pivot connection, said second connecting section extends in a second direction from a centre section of the connector bracket and is connected to the mounting bracket on the second roof window in a fixed connection, and said first and second directions (D1, D2) are non-parallel.
A method comprising: maintaining a plurality of executables for a task in a device, each executable capable of performing the task; in response to a change in an operating environment of the device, executing (403, 503) each executable to perform a test run of the task, each execution consuming an amount of power under the changed operating environment; and selecting (405, 505) one of the executables to perform the task in the future based on the amounts of power consumed for the test run of the task, wherein the selected one executable requires no more power than each of remaining ones of the executables. maintaining a plurality of executables for a task in a device, each executable capable of performing the task; in response to a change in an operating environment of the device, executing (403, 503) each executable to perform a test run of the task, each execution consuming an amount of power under the changed operating environment; and selecting (405, 505) one of the executables to perform the task in the future based on the amounts of power consumed for the test run of the task, wherein the selected one executable requires no more power than each of remaining ones of the executables.
A device for a solid oxide fuel cell or a solid oxide electrolysis cell, the device comprising two integral one-piece units, wherein each integral one-piece unit includes a current collector and a manifold, wherein the solid oxide fuel cell or the solid oxide electrolysis cell is of a flat tubular type, wherein a first integral one-piece unit is disposed adjacent to the first cell and a second integral one-piece unit is disposed adjacent to the last cell of a flat tubular solid oxide cell stack that includes a plurality of unit cells, wherein each of the integral one-piece units includes a gas inlet or outlet port connected horizontally to a corresponding connection hole of the respective first or last cell in the flat tubular solid oxide cell stack that includes the plurality of unit cells.
A method comprising: encoding uplink control information, in the following also referred to as UCI, by a user equipment, in the following also referred to as UE, in a new radio, in the following also referred to as NR, network, wherein the UCI is encoded to have a first UCI bitstream having a first UCI codeword size and a second UCI bitstream having a second UCI codeword size; adjusting the first UCI bitstream such that the first UCI codeword size is a multiple of a modulation order; modulating and mapping the adjusted first UCI bitstream using a modulation scheme having the modulation order onto a plurality of resource elements, in the following also referred to as Res,; and transmitting the UCI over a physical uplink control channel, in the following also referred to as PUCCH,; wherein the first UCI bitstream and the second UCI bitstream are modulated and mapped separately and independently, and the adjusting of the first UCI bitstream is to enable parallel processing between the first UCI bitstream and the second UCI bitstream. encoding uplink control information, in the following also referred to as UCI, by a user equipment, in the following also referred to as UE, in a new radio, in the following also referred to as NR, network, wherein the UCI is encoded to have a first UCI bitstream having a first UCI codeword size and a second UCI bitstream having a second UCI codeword size; adjusting the first UCI bitstream such that the first UCI codeword size is a multiple of a modulation order; modulating and mapping the adjusted first UCI bitstream using a modulation scheme having the modulation order onto a plurality of resource elements, in the following also referred to as Res,; and transmitting the UCI over a physical uplink control channel, in the following also referred to as PUCCH,; wherein the first UCI bitstream and the second UCI bitstream are modulated and mapped separately and independently, and the adjusting of the first UCI bitstream is to enable parallel processing between the first UCI bitstream and the second UCI bitstream.
Skin care composition comprising: a) water-soluble dye polymer comprising polymer backbone having negatively charged reactive dye substituent covalently bound thereto; and b) cosmetically acceptable carrier; wherein the dye polymer is present in amount of 0.00001 to 0.1 % in terms of reactive dye substituent by weight of the skin care composition, preferably 0.001 to 0.1 % wherein the polymer backbone is derived from polyethyleneimine, polysaccharide, polyurethane or a polymer having the INCI designation Polyquaternium. a) water-soluble dye polymer comprising polymer backbone having negatively charged reactive dye substituent covalently bound thereto; and b) cosmetically acceptable carrier;
A process for the preparation of a crosslinked amine polymer comprising crosslinking a preformed amine polymer in a reaction mixture to form a crosslinked amine polymer, the reaction mixture comprising the preformed amine polymer, a solvent, a crosslinking agent, and a swelling agent for the preformed amine polymer, wherein the preformed amine polymer has an absorption capacity for the swelling agent, and the amount of swelling agent in the reaction mixture is less than the absorption capacity of the preformed amine polymer for the swelling agent; wherein the weight ratio of swelling agent to preformed amine polymer in the reaction mixture is less than 1:1, the preformed amine polymer comprises the residue of an amine corresponding to Formula 1: wherein R 1, R 2 and R 3 are independently hydrogen, hydrocarbyl, substituted hydrocarbyl provided, however, at least one of R 1, R 2 and R 3 is other than hydrogen; wherein a solvent is included in the crosslinking step to disperse the preformed crosslinked polymer beads and optionally the crosslinking agent and the solvent may be the same. the reaction mixture comprising the preformed amine polymer, a solvent, a crosslinking agent, and a swelling agent for the preformed amine polymer, wherein the preformed amine polymer has an absorption capacity for the swelling agent, and the amount of swelling agent in the reaction mixture is less than the absorption capacity of the preformed amine polymer for the swelling agent; wherein the weight ratio of swelling agent to preformed amine polymer in the reaction mixture is less than 1:1, the preformed amine polymer comprises the residue of an amine corresponding to Formula 1: wherein R 1, R 2 and R 3 are independently hydrogen, hydrocarbyl, substituted hydrocarbyl provided, however, at least one of R 1, R 2 and R 3 is other than hydrogen; wherein a solvent is included in the crosslinking step to disperse the preformed crosslinked polymer beads and optionally the crosslinking agent and the solvent may be the same.
An arrangement of LCL filter structure, where the filter structure comprises three pairs of two chokes (2, 3), (4, 5), (6, 7) per phase U, V, W, respectively; each of the choke has a winding wound around a yokeless, columnar core having at least two axes X-X, X'-X', characterised in that the LCL filter structure for a single phase U,V,W has at least one choke with the winding wound around a yokeless, columnar core situated centrally around the other axes Y-Y, Y'-Y'; the axes Y-Y, Y'-Y' are situated parallel to the axes X-X, X'-X' in such a distance that each of the singular chokes of each pair of the chokes is not in contact with any other chokes, and a projection of winding wound around the axis Y-Y or Y'-Y', respectively, of one choke of each pair of the chokes (4, 5) is overlapped on the other winding of one of the other chokes (3, 7) arranged around axis X-X or on the other winding of one of the other chokes (2, 6) arranged around axis X'-X'; all pairs of the chokes (2, 3), (4, 5), (6, 7) are placed inside a shielding enclosure forming one magnetic screen for all chokes together.
A method performed by a wireless transmit/receive unit, WTRU, the method comprising: the WTRU performing a service request procedure for circuit switched fallback, CSFB; the WTRU determining that a bearer is not established; performing a detach procedure and entering an EMM-DEREGISTERED state without initiating an attach procedure in a circuit switched domain; the WTRU, in the EMM-DEREGISTERED state, reselecting to a circuit switched domain; and continuing with a circuit switched service. the WTRU performing a service request procedure for circuit switched fallback, CSFB; the WTRU determining that a bearer is not established; performing a detach procedure and entering an EMM-DEREGISTERED state without initiating an attach procedure in a circuit switched domain; the WTRU, in the EMM-DEREGISTERED state, reselecting to a circuit switched domain; and continuing with a circuit switched service.
A method for the preparation of 2'- O -fucosyllactose, characterized in that a compound of general formula 1 - wherein R 1 is benzyl or 4-methylbenzyl, and R 2 is H - or a hydrate or solvate thereof is subjected to catalytic hydrogenolysis. - wherein R 1 is benzyl or 4-methylbenzyl, and R 2 is H - or a hydrate or solvate thereof is subjected to catalytic hydrogenolysis.
A method for recognizing gesture strokes in user input applied onto an electronic document via a touch-based user interface, comprising: receiving data generated based on the user input, the data representing a stroke and comprising a plurality of ink points in a rectangular coordinate space and a plurality of timestamps associated respectively with the plurality of ink points; segmenting the plurality of ink points into a plurality of segments each corresponding to a respective sub-stroke of the stroke and comprising a respective subset of the plurality of ink points; determining at least one scale of the electronic document; generating a plurality of feature vectors based respectively on the plurality of segments, the feature vectors comprising features of the segments; normalizing a subset of the features of the feature vectors according to the at least one scale; and applying the plurality of feature vectors as an input sequence representing the stroke to a trained stroke classifier to generate a vector of probabilities including a probability that the stroke is a non-gesture stroke and a probability that the stroke is a given gesture stroke of a set of gesture types. receiving data generated based on the user input, the data representing a stroke and comprising a plurality of ink points in a rectangular coordinate space and a plurality of timestamps associated respectively with the plurality of ink points; segmenting the plurality of ink points into a plurality of segments each corresponding to a respective sub-stroke of the stroke and comprising a respective subset of the plurality of ink points; determining at least one scale of the electronic document; generating a plurality of feature vectors based respectively on the plurality of segments, the feature vectors comprising features of the segments; normalizing a subset of the features of the feature vectors according to the at least one scale; and applying the plurality of feature vectors as an input sequence representing the stroke to a trained stroke classifier to generate a vector of probabilities including a probability that the stroke is a non-gesture stroke and a probability that the stroke is a given gesture stroke of a set of gesture types.
A method of characterizing a preparation of viral particles comprising the steps of: a) providing a preparation of viral particles, wherein the viral particles are adeno-associated virus particles; b) subjecting the preparation to interferometric scattering mass spectrometry (ISCAMS), in an interferometric scattering microscope, to generate mass distribution data for the viral particles; c) determining the levels of empty capsids and capsids comprising a genome among the viral particles from the mass distribution data. a) providing a preparation of viral particles, wherein the viral particles are adeno-associated virus particles; b) subjecting the preparation to interferometric scattering mass spectrometry (ISCAMS), in an interferometric scattering microscope, to generate mass distribution data for the viral particles; c) determining the levels of empty capsids and capsids comprising a genome among the viral particles from the mass distribution data.
Integrated circuit comprising a processor for processing data and at least two modules (M1, M2, M3), executing different operating instructions, for processing data packets selected by the processor, characterized in that the integrated circuit comprises a router (ROUTER) connected to all modules (M1, M2, M3) and to the processor for controlling the data traffic between the processor and the modules (M1, M2, M3), further characterized in that the router is capable of receiving from the processor data packets and associated instructions to perform specific operations executable by the modules (M1, M2, M3) in a predetermined sequence for individual data packets, of coordinating the control of the sequences on its own, of transmitting the data packets to the corresponding modules (M1, M2, M3) and of transmitting the data packets processed according to the predetermined instructions to the processor.
Method for cleaning a combustion chamber of an internal combustion engine, having the following steps: introducing a gaseous substance into a cooling device, wherein the gaseous substance has, at least upstream of the cooling device, a relative humidity of greater than 0%,controlling the cooling device by way of a control device, as a result of which a temperature in the cooling device is controlled and/or regulated by way of the control device, cooling the substance in the cooling device to below a dewpoint, such that a water precipitate is formed, introducing the substance comprising the precipitate into a combustion chamber of the internal combustion engine, performing a combustion reaction in the combustion chamber, and discharging residues from the combustion chamber.
An adsorption separation method by using a tube-shaped apatite crystal, comprising adsorbing protein or amino acid by using a tube-shaped apatite crystal; and causing the apatite crystal on which the protein or amino acid is adsorbed to contact an aqueous chloride solution, and selectively isolating the adsorbed protein or amino acid, wherein the tube-shaped apatite crystal is a monocrystal given by a general formula M 2 5 (P0 4) 3 X, M 2 denotes at least one element selected from the group consisting of divalent alkali earth metal and Eu, and X denotes at least one element or molecule selected from the group consisting of halogen element.
A method of controlling source terminal transmissions from a source terminal in an in-band communication system, the method comprising: detecting a request signal to transmit a user data message at the source terminal; storing a message identifier at the source terminal; transmitting a synchronization signal from the source terminal upon detection of the request signal; transmitting the user data message from the source terminal; receiving a low layer acknowledgement signal comprised of a first synchronization sequence followed by a low layer acknowledgement message; receiving a high layer application signal comprised of a second synchronization sequence followed by a transformed high layer application message; wherein the second synchronization sequence consists of the inverted sequence to that of the first synchronization sequence; determining the received low layer acknowledgement signal to be a low layer acknowledgement signal based on determination of the synchronization sequence as a first synchronization sequence; determining the received high layer application signal to be a high layer application signal based on determination of the synchronization sequence as a second synchronization sequence; and discontinuing transmission of the user data message upon detection of the low layer acknowledgement signal or of the high layer application signal. detecting a request signal to transmit a user data message at the source terminal; storing a message identifier at the source terminal; transmitting a synchronization signal from the source terminal upon detection of the request signal; transmitting the user data message from the source terminal; receiving a low layer acknowledgement signal comprised of a first synchronization sequence followed by a low layer acknowledgement message; receiving a high layer application signal comprised of a second synchronization sequence followed by a transformed high layer application message; wherein the second synchronization sequence consists of the inverted sequence to that of the first synchronization sequence; determining the received low layer acknowledgement signal to be a low layer acknowledgement signal based on determination of the synchronization sequence as a first synchronization sequence; determining the received high layer application signal to be a high layer application signal based on determination of the synchronization sequence as a second synchronization sequence; and discontinuing transmission of the user data message upon detection of the low layer acknowledgement signal or of the high layer application signal.