mhurhangee/ep-ind-claims huggingface dataset:
A fuel tank arrangement for a dual fuel internal combustion engine, said fuel tank arrangement comprising a fuel tank arranged to supply liquid fuel to said dual fuel internal combustion engine, wherein said fuel tank arrangement comprises a return conduit connected to said fuel tank and configured to supply leaked fuel from said dual fuel internal combustion engine to said fuel tank, wherein the fuel tank arrangement comprises a first fuel separation arrangement positioned in fluid communication between said fuel tank and an outlet to an ambient environment thereof, characterized in that said first fuel separation arrangement comprising a cavity, at least one inlet through-hole between said cavity and the fuel tank, a return through-hole between said cavity and the fuel tank, and an outlet conduit in fluid communication with the outlet to the ambient environment, wherein a cross-sectional area of the at least one inlet through-hole is smaller than a cross-sectional area of the cavity.
An apparatus for positioning a sample carrier plate, wherein the apparatus comprises: a main body for receiving the sample carrier plate; positioning stops (106, 108), disposed in diagonally opposed first corner regions of the main body, and which are pre-tensioned for clamping the sample carrier plate and arranged displaceably; an actuating device arranged in a second corner region of the main body, which is arranged in such a way that by operating the actuating device, the positioning stops (106, 108) are transferred between an operating condition in which the sample carrier plate is engaged, and an operating state in which the sample carrier plate is released; a force transmitting member adapted to transmit an actuating force from the actuating device to the positioning stops (106, 108); wherein the force transmitting member is rotatably supported on a coupling disk; a coupling rod, which by means of the actuating device is rotatably coupled to the coupling disk, wherein the coupling disk is mechanically coupled with the actuating device and the positioning stops (106, 108); wherein the coupling rod has an articulated connection to the rotatably supported coupling disk; wherein the second corner region of the main body is different from the first corner region of the main body; wherein two out of four corners of the substantially rectangular apparatus are provided with the positioning stops (106, 108) and another one of the four corners is provided with the actuating device as functional components. a main body for receiving the sample carrier plate; positioning stops (106, 108), disposed in diagonally opposed first corner regions of the main body, and which are pre-tensioned for clamping the sample carrier plate and arranged displaceably; an actuating device arranged in a second corner region of the main body, which is arranged in such a way that by operating the actuating device, the positioning stops (106, 108) are transferred between an operating condition in which the sample carrier plate is engaged, and an operating state in which the sample carrier plate is released; a force transmitting member adapted to transmit an actuating force from the actuating device to the positioning stops (106, 108); wherein the force transmitting member is rotatably supported on a coupling disk; a coupling rod, which by means of the actuating device is rotatably coupled to the coupling disk, wherein the coupling disk is mechanically coupled with the actuating device and the positioning stops (106, 108); wherein the coupling rod has an articulated connection to the rotatably supported coupling disk; wherein the second corner region of the main body is different from the first corner region of the main body; wherein two out of four corners of the substantially rectangular apparatus are provided with the positioning stops (106, 108) and another one of the four corners is provided with the actuating device as functional components.
Smart plug which is designed to electrically connect a household appliance to electrical power lines and is configured to determine the operating cycle performed by said household appliance, said smart plug comprising electronic control means configured to: - measure current and voltage of the electric power supplied to said household appliance, via said smart plug, - determine electric quantities indicative of at least current harmonics and/or voltage harmonics, based on said measured current and voltage, - recognize the electric loads of said household appliance which have been activated during an operating cycle based on one or more of said determined electric quantities; - determine the operating cycle performed by the household appliance based on said recognized electric loads and their sequence of activation during said operating cycle, - communicate said determined operating cycle to a network system, - store electric signatures of the loads which contains information indicative of one or more of said electric quantities associated to activation of electric loads of said household appliance, - when the household appliance is performing an operating cycle, determine electric signatures based on one or more electric quantities, - recognize said electric loads being activated during said operating cycle based on said electric signatures determined when the operating cycle was performed, and said stored electric signatures. - measure current and voltage of the electric power supplied to said household appliance, via said smart plug, - determine electric quantities indicative of at least current harmonics and/or voltage harmonics, based on said measured current and voltage, - recognize the electric loads of said household appliance which have been activated during an operating cycle based on one or more of said determined electric quantities; - determine the operating cycle performed by the household appliance based on said recognized electric loads and their sequence of activation during said operating cycle, - communicate said determined operating cycle to a network system, - store electric signatures of the loads which contains information indicative of one or more of said electric quantities associated to activation of electric loads of said household appliance, - when the household appliance is performing an operating cycle, determine electric signatures based on one or more electric quantities, - recognize said electric loads being activated during said operating cycle based on said electric signatures determined when the operating cycle was performed, and said stored electric signatures.
A traction-braking device for a motorized wheel of an electric vehicle having a stator assembly, the traction-braking device including: - a stub-axle support, the stub-axle support having a securing base for connecting the traction-braking device to the vehicle, the stub-axle support being intended to fixedly support the stator assembly and to rotationally support the rotor and the motorized wheel having an axis of rotation, the stub-axle support comprising at least three axial passages, two for two fluid pipes (14, 15) and one for the passage of cables, whereby the stator assembly can be connected to the rest of the vehicle for the electric control and liquid cooling functions, - a rotor arranged radially on the outside of the stator assembly, - a brake disk rotating as one with the rotor, the brake disk being arranged closer to the securing base to the vehicle than the stator assembly and the rotor, the brake disk being separated from the rotor by a space available to accommodate at least one brake caliper, characterised in that the at least three passages are opening into a central zone of the securing base, the stub axle support comprises a first seating for a first bearing, an intermediate seating to receive a stator body, a second seating for a second bearing, with the diameters decreasing from the securing base to the free end at the opposite of the securing base. - a stub-axle support, the stub-axle support having a securing base for connecting the traction-braking device to the vehicle, the stub-axle support being intended to fixedly support the stator assembly and to rotationally support the rotor and the motorized wheel having an axis of rotation, the stub-axle support comprising at least three axial passages, two for two fluid pipes (14, 15) and one for the passage of cables, whereby the stator assembly can be connected to the rest of the vehicle for the electric control and liquid cooling functions, - a rotor arranged radially on the outside of the stator assembly, - a brake disk rotating as one with the rotor, the brake disk being arranged closer to the securing base to the vehicle than the stator assembly and the rotor, the brake disk being separated from the rotor by a space available to accommodate at least one brake caliper, characterised in that the at least three passages are opening into a central zone of the securing base, the stub axle support comprises a first seating for a first bearing, an intermediate seating to receive a stator body, a second seating for a second bearing, with the diameters decreasing from the securing base to the free end at the opposite of the securing base.
A bar-typed track LED lamp comprising a track, a bar-typed LED lamp movably mounted on the track, a connector disposed between the track and the bar-typed LED lamp, and two balance mechanisms disposed on the bar-typed LED lamp and arranged at both sides of the connector along a longitudinal direction of the track, characterised by each of the two balance mechanisms comprising a housing disposed on the bar-typed LED lamp, a prop received in the housing and protruding from the housing, and at least one elastic member arranged between the prop and the bar-typed LED lamp, the prop pressing against the track while the elastic member is under compression.
An application specific integrated circuit which, in operation, controls a process of a mobile station operable in one of a plurality of Time Division Duplex, TDD, configurations in a communication system, the process comprising: receiving a system information block, SIB, that includes a default TDD configuration defining uplink, downlink and special subframes within one or more radio frames, each radio frame including multiple subframes, receiving downlink control information and a corresponding error detection code for the downlink control information, wherein the error detection code is scrambled by an identifier associated with the mobile station, in response to successfully decoding the downlink control information with the error detection code scrambled by the identifier, determining a TDD configuration, among the plurality of TDD configurations including the default TDD configuration, based on the downlink control information, wherein the downlink control information identifies a TDD configuration among the plurality of TDD configurations, determining at least one serving cell, to which to apply the determined TDD configuration, applying the determined TDD configuration to one or more radio frames n+1 up to n+x in the at least one serving cell, wherein n corresponds to a radio frame in which the downlink control information and the error detection code are received by the mobile station, and in response to expiration of the determined TDD configuration, applying the default TDD configuration to a radio frame n+1+x, where x is a positive integer, and wherein x is 1, 2 or 4, and the x is pre-defined and is a fixed amount of time until applying the default TDD configuration. receiving a system information block, SIB, that includes a default TDD configuration defining uplink, downlink and special subframes within one or more radio frames, each radio frame including multiple subframes, receiving downlink control information and a corresponding error detection code for the downlink control information, wherein the error detection code is scrambled by an identifier associated with the mobile station, in response to successfully decoding the downlink control information with the error detection code scrambled by the identifier, determining a TDD configuration, among the plurality of TDD configurations including the default TDD configuration, based on the downlink control information, wherein the downlink control information identifies a TDD configuration among the plurality of TDD configurations, determining at least one serving cell, to which to apply the determined TDD configuration, applying the determined TDD configuration to one or more radio frames n+1 up to n+x in the at least one serving cell, wherein n corresponds to a radio frame in which the downlink control information and the error detection code are received by the mobile station, and in response to expiration of the determined TDD configuration, applying the default TDD configuration to a radio frame n+1+x, where x is a positive integer, and wherein x is 1, 2 or 4, and the x is pre-defined and is a fixed amount of time until applying the default TDD configuration.
A jig saw comprising a saw blade; a plunger for a sawing movement of the saw blade along a plunger axis; and a clamping apparatus for fixedly clamping the saw blade to the plunger, wherein the clamping apparatus comprises an alignment surface for the saw blade, at least one clamping member, and an actuation device for acting on the clamping member, wherein a rotational movement of the actuation device about the plunger axis can be converted into a clamping movement of the clamping member which takes place perpendicular to the plunger axis and by which the clamping member acts on the saw blade in the direction of the alignment surface, characterized in that the clamping apparatus is supported by a carrier of the plunger, in that the carrier comprises a reception section for the saw blade into which the saw blade can be inserted and which forms the free end region of the carrier, wherein the actuation device surrounds the reception section of the carrier, and in that the reception section has form-fitting means which position a saw blade inserted into the reception section in the axial direction. a saw blade; a plunger for a sawing movement of the saw blade along a plunger axis; and a clamping apparatus for fixedly clamping the saw blade to the plunger, wherein the clamping apparatus comprises an alignment surface for the saw blade, at least one clamping member, and an actuation device for acting on the clamping member, wherein a rotational movement of the actuation device about the plunger axis can be converted into a clamping movement of the clamping member which takes place perpendicular to the plunger axis and by which the clamping member acts on the saw blade in the direction of the alignment surface, characterized in that the clamping apparatus is supported by a carrier of the plunger, in that the carrier comprises a reception section for the saw blade into which the saw blade can be inserted and which forms the free end region of the carrier, wherein the actuation device surrounds the reception section of the carrier, and in that the reception section has form-fitting means which position a saw blade inserted into the reception section in the axial direction.
A liquid medicinal preparation, comprising: 1-(2-deoxy-2-fluoro-4-thio-β-D-arabinofuranosyl)cytosine or a salt thereof; a polyhydric alcohol having a molecular weight of 100 or less; and water. 1-(2-deoxy-2-fluoro-4-thio-β-D-arabinofuranosyl)cytosine or a salt thereof; a polyhydric alcohol having a molecular weight of 100 or less; and water.
Method for actively increasing the input impedance of a converter which draws current from a DC network or from an AC network with a fixed network frequency, characterized in that the current drawn by the converter is regulated to zero at a variable frequency predefined by the network, in that the current drawn is subjected to high-pass filtering in order to remove its DC component or its component at the network frequency, in that the high-pass-filtered current is subjected to bandpass filtering using a bandpass filter tuned to the frequency predefined by the network, in that the bandpass-filtered current is selectively integrated at a particular frequency in order to generate a control signal for the current drawn by the converter, and in that the frequency at which the bandpass-filtered current is selectively integrated - is determined from the control signal when a frequency can be determined from the control signal, and - is fixedly predefined when a frequency cannot be determined from the control signal. - is determined from the control signal when a frequency can be determined from the control signal, and - is fixedly predefined when a frequency cannot be determined from the control signal.
Safety element comprising a device body having a transparent plastic layer on a layer surface of which microstructures are formed, characterised in that in the same layer surface diffractive surface structures are additionally formed, and the diffractive surface structures are formed at least part-surface on the microstructures, wherein a part of the microstructures is free of diffractive structures and/or the microstructures are formed in only a part region on their surface with the diffractive surface structures.
Cutting tool comprising a substrate of sintered cemented carbide or cermet, ceramic, cubic boronitride or high speed steel comprising a thin, adherent, hard and wear resistant coating, said coating comprising a laminar, multilayered structure of alternating layers of refractory compounds in non-repetitive form, X+Y+X+Y+X.... where the alternating layers X and Y are composed of metalnitrides, metalcarbides or metalcarbonitrides, where in said coating the sequence of individual layer thicknesses having no repeat period but being essentially aperiodic throughout the entire multilayered structure characterised in that said individual X or Y layer thickness is larger than 0.1 nm but smaller than 100 nm, varying essentially at random, and that the total thickness of said multilayered coating is 0.5 μm to 20 μm, the multilayered structure having an average chemical composition of Al a Ti b Si c Cr d (C e N 1-e) where 0<a<0.5, where 0.1<b<0.9, where 0.01<c<0.17, where 0≤d<0.06, and a+b+c+d=1, where 0≤e<1.
Plastic pipe comprising a pipe wall, characterized by: a welding area for welding the plastic pipe with a further plastic pipe, which comprises an inner welding expulsion reservoir with a wedge shape in cross-section for receiving an inwardly-pressed welding expulsion; and a reinforcing section for reinforcing the pipe wall in the region of the welding expulsion reservoir, in which an outer diameter (Ra) of the plastic pipe increases towards the welding area, wherein the reinforcing section comprises an outer circumferential reinforcing ring, wherein the reinforcing ring is reinforced by fibers in direction of rotation. a welding area for welding the plastic pipe with a further plastic pipe, which comprises an inner welding expulsion reservoir with a wedge shape in cross-section for receiving an inwardly-pressed welding expulsion; and a reinforcing section for reinforcing the pipe wall in the region of the welding expulsion reservoir, in which an outer diameter (Ra) of the plastic pipe increases towards the welding area, wherein the reinforcing section comprises an outer circumferential reinforcing ring, wherein the reinforcing ring is reinforced by fibers in direction of rotation.
Method for processing transmission errors during contactless communication of information between a device, for example a card, and a reader, the information being transmitted in the form of frames to a transceiver module of the reader coupled contactlessly to said device and controlled by a control module coupled to the transceiver module, said information being extracted from said frames within the transceiver module in order to be delivered to the control module, the method comprising detecting transmission errors to be ignored, performed entirely within the transceiver module, characterized in that the method comprises, after detecting a transmission error to be ignored, and before the expiry of a reference time, a self-placing of the transceiver module into a state in which it is ready to process a new frame from the device, in that detecting a transmission error to be ignored comprises analysing, by the transceiver module, the structure and/or the content of the received frames and/or coding rules for the bits transmitted within these frames, and in that a frame comprises a start of frame indication, several bytes of data and a cyclic redundancy check indication (CRCi), and the bits contained in these frames are transmitted in a form coded by coding, and said analysis comprises analysing the start of frame indication, analysing the cyclic redundancy check indication, analysing the number of bytes of each frame, analysing the presence or absence of residual bits in a frame, and, if at least one residual bit is present, determining whether or not the coding rules for this or these residual bits have been violated.
A linear compressor, comprising: a shell having a cylindrical shape; a frame fixed inside the shell; a cylinder inserted to pass through the frame; a piston provided in the cylinder; a motor that linearly reciprocates the piston; and a stator cover coupled to the motor, wherein the stator cover includes: a cover body; and characterized in that: a reinforcement sleeve that extends from an outer edge of the cover body in an axial direction, wherein the reinforcement sleeve includes a plurality of protrusions that protrudes in a radial direction from the reinforcement sleeve and which is spaced equidistant around the reinforcement sleeve, and wherein portions of the shell corresponding to a position of each of the plurality of protrusions include a bulge that protrudes in the radial direction of the shell. a shell having a cylindrical shape; a frame fixed inside the shell; a cylinder inserted to pass through the frame; a piston provided in the cylinder; a motor that linearly reciprocates the piston; and a stator cover coupled to the motor, wherein the stator cover includes: a cover body; and characterized in that: a reinforcement sleeve that extends from an outer edge of the cover body in an axial direction, wherein the reinforcement sleeve includes a plurality of protrusions that protrudes in a radial direction from the reinforcement sleeve and which is spaced equidistant around the reinforcement sleeve, and wherein portions of the shell corresponding to a position of each of the plurality of protrusions include a bulge that protrudes in the radial direction of the shell. a cover body; and characterized in that: a reinforcement sleeve that extends from an outer edge of the cover body in an axial direction, wherein the reinforcement sleeve includes a plurality of protrusions that protrudes in a radial direction from the reinforcement sleeve and which is spaced equidistant around the reinforcement sleeve, and wherein portions of the shell corresponding to a position of each of the plurality of protrusions include a bulge that protrudes in the radial direction of the shell. a reinforcement sleeve that extends from an outer edge of the cover body in an axial direction, wherein the reinforcement sleeve includes a plurality of protrusions that protrudes in a radial direction from the reinforcement sleeve and which is spaced equidistant around the reinforcement sleeve, and wherein portions of the shell corresponding to a position of each of the plurality of protrusions include a bulge that protrudes in the radial direction of the shell.