mhurhangee/ep-ind-claims huggingface dataset:
A method for a user equipment to perform frequency offset delta tracking between an anchor component carrier and a non-anchor CC for connected mode discontinuous reception carrier aggregation, the method comprising: for the anchor CC, waking up to perform tracking updates on a plurality of successive DRX cycles; for the non-anchor CC: determining a minimum update interval Δt upd; scheduling wake-ups on a first subset of the plurality of successive DRX cycles based on the minimum update interval Δt upd; for the first subset of the plurality of successive DRX cycles with scheduled wake-ups, performing the tracking updates and updating an FO delta between the anchor CC and the non-anchor CC; and for a second subset of the plurality of successive DRX cycles without the scheduled wake-ups, applying the FO delta to correct for a frequency error on the non-anchor CC. for the anchor CC, waking up to perform tracking updates on a plurality of successive DRX cycles; for the non-anchor CC: determining a minimum update interval Δt upd; scheduling wake-ups on a first subset of the plurality of successive DRX cycles based on the minimum update interval Δt upd; for the first subset of the plurality of successive DRX cycles with scheduled wake-ups, performing the tracking updates and updating an FO delta between the anchor CC and the non-anchor CC; and for a second subset of the plurality of successive DRX cycles without the scheduled wake-ups, applying the FO delta to correct for a frequency error on the non-anchor CC. determining a minimum update interval Δt upd; scheduling wake-ups on a first subset of the plurality of successive DRX cycles based on the minimum update interval Δt upd; for the first subset of the plurality of successive DRX cycles with scheduled wake-ups, performing the tracking updates and updating an FO delta between the anchor CC and the non-anchor CC; and for a second subset of the plurality of successive DRX cycles without the scheduled wake-ups, applying the FO delta to correct for a frequency error on the non-anchor CC.
Composition comprising chlorhexidine or a salt thereof, ascorbyl glucoside and hydroxyacetophenone, wherein hydroxyacetophenone is selected among the isomeric forms para-hydroxyacetophenone, meta-hydroxyacetophenone, ortho-hydroxyacetophenone or mixtures thereof, and said composition is for topical-oral use.
A high mobility group box 1 (HMGB1) polypeptide, wherein in said HMGB1 polypeptide at least one, preferably two, more preferably three, most preferably all four tyrosine residues at positions corresponding to amino acid positions 22, 57, 68, and 75 of SEQ ID NO: 1 have been exchanged to glutamic acid residues or have been exchanged to glutamine residues.
Cutting device for a soil cultivating machine, in particular a road milling machine, with a carrier to which a cutting insert is fastened, wherein the carrier has a base part to which a holding projection with a receptacle is attached in a projecting manner, wherein the cutting insert is arranged at least regionally in the receptacle and wherein a fastening projection is arranged on a fastening side opposite the holding projection, the cutting insert having a cutting tip with a superhard material, the holding projection carrying a hard material element at least on its front region in the feed direction in the zone between the cutting tip and the base part, and the cutting insert has a head, the holding projection having a supporting section facing away from the base part, and the cutting insert covering the supporting section with its head at least in regions, characterized in that the hard material element is guided into the region of the supporting section under the head of the cutting insert. the cutting insert having a cutting tip with a superhard material, the holding projection carrying a hard material element at least on its front region in the feed direction in the zone between the cutting tip and the base part, and the cutting insert has a head, the holding projection having a supporting section facing away from the base part, and the cutting insert covering the supporting section with its head at least in regions, characterized in that the hard material element is guided into the region of the supporting section under the head of the cutting insert.
A power converter, configured to be connected to a load, comprising: an isolation barrier having a primary stage side and a secondary stage side; a step-up converter positioned on said primary stage side, said step-up converter configured to condition an input voltage and generate a direct current boost voltage; a DC capacitor coupled across a DC link between said primary and secondary stage (102, 104) sides, wherein said DC capacitor is also coupled to an output of said step-up converter; and a primary stage controller positioned on said primary stage side and coupled to said step-up converter, wherein said primary stage controller configured to adjust a step-up converter reference voltage based on a load current signal indicative of a load transient, the load current signal transmitted from a secondary stage side of said isolation barrier, characterized in that upon a load step, the primary stage controller increases the reference voltage and upon a load drop, primary stage controller decreases the reference voltage, the reference voltage to ramp back to a target voltage; wherein to adjust the step-up converter reference voltage, said primary stage controller is further configured to momentarily adjust a step-up converter input current reference such that a charge rate of said DC capacitor increases to enable said power converter to provide sufficient power during the load transient. an isolation barrier having a primary stage side and a secondary stage side; a step-up converter positioned on said primary stage side, said step-up converter configured to condition an input voltage and generate a direct current boost voltage; a DC capacitor coupled across a DC link between said primary and secondary stage (102, 104) sides, wherein said DC capacitor is also coupled to an output of said step-up converter; and a primary stage controller positioned on said primary stage side and coupled to said step-up converter, wherein said primary stage controller configured to adjust a step-up converter reference voltage based on a load current signal indicative of a load transient, the load current signal transmitted from a secondary stage side of said isolation barrier, characterized in that upon a load step, the primary stage controller increases the reference voltage and upon a load drop, primary stage controller decreases the reference voltage, the reference voltage to ramp back to a target voltage; wherein to adjust the step-up converter reference voltage, said primary stage controller is further configured to momentarily adjust a step-up converter input current reference such that a charge rate of said DC capacitor increases to enable said power converter to provide sufficient power during the load transient.
A miter box comprising, in a first direction, a through opening having a shape adapted to the cross-section of an element to be cut, the miter box further comprising at least one slot defining a cut line entirely crossing the opening wherein a surface of the miter box comprises at least one protruding rib, approximately vertical, for aiding positioning for angle cuts and characterised in that the protruding rib is arranged in the middle of the projection of the slot on the surface.
A method for operating a wind turbine, the method comprising: - determining, via a processor, at least one wind condition of the wind turbine for a plurality of time intervals; - determining, via the processor, a status of the wind turbine at the beginning of each of the plurality of time intervals; - determining, via the processor, at least one vibration parameter of the wind turbine for one or more preceding time intervals of the plurality of time intervals; - predicting, via a predictive computer model programmed within the processor, whether a trip event is imminent based on the at least one wind condition, the status of the wind turbine at the beginning of each of the plurality of time intervals, the predominant wind speed and the predominant wind direction, and the vibration parameter; and, - implementing, via the processor, a control action for the wind turbine so as to prevent the trip event, wherein implementing comprises at least one of pitching one or more rotor blades of the wind turbine, yawing a nacelle of the wind turbine, or derating the wind turbine. - determining, via a processor, at least one wind condition of the wind turbine for a plurality of time intervals; - determining, via the processor, a status of the wind turbine at the beginning of each of the plurality of time intervals; - determining, via the processor, at least one vibration parameter of the wind turbine for one or more preceding time intervals of the plurality of time intervals; - predicting, via a predictive computer model programmed within the processor, whether a trip event is imminent based on the at least one wind condition, the status of the wind turbine at the beginning of each of the plurality of time intervals, the predominant wind speed and the predominant wind direction, and the vibration parameter; and, - implementing, via the processor, a control action for the wind turbine so as to prevent the trip event, wherein implementing comprises at least one of pitching one or more rotor blades of the wind turbine, yawing a nacelle of the wind turbine, or derating the wind turbine.
Apparatus for configuring at least one device involved in building system technology or door communication, having a plurality of devices (1, 10, 22, 23) and a visual machine-readable interface which consists of a display unit and an image capture unit, the transmission of a volume of data, as required for device configuration, being carried out via the visual, machine-readable interface, characterized • in that a first device has a code generator for dynamically generating visual machine-readable codes and is connected to the display unit which is integrated in the first device and is intended to display the visual machine-readable code generated, • in that a second device has the image capture unit which is intended to read in the volume of data transmitted using machine-reachable codes and is connected to a downstream evaluation unit which is integrated in the second device and is intended to decode and extract the volume of data. • in that a first device has a code generator for dynamically generating visual machine-readable codes and is connected to the display unit which is integrated in the first device and is intended to display the visual machine-readable code generated, • in that a second device has the image capture unit which is intended to read in the volume of data transmitted using machine-reachable codes and is connected to a downstream evaluation unit which is integrated in the second device and is intended to decode and extract the volume of data.
An apparatus comprising at least one processor and at least one non-transitory memory including computer program code instructions, the computer program code instructions configured to, when executed, cause the apparatus to at least: receive sensor data from at least one image sensor, wherein the sensor data comprises a plurality of images, and each image comprises sensor position data; process the plurality of images using a detection module to detect features within each of the plurality of images; parse the plurality of images for images including a first feature; for every combination of two images including the first feature, determine an estimated first feature position based on a triangulated position between the first feature in each of the two images and the sensor position data associated with each of the two images; characterized in that the computer program code instructions further cause the apparatus to establish a spread of estimated first feature positions for the said every combination of two images; determine a best-fit line passing through the spread of estimated first feature positions; iteratively minimize a perpendicular error projection of each estimated first feature position relative to the best-fit line to obtain a reduced spread of optimized estimated first feature positions; establish from the reduced spread of optimized estimated first feature positions an optimized estimated first feature position; and position an image of the first feature within a map based on the established optimized estimated first feature position. receive sensor data from at least one image sensor, wherein the sensor data comprises a plurality of images, and each image comprises sensor position data; process the plurality of images using a detection module to detect features within each of the plurality of images; parse the plurality of images for images including a first feature; for every combination of two images including the first feature, determine an estimated first feature position based on a triangulated position between the first feature in each of the two images and the sensor position data associated with each of the two images; characterized in that the computer program code instructions further cause the apparatus to establish a spread of estimated first feature positions for the said every combination of two images; determine a best-fit line passing through the spread of estimated first feature positions; iteratively minimize a perpendicular error projection of each estimated first feature position relative to the best-fit line to obtain a reduced spread of optimized estimated first feature positions; establish from the reduced spread of optimized estimated first feature positions an optimized estimated first feature position; and position an image of the first feature within a map based on the established optimized estimated first feature position.
Pipe for transporting a heat-carrying fluid, in particular water, wherein the pipe has a first support region extending in the longitudinal direction of the pipe and a second support region extending in the longitudinal direction of the pipe with a bulge arranged between the first and second support regions, inwardly directed in the pipe cross-section and extending in the longitudinal direction of the pipe, the pipe being in a first partial region of its circumference round, in particular circular, and having the shape of a circular segment, characterized in that the first partial region has a height of 40% to 80% of the total height (H tot) of the pipe.
A grill comprising: a lower housing defining a heating chamber; and a fuel grate situated at a predetermined level within the lower housing for supporting a solid fuel source; a cooking grate situated above the fuel grate; wherein the lower housing has a first wall defining a plurality of air intake openings elevationally above the level of the fuel grate, the grill further comprising a baffle ring in the lower housing, which extends around an inside of the heating chamber, on a plane common to and proximate the plurality of air intake openings, characterized in that said plurality of air intake openings and the baffle ring are configured to deliver air into the heating chamber between the fuel grate and the cooking grate. a lower housing defining a heating chamber; and a fuel grate situated at a predetermined level within the lower housing for supporting a solid fuel source; a cooking grate situated above the fuel grate; wherein the lower housing has a first wall defining a plurality of air intake openings elevationally above the level of the fuel grate, the grill further comprising a baffle ring in the lower housing, which extends around an inside of the heating chamber, on a plane common to and proximate the plurality of air intake openings, characterized in that said plurality of air intake openings and the baffle ring are configured to deliver air into the heating chamber between the fuel grate and the cooking grate.
A purified BTV polypeptide that elicits an immunogenic response in an animal, wherein the polypeptide is expressed in duckweed; and wherein the polypeptide comprises: a) an amino acid sequence having at least 80% sequence identity to a polypeptide having the sequence as set forth in SEQ ID NO: 4, 6, or 10; b) a conservative variant of the amino acid sequence as set forth in SEQ ID NO: 4, 6, or 10; or c) an immunogenic fragment comprising at least eight consecutive amino acids of the amino acid sequence as set forth in SEQ ID NO: 4, 6, or 10, that specifically binds to an antibody that specifically binds to the amino acid sequence as set forth in SEQ ID NO: 4, 6, or 10. a) an amino acid sequence having at least 80% sequence identity to a polypeptide having the sequence as set forth in SEQ ID NO: 4, 6, or 10; b) a conservative variant of the amino acid sequence as set forth in SEQ ID NO: 4, 6, or 10; or c) an immunogenic fragment comprising at least eight consecutive amino acids of the amino acid sequence as set forth in SEQ ID NO: 4, 6, or 10, that specifically binds to an antibody that specifically binds to the amino acid sequence as set forth in SEQ ID NO: 4, 6, or 10.
A product including a liquid-absorbing multi-layered sheet with a liquid-absorbing central layer and a first and a second outer layer of fibres, tissue or film provided at each their side of the central layer; wherein the central layer is airlaid and includes cellulosic fibres, superabsorbents and heat-adhesive binder fibres; wherein the percentage of heat-adhesive binder fibres in the central layer is between 1% and 7% of the total weight of fibres in the central layer, and characterised in that the central layer has a density less than 400 kg/m 3, that the multi-layered sheet has embossings that form separate areas which are compressed for establishing attachment points constituting between 10% and 20% of the area of the sheet, preferably about 15%, and that the percentage of the heat adhesive fibres is preferably between 1% and 5%, more preferred between 2% and 4%.
A door check (10; 10a) for an automobile comprising: a) a check arm (12; 12a) having cam surfaces (28; 28a) formed on oppositely directed flanks (30; 30a); b) a pair of torsion springs (52, 54; 52a, 54a), each of said torsion springs (52, 54; 52a, 54a) having a pair of legs; b1) each of said torsion springs (52, 54; 52a, 54a) being supported by a respective one of a pair of mounting brackets (62; 62a); b2) each leg of one of said torsion springs (52, 54; 52a, 54a) being connected to the leg of another of the torsion springs (52, 54; 52a, 54a) by a respective one of a pair of shoes (70, 72; 70a, 72a), b3) said torsion springs (52, 54; 52a, 54a) extending in opposite directions from the shoes (70, 72; 70a, 72a), c) said torsion springs (52, 54; 52a, 54a), said mounting brackets (62, 62a) and said pair of shoes (70, 72; 70a, 72a) create a single unitary energy storage component; d) the mounting brackets (62; 62a) being configured to allow rotary motion of the torsion springs (52, 54; 52a, 54a) relative to said mounting brackets (62; 62a); such that the shoes (70, 72; 70a, 72a) of the unitary energy storage component are operably engaged with the flanks (30; 30a) of the check arm (12; 12a) to accommodate relative sliding movement between the check arm (12; 12a) and the unitary energy storage component, whereby, movement of the shoes (70, 72; 70a, 72a) along said flanks (30; 30a) varies the spacing between said shoes (70, 72; 70a, 72a) and thereby the energy stored in the torsion springs (52, 54; 52a, 54a). a) a check arm (12; 12a) having cam surfaces (28; 28a) formed on oppositely directed flanks (30; 30a); b) a pair of torsion springs (52, 54; 52a, 54a), each of said torsion springs (52, 54; 52a, 54a) having a pair of legs; b1) each of said torsion springs (52, 54; 52a, 54a) being supported by a respective one of a pair of mounting brackets (62; 62a); b2) each leg of one of said torsion springs (52, 54; 52a, 54a) being connected to the leg of another of the torsion springs (52, 54; 52a, 54a) by a respective one of a pair of shoes (70, 72; 70a, 72a), b3) said torsion springs (52, 54; 52a, 54a) extending in opposite directions from the shoes (70, 72; 70a, 72a), b1) each of said torsion springs (52, 54; 52a, 54a) being supported by a respective one of a pair of mounting brackets (62; 62a); b2) each leg of one of said torsion springs (52, 54; 52a, 54a) being connected to the leg of another of the torsion springs (52, 54; 52a, 54a) by a respective one of a pair of shoes (70, 72; 70a, 72a), b3) said torsion springs (52, 54; 52a, 54a) extending in opposite directions from the shoes (70, 72; 70a, 72a), c) said torsion springs (52, 54; 52a, 54a), said mounting brackets (62, 62a) and said pair of shoes (70, 72; 70a, 72a) create a single unitary energy storage component; d) the mounting brackets (62; 62a) being configured to allow rotary motion of the torsion springs (52, 54; 52a, 54a) relative to said mounting brackets (62; 62a);
Optical system for reading marks printed on a face of an ophthalmic lens, said system comprising: - an image capturing device; - a light source; and - a holder (18, 31) for receiving said ophthalmic lens; with said image capturing device and said light source and said holder (18, 31) being configured so that, when said ophthalmic lens is received by said holder (18, 31), said light source illuminates said lens, thereby making said marks visible to said image capturing device; characterized in that said system furthermore comprises a movable element to which said light source is fastened, which movable element has a working position in which said movable element at least partially encircles said holder and in which said light source faces said holder (18, 31), and a retracted position in which said movable element is located a distance away from said holder (18, 31), with said light source and said holder (18, 31) being configured so that, in said working position, when said ophthalmic lens is received by said holder (18, 31) with a masking element that covers said marks, said light source illuminates an edge face of said lens so that the light penetrates into a bulk of said lens and reaches said masking element through said lens. - an image capturing device; - a light source; and - a holder (18, 31) for receiving said ophthalmic lens;