mhurhangee/ep-ind-claims huggingface dataset:
A continuous analyte measurement system, comprising: a base unit configured for mounting on a skin surface; an analyte sensor comprising two functional sides, a proximal portion configured for positioning within the base unit and a distal portion configured for insertion through the skin surface, wherein the analyte sensor is configured to generate one or more signals related to an analyte level; and a conductive member positionable within the base unit and in electrical contact with the two functional sides of the analyte sensor; characterized in that the continuous analyte measurement system comprises means configured to determine an analyte concentration using at least a drift correction factor associated with the analyte sensor, the drift correction factor determined by an algorithm of the continuous analyte measurement system using a drift profile; and the drift profile is programmed into the continuous analyte monitoring system prior to insertion of the distal portion of the sensor through the skin surface. a base unit configured for mounting on a skin surface; an analyte sensor comprising two functional sides, a proximal portion configured for positioning within the base unit and a distal portion configured for insertion through the skin surface, wherein the analyte sensor is configured to generate one or more signals related to an analyte level; and a conductive member positionable within the base unit and in electrical contact with the two functional sides of the analyte sensor; characterized in that the continuous analyte measurement system comprises means configured to determine an analyte concentration using at least a drift correction factor associated with the analyte sensor, the drift correction factor determined by an algorithm of the continuous analyte measurement system using a drift profile; and the drift profile is programmed into the continuous analyte monitoring system prior to insertion of the distal portion of the sensor through the skin surface.
A flat key for a cylinder lock, comprising a key shank which extends in the insertion direction of the flat key, - the key shank having a wide side surface on which first key variation elements are provided, in particular in the form of permanent magnetic pills, lateral control grooves and/or lateral control elevations, - the key shank having a narrow side surface on which a control rib is provided, said control rib comprising coding sections, which form second key variation elements in the insertion direction, a connecting section between each pair of adjacent coding sections, and two lateral control curves, characterised in that the control rib has a smaller thickness in at least one part of the connecting section normal to the insertion direction and in particular normal to the main extension direction of the wide side surface, than in the coding sections, so that in particular a laterally narrowed portion of the control rib is formed. - the key shank having a wide side surface on which first key variation elements are provided, in particular in the form of permanent magnetic pills, lateral control grooves and/or lateral control elevations, - the key shank having a narrow side surface on which a control rib is provided, said control rib comprising coding sections, which form second key variation elements in the insertion direction, a connecting section between each pair of adjacent coding sections, and two lateral control curves,
Device for cleaning of at least one pipetting needle with a washing station, by which an inside and an outside of the pipetting needle are brought into contact at least for a portion with a washing liquid, at least temporarily during a cleaning process, and with at least one movement means, by which a relative movement is brought about between the pipetting needle and the washing station at least temporarily before, after, or during the cleaning process, wherein a drying device is provided, which subjects at least one region of the pipetting needle brought into contact with washing liquid during the cleaning process to at least one flow of drying agent, characterized in that the device further comprises a control unit and means for conducting a washing liquid through the interior space of the pipetting needle, wherein the control unit controls the means for conducting a washing liquid such that the cleaning of the surfaces arranged in the interior space of the pipetting needle takes place in such a way that the washing liquid is conducted with different flow velocities through the interior space of the pipetting needle in the direction of the pipetting needle tip during one cleaning cycle.
Method for providing a travel profile, in particular the travel profile of a tool in a machine tool, wherein a reference line is predetermined, wherein the reference line is defined on the basis of points along an edge or a corner of a workpiece, wherein at least the following steps A), B), D) and E) proceed: A) Creating n approximation curves (K1, K2, K3), wherein the n approximation curves (K1, K2, K3) are created by means of an approximation on the basis of a different number and/or position of points, in particular of points from the reference line, B) Creating n transformation curves (K4, K5, K6), wherein the transformation curves (K4, K5, K6) are each generated by differentiation between in each case two of the n approximation curves (K1, K2, K3), C) Creating n transformation curves (K4, K5, K6) by means of wavelet approximations of the reference line with wavelet base functions, D) Creating n modification curves (K7, K8, K9), wherein the j'th (k=1...n) modification curve (K7, K8, K9) is generated from the j'th transformation curve (K4, K5, K6) by means of a modification process, E) Creating the travel profile by adding the n modification curves (K7, K8, K9). A) Creating n approximation curves (K1, K2, K3), wherein the n approximation curves (K1, K2, K3) are created by means of an approximation on the basis of a different number and/or position of points, in particular of points from the reference line, B) Creating n transformation curves (K4, K5, K6), wherein the transformation curves (K4, K5, K6) are each generated by differentiation between in each case two of the n approximation curves (K1, K2, K3), C) Creating n transformation curves (K4, K5, K6) by means of wavelet approximations of the reference line with wavelet base functions, D) Creating n modification curves (K7, K8, K9), wherein the j'th (k=1...n) modification curve (K7, K8, K9) is generated from the j'th transformation curve (K4, K5, K6) by means of a modification process, E) Creating the travel profile by adding the n modification curves (K7, K8, K9).
An organic vapor jet print head device comprising a first and second depositor (305, 503): the first depositor (305, 503) for printing devices with a 25 μm or 50 μm wide active area comprising: an array of circular or elliptical delivery apertures (301, 401, 701, 1009) arranged in rows of four or five orthogonal to a print direction and surrounded by one or more exhaust apertures (302, 403, 703, 1008), wherein the spacing between the delivery apertures (301, 401, 701, 1009) is equidistant, wherein the row is shifted to one side and the adjacent rows are a mirror image, shifted to the other side, wherein the delivery apertures (301, 401, 701, 1009) and the one or more exhaust apertures (302, 403, 703, 1008) are enclosed within a perimeter of a boss (303, 310, 704) that protrudes from a substrate-facing side of the delivery apertures (301, 401, 701, 1009), wherein the one or more delivery apertures (301, 401, 701, 1009) are configured to permit jets of delivery gas pass through a lower surface of the first depositor (305, 503), and wherein the lower surface of the first depositor (305, 503) includes the one or more exhaust apertures (302, 403, 703, 1008) to remove surplus vapor from a delivery zone, wherein the boss (303, 310, 704) is surrounded by recesses (412, 705, 1202) to permit free flow of confinement gas between the first depositor (305, 503) and a second depositor (305, 503) enclosed within its own boss (303, 310, 704). an array of circular or elliptical delivery apertures (301, 401, 701, 1009) arranged in rows of four or five orthogonal to a print direction and surrounded by one or more exhaust apertures (302, 403, 703, 1008), wherein the spacing between the delivery apertures (301, 401, 701, 1009) is equidistant, wherein the row is shifted to one side and the adjacent rows are a mirror image, shifted to the other side, wherein the delivery apertures (301, 401, 701, 1009) and the one or more exhaust apertures (302, 403, 703, 1008) are enclosed within a perimeter of a boss (303, 310, 704) that protrudes from a substrate-facing side of the delivery apertures (301, 401, 701, 1009), wherein the one or more delivery apertures (301, 401, 701, 1009) are configured to permit jets of delivery gas pass through a lower surface of the first depositor (305, 503), and wherein the lower surface of the first depositor (305, 503) includes the one or more exhaust apertures (302, 403, 703, 1008) to remove surplus vapor from a delivery zone, wherein the boss (303, 310, 704) is surrounded by recesses (412, 705, 1202) to permit free flow of confinement gas between the first depositor (305, 503) and a second depositor (305, 503) enclosed within its own boss (303, 310, 704).
A separator assembly for a battery module, the separator assembly comprising an insulating plate, a circuit board, busbars and connection sheets, the circuit board being arranged on the insulating plate, the busbars being arranged on the insulating plate on at least one side of the circuit board, the connection sheets being connected between the busbars and the circuit board; wherein the connection sheets comprise an upper connection sheet and a lower connection sheet, the insulating plate comprising a first surface and a second surface opposite to each other, the upper connection sheet being arranged on the first surface, the insulating plate and the lower connection sheet being arranged to be at least partially overlapped in a height direction of the separator assembly, and at least a portion of the lower connection sheet being arranged on the second surface; characterized in that the busbars comprise a crossover busbar and an abutting busbar, on the same side of the circuit board, at least a portion of the crossover busbar being located on the side of the abutting busbar facing towards the circuit board; the crossover busbar is connected to the circuit board via the upper connection sheet, the abutting busbar being connected to the circuit board via the lower connection sheet, the lower connection sheet and the crossover busbar being at least partially overlapped in the height direction. wherein the connection sheets comprise an upper connection sheet and a lower connection sheet, the insulating plate comprising a first surface and a second surface opposite to each other, the upper connection sheet being arranged on the first surface, the insulating plate and the lower connection sheet being arranged to be at least partially overlapped in a height direction of the separator assembly, and at least a portion of the lower connection sheet being arranged on the second surface; characterized in that the busbars comprise a crossover busbar and an abutting busbar, on the same side of the circuit board, at least a portion of the crossover busbar being located on the side of the abutting busbar facing towards the circuit board; the crossover busbar is connected to the circuit board via the upper connection sheet, the abutting busbar being connected to the circuit board via the lower connection sheet, the lower connection sheet and the crossover busbar being at least partially overlapped in the height direction.
A range information encoding method, comprising: acquiring a new base range, wherein the new base range is used for decomposing range information of an entry to be stored in a ternary content addressable memory, TCAM; characterised in that the method is further comprising: performing an expansion operation on the new base range based on a plurality of pre-stored base ranges to obtain an expansion result, wherein each of the pre-stored base ranges has respective encoded information; and determining, according to the expansion result, encoded information corresponding to the new base range. acquiring a new base range, wherein the new base range is used for decomposing range information of an entry to be stored in a ternary content addressable memory, TCAM; characterised in that the method is further comprising: performing an expansion operation on the new base range based on a plurality of pre-stored base ranges to obtain an expansion result, wherein each of the pre-stored base ranges has respective encoded information; and determining, according to the expansion result, encoded information corresponding to the new base range. performing an expansion operation on the new base range based on a plurality of pre-stored base ranges to obtain an expansion result, wherein each of the pre-stored base ranges has respective encoded information; and determining, according to the expansion result, encoded information corresponding to the new base range.
Method for storing and distributing renewable energy, natural gas being mixed with hydrogen produced by means of renewable energy, the resulting gas/hydrogen mixture being distributed over a preferably already existing gas grid, preferably a natural-gas grid, and the hydrogen being separated again from the natural gas/hydrogen mixture at a desired location by means of a first membrane separation means, characterised in that a natural gas/hydrogen mixture taken from the gas grid is stored in a suitable reservoir, the stored gas mixture, in the case of removal of natural gas or a natural gas/hydrogen mixture, being separated by means of a second membrane separation means into natural gas having a hydrogen content according to the legal requirements for feeding into the natural-gas grid or pure natural gas on the one hand and a natural gas/hydrogen mixture having a hydrogen content of approximately 50% on the other hand, which mixture is returned into the reservoir.
Mounting assistance tool for positioning an edge element on a leaf/sash of a door, a window or the like, wherein the leaf/sash comprises at least one pane (2, 3) and at least the edge element, and wherein the edge element can be connected to the at least one pane (2, 3) by an adhesive bond, characterized in that - prior to mounting the edge element on the at least one pane - the mounting assistance tool can be releasably connected to the edge element, and the mounting assistance tool has at least one contact surface which can be brought into contact with at least one corresponding contact surface of the edge element, and wherein the edge element provided with the mounting assistance tool can be brought into the mounting position on the at least one pane (2, 3), and wherein the final mounting position of the edge element on the at least one pane (2, 3) can be defined by the fact that the mounting assistance tool can be brought into contact with the at least one pane (2, 3), and the mounting assistance tool has at least one bearing leg which is in contact with the at least one pane (2,3) in the final mounting position of the edge element and thus allows an exact positioning of the edge element on the leaf/sash, and wherein - after producing the adhesive bond between the edge element and the at least one pane (2, 3) - the mounting assistance tool can be removed again from the edge element. - prior to mounting the edge element on the at least one pane - the mounting assistance tool can be releasably connected to the edge element, and the mounting assistance tool has at least one contact surface which can be brought into contact with at least one corresponding contact surface of the edge element, and wherein the edge element provided with the mounting assistance tool can be brought into the mounting position on the at least one pane (2, 3), and wherein the final mounting position of the edge element on the at least one pane (2, 3) can be defined by the fact that the mounting assistance tool can be brought into contact with the at least one pane (2, 3), and the mounting assistance tool has at least one bearing leg which is in contact with the at least one pane (2,3) in the final mounting position of the edge element and thus allows an exact positioning of the edge element on the leaf/sash, and wherein - after producing the adhesive bond between the edge element and the at least one pane (2, 3) - the mounting assistance tool can be removed again from the edge element.
An illumination system having - a control unit, - at least one decentralized lamp operating device (12, 22) for operating one or more associated lamps and - at least one local control unit, wherein the lamp operating device (12, 22) can be operated in different operating modes, wherein the central control unit and the lamp operating device (12, 22) are designed in such a manner that the selection and adjustment of an operating mode for the lamp operating device (12, 22) can be carried out by the or via the central control unit and wherein the lamp operating device is designed in dependence on the adjusted operating mode to convert commands received from the local control unit into a corresponding control of the lamp/s. - a control unit, - at least one decentralized lamp operating device (12, 22) for operating one or more associated lamps and - at least one local control unit,
A hearing device, comprising: a hearing device core (60, 1060) including an acoustic-to-electric transducer or sensor (102, 1002) that converts sound into an electrical signal, a receiver (104, 1004), and electronics configured to receive the electrical signal as an input signal and generate an output signal provided to the receiver, the electronics including a variable gain amplifier with input buffering circuitry including a compound transistor (1424, 1524), the electronics being configured to bias the compound transistor such that a quiescent current associated with the output signal is limited or controlled; wherein the hearing device core includes a battery that is one or more of rechargeable and constituted of a single battery or a single cell battery. a hearing device core (60, 1060) including an acoustic-to-electric transducer or sensor (102, 1002) that converts sound into an electrical signal, a receiver (104, 1004), and electronics configured to receive the electrical signal as an input signal and generate an output signal provided to the receiver, the electronics including a variable gain amplifier with input buffering circuitry including a compound transistor (1424, 1524), the electronics being configured to bias the compound transistor such that a quiescent current associated with the output signal is limited or controlled; wherein the hearing device core includes a battery that is one or more of rechargeable and constituted of a single battery or a single cell battery. an acoustic-to-electric transducer or sensor (102, 1002) that converts sound into an electrical signal, a receiver (104, 1004), and electronics configured to receive the electrical signal as an input signal and generate an output signal provided to the receiver, the electronics including a variable gain amplifier with input buffering circuitry including a compound transistor (1424, 1524), the electronics being configured to bias the compound transistor such that a quiescent current associated with the output signal is limited or controlled; wherein the hearing device core includes a battery that is one or more of rechargeable and constituted of a single battery or a single cell battery.
A process for manufacturing coated fiber cement products, wherein said process comprises the steps of: (i) providing a cured fiber cement product having at least one surface; (ii) applying a primer to the at least one surface of the cured fiber cement product; (iii) providing a first coating layer of a first radiation curable coating composition to the at least one surface; (iv) partially curing the first coating layer of radiation curable coating composition by radiation; (v) providing a second coating layer of a second radiation curable coating composition to the partially cured first coating layer, the second radiation curable coating composition comprising pigments,; and (vi) curing the first and the second coating layer of radiation curable coating composition by radiation, wherein the first and the second radiation curable coating composition are the same with the proviso that the first radiation curable coating composition is pigment-free and the second radiation curable coating composition comprises one or more alkaline instable pigments and has a pigment volume concentration in the range of between 2% and 10%, wherein PVC (expressed in %) of said composition is calculated as the ratio of the volume of pigment versus the total volume of solids, multiplied by 100. (i) providing a cured fiber cement product having at least one surface; (ii) applying a primer to the at least one surface of the cured fiber cement product; (iii) providing a first coating layer of a first radiation curable coating composition to the at least one surface; (iv) partially curing the first coating layer of radiation curable coating composition by radiation; (v) providing a second coating layer of a second radiation curable coating composition to the partially cured first coating layer, the second radiation curable coating composition comprising pigments,; and (vi) curing the first and the second coating layer of radiation curable coating composition by radiation,
Blank for a form drill having a first region having a substantially rectangular trapezoidal cross-section and a second region having a substantially rectangular trapezoidal cross-section, wherein the first region is arranged in parallel to the second region, and the longest side of the cross-section of the first region contacts the longest side of the cross-section of the second region, and wherein the side of the trapezoidal cross-section of the first region, which is connected to adjacent sides via two right angles, runs in parallel to that side of the trapezoidal cross-section of the second region, which in turn is connected to adjacent sides via two right angles, characterised in that the blank has an angular structure approximately Z-shaped in cross-section.
A data transmission method, performed by an, evolved Node B, eNB, the method comprising: allocating downlink, DL, regions in a time unit, wherein the time unit comprises at least two DL regions, each allowing to schedule a corresponding data transmission, and the time unit is one slot; notifying a User Equipment, UE, of the allocated DL regions via configuration signaling; and transmitting a downlink control channel to the UE in at least one DL region in the time unit; wherein notifying the UE of the allocated DL regions via the configuration signaling comprises: notifying the UE of one of a plurality of predefined patterns, wherein each pattern comprises an allocation of lengths and positions of the DL regions in the time unit. allocating downlink, DL, regions in a time unit, wherein the time unit comprises at least two DL regions, each allowing to schedule a corresponding data transmission, and the time unit is one slot; notifying a User Equipment, UE, of the allocated DL regions via configuration signaling; and transmitting a downlink control channel to the UE in at least one DL region in the time unit; wherein notifying the UE of the allocated DL regions via the configuration signaling comprises: notifying the UE of one of a plurality of predefined patterns, wherein each pattern comprises an allocation of lengths and positions of the DL regions in the time unit.
A multimeric chimeric antigen receptor which comprises at least three CAR-forming polypeptides, each CAR-forming polypeptide comprising: (i) an antigen-binding domain; (ii) a coiled-coil spacer domain; (iii) a transmembrane domain; and (iv) an endodomain. (i) an antigen-binding domain; (ii) a coiled-coil spacer domain; (iii) a transmembrane domain; and (iv) an endodomain.