mhurhangee/ep-ind-claims huggingface dataset:
A universal container capper/decapper comprising: a capper/decapper assembly comprising a capper/decapper housing having an axis of rotation, and a plurality of gripper arms, each said gripper arm having a driven end, a gripper end, and a knee portion intermediate the driven end and the gripper end, each gripper arm being pivotally coupled to the capper/decapper housing proximate the knee portion; and an axial actuator coupled to each said driven end and being configured to drive each said gripper end in a radial direction relative to the axis of rotation by rotating the at least one gripper arm about the respective knee portion relative to the housing, wherein the capper/decapper housing comprises a side wall, the side wall includes a plurality of radially-extending channel, and each said gripper arm is pivotally received within a respective one of the radially-extending channels, characterized in that the capper/decapper housing further comprises a base plate disposed at a lower end of the side wall, the base plate comprises a plurality of radially-extending slot, each said slot is being aligned with a respective one of the radially-extending channels and configured to receive a respective gripper end therein. a capper/decapper assembly comprising a capper/decapper housing having an axis of rotation, and a plurality of gripper arms, each said gripper arm having a driven end, a gripper end, and a knee portion intermediate the driven end and the gripper end, each gripper arm being pivotally coupled to the capper/decapper housing proximate the knee portion; and an axial actuator coupled to each said driven end and being configured to drive each said gripper end in a radial direction relative to the axis of rotation by rotating the at least one gripper arm about the respective knee portion relative to the housing, wherein the capper/decapper housing comprises a side wall, the side wall includes a plurality of radially-extending channel, and each said gripper arm is pivotally received within a respective one of the radially-extending channels, characterized in that the capper/decapper housing further comprises a base plate disposed at a lower end of the side wall, the base plate comprises a plurality of radially-extending slot, each said slot is being aligned with a respective one of the radially-extending channels and configured to receive a respective gripper end therein.
A microbial cell for producing at least one fatty acid ester, wherein the cell is genetically modified to comprise - a first genetic mutation that enables the cell to produce at least one fatty acid and/or acyl coenzyme A (CoA) thereof by means of increased enzymatic activity in the cell relative to a wild type cell of malonyl-CoA dependent and malonyl-ACP independent fatty acyl-CoA metabolic pathway of, wherein the first genetic mutation results in an increase in the expression of at least one enzyme selected from the group consisting of acetoacetyl-CoA synthase, ketoacyl-CoA synthase (or elongase), ketoacyl-CoA thiolase, enoyl-CoA reductase, ketoacyl-CoA reductase and 3-hydroxyacyl-CoA dehydratase, and wherein the fatty acid comprises at least 5 carbon atoms; and - a second genetic mutation that increases the activity of at least one wax ester synthase in the cell relative to the wild type cell and the wax ester synthase has sequence identity of at least 50% to a polypeptide of SEQ ID NO: 1, 3, 4, 5 and combinations thereof and the wax ester synthase is capable of catalysing the conversion of fatty acid and/or acyl coenzyme A thereof to the fatty acid ester. - a first genetic mutation that enables the cell to produce at least one fatty acid and/or acyl coenzyme A (CoA) thereof by means of increased enzymatic activity in the cell relative to a wild type cell of malonyl-CoA dependent and malonyl-ACP independent fatty acyl-CoA metabolic pathway of, wherein the first genetic mutation results in an increase in the expression of at least one enzyme selected from the group consisting of acetoacetyl-CoA synthase, ketoacyl-CoA synthase (or elongase), ketoacyl-CoA thiolase, enoyl-CoA reductase, ketoacyl-CoA reductase and 3-hydroxyacyl-CoA dehydratase, and wherein the fatty acid comprises at least 5 carbon atoms; and - a second genetic mutation that increases the activity of at least one wax ester synthase in the cell relative to the wild type cell and the wax ester synthase has sequence identity of at least 50% to a polypeptide of SEQ ID NO: 1, 3, 4, 5 and combinations thereof and the wax ester synthase is capable of catalysing the conversion of fatty acid and/or acyl coenzyme A thereof to the fatty acid ester.
Data transmission cable that can be customized having - a plurality of core pairs that each comprise a pair of cores that are twisted with one another, - an inner sheath that encases the core pairs, - a braid shield that surrounds the inner sheath, - an outer sheath of the data transmission cable, said outer sheath encasing the braid shield, characterized in that - the core pairs are oriented with respect to one another by means of a central supporting element, wherein the central supporting element is surrounded by the core pairs and lies against said core pairs, - a plurality of bundles of supporting element threads are arranged spaced apart equally in the peripheral direction around the core pairs, wherein each bundle of supporting element threads is arranged lying against two respective core pairs that are adjacent to one another and wherein the core pairs are fixed in position with respect to one another on the one hand by means of the central supporting element and on the other hand by means of the bundles of supporting element threads, - the inner sheath encases the bundles of supporting element threads and the core pairs. - a plurality of core pairs that each comprise a pair of cores that are twisted with one another, - an inner sheath that encases the core pairs, - a braid shield that surrounds the inner sheath, - an outer sheath of the data transmission cable, said outer sheath encasing the braid shield, - the core pairs are oriented with respect to one another by means of a central supporting element, wherein the central supporting element is surrounded by the core pairs and lies against said core pairs, - a plurality of bundles of supporting element threads are arranged spaced apart equally in the peripheral direction around the core pairs, wherein each bundle of supporting element threads is arranged lying against two respective core pairs that are adjacent to one another and wherein the core pairs are fixed in position with respect to one another on the one hand by means of the central supporting element and on the other hand by means of the bundles of supporting element threads, - the inner sheath encases the bundles of supporting element threads and the core pairs.
A system for processing a multi-lumen sheath suitable for a medical lead for application of electrical pulses to tissue of a patient, the system comprising: a confocal displacement meter; a micro-machining laser system including a laser source and motion control components; a processor for controlling the system according to software instructions; and memory for storing data and software instructions, wherein the memory stores (a) code for causing the system to scan the multi-lumen sheath to generate displacement data; (b) code for processing the displacement data to generate a representation of an exterior surface and lumens of the multi-lumen sheath; (c) code for automatically selecting locations on the exterior surface of the multi-lumen sheath for application of laser pulses to create apertures in the multi-lumen sheath that provide access to respective lumens of the multi-lumen sheath; and (d) code for applying laser pulses to the sheath to create the apertures. a confocal displacement meter; a micro-machining laser system including a laser source and motion control components; a processor for controlling the system according to software instructions; and memory for storing data and software instructions, wherein the memory stores (a) code for causing the system to scan the multi-lumen sheath to generate displacement data; (b) code for processing the displacement data to generate a representation of an exterior surface and lumens of the multi-lumen sheath; (c) code for automatically selecting locations on the exterior surface of the multi-lumen sheath for application of laser pulses to create apertures in the multi-lumen sheath that provide access to respective lumens of the multi-lumen sheath; and (d) code for applying laser pulses to the sheath to create the apertures. (a) code for causing the system to scan the multi-lumen sheath to generate displacement data; (b) code for processing the displacement data to generate a representation of an exterior surface and lumens of the multi-lumen sheath; (c) code for automatically selecting locations on the exterior surface of the multi-lumen sheath for application of laser pulses to create apertures in the multi-lumen sheath that provide access to respective lumens of the multi-lumen sheath; and (d) code for applying laser pulses to the sheath to create the apertures.
A method of portion interleaving for unequally sized memory portions (302, 304, 410, 420) of a memory, in the following referred to as asymmetric memory portions, comprising: determining an asymmetric memory portion assignment for a first interleave unit, wherein the asymmetric memory portion assignment is to a first asymmetric memory portion; determining a consumed address space offset for consumed address space of the memory; modifying an address of the first interleave unit using the consumed address space offset; and assigning the first interleave unit to a first interleave granule in the first asymmetric memory portion using the modified address in a compact manner such that the first interleave unit is assigned to the first interleave granule while the first interleave granule has unused space before mapping another interleave unit to another interleave granule. determining an asymmetric memory portion assignment for a first interleave unit, wherein the asymmetric memory portion assignment is to a first asymmetric memory portion; determining a consumed address space offset for consumed address space of the memory; modifying an address of the first interleave unit using the consumed address space offset; and assigning the first interleave unit to a first interleave granule in the first asymmetric memory portion using the modified address in a compact manner such that the first interleave unit is assigned to the first interleave granule while the first interleave granule has unused space before mapping another interleave unit to another interleave granule.
A method for operating a continuous casting machine where a slab is withdrawn from a mold for continuous casting while the mold is oscillated in a vertical direction, the method comprising: oscillating the mold so as to satisfy the following formula with an oscillation waveform represented by the following formula: r t = S / 2 sin ω t + φ + bcos 2 ω t + φ + b [Math. 1] φ = − tan − 1 1 2 1 + 16 b 2 − 1 wherein r(t) is displacement of the mold (mm), S is an oscillation stroke of the mold (mm), ω is angular velocity (= 2πf) (rad/s), f is oscillation frequency of the mold (Hz), t is time (s), φ is the initial phase (rad), and b is a non-sine coefficient (0.15≤b≤ 0.25). wherein r(t) is displacement of the mold (mm), S is an oscillation stroke of the mold (mm), ω is angular velocity (= 2πf) (rad/s), f is oscillation frequency of the mold (Hz), t is time (s), φ is the initial phase (rad), and b is a non-sine coefficient (0.15≤b≤ 0.25).
Open-loop and/or closed-loop control system for an agricultural apparatus having a distributor linkage for spreading material, such as fertilizer, plant protection agent or seed, which linkage extends transversely to the direction of travel and has a central part and two lateral arms connected to the central part with a plurality of linkage portions which can be folded in toward one another in the transport position and folded out in the working position and are connected by joints, wherein each arm is assigned at least one hydraulic device, wherein each hydraulic device can be controlled to dampen vibrations occurring on the distributor linkage in the horizontal and/or vertical direction, and wherein each hydraulic device comprises a hydraulic cylinder (10 a,b), in particular a double-acting hydraulic cylinder, wherein the open-loop and/or closed-loop control system comprises: a sensor device configured to detect a pressure change occurring at the relevant hydraulic device caused by vibrations in the horizontal and/or vertical direction of the distributor linkage; and a data processing unit configured to process signals from the sensor device and to generate a control signal for the relevant hydraulic device on the basis of these signals, wherein the control signal is generated taking into account a pressure offset which corresponds to a pressure difference between the pressure chambers of the relevant hydraulic cylinder (10a,b) in a target position of the distributor linkage, and wherein the pressure offset is determined based on signals from the sensor device. a sensor device configured to detect a pressure change occurring at the relevant hydraulic device caused by vibrations in the horizontal and/or vertical direction of the distributor linkage; and a data processing unit configured to process signals from the sensor device and to generate a control signal for the relevant hydraulic device on the basis of these signals, wherein the control signal is generated taking into account a pressure offset which corresponds to a pressure difference between the pressure chambers of the relevant hydraulic cylinder (10a,b) in a target position of the distributor linkage, and wherein the pressure offset is determined based on signals from the sensor device.
A clock synchronization method for CPRI data transmission, comprising: predetermining a target clock cycle of an alignment clock, wherein a common public radio interface CPRI reference clock is aligned with a CPRI slot clock when the target clock cycle is triggered, and determining a preset number of downlink trigger clocks according to the target clock cycle, and comprising: determining whether the CPRI needs to be realigned when the alignment clock is received; if yes, counting the number of the received downlink trigger clocks with the current moment as a starting point until the number reaches the preset number; reconfiguring the CPRI; and after the reconfiguration is completed, waiting for the CPRI reference clock, and aligning a CPRI downlink data clock with the CPRI slot clock when the CPRI reference clock is received. determining whether the CPRI needs to be realigned when the alignment clock is received; if yes, counting the number of the received downlink trigger clocks with the current moment as a starting point until the number reaches the preset number; reconfiguring the CPRI; and after the reconfiguration is completed, waiting for the CPRI reference clock, and aligning a CPRI downlink data clock with the CPRI slot clock when the CPRI reference clock is received.
A lubricant composition comprising: 65 wt% to 95 wt% water; 1 wt% to 25 wt% of at least one amphoteric surfactant, wherein the at least one amphoteric surfactant comprises β-alanine, N-(2-carboxyethyl)N-(2-ethylhexyl) monosodium salt and/or β-alanine, N-(2-carboxyethyl)N-tallow alkyl derivative; 1 wt% to 10 wt% of at least one anionic surfactant; and 0.5 wt% to 10 wt% of at least one non-ionic surfactant. 65 wt% to 95 wt% water; 1 wt% to 25 wt% of at least one amphoteric surfactant, wherein the at least one amphoteric surfactant comprises β-alanine, N-(2-carboxyethyl)N-(2-ethylhexyl) monosodium salt and/or β-alanine, N-(2-carboxyethyl)N-tallow alkyl derivative; 1 wt% to 10 wt% of at least one anionic surfactant; and 0.5 wt% to 10 wt% of at least one non-ionic surfactant.
Superconducting wire (1; 31), comprising NbTi superconducting material and Cu, with - with at least three Al blocks (3a-3c), which are disposed peripherally distributed, - and with at least three sections (4a-4c) containing NbTi, which are also disposed peripherally distributed and separate the Al blocks (3a-3c) from one another in the peripheral direction, characterized in that the superconducting wire (1; 31) moreover comprises - an enclosing tube, in particular, a Cu enclosing tube, wherein the at least three Al blocks (3a-3c) are disposed peripherally distributed in the enclosing tube, and wherein the at least three sections (4a-4c) containing NbTi are disposed peripherally distributed in the enclosing tube, that the Al blocks (3a-3c) each make large-surface contact with their adjacent sections (4a-4c) containing NbTi, wherein flat contact is provided between the sections (4a-4c) containing NbTi and the Al blocks (3a-3c) through, in cross section, at least 20% of the diameter of the wire at bordering surfaces between the sections (4a-4c) containing NbTi and the Al blocks (3a-3c), which extend approximately in the radial direction, and that the superconducting wire (1; 31) contains no solder. - with at least three Al blocks (3a-3c), which are disposed peripherally distributed, - and with at least three sections (4a-4c) containing NbTi, which are also disposed peripherally distributed and separate the Al blocks (3a-3c) from one another in the peripheral direction, characterized in that - an enclosing tube, in particular, a Cu enclosing tube,
A method for operating at least one stowable automated robotic pod in a workspace where a workpiece is positioned, the pod including a robot on a base, the base having an upper and a lower portion, the method comprising the steps of: opening a door to a subfloor storage volume, wherein the door is pivotably connected to a floor and is movable between a closed position and an open position, wherein in the closed position the door is flushed with the floor and in the open position the door extends upward toward a vertical position; raising the base vertically through the opening formed by the door in the open position from the storage volume and into the workspace; performing one or more predetermined operations on the workpiece with the robot; lowering the base vertically into the storage volume; and, closing the door to the storage volume. opening a door to a subfloor storage volume, wherein the door is pivotably connected to a floor and is movable between a closed position and an open position, wherein in the closed position the door is flushed with the floor and in the open position the door extends upward toward a vertical position; raising the base vertically through the opening formed by the door in the open position from the storage volume and into the workspace; performing one or more predetermined operations on the workpiece with the robot; lowering the base vertically into the storage volume; and, closing the door to the storage volume.
A method for evaluating sensor data, the method comprising: receiving a data stream from an analyte sensor for a first time period, the data stream comprising at least one raw sensor data point; filtering the data stream for the first time period, thereby obtaining at least one filtered sensor data point; comparing the raw sensor data point and the filtered sensor data point, whereby signal residuals are intermittently or continuously analysed in order to determine a level of noise and to determine aberrancy of the sensor data responsive to a signal-to-noise ratio above a set threshold transmitting the filtered sensor data point in response to a level of noise above a predetermined threshold; and transmitting the raw sensor data point in response to a level of noise below a predetermined threshold, wherein the filtering of the data stream is adaptive in response to aberrancies in the data stream. receiving a data stream from an analyte sensor for a first time period, the data stream comprising at least one raw sensor data point; filtering the data stream for the first time period, thereby obtaining at least one filtered sensor data point; comparing the raw sensor data point and the filtered sensor data point, whereby signal residuals are intermittently or continuously analysed in order to determine a level of noise and to determine aberrancy of the sensor data responsive to a signal-to-noise ratio above a set threshold transmitting the filtered sensor data point in response to a level of noise above a predetermined threshold; and transmitting the raw sensor data point in response to a level of noise below a predetermined threshold, wherein the filtering of the data stream is adaptive in response to aberrancies in the data stream.
An isolated monoclonal or bispecific antibody, or antigen-binding fragment thereof, which comprises either (i) a heavy chain variable sequence comprising the amino acid sequence of SEQ ID NO: 38 and a light chain variable sequence comprising the amino acid sequence of SEQ ID NO: 40, or (ii) a heavy chain variable sequence comprising the amino acid sequence of SEQ ID NO: 54 and a light chain variable sequence comprising the amino acid sequence SEQ ID NO: 40, wherein said antibody or fragment binds human IL-17F and human IL-17A.
A composite electromagnetic-wave-absorbing sheet comprising (a) a first electromagnetic-wave-absorbing film comprising a plastic film, and a single- or multi-layer thin metal film formed on at least one surface of the plastic film, and (b) a second electromagnetic-wave-absorbing film composed of a resin or a rubber in which magnetic particles or non-magnetic, conductive particles are dispersed; characterized in that the thin metal film of the first electromagnetic-wave-absorbing film is provided with large numbers of substantially parallel, intermittent, linear scratches with irregular widths and irregular intervals in plural directions, and a thin carbon nanotube layer having a thickness (expressed by a coated amount) of 0.01 to 0.5 g/m 2 is formed on the thin metal film of said first electromagnetic-wave-absorbing film. (a) a first electromagnetic-wave-absorbing film comprising a plastic film, and a single- or multi-layer thin metal film formed on at least one surface of the plastic film, and (b) a second electromagnetic-wave-absorbing film composed of a resin or a rubber in which magnetic particles or non-magnetic, conductive particles are dispersed;
A method for the configuration of at least one hazardous zone (26a-b) to be monitored by at least one 3D sensor (10, 10a-b), wherein the configuration is performed with the aid of software and wherein the hazardous zone (26a-b) is a volume defined by outer surfaces (36, 38) for safeguarding at least one machine that models the machine, and wherein the outer surfaces (36, 38) are defined by the configuration, characterized in that during the configuration or after the configuration it is automatically checked whether external surfaces (36, 38) are seen by at least one of the 3D sensors (10, 10a-b), so that with the configured hazardous zone safety problems due to occlusion or shadowing are avoided from the outset in that the configuring user is automatically assisted and cannot configure hazardous zones which are inadmissible in this sense or at least receives an indication of possible safety problems, wherein an outer surface can be seen by a 3D sensor (10, 10a-b) if the connecting line from the 3D sensor (10, 10a-b) to each point of the outer surface does not intersect a point of a hazardous zone (26a-b).