mhurhangee/ep-ind-claims huggingface dataset:
A method of multi-subframe scheduling, comprising: receiving a starting indication of the multi-subframe scheduling from a higher layer signaling; receiving a continuous scheduling indication indicating the number of continuously-scheduled subframes, a Hybrid Automatic Repeat Request, HARQ, process number corresponding to a first scheduled subframe and a scheduling configuration parameter of multi-subframe scheduling sent by a base station; acquiring a HARQ process number corresponding to a currently-scheduling subframe according to the HARQ process number corresponding to the first scheduled subframe and the continuous scheduling indication, and performing a data packet transmission of the corresponding HARQ process number in the currently-scheduling subframe by using the scheduling configuration parameter, wherein the HARQ process number corresponding to the currently-scheduling subframe is selected from currently-available HARQ process numbers according to the continuous scheduling indication; each scheduled subframe of the multi-subframe scheduling carrying one data packet, and each scheduled subframe of the multi-subframe scheduling using the scheduling configuration parameter. receiving a starting indication of the multi-subframe scheduling from a higher layer signaling; receiving a continuous scheduling indication indicating the number of continuously-scheduled subframes, a Hybrid Automatic Repeat Request, HARQ, process number corresponding to a first scheduled subframe and a scheduling configuration parameter of multi-subframe scheduling sent by a base station; acquiring a HARQ process number corresponding to a currently-scheduling subframe according to the HARQ process number corresponding to the first scheduled subframe and the continuous scheduling indication, and performing a data packet transmission of the corresponding HARQ process number in the currently-scheduling subframe by using the scheduling configuration parameter, wherein the HARQ process number corresponding to the currently-scheduling subframe is selected from currently-available HARQ process numbers according to the continuous scheduling indication; each scheduled subframe of the multi-subframe scheduling carrying one data packet, and each scheduled subframe of the multi-subframe scheduling using the scheduling configuration parameter.
Overvoltage protection arrangement, comprising a horn spark gap which is located in an insulating housing and has a deionisation chamber for arc quenching, the deionisation chamber having a plurality of spaced-apart quenching plates, and a trigger electrode being located in the ignition region of the horn spark gap, characterised in that a disconnection element is provided, which is set up to interrupt a connection of a trigger circuit to the trigger electrode and thus to disconnect the trigger electrode, the disconnection element being actuable or controllable by an evaluation unit located in the region of the deionisation chamber.
An electric motor or generator having a stator with stator teeth for mounting electrical coils and a rotor, wherein the stator has a first surface that is parallel to an axis of rotation of the rotor and is axially separated from the stator teeth and the rotor includes a touch-down ring having a second surface that is formed in substantially the same axial position as the stator's first surface, wherein material is mounted on the first surface or the second surface that has a lower frictional coefficient than the first surface or second surface, wherein the touch-down ring includes a radial lip that is axially separated from a radial wall of the stator that is arranged to form a labyrinth seal between the rotor and stator, and the gap between the first surface and the second surface is samller than the gap between the closest point on the stator teeth and the rotor.
Process for producing a semifinished product, comprising the steps of a) providing a reaction mixture having a molar ratio of isocyanate groups to isocyanate-reactive groups of at least 3:1, containing (i) a polyisocyanate composition A, (ii) a catalyst B1 that catalyzes the reaction of isocyanate groups to give uretdione groups, and (iii) a catalyst B2 that catalyzes the reaction of isocyanate and uretdione groups to give isocyanurate groups, wherein catalyst B1 is different than catalyst B2; b) wetting a fiber, a woven fabric, a nonwoven scrim or a knit with the reaction mixture provided in process step a); and c) catalytically polymerizing the polyisocyanate composition A to give a polyisocyanate polymer C that forms a layer on the fiber, the woven fabric, the nonwoven scrim or the knit and is characterized by (i) the presence of uretdione groups; and (ii) a modulus G' of the polyisocyanate polymer C determined by a plate/plate rheometer to ISO 6721-10:2015-09 at 1/s at 23°C of ≥ 1*10 6 Pa; wherein the catalytic polymerization is conducted at an average temperature of not more than 100°C over a period of 30 min up to 14 days. a) providing a reaction mixture having a molar ratio of isocyanate groups to isocyanate-reactive groups of at least 3:1, containing (i) a polyisocyanate composition A, (ii) a catalyst B1 that catalyzes the reaction of isocyanate groups to give uretdione groups, and (iii) a catalyst B2 that catalyzes the reaction of isocyanate and uretdione groups to give isocyanurate groups, wherein catalyst B1 is different than catalyst B2; (i) a polyisocyanate composition A, (ii) a catalyst B1 that catalyzes the reaction of isocyanate groups to give uretdione groups, and (iii) a catalyst B2 that catalyzes the reaction of isocyanate and uretdione groups to give isocyanurate groups, wherein catalyst B1 is different than catalyst B2; b) wetting a fiber, a woven fabric, a nonwoven scrim or a knit with the reaction mixture provided in process step a); and c) catalytically polymerizing the polyisocyanate composition A to give a polyisocyanate polymer C that forms a layer on the fiber, the woven fabric, the nonwoven scrim or the knit and is characterized by (i) the presence of uretdione groups; and (ii) a modulus G' of the polyisocyanate polymer C determined by a plate/plate rheometer to ISO 6721-10:2015-09 at 1/s at 23°C of ≥ 1*10 6 Pa; wherein the catalytic polymerization is conducted at an average temperature of not more than 100°C over a period of 30 min up to 14 days. (i) the presence of uretdione groups; and (ii) a modulus G' of the polyisocyanate polymer C determined by a plate/plate rheometer to ISO 6721-10:2015-09 at 1/s at 23°C of ≥ 1*10 6 Pa; wherein the catalytic polymerization is conducted at an average temperature of not more than 100°C over a period of 30 min up to 14 days.
A method for inducing callus formation from at least one plant cell of Beta spp., comprising the step of cultivating in callus-inducing medium the at least one plant cell in the presence of a histone deacetylase inhibitor (HDACi).
A method of calibrating a model of a process robot, wherein the method comprises the steps of: - applying (S10, S30) an ambient contact force (F 1) to a calibration robot, which is provided in order to calibrate the model, and determining a calibration deviation (Δ 11) as a result of the application of this ambient contact force; - applying (S20, S40) at least one further ambient contact force (F 2) to the calibration robot and determining a further calibration deviation (Δ 21) as a result of the application of this ambient contact force in at least two calibration poses of the calibration robot; and - calibrating a model of the process robot on the basis of these poses, these ambient contact forces and these calibration deviations, wherein the ambient contact force is a force which is different from a weight force of a robot-guided load, and wherein the ambient contact force is a force which an environment exerts on the robot. - applying (S10, S30) an ambient contact force (F 1) to a calibration robot, which is provided in order to calibrate the model, and determining a calibration deviation (Δ 11) as a result of the application of this ambient contact force; - applying (S20, S40) at least one further ambient contact force (F 2) to the calibration robot and determining a further calibration deviation (Δ 21) as a result of the application of this ambient contact force in at least two calibration poses of the calibration robot; and - calibrating a model of the process robot on the basis of these poses, these ambient contact forces and these calibration deviations, wherein the ambient contact force is a force which is different from a weight force of a robot-guided load, and wherein the ambient contact force is a force which an environment exerts on the robot.
A composition for use in an organic light-emitting device comprising a fluorescent light-emitting material and a triplet-accepting oligomer or polymer comprising a repeat unit of formula (IIb) physically mixed with the light-emitting material (TAU-Spacer) m (IIb) wherein TAU is a triplet accepting unit, Spacer is a conjugated or non-conjugated spacer group and m is at least 2, and wherein: 2 × T 1 A ≥ S 1 A > S 1 E, or T 1 A + T 1 E ≥ S 1 A > S 1 E in which: T 1A represents a triplet excited state energy level of the triplet-accepting material; T 1E represents a triplet excited state energy level of the light-emitting material; S 1A represents a singlet excited state energy level of the triplet-accepting material; and S 1E represents a singlet excited state energy level of the light-emitting material; and wherein light emitted by the composition upon excitation includes delayed fluorescence. T 1A represents a triplet excited state energy level of the triplet-accepting material; T 1E represents a triplet excited state energy level of the light-emitting material; S 1A represents a singlet excited state energy level of the triplet-accepting material; and S 1E represents a singlet excited state energy level of the light-emitting material; and wherein light emitted by the composition upon excitation includes delayed fluorescence.
A water absorbing material obtainable by a process comprising the steps of bringing particles of a non surface-crosslinked water-absorbing polymer in contact with a) at least one postcrosslinker, b) 10 - 1000 ppm, based on the non surface-crosslinked water-absorbing polymer, of at least one Nitrogen-containing water-soluble polymer of which the Nitrogen can be protonated, and c) 0.001-0.5 wt%, based on the non-surface-crosslinked water-absorbing polymer, of at least one hydrophobic polymer and heat-treating the particles thus obtained at a temperature in the range from 120°C to 300 °C. a) at least one postcrosslinker, b) 10 - 1000 ppm, based on the non surface-crosslinked water-absorbing polymer, of at least one Nitrogen-containing water-soluble polymer of which the Nitrogen can be protonated, and c) 0.001-0.5 wt%, based on the non-surface-crosslinked water-absorbing polymer, of at least one hydrophobic polymer
A hair styling appliance comprising a pair of clamping members for clamping hair to be styled, wherein at least one of said clamping members comprises: a hair heating plate on an inner face; and a comb with a plurality of teeth for manipulating a user's roots mounted to an outer face wherein the comb is spaced apart from the hair heating plate and the comb is shaped to have an inner surface which generally matches the profile of the outer surface so that a gap is defined between the comb and the outer surface; wherein the comb has first and second sets of teeth on opposed sides of the comb and the comb is moveable between a first position in which a first set of the teeth extend generally perpendicular to the plane of the heating plate and are spaced laterally to one side of the heating plate and the second set of teeth are concealed beneath the clamping member and a second position in which a second set of the teeth extend generally perpendicular to the plane of the heating plate and are spaced laterally to the other side of the heating plate and the first set of teeth are concealed beneath the clamping member. a hair heating plate on an inner face; and a comb with a plurality of teeth for manipulating a user's roots mounted to an outer face wherein the comb is spaced apart from the hair heating plate and the comb is shaped to have an inner surface which generally matches the profile of the outer surface so that a gap is defined between the comb and the outer surface; wherein the comb has first and second sets of teeth on opposed sides of the comb and the comb is moveable between a first position in which a first set of the teeth extend generally perpendicular to the plane of the heating plate and are spaced laterally to one side of the heating plate and the second set of teeth are concealed beneath the clamping member and a second position in which a second set of the teeth extend generally perpendicular to the plane of the heating plate and are spaced laterally to the other side of the heating plate and the first set of teeth are concealed beneath the clamping member.
A sorting device for sorting articles at delivery points (3.1, 3.2), the sorting device (1, 100) having a conveying device (4, 40) comprising transport platforms (5.1, 5.2, 5.3, 50) that are movable along a transport direction for transporting the articles and for delivering the articles to the delivery points (3.1, 3.2), with the transport platforms (5.1, 5.2, 5.3, 50) having a bearing surface for the articles and with at least one transport platform (5.1, 5.2, 50) having a first delivery device (8.1) for vertically delivering the articles from the bearing surface to at least one first delivery point (3.1) and at least one transport platform (5.1, 5.3, 50) having a second delivery device (8.2) for laterally delivering the articles from the bearing surface to at least one second delivery point (3.2), characterized in that at least one transport platform (5.1, 50) of a first type has, at the same time, the first delivery device (8.1) for vertically delivering the articles and the second delivery device (8.2) for laterally delivering the articles.
A method for obtaining term amniotic fluid cells (TAF cells) from term amniotic fluid, comprising: from provided term amniotic fluid; removing particulate material from the TAF to obtain purified TAF cells; performing adherence selection on the purified TAF cells to obtain TAF adherence cells; passaging the TAF adherence cells to obtain a population of cells comprising the TAF cells; and selecting the TAF cells from the population as cells that express at least a surface marker that is CD248. from provided term amniotic fluid; removing particulate material from the TAF to obtain purified TAF cells; performing adherence selection on the purified TAF cells to obtain TAF adherence cells; passaging the TAF adherence cells to obtain a population of cells comprising the TAF cells; and selecting the TAF cells from the population as cells that express at least a surface marker that is CD248.
A control apparatus for a vehicle including an internal combustion engine capable of controlling an engine load, and a continuously variable transmission coupled to an output side of the internal combustion engine and capable of controlling an output speed of the internal combustion engine, the control apparatus comprising: exhaust purifying means, disposed in an exhaust system of the internal combustion engine, for purifying an exhaust gas while consuming a fuel; optimal operating point calculating means for determining a first operating point at which a total fuel consumption amount is minimized as an optimal operating point, the total fuel consumption amount being obtained by adding an amount of a fuel consumed by the exhaust purifying means to an amount of a fuel consumed by the internal combustion engine for generating a required output; and operation control means (B4, B6, S3) for controlling the engine load of the internal combustion engine and also controlling a speed ratio of the continuously variable transmission so that the internal combustion engine operates at the optimal operating point, wherein the optimal operating point calculating means shifts, if an exhaust temperature of the internal combustion engine is below a predefined temperature, the optimal operating point from the first operating point at which the total fuel consumption amount is minimized, to a second operating point on a high-load, low-speed side of the first operating point, or to a third operating point on a low-load, high-speed side of the first operating point. exhaust purifying means, disposed in an exhaust system of the internal combustion engine, for purifying an exhaust gas while consuming a fuel; optimal operating point calculating means for determining a first operating point at which a total fuel consumption amount is minimized as an optimal operating point, the total fuel consumption amount being obtained by adding an amount of a fuel consumed by the exhaust purifying means to an amount of a fuel consumed by the internal combustion engine for generating a required output; and operation control means (B4, B6, S3) for controlling the engine load of the internal combustion engine and also controlling a speed ratio of the continuously variable transmission so that the internal combustion engine operates at the optimal operating point, wherein the optimal operating point calculating means shifts, if an exhaust temperature of the internal combustion engine is below a predefined temperature, the optimal operating point from the first operating point at which the total fuel consumption amount is minimized, to a second operating point on a high-load, low-speed side of the first operating point, or to a third operating point on a low-load, high-speed side of the first operating point.
Panel-like structural element having at least one fold such that the folded structural element forms at least a part of a chassis of a recreational vehicle, wherein the structural element comprises a composite component, in particular a fibre-composite component, or consists of a composite component, in particular a fibre-composite component, characterized in that the composite component is of sandwich-type construction, wherein the sandwich-type construction has two outer cover-layer panels with a core-layer panel with an inner foam or a honeycomb structure, and, at a fold, one cover layer and the core-layer panel have an incision made in them while the other cover-layer panel is continuous.
A method for deployment of an industrial application on an edge computing device connected to a controller of a machine tool, the method comprising the steps of: (a) providing a generic machine tool model (GMTM) of machine tool components, wherein the generic machine tool model (GMTM) provides a schema adapted to describe configurations of machine tool components, kinematics and associated data items; (b) instantiating, by a model management component of a deployment platform, the generic machine tool model (GMTM) of machine tool components to provide a machine instance model of the machine tool on the basis of a machine tool data report (MTDR) extracted by the edge computing device from the controller of the machine tool, wherein the machine instance model defines the configuration data and the dynamic data of the machine tool by means of the schema provided by the generic machine tool model (GMTM); (c) converting, by the model management component, generic data requirements (gR) of a generic industrial application into machine tool specific requirements (mtsR) using the machine instance model of the machine tool; (d) providing an instantiated industrial application for the machine tool by instantiating the generic industrial application by extending its configuration data with the machine tool specific requirements (mtsR); and (e) deploying, by the model management component, the instantiated industrial application on the edge computing device of the machine tool. (a) providing a generic machine tool model (GMTM) of machine tool components, wherein the generic machine tool model (GMTM) provides a schema adapted to describe configurations of machine tool components, kinematics and associated data items; (b) instantiating, by a model management component of a deployment platform, the generic machine tool model (GMTM) of machine tool components to provide a machine instance model of the machine tool on the basis of a machine tool data report (MTDR) extracted by the edge computing device from the controller of the machine tool, wherein the machine instance model defines the configuration data and the dynamic data of the machine tool by means of the schema provided by the generic machine tool model (GMTM); (c) converting, by the model management component, generic data requirements (gR) of a generic industrial application into machine tool specific requirements (mtsR) using the machine instance model of the machine tool; (d) providing an instantiated industrial application for the machine tool by instantiating the generic industrial application by extending its configuration data with the machine tool specific requirements (mtsR); and (e) deploying, by the model management component, the instantiated industrial application on the edge computing device of the machine tool.
A motorized tensioning device (160, 342, 900, 1006, 4902, 5200) for adjusting a tensioning member (152, 344, 372, 380, 720, 800, 1004) in an article, comprising: a motor (220, 902) and a gear reduction system (228, 904), wherein the motor drives the gear reduction system; a spool (240, 908) connected to the gear reduction system and configured to wind the tensioning member, wherein the spool rotates in a first rotational direction to tighten the tensioning member and wherein the spool rotates in a second rotational direction opposite the first rotational direction to loosen the tensioning member; a torque transmitting system cooperating with the spool, wherein the torque transmitting system substantially prevents the spool from driving the motor; and wherein the torque transmitting system is configured to transmit torque from a gear of the gear reduction system to the spool; wherein the motorized tensioning device is configured to operate in an incremental loosen mode where tension in the tensioning member is reduced by an incremental amount and the motorized tensioning device is configured to operate in a fully loosen mode where tension in the tensioning member is fully released. a motor (220, 902) and a gear reduction system (228, 904), wherein the motor drives the gear reduction system; a spool (240, 908) connected to the gear reduction system and configured to wind the tensioning member, wherein the spool rotates in a first rotational direction to tighten the tensioning member and wherein the spool rotates in a second rotational direction opposite the first rotational direction to loosen the tensioning member; a torque transmitting system cooperating with the spool, wherein the torque transmitting system substantially prevents the spool from driving the motor; and wherein the torque transmitting system is configured to transmit torque from a gear of the gear reduction system to the spool; wherein the motorized tensioning device is configured to operate in an incremental loosen mode where tension in the tensioning member is reduced by an incremental amount and the motorized tensioning device is configured to operate in a fully loosen mode where tension in the tensioning member is fully released.