mhurhangee/ep-ind-claims huggingface dataset:
A film comprising at least one barrier layer, said barrier layer comprising a. 5 to 25 percent, by weight of the layer, of an anhydride and/or carboxylic acid functionalized ethylene/alpha-olefin interpolymer having a density in the range of from 0.855 to 0.900 g/cm 3; and having a melt index (190°C/2.16 kg) of greater than 200 g/10 min; and b. 60 to 95 percent, by weight of the layer, of EVOH. a. 5 to 25 percent, by weight of the layer, of an anhydride and/or carboxylic acid functionalized ethylene/alpha-olefin interpolymer having a density in the range of from 0.855 to 0.900 g/cm 3; and having a melt index (190°C/2.16 kg) of greater than 200 g/10 min; and b. 60 to 95 percent, by weight of the layer, of EVOH.
Method for binding photovoltaic cells to a substrate, each photovoltaic cell comprising a rear face and a front face, the binding method comprising: • providing the substrate, said substrate being flexible and impregnable, • impregnating portions of the substrate with a crosslinkable polymer material, said portions being impregnated along the thickness of the substrate, with a view to bonding the photovoltaic cells to the substrate, • bringing the rear faces of the photovoltaic cells into contact with the impregnated portions of the substrate, • crosslinking the crosslinkable polymer material, • a step of laminating the substrate and the photovoltaic cells ensuring the crosslinkage of the crosslinkable polymer material, the photovoltaic cells brought into contact with the impregnated portions of the substrate being interconnected and each comprising an individual protective element forming its front face. • providing the substrate, said substrate being flexible and impregnable, • impregnating portions of the substrate with a crosslinkable polymer material, said portions being impregnated along the thickness of the substrate, with a view to bonding the photovoltaic cells to the substrate, • bringing the rear faces of the photovoltaic cells into contact with the impregnated portions of the substrate, • crosslinking the crosslinkable polymer material, • a step of laminating the substrate and the photovoltaic cells ensuring the crosslinkage of the crosslinkable polymer material,
Method for determining a lane change feasibility percentage for an autonomous vehicle, called an ego-vehicle, traveling on an ego-lane, said method comprising the steps of: - Acquisition of a target inter-vehicular time, TivC, representing a target duration separating the passage from the front or the rear of two successive vehicles on the same lane; - Acquisition of a target channel, adjacent to the ego-channel; - Acquisition of a destination time, Td, representing the duration for the ego-vehicle to reach the center of the target lane when changing lanes; - Acquisition of characteristics of the longitudinal dynamics of the ego-vehicle; - Acquisition of characteristics of the longitudinal dynamics of the objects adjacent to the ego-vehicle, the objects being on the target lane and, as long as the ego-vehicle has not left the ego-lane, on the ego-way; characterized in that the method further comprises the steps of: - For each object, determining the limit trajectory of the ego-vehicle configured so that the inter-vehicular time between the ego-vehicle and the object is equal to the target inter-vehicular time at the instant of time destination; - Determination of the percentage of feasibility from the set of limit trajectories and a set of possible trajectories for the ego-vehicle, the set of possible trajectories for the ego-vehicle being determined from the characteristics of the dynamics longitudinal of the ego-vehicle. - Acquisition of a target inter-vehicular time, TivC, representing a target duration separating the passage from the front or the rear of two successive vehicles on the same lane; - Acquisition of a target channel, adjacent to the ego-channel; - Acquisition of a destination time, Td, representing the duration for the ego-vehicle to reach the center of the target lane when changing lanes; - Acquisition of characteristics of the longitudinal dynamics of the ego-vehicle; - Acquisition of characteristics of the longitudinal dynamics of the objects adjacent to the ego-vehicle, the objects being on the target lane and, as long as the ego-vehicle has not left the ego-lane, on the ego-way; - For each object, determining the limit trajectory of the ego-vehicle configured so that the inter-vehicular time between the ego-vehicle and the object is equal to the target inter-vehicular time at the instant of time destination; - Determination of the percentage of feasibility from the set of limit trajectories and a set of possible trajectories for the ego-vehicle, the set of possible trajectories for the ego-vehicle being determined from the characteristics of the dynamics longitudinal of the ego-vehicle.
A compound according to Formula wherein R 1 is -CH 2 F and R 2 is -H, or R 1 is -H and R 2 is -CH 2 F, and wherein at least one atom is radioactive, or a pharmaceutically acceptable salt or a solvate thereof, for use in imaging or quantifying the mGlu2 and 3 receptors.
A system for preparing a liquid beverage from a capsule, said system comprising a device, the latter including: - a feeding unit for feeding injection fluid into the capsule, wherein said liquid is provided by a pump of the device; - a control unit for controlling at least the pump of the device; - decoding means communicatively connected to the control unit and designed to read information from encoding means; - said system further comprising a capsule holder and a capsule comprising an inlet surface, said capsule holder being configured to so as to receive and support the capsule; - said capsule being configured to be housed in the capsule holder, said inlet surface being arranged for receiving injection liquid from the feeding unit; - said feeding unit comprising an injection needle for supplying the injection fluid as a jet, said injection needle being able to move relative to the capsule holder from a rest position to an operating position; - said capsule holder being detachable from the feeding unit and movable from an operating position in the feeding unit to a rest position outside the feeding unit; - said feeding unit comprising insertion means which permits the insertion of the capsule holder from its detached position into its operating position in the feeding unit, said insertion means comprises ribs (12a, 12b) which are associated with guide grooves which are wedge-shaped, characterized in that, said capsule holder is configured so as to position the inlet surface of a capsule housed in the capsule holder in the operating position at a position in which the inlet surface is free from contact with the injection needle when the latter is in the operating position. - a feeding unit for feeding injection fluid into the capsule, wherein said liquid is provided by a pump of the device; - a control unit for controlling at least the pump of the device; - decoding means communicatively connected to the control unit and designed to read information from encoding means; - said system further comprising a capsule holder and a capsule comprising an inlet surface, said capsule holder being configured to so as to receive and support the capsule; - said capsule being configured to be housed in the capsule holder, said inlet surface being arranged for receiving injection liquid from the feeding unit; - said feeding unit comprising an injection needle for supplying the injection fluid as a jet, said injection needle being able to move relative to the capsule holder from a rest position to an operating position; - said capsule holder being detachable from the feeding unit and movable from an operating position in the feeding unit to a rest position outside the feeding unit; - said feeding unit comprising insertion means which permits the insertion of the capsule holder from its detached position into its operating position in the feeding unit, said insertion means comprises ribs (12a, 12b) which are associated with guide grooves which are wedge-shaped, characterized in that,
Method for controlling an apparatus, in which a process takes place, - wherein the process is controlled by setting at least one action parameter, characterized in that - a process response of the process on the at least one action parameter is measured, - wherein, by measuring the process response, - a consumption and/or a production of at least one material by the process is, at least indirectly, acquired and/or - an activity of a biological system, which carries out the process, is acquired, - the measured process response is evaluated by means of an evaluation in a computer-implemented manner based on a predetermined preset target value for the measured process response, and - at least one set value of the at least one action parameter is adjusted in a computer-implemented manner based on the evaluation, - wherein at least one optimized set value for the at least one action parameter is independently learned by the apparatus in a computer-implemented manner based on several evaluations derived by the apparatus from a respective process response, in each case in reaction to set values of the at least one action parameter specified by the apparatus. - wherein the process is controlled by setting at least one action parameter, characterized in that - a process response of the process on the at least one action parameter is measured, - wherein, by measuring the process response, - a consumption and/or a production of at least one material by the process is, at least indirectly, acquired and/or - an activity of a biological system, which carries out the process, is acquired, - a consumption and/or a production of at least one material by the process is, at least indirectly, acquired and/or - an activity of a biological system, which carries out the process, is acquired, - the measured process response is evaluated by means of an evaluation in a computer-implemented manner based on a predetermined preset target value for the measured process response, and - at least one set value of the at least one action parameter is adjusted in a computer-implemented manner based on the evaluation, - wherein at least one optimized set value for the at least one action parameter is independently learned by the apparatus in a computer-implemented manner based on several evaluations derived by the apparatus from a respective process response, in each case in reaction to set values of the at least one action parameter specified by the apparatus.
A dye-sensitized solar cell, comprising: - a metal oxide electrode; - a counter electrode, which faces the metal oxide electrode; and - an electrolyte arranged between the metal oxide electrode and the counter electrode; wherein the metal oxide electrode comprises a dye located thereon and the electrolyte comprises an electrochemical redox pair, characterised in that nitrogen-doped carbon nanotubes, which are in electrical contact with the counter electrode and which comprise pyridinic, pyrrolic and/or quaternary nitrogen groups at least on their surface, are arranged between the metal oxide electrode and the counter electrode. - a metal oxide electrode; - a counter electrode, which faces the metal oxide electrode; and - an electrolyte arranged between the metal oxide electrode and the counter electrode;
A storage system, comprising: a set of storage elements, including at least one storage element which is to be programmed to a target data state; a respective bit line (321, 341, 361) associated with each storage element; and one or more control circuits (510, 550), the one or more control circuits, to perform a plurality of programming iterations of a programming operation for the set of storage elements: (a) apply program pulses to the set of storage elements, with the respective bit line of the at least one storage element grounded, until the at least one storage element reaches a verify level (VvaL, VvbL) which is below a target verify level (Vva, Vvb) of a target data state of the at least one storage element, and characterised in that the one or more control circuits (b) in response to the at least one storage element reaching the verify level which is below the target verify level of the target data state of the at least one storage element, apply program pulses to the set of storage elements, with the respective bit line of the at least one storage element floated, until the at least one storage element reaches the target verify level of the target data state. a set of storage elements, including at least one storage element which is to be programmed to a target data state; a respective bit line (321, 341, 361) associated with each storage element; and one or more control circuits (510, 550), the one or more control circuits, to perform a plurality of programming iterations of a programming operation for the set of storage elements: (a) apply program pulses to the set of storage elements, with the respective bit line of the at least one storage element grounded, until the at least one storage element reaches a verify level (VvaL, VvbL) which is below a target verify level (Vva, Vvb) of a target data state of the at least one storage element, and characterised in that the one or more control circuits (b) in response to the at least one storage element reaching the verify level which is below the target verify level of the target data state of the at least one storage element, apply program pulses to the set of storage elements, with the respective bit line of the at least one storage element floated, until the at least one storage element reaches the target verify level of the target data state.
A device (1; 18; 19; 20; 22) for extruding plastics, comprising an extruder screw, a housing with a cavity in which the extruder screw is rotatably arranged, a drive unit for rotatably driving the extruder screw, a heating element arranged on the housing alongside the extruder screw, a filling unit which is connected to the housing in a feed zone of the extruder screw and through which shredded plastic can be supplied into the cavity, wherein, upon rotation, the extruder screw conveys the shredded plastic in the transport direction along a longitudinal axis of the extruder screw, carrying it out of the cavity through a discharge port formed in the housing, and a filler metering device, wherein the housing has a feeding port for a filler, in particular a powdery filler, opening into the cavity, characterized in that, viewed in the transport direction, the feeding port is arranged upstream of the feed zone or in the feed zone of the extruder screw, wherein the filler metering device is connected to the feeding port and is designed for supplying the filler into the cavity, as it is dispersed in a gas stream.
Clamping module, in particular a zero-point clamping module, for clamping a clamping body with positional accuracy, comprising a clamp housing that has a clamp receptacle for axially inserting a clamp bolt provided on the clamping body and clamping means that can be actuated by means of a drive in order to pull the clamp bolt in and lock said bolt in the clamp receptacle, a base housing that can be fastened to a mounting element being provided with at least one connection, characterized in that a plurality of intermediate modules (30, 32) having integrated passages (34, 35, 36) for connecting the at least one connection to the drive are provided axially one behind the other between the clamp housing and the base housing.
A liquid hydrocarbon comprising a dehydrating icing inhibitor of Formula I, salts thereof or mixtures thereof; where: R 1 is independently selectable and is selected from a C 1 to C 6 non-substituted, branched or straight chain, alkyl or ether; R 2 is independently selectable and is selected from a C 1 to C 7 non-substituted, straight or branched chain, alkyl; Y is independently selectable and is a non-substituted alkyl; y is an integer of 1 to 3; wherein the liquid hydrocarbon is a hydrocarbon fuel selected from aviation fuel, gasoline, diesel or heating oil, a lubricant or a hydraulic fluid. R 1 is independently selectable and is selected from a C 1 to C 6 non-substituted, branched or straight chain, alkyl or ether; R 2 is independently selectable and is selected from a C 1 to C 7 non-substituted, straight or branched chain, alkyl; Y is independently selectable and is a non-substituted alkyl; y is an integer of 1 to 3; wherein the liquid hydrocarbon is a hydrocarbon fuel selected from aviation fuel, gasoline, diesel or heating oil, a lubricant or a hydraulic fluid.
A torque converter comprising: a converter housing adapted to be connected to a power source to be driven; a pump impeller constituting part of the converter housing, the pump impeller having an annular yoke member that constitutes a cylindrical outer body portion of the converter housing; a turbine runner rotatably installed in the converter housing and adapted to be connected to a transmission device, the turbine runner being arranged to face the pump impeller; a magnetic viscous fluid filled in the converter housing and serving as a working fluid, the magnetic viscous fluid being circulated between the pump impeller and the turbine runner for performing torque transmission therebetween; and a magnetic force applying mechanism (30, 38, 47, 48, 49) for changing a viscosity of the magnetic viscous fluid by applying the fluid with a magnetic force, characterized in that the magnetic force applying mechanism (30, 38, 47, 48, 49) is installed in the converter housing at a position outside a circulation path of the magnetic viscous fluid, and comprises: a coil concentrically held by the annular yoke member; and an annular plate unit (47, 48, 49) of magnetic material concentrically installed inside the coil and connected to the turbine runner through a disc member, wherein upon energization of the coil, there is produced a magnetic circuit between the annular yoke member and the annular plate unit (47, 48, 49). a converter housing adapted to be connected to a power source to be driven; a pump impeller constituting part of the converter housing, the pump impeller having an annular yoke member that constitutes a cylindrical outer body portion of the converter housing; a turbine runner rotatably installed in the converter housing and adapted to be connected to a transmission device, the turbine runner being arranged to face the pump impeller; a magnetic viscous fluid filled in the converter housing and serving as a working fluid, the magnetic viscous fluid being circulated between the pump impeller and the turbine runner for performing torque transmission therebetween; and a magnetic force applying mechanism (30, 38, 47, 48, 49) for changing a viscosity of the magnetic viscous fluid by applying the fluid with a magnetic force, characterized in that the magnetic force applying mechanism (30, 38, 47, 48, 49) is installed in the converter housing at a position outside a circulation path of the magnetic viscous fluid, and comprises: a coil concentrically held by the annular yoke member; and an annular plate unit (47, 48, 49) of magnetic material concentrically installed inside the coil and connected to the turbine runner through a disc member, wherein upon energization of the coil, there is produced a magnetic circuit between the annular yoke member and the annular plate unit (47, 48, 49). a coil concentrically held by the annular yoke member; and an annular plate unit (47, 48, 49) of magnetic material concentrically installed inside the coil and connected to the turbine runner through a disc member, wherein upon energization of the coil, there is produced a magnetic circuit between the annular yoke member and the annular plate unit (47, 48, 49).
Method for evaluating the clogging of the passages of a tube support plate of a tube heat exchanger, said passages (12a, 12b) being made along the tubes for a fluid to pass through the tube support plate, in which an eddy current probe is passed through a tube of said exchanger and a measurement signal is measured with said probe according to the environment in which the probe is situated, and where to evaluate the clogging at the downstream edge of a tube support plate: - a lower edge signal corresponding to the probe passing the downstream edge of the tube support plate is determined from the measurement signal, - an upper edge signal corresponding to the probe passing the upstream edge of the tube support plate is determined from the measurement signal, - the impulse response of the probe corresponding to the probe passing the tube support plate in the tube and being representative of the response of the eddy current probe at an impedance variation is estimated, the method being characterised in that: - the lower edge signal is deconvolved by means of said impulse response estimation corresponding to the probe passing the tube support plate in the tube and being representative of the response of the eddy current probe at an impedance variation, - the clogging of the passage at the downstream edge of the spacer plate is evaluated by analysing the lower edge signal thus deconvolved by means of the impulse response estimation. - a lower edge signal corresponding to the probe passing the downstream edge of the tube support plate is determined from the measurement signal, - an upper edge signal corresponding to the probe passing the upstream edge of the tube support plate is determined from the measurement signal, - the impulse response of the probe corresponding to the probe passing the tube support plate in the tube and being representative of the response of the eddy current probe at an impedance variation is estimated, - the lower edge signal is deconvolved by means of said impulse response estimation corresponding to the probe passing the tube support plate in the tube and being representative of the response of the eddy current probe at an impedance variation, - the clogging of the passage at the downstream edge of the spacer plate is evaluated by analysing the lower edge signal thus deconvolved by means of the impulse response estimation.