mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for disconnecting an electrical connection between solar modules of a photovoltaic string, comprising: - a first terminal and a second terminal for a respectively assigned solar module of the photovoltaic string, - a circuit breaker, a band-stop filter and a supply circuit for supplying energy to the apparatus arranged in a series circuit with respect to one another between the first and the second terminals (31, 32), - a bandpass filter for coupling out a high-frequency control signal from the electrical connection, wherein the bandpass filter bridges the circuit breaker and the band-stop filter in parallel, and - a control unit configured to receive the high-frequency control signal and to operate the disconnection apparatus depending on the high-frequency control signal, - wherein a reverse current diode that is oppositely polarized relative to an operating current flow direction is connected in parallel with the circuit breaker or the partial series circuit comprising the circuit breaker and the band-stop filter. - a first terminal and a second terminal for a respectively assigned solar module of the photovoltaic string, - a circuit breaker, a band-stop filter and a supply circuit for supplying energy to the apparatus arranged in a series circuit with respect to one another between the first and the second terminals (31, 32), - a bandpass filter for coupling out a high-frequency control signal from the electrical connection, wherein the bandpass filter bridges the circuit breaker and the band-stop filter in parallel, and - a control unit configured to receive the high-frequency control signal and to operate the disconnection apparatus depending on the high-frequency control signal, - wherein a reverse current diode that is oppositely polarized relative to an operating current flow direction is connected in parallel with the circuit breaker or the partial series circuit comprising the circuit breaker and the band-stop filter.
Headlight for a vehicle, comprising - a concave reflector and a lamp arranged within said reflector to reflect light from said lamp to create an illumination beam with a bright/dark boundary, - said lamp comprising - a transparent vessel including a longitudinal axis, - at least a first and a second filament (24, 26) arranged within said vessel, - a baffle arranged proximate to said first filament, characterized by said baffle comprising first and second upper side edges (34a, 34b), said first filament being arranged above a plane including said upper side edges (34a, 34b), - wherein in a plane through a center of said first filament, said plane being arranged perpendicular to said longitudinal axis, said upper side edges (34a, 34b) are arranged symmetrically to a baffle symmetry axis extending from said center of said first filament centrally between said upper side edges (34a, 34b), - said lamp being arranged within said reflector rotated around said longitudinal axis by a rotation angle (α) of 2° - 20° with respect to a horizontally symmetrical arrangement. - a concave reflector and a lamp arranged within said reflector to reflect light from said lamp to create an illumination beam with a bright/dark boundary, - said lamp comprising - a transparent vessel including a longitudinal axis, - at least a first and a second filament (24, 26) arranged within said vessel, - a baffle arranged proximate to said first filament, characterized by - wherein in a plane through a center of said first filament, said plane being arranged perpendicular to said longitudinal axis, said upper side edges (34a, 34b) are arranged symmetrically to a baffle symmetry axis extending from said center of said first filament centrally between said upper side edges (34a, 34b), - said lamp being arranged within said reflector rotated around said longitudinal axis by a rotation angle (α) of 2° - 20° with respect to a horizontally symmetrical arrangement.
A testing system for testing an electric motor of a fuel cell powered vehicle, the testing system comprising: a dynamometer which is adapted to be connected to an output shaft of the electric motor and which is adapted to apply a simulation travelling load to the electric motor; and a supply power simulator adapted to simulate an operation of a fuel cell used for supplying power to an electric motor that is equivalent to the tested electric motor by applying power to the electric motor, and adapted to calculate a hydrogen consumption amount of the fuel cell, the operation of which is simulated by the supply power simulator. a dynamometer which is adapted to be connected to an output shaft of the electric motor and which is adapted to apply a simulation travelling load to the electric motor; and a supply power simulator adapted to simulate an operation of a fuel cell used for supplying power to an electric motor that is equivalent to the tested electric motor by applying power to the electric motor, and adapted to calculate a hydrogen consumption amount of the fuel cell, the operation of which is simulated by the supply power simulator.
A method of handover control in a radio communication system in which a base station controller and a first Home NodeB, HNB, gateway apparatus are connected to a communication network, wherein the base station controller has under its control at least one base station connected thereto, and the first HNB-gateway apparatus has under its control at least one hierarchically lower-level second HNB-gateway apparatus connected thereto, wherein the hierarchically lower-level second gateway apparatus has under its control at least one HNB base station connected thereto, characterized in that: the first HNB-gateway apparatus acquires, from the second HNB-gateway apparatus, cell information of a cell controlled by the HNB-base station under the control of the second HNB-gateway apparatus; wherein the cell controlled by the HNB-base station neighbors a cell controlled by the base station; and in a hand-in phase for handover from the base station to the HNB-base station, the first HNB-gateway apparatus identifies a target cell of the handover using the cell information. the first HNB-gateway apparatus acquires, from the second HNB-gateway apparatus, cell information of a cell controlled by the HNB-base station under the control of the second HNB-gateway apparatus; wherein the cell controlled by the HNB-base station neighbors a cell controlled by the base station; and in a hand-in phase for handover from the base station to the HNB-base station, the first HNB-gateway apparatus identifies a target cell of the handover using the cell information.
Electric motor vehicle coolant pump comprising a housing having a pump unit and a motor unit, wherein the motor unit has a motor rotor supported in the housing by means of bearing means, as well as a motor stator, wherein the motor rotor comprises an impeller member with blade elements of the pump unit and a drive member extending in the axial direction, wherein inlet and outlet openings (30, 34) are provided which allow a cooling fluid to flow through the motor unit from the pressure side of the pump unit to a suction side of the pump unit, wherein the impeller member is provided with the outlet openings for fluid communication with the suction side of the pump unit, characterized in that the outlet openings are arranged in the region of the ends of the blade elements averted from the center of the motor rotor.
A method performed by a wireless device for handling mobility of the wireless device in a communication network, which communication network comprises partitioned sets of functionalities wherein each set of functionalities belongs to a network slice, and wherein a set of functionalities is separated from other sets of functionalities out of a total set of functionalities in the communication network, the method comprising: - receiving, from a radio network node in the communication network, a message comprising information indicating at least one frequency band supported by the communication network, and which information further indicates one or more network slices supported by respective frequency bands of the at least one frequency band; and - determining to initiate a mobility procedure regarding selection of a service area and frequency band to camp on, taking the information in the received message and also supporting information into account, which supporting information indicates one or more supporting network slices that support the wireless device. - receiving, from a radio network node in the communication network, a message comprising information indicating at least one frequency band supported by the communication network, and which information further indicates one or more network slices supported by respective frequency bands of the at least one frequency band; and - determining to initiate a mobility procedure regarding selection of a service area and frequency band to camp on, taking the information in the received message and also supporting information into account, which supporting information indicates one or more supporting network slices that support the wireless device.
A heat exchange system for an aircraft turbine engine comprising: - a cavity comprising an air intake, - a heat exchanger arranged in the cavity, the heat exchanger comprising a first circuit through which a first fluid provided by a fluid supply circuit is able to circulate, - a movable flap mounted at the level of the air intake and displacing between an opening position allowing the circulation of the airflow into the cavity and a closing position preventing the circulation of the airflow into the cavity, - a control device comprising at least one movable member intended to cause the displacement of the movable flap, characterised in that the control device is arranged in the fluid supply circuit supplying fluid to the heat exchanger, and is configured so as, simultaneously, to allow or prevent the circulation of the first fluid towards the heat exchanger and to act on the opening or closing position of the movable flap. - a cavity comprising an air intake, - a heat exchanger arranged in the cavity, the heat exchanger comprising a first circuit through which a first fluid provided by a fluid supply circuit is able to circulate, - a movable flap mounted at the level of the air intake and displacing between an opening position allowing the circulation of the airflow into the cavity and a closing position preventing the circulation of the airflow into the cavity, - a control device comprising at least one movable member intended to cause the displacement of the movable flap,
An adaptive camouflage device that includes: at least one non-emissive layer which includes a guest-host liquid crystal, GHLC, characterized in that the adaptive camouflage system further comprises a diffuse static reflector layer.
Method for coating a drying cylinder of a drying device for drying and / or smoothing a fibrous web, the coating taking place inside the drying device, comprising the feeding of an additional spray material in the direction of the outer surface of the drying cylinder to be coated, Melting at least the supplied spray additive material by means of a beam a beam source, such as a laser - or electron beam source for producing a layer, wherein the melting is carried out such that the beam - in an extension of its propagation direction - to a site the lateral surface is incident, in the operating state of the drying apparatus outside a wrap portion of the circumferential surface of the drying cylinder with the fibrous web or is the fibrous web carrying the covering.
A device for anchoring a tensioning rod and positioning it at a precise angle and position, including a supporting plate for fitting and aligning the device on reinforcement, a guide pipe connected to the supporting plate and threaded means for screwing in the tensioning rod which is provided with a threaded portion, characterized in that marks or nominal fracture lines are configured on the part of the guide pipe which is located above the supporting plate, so that the guide pipe can be detached along the marks or nominal fracture lines.
A pressure vessel assembly comprising: a first vessel including a first wall defining a first chamber and a circumferentially continuous first lip projecting into the first chamber from the first wall, the first lip defining a first through-bore in fluid communication with the first chamber; and a first nozzle assembly including a first tube and a flange projecting radially outward from the first tube, the first tube including a first portion projecting from the flange and through the first through-bore and an opposite second portion projecting outward from the flange, and wherein the flange is in contact with the first wall and the first portion includes an outer surface having a contour configured to produce sealing friction between the first lip and the outer surface, characterized in that the contour is at least one circumferentially continuous barb. a first vessel including a first wall defining a first chamber and a circumferentially continuous first lip projecting into the first chamber from the first wall, the first lip defining a first through-bore in fluid communication with the first chamber; and a first nozzle assembly including a first tube and a flange projecting radially outward from the first tube, the first tube including a first portion projecting from the flange and through the first through-bore and an opposite second portion projecting outward from the flange, and wherein the flange is in contact with the first wall and the first portion includes an outer surface having a contour configured to produce sealing friction between the first lip and the outer surface,
An article of footwear comprising: a sole structure; and an upper connected to the sole structure to form an enclosure to at least partially receive a foot, the upper comprising: a first panel and a second panel that at least partially form the upper; a backing panel located within the enclosure along surfaces of the first and second panels; and fibers extending from the backing panel and mechanically embedded in the first and second panels so that at least some of the fibers are partially disposed outside the enclosure. a sole structure; and an upper connected to the sole structure to form an enclosure to at least partially receive a foot, the upper comprising: a first panel and a second panel that at least partially form the upper; a backing panel located within the enclosure along surfaces of the first and second panels; and fibers extending from the backing panel and mechanically embedded in the first and second panels so that at least some of the fibers are partially disposed outside the enclosure. a backing panel located within the enclosure along surfaces of the first and second panels; and fibers extending from the backing panel and mechanically embedded in the first and second panels so that at least some of the fibers are partially disposed outside the enclosure.
Method for detecting a phase boundary between two media in a container for liquid with a sensor that causes a capacitance change (dc/dt) when the phase boundary is reached, wherein the method comprises the following steps: a. performing a advance motion in order to advance the sensor in direction of the phase boundary, b. evaluating an output signal (s(t)) of the sensor in order to detect a capacitance change (dc/dt), c. separating the output signal (s(t)) during the evaluation of the output signal (s(t)) by means of a circuit and a first filter method into a first signal (s2(t), s1d) having a short pulse width and by means of a second filter method into a second signal (s2(t), s2d) having a larger pulse width, wherein the circuit comprises: - a first channel with a first filter module in order to filter the first signal (s1(t), s1d) out of the output signal (s(t)), - a second channel with a second filter module in order to filter the second signal /s2(t), s2d) out of the output signal (s(t)), d. determining (204, 206) whether the first signal (s1(t), s1d) fulfils a prescribed first signal criterion (T1, P1), e. determining (205, 207) whether the second signal (s2(t), s2d) fulfils a prescribed second signal criterion (T2, P2, ST, A1), and f. in case the first signal criterion (T1, P1) and the second signal criterion (T2, P2, ST, A1) are fulfilled, providing an identification that represents or indicates a detection of a phase boundary. a. performing a advance motion in order to advance the sensor in direction of the phase boundary, b. evaluating an output signal (s(t)) of the sensor in order to detect a capacitance change (dc/dt), c. separating the output signal (s(t)) during the evaluation of the output signal (s(t)) by means of a circuit and a first filter method into a first signal (s2(t), s1d) having a short pulse width and by means of a second filter method into a second signal (s2(t), s2d) having a larger pulse width, wherein the circuit comprises: - a first channel with a first filter module in order to filter the first signal (s1(t), s1d) out of the output signal (s(t)), - a second channel with a second filter module in order to filter the second signal /s2(t), s2d) out of the output signal (s(t)), - a first channel with a first filter module in order to filter the first signal (s1(t), s1d) out of the output signal (s(t)), - a second channel with a second filter module in order to filter the second signal /s2(t), s2d) out of the output signal (s(t)), d. determining (204, 206) whether the first signal (s1(t), s1d) fulfils a prescribed first signal criterion (T1, P1), e. determining (205, 207) whether the second signal (s2(t), s2d) fulfils a prescribed second signal criterion (T2, P2, ST, A1), and f. in case the first signal criterion (T1, P1) and the second signal criterion (T2, P2, ST, A1) are fulfilled, providing an identification that represents or indicates a detection of a phase boundary.
Dam element for the damming of a structure element (12, 14) within a vehicle, the dam element comprising a support element consisting of at least one printed strand of a first material, where the first material is in a solid physical state at least up to a temperature of from 120°C to 200°C, an expandable element consisting of at least one printed strand of a second material, where the second material is expandable at a temperature between 120°C and 200°C, where the dam element has, at a point of greatest thickness, measured perpendicularly to a plane of the dam element, at least two, and at most ten, mutually superposed layers.
A method for preparing a cyclic olefin addition polymer having gas permeability and a number average molecular weight (Mn) of 100,000 to 2,000,000 as determined by gel permeation chromatography relative to polystyrene standards, comprising addition polymerizing cyclic olefin-functional siloxane represented by the following formula, or a mixture of cyclic olefin-functional siloxane of the formula and cyclic olefin compound represented by the following formula: wherein R 1 may be the same or different and represents an aliphatic unsaturated bond-free monovalent organic group, s is an integer of 0 to 2 and j is 0 or 1, wherein A 1 to A 4 are independently selected from a hydrogen atom, a halogen atom, an alkyl group having 1 to 10 carbon atoms, an alkenyl group, a cycloalkyl group, an aryl group, an alkoxy group, an aryloxy group and a halogenated hydrocarbon group, or a polar group selected from an oxetanyl group and alkoxycarbonyl groups, provided also that A 1 and A 2 or A 1 and A 3 may form a alicyclic structure, an aromatic ring structure, a carbonimide or an acid anhydride group along with the carbon atoms bonded therewith, and i is 0 or 1, in the presence of a multi-component catalyst containing a zero-valent palladium compound, an ionic boron compound, and a phosphine compound having a substituent group selected from an alkyl group having 3 to 6 carbon atoms, a cycloalkyl group and an aryl group, thereby obtaining a cyclic olefin addition polymer wherein a ratio of the structural units derived from the cyclic olefin-functional siloxane of the formula is at 10 to 100 mole% of the addition polymer.
A transition metal compound represented by General Formula or an enantiomer thereof: [in Formula, R 1, R 3, R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12, R 13, R 14, R 15 and R 16 are each independently a hydrogen atom, a hydrocarbon group, a hetero atom-containing hydrocarbon group, or a silicon-containing group; R 2 is a hydrocarbon group, a hetero atom-containing hydrocarbon group, or a silicon-containing group; R 4 is a hydrogen atom; any two substituents of the substituents R 1 to R 16 except R 4 may be bonded to each other to form a ring; M is a transition metal of Group IV; Q is a halogen atom, a hydrocarbon group, an anionic ligand, or a neutral ligand coordinatable with a lone electron pair; j is an integer of 1 to 4; and when j is an integer of 2 or greater, Qs may be the same or different from one another].
Method for heating a flowing glass melt in a feeder channel encased by side walls (4, 5) and a ceiling, where a plurality of fuel lances (13a, 13b, 13c, 13d, 13e, 13f), arranged with spacing from one another in the flow direction of the glass melt, and oxidant lances (16a, 16b, 16c, 16d, 16e, 16f) open into said channel above the glass melt, where fuel and oxidant, respectively, are supplied through said lances and reacted with one another in the feeder channel, characterized in that for the combustion of the fuel with the oxidant, at each fuel lance (13a, 13b, 13c, 13d, 13e, 13f) a fuel material jet is generated which enters the feeder channel substantially laminarly and is reacted with oxidant present in the feeder channel to form respectively a flame.