mhurhangee/ep-ind-claims huggingface dataset:
A kit of parts for flashing a roof element, such as a roof window, in a sloping roof with a roof covering comprising flat roofing panels, possibly of sheet metal, with standing seams, comprising at least a bottom flashing member having at least a section with a generally L-shaped cross-section with a first leg configured to be arranged against a side of the roof element and a second leg configured to be at least in part positioned above the roof covering to seal between the roof element and the roof covering, and comprising an elongated filling member having a length in a longitudinal direction; a mounting surface extending in the longitudinal direction for mounting the filling member on a receiving surface; and an opposing surface opposite the mounting surface and positioned at a distance from a plane defined by the mounting surface, the filling member being provided for sealing between the bottom flashing member and the roofing panels, characterized in that at least one vent opening (37, 37a) is provided in the filling member.
A rotary sensor assembly, comprising: - a first sensor part with a plurality of position sensor segments each adapted to have a powered and an un-powered state, - a second sensor part, rotational in increments relative to the first part, with at least one grounded contact structure adapted to be in contact with a position sensor segment, - electronic circuitry electrically connected to the position sensor segments and adapted to control the power state, characterized in that - for a current incremental rotational position a contact structure is in contact with pone of said current-osition sensor segments being in the un-powered state, - at least one neighbour segment to the un-powered current-position sensor segment is in a powered state, - when the first and second sensor parts are rotated one increment relative to each other, and the contact structure thereby is rotated to a powered next-position position sensor segment, the next-position sensor segment becomes a new current-position sensor segment, - the electronic circuitry is adapted to detect a change event in which the new current-position sensor segment is grounded and the first and second sensor parts thereby have been rotated one increment relative to each other, and - the electronic circuitry is adapted to subsequently change the state of the former current-position sensor segment from un-powered to powered and the state of the new current-position sensor segment from powered to un-powered. - a first sensor part with a plurality of position sensor segments each adapted to have a powered and an un-powered state, - a second sensor part, rotational in increments relative to the first part, with at least one grounded contact structure adapted to be in contact with a position sensor segment, - electronic circuitry electrically connected to the position sensor segments and adapted to control the power state, characterized in that - for a current incremental rotational position a contact structure is in contact with pone of said current-osition sensor segments being in the un-powered state, - at least one neighbour segment to the un-powered current-position sensor segment is in a powered state, - when the first and second sensor parts are rotated one increment relative to each other, and the contact structure thereby is rotated to a powered next-position position sensor segment, the next-position sensor segment becomes a new current-position sensor segment, - the electronic circuitry is adapted to detect a change event in which the new current-position sensor segment is grounded and the first and second sensor parts thereby have been rotated one increment relative to each other, and - the electronic circuitry is adapted to subsequently change the state of the former current-position sensor segment from un-powered to powered and the state of the new current-position sensor segment from powered to un-powered.
Method of decoding a pulse signal modulated through a transmitted reference modulation scheme including repetitively a reference pulse followed by a pulses train including at least a first information pulse delayed with respect to the reference pulse and a second information pulse delayed with respect to the first information pulse, said method comprising performing the decoding within a non-coherent receiving architecture, wherein performing the decoding comprises delaying said modulated signal with respective delays corresponding to those used in the transmitted reference modulation scheme, for obtaining respective versions of said modulated signal respectively delayed with respect to said modulated signal, respectively subtracting from or adding to the modulated signal said delayed versions of said modulated signal, for obtaining respective processed signals, and respectively performing a non-coherent detection on said processed signals.
A method for operating a vehicle (51, 61), wherein - a vehicle (51, 61) is operated using a wireless connection (20, 21) to a radio access network, wherein - the vehicle (51, 61) determines a minimum data rate to be sufficiently high for a safe operation of the vehicle (51, 61) in an operational context of the vehicle (51, 61) and/or a maximum latency to be sufficiently low for the safe operation of the vehicle (51, 61) in the operational context of the vehicle (51, 61), the minimum data rate and/or the maximum latency matching a complexity of the operational context (50, 60) of the vehicle (51, 61); - the vehicle (51, 61) requests the radio access network to allocate the determined minimum data rate and/or maximum latency to the wireless connection (20, 21); and - the radio access network allocates the requested minimum data rate and/or maximum latency to the wireless connection (20, 21) of the vehicle (51, 61). - a vehicle (51, 61) is operated using a wireless connection (20, 21) to a radio access network, wherein - the vehicle (51, 61) determines a minimum data rate to be sufficiently high for a safe operation of the vehicle (51, 61) in an operational context of the vehicle (51, 61) and/or a maximum latency to be sufficiently low for the safe operation of the vehicle (51, 61) in the operational context of the vehicle (51, 61), the minimum data rate and/or the maximum latency matching a complexity of the operational context (50, 60) of the vehicle (51, 61); - the vehicle (51, 61) requests the radio access network to allocate the determined minimum data rate and/or maximum latency to the wireless connection (20, 21); and - the radio access network allocates the requested minimum data rate and/or maximum latency to the wireless connection (20, 21) of the vehicle (51, 61).
A combine harvester feeder house assembly, comprising: a feeder house comprising an inlet end; a tilt frame surrounding the inlet end and in pivotal arrangement relative to the feeder house; a gearbox attached to the tilt frame; and a first dog clutch operably coupled to the gearbox, characterized in that feeder house assembly further comprises a quick connect apparatus which is slidably coupled to a linear guide assembly, wherein the linear guide assembly is directly coupled to the tilt frame. a feeder house comprising an inlet end; a tilt frame surrounding the inlet end and in pivotal arrangement relative to the feeder house; a gearbox attached to the tilt frame; and a first dog clutch operably coupled to the gearbox, characterized in that feeder house assembly further comprises a quick connect apparatus which is slidably coupled to a linear guide assembly, wherein the linear guide assembly is directly coupled to the tilt frame.
A camera module, the camera module comprising: a PCB (Printed Circuit Board) mounted with an image sensor; a housing configured to protect the image sensor and mounted therein with camera constituent parts; and plural pieces of lenses mounted on the housing, characterized in that the camera module further comprises: a metalized surface formed on an outer surface of the housing; and an electrode line formed on the outer surface of the housing, wherein the electrode line is not electrically connected with the metalized surface. a PCB (Printed Circuit Board) mounted with an image sensor; a housing configured to protect the image sensor and mounted therein with camera constituent parts; and plural pieces of lenses mounted on the housing, a metalized surface formed on an outer surface of the housing; and an electrode line formed on the outer surface of the housing,
An external preparation for skin comprising (a) from 0.01 to 5% by mass of 4-isobutyl resorcinol or a salt thereof, and (b) from 0.01 to 5% by mass of one or more selected from L-ascorbic acid or a salt thereof and a 3-0-alkyl-L-ascorbic acid or a salt thereof.
An insulated fluid conductor for conducting fluid in an underwater or below grade environment where ambient pressure is higher than atmospheric pressure, wherein the insulated fluid conductor comprises: an internal pressure resistant fluid conduit including line pipe, casing pipe, pressure pipe, a flow line, pipeline, riser, valve, choke or blowout preventer, surrounded by an insulating liquid having an isostatic pressure higher than atmospheric pressure contained in a container, said liquid serves both to thermally insulate said internal pressure resistant fluid conduit and also to exert pressure inside said container.
Work apparatus with a work tool, wherein the work tool is driven by a combustion engine, - and with a brake unit for braking a slowing-down work tool, wherein the brake unit has a brake element which brakes the work tool, and, in a braking position of the brake unit, the brake element brakes the work tool, - and, in a stand-by position, the brake element releases the movement of the work tool, wherein the brake element is held in the stand-by position with a holding force from an electromagnet, - and with an electric generator which is driven by the combustion engine and which supplies the energy for operating the electromagnet, - wherein the electrical energy output by the generator is temporarily stored in an energy store, - and, in the stand-by position of the brake unit, a holding current is supplied to the electromagnet, and the holding current which is supplied to the electromagnet is extracted from the energy store, - and with a control unit, characterized in that, after the combustion engine is switched off, the control unit monitors or senses an operating parameter of the combustion engine, - and in that, after a limit value of the operating parameter is reached, the control unit reduces the holding current supplied to the electromagnet from the energy store. - and with a brake unit for braking a slowing-down work tool, wherein the brake unit has a brake element which brakes the work tool, and, in a braking position of the brake unit, the brake element brakes the work tool, - and, in a stand-by position, the brake element releases the movement of the work tool, wherein the brake element is held in the stand-by position with a holding force from an electromagnet, - and with an electric generator which is driven by the combustion engine and which supplies the energy for operating the electromagnet, - wherein the electrical energy output by the generator is temporarily stored in an energy store, - and, in the stand-by position of the brake unit, a holding current is supplied to the electromagnet, and the holding current which is supplied to the electromagnet is extracted from the energy store, - and with a control unit, characterized in that, after the combustion engine is switched off, the control unit monitors or senses an operating parameter of the combustion engine, - and in that, after a limit value of the operating parameter is reached, the control unit reduces the holding current supplied to the electromagnet from the energy store.
A system for analysing finite element models, the system comprising: a finite element post processing framework, wherein the finite element post processing framework is not specific to a particular finite element model, the finite element post processing framework based at least in part on one or more data structures comprising: an interface element including a collection of degree of freedoms each connecting two structural components, a freebody element for collecting boundary interfaces and assembling load balance tables of components, and a summary element for processing and sorting a selection of interfaces and generating a summary table; a user interface component configured to receive input from an end user, wherein the user interface couples said input to a configuration engine to customize the post processing framework so that it can be applied to a specific finite element model; and a post processing component configured to perform post processing on the specific finite element model based on the customized post processing framework. a finite element post processing framework, wherein the finite element post processing framework is not specific to a particular finite element model, the finite element post processing framework based at least in part on one or more data structures comprising: an interface element including a collection of degree of freedoms each connecting two structural components, a freebody element for collecting boundary interfaces and assembling load balance tables of components, and a summary element for processing and sorting a selection of interfaces and generating a summary table; an interface element including a collection of degree of freedoms each connecting two structural components, a freebody element for collecting boundary interfaces and assembling load balance tables of components, and a summary element for processing and sorting a selection of interfaces and generating a summary table; a user interface component configured to receive input from an end user, wherein the user interface couples said input to a configuration engine to customize the post processing framework so that it can be applied to a specific finite element model; and a post processing component configured to perform post processing on the specific finite element model based on the customized post processing framework.
A rotating anode assembly, comprising: - an anode disk having a bore; - a rotating shaft; and - an anode disk support; wherein the anode disk is concentrically mounted to a rotating axis of the rotating shaft via the anode disk support; wherein the anode disk support comprises a first support with a first circular axial support surface that is provided at the rotating shaft in a concentric manner with the rotating axis; and wherein the anode disk support comprises a second support with a second axial support surface that is at least temporarily attached to the rotating shaft for urging the anode disk against the first support surface in an axial clamping direction; wherein the first support is provided as a radially flexible support; wherein, upon heating up of the anode disk during X-ray generation, and a thermal expansion of the anode disk, the radially flexible support bends radially such that the first axial support surface at least partly follows the thermal expansion in a radial direction; wherein the first support has a larger resistance to forces in the axial direction than in the radial direction; wherein the first support is provided protruding in an axial direction from a shoulder on the rotating shaft; wherein at least a circumferential radial gap to a shaft-end extending through the bore of the anode disk is provided; wherein, in an axial cross-section, an axial height of the first support is at least the double amount of the radial width or the first support. - an anode disk having a bore; - a rotating shaft; and - an anode disk support; wherein the anode disk is concentrically mounted to a rotating axis of the rotating shaft via the anode disk support; wherein the anode disk support comprises a first support with a first circular axial support surface that is provided at the rotating shaft in a concentric manner with the rotating axis; and wherein the anode disk support comprises a second support with a second axial support surface that is at least temporarily attached to the rotating shaft for urging the anode disk against the first support surface in an axial clamping direction; wherein the first support is provided as a radially flexible support; wherein, upon heating up of the anode disk during X-ray generation, and a thermal expansion of the anode disk, the radially flexible support bends radially such that the first axial support surface at least partly follows the thermal expansion in a radial direction; wherein the first support has a larger resistance to forces in the axial direction than in the radial direction; wherein the first support is provided protruding in an axial direction from a shoulder on the rotating shaft; wherein at least a circumferential radial gap to a shaft-end extending through the bore of the anode disk is provided; wherein, in an axial cross-section, an axial height of the first support is at least the double amount of the radial width or the first support.
A tire rubber composition comprising: a rubber component containing diene-based rubber; a compound expressed by the following Formula; and carbon black whose CTAB adsorption specific surface area, represented as CTAB, is 120 m 2 /g or more, where A is an aryl group having at least two hydroxyl groups, R 1 and R 2 are each independently at least one substituent selected from the group consisting of a hydrogen atom, an acyl group, an amide group, an alkyl group, a cycloalkyl group, and an aryl group. a rubber component containing diene-based rubber; a compound expressed by the following Formula; and carbon black whose CTAB adsorption specific surface area, represented as CTAB, is 120 m 2 /g or more, where A is an aryl group having at least two hydroxyl groups, R 1 and R 2 are each independently at least one substituent selected from the group consisting of a hydrogen atom, an acyl group, an amide group, an alkyl group, a cycloalkyl group, and an aryl group.
A wireless communication method of reporting channel state information, CSI, comprising steps of: reporting one or more long term CSI components to an eNode B, wherein at least one long term CSI component is reported with multiple values; and reporting a transmission scheme assumption indicator, TSAI, always together with a set of short term CSI components to the eNode B, wherein the TSAI indicates • whether the one or more long term CSI components and the short term CSI components were calculated by assuming a macro cell is muted or calculated by assuming the macro cell is not muted, • a value of the multiple values of the at least one long term CSI component to be currently used, and • the set of short term CSI components being conditioned on the value indicated by the TSAI, wherein the short term CSI components is reported more frequently than the one or more long term CSI components. reporting one or more long term CSI components to an eNode B, wherein at least one long term CSI component is reported with multiple values; and reporting a transmission scheme assumption indicator, TSAI, always together with a set of short term CSI components to the eNode B, wherein the TSAI indicates • whether the one or more long term CSI components and the short term CSI components were calculated by assuming a macro cell is muted or calculated by assuming the macro cell is not muted, • a value of the multiple values of the at least one long term CSI component to be currently used, and • the set of short term CSI components being conditioned on the value indicated by the TSAI, • whether the one or more long term CSI components and the short term CSI components were calculated by assuming a macro cell is muted or calculated by assuming the macro cell is not muted, • a value of the multiple values of the at least one long term CSI component to be currently used, and • the set of short term CSI components being conditioned on the value indicated by the TSAI, wherein the short term CSI components is reported more frequently than the one or more long term CSI components.
An evaporative emission control system for an internal combustion engine with a compressor arranged in an air intake duct and with a bypass around the compressor which communicates with a fuel system (8, 9), wherein a valve is arranged in the bypass, which valve in load-dependent manner controls an air mass flowing through the bypass, wherein a venturi nozzle for generating a partial vacuum is provided in the bypass.
An imaging device comprising a matrix of pixels, at least one data conductor (Col_b) that can be connected to a plurality of pixels of said matrix, which pixels are organised in rows and allow the successive routing of the signals respectively delivered by each of the pixels of the row, and an electronic current generator feeding a plurality of pixels, with each of the pixels of said matrix comprising: • a transistor, which delivers the signal delivered by the considered pixel to one of its terminals, called pixel node, and through which a bias current can circulate that originates from said current generator; and • a first electronic switch (T3b) that allows said pixel node to be connected to the data conductor (Col_b) associated with said pixel as a function of a signal (Phi_ligne) for selecting said pixel, characterised in that each of the pixels of said matrix further comprises a second electronic switch (T3a), which is distinct from said first electronic switch (T3b), that is connected to said pixel node and allows the current originating from said generator to circulate through said transistor as a function of said signal (Phi_ligne) for selecting said pixel, said device further comprising at least one current feed conductor (Col_a) that is connected to all of the pixels that use the same current generator, and in that said current feed conductor (Col_a) is distinct from said data conductor (Col_b). • a transistor, which delivers the signal delivered by the considered pixel to one of its terminals, called pixel node, and through which a bias current can circulate that originates from said current generator; and • a first electronic switch (T3b) that allows said pixel node to be connected to the data conductor (Col_b) associated with said pixel as a function of a signal (Phi_ligne) for selecting said pixel,
A process for producing a polytetrafluoroethylene molding powder, which comprises a step of suspension-polymerizing a monomer containing at least 99.8 mass% of tetrafluoroethylene in an aqueous medium to produce granular polymer particles and a step of milling the granular polymer particles, wherein in 100 mass% of the monomer, a monomer other than tetrafluoroethylene is contained within the range of at most 0.2 mass%, and wherein the aqueous medium contains a compound represented by the following formula at a concentration of from 0.5 to 2,000 ppm: R F (OCF(X 1)CF 2) k-1 OCF(X 2)COO - M + wherein R F is a perfluorinated C 1-5 monovalent organic group, each of X 1 and X 2 which are independent of each other, is a fluorine atom or a trifluoromethyl group, k is an integer of at least 1, and M + is a hydrogen ion, an ammonium ion, an alkyl-substituted ammonium ion or an alkali metal ion, and the total carbon number of the compound represented by the formula is from 5 to 8.