mhurhangee/ep-ind-claims huggingface dataset:
A strut rod made of a composite material for the front end suspension of a vehicle, comprising an upper part coupled to a rod and piston assembly secured to the body of the vehicle, and a lower part in the form of a double-flanged yoke (10, 20) for attaching a wheel pivot of the vehicle, said strut rod being characterized in that it comprises a means for detecting a crack, said detection means being constituted by at least one additional edge situated protruding form the outer surface of said lower part in the form of the yoke of the strut rod, in a possible crack zone in the event of accidental impact on the wheel of the vehicle.
A process for monitoring failure situations related to feed gas and/or purge flow in electrolyser cells, stacks or systems, said monitoring process being combined with preventive actions to be taken in case of such failure situations, wherein (a) the current and/or the voltage is/are monitored and controlled over a single stack, over all stacks or over one or more selected stacks in an electrolyzer system, (b) in case the current, the voltage or the ratio between voltage and current crosses its pre-defined threshold value, a failure mode is detected and communicated to the control system, and (c) the voltage levels of the system are adjusted to be within safe limits ("safe-mode" limits), the same power supply unit being used for both monitoring current and voltages to detect failures and to apply protective voltage of between 600 mV and 1500 mV per cell across each cell in the stack in case of failure, additional protection optionally being obtained by one or more of the following actions: flushing the potentially oxidizing electrodes with oxygen-free gases, gradually cooling the electrolyser cell stack, either by flush gases or by passive heat loss from the system, and maintaining the electrolysis voltage per cell over the cells and stacks, at least until their temperatures are below the oxidation threshold of the electrolyzer cell electrodes. (a) the current and/or the voltage is/are monitored and controlled over a single stack, over all stacks or over one or more selected stacks in an electrolyzer system, (b) in case the current, the voltage or the ratio between voltage and current crosses its pre-defined threshold value, a failure mode is detected and communicated to the control system, and (c) the voltage levels of the system are adjusted to be within safe limits ("safe-mode" limits), the same power supply unit being used for both monitoring current and voltages to detect failures and to apply protective voltage of between 600 mV and 1500 mV per cell across each cell in the stack in case of failure, flushing the potentially oxidizing electrodes with oxygen-free gases, gradually cooling the electrolyser cell stack, either by flush gases or by passive heat loss from the system, and maintaining the electrolysis voltage per cell over the cells and stacks, at least until their temperatures are below the oxidation threshold of the electrolyzer cell electrodes.
A stacked satellite system, comprising: a plurality of satellites configured for being stacked within a payload fairing of a launch vehicle; each of the satellites includes a plurality of sections (102, 104, 106) that are hingedly attached to each other, wherein the sections are folded or rotated together prior to launch, and unfolded or rotated away from each other when deployed upon reaching orbit; a first one of the sections is a satellite body having a first side that acts as a thermal radiator and a second side opposite the first side that includes at least one antenna; a second one of the sections includes at least one solar panel attached adjacent to the first side of the satellite body, wherein light from the Sun is converted to electricity by the solar panel; and a third one of the sections includes at least one splash plate reflector attached adjacent to the second side of the satellite body, wherein radio frequency signals between Earth and the antenna of the satellite are reflected by the splash plate reflector; when deployed, the solar panel is rotated away from the first side of the satellite body, so that the solar panel is pointed towards the Sun, and the splash plate reflector is rotated away from the second side of the satellite body to direct the signals between the Earth and the antenna. a plurality of satellites configured for being stacked within a payload fairing of a launch vehicle; each of the satellites includes a plurality of sections (102, 104, 106) that are hingedly attached to each other, wherein the sections are folded or rotated together prior to launch, and unfolded or rotated away from each other when deployed upon reaching orbit; a first one of the sections is a satellite body having a first side that acts as a thermal radiator and a second side opposite the first side that includes at least one antenna; a second one of the sections includes at least one solar panel attached adjacent to the first side of the satellite body, wherein light from the Sun is converted to electricity by the solar panel; and a third one of the sections includes at least one splash plate reflector attached adjacent to the second side of the satellite body, wherein radio frequency signals between Earth and the antenna of the satellite are reflected by the splash plate reflector; when deployed, the solar panel is rotated away from the first side of the satellite body, so that the solar panel is pointed towards the Sun, and the splash plate reflector is rotated away from the second side of the satellite body to direct the signals between the Earth and the antenna.
A rotator arrangement (10,110) for providing a rotating movement, the rotator arrangement comprising a motor (11,111) with a stator (13,113) and a rotor (12,112) arranged inside the stator (13,113) to rotate with respect to said stator (13,113) around an axial axis, wherein the rotator arrangement (10,110) comprises a rotor attachment piece (15,115) connected to the rotor and a stator attachment piece (16,116) connected to the stator, wherein one of the rotor attachment piece (15, 115) and stator attachment piece (16,116) is arranged to be attached to a crane arm or the like, and the other is arranged to be attached to a tool implement, characterised in that a bearing is arranged to connect the rotor attachment piece (15,115) to the stator attachment piece (16,116) via the stator (13,113) and to transmit loads acting between the rotor attachment piece (15,115) and the stator attachment piece (16,116) via the stator (13,113).
A method for automatically cutting parts in a flexible material packaged in the form of a roll, comprising the successive steps of: a) preparing an initial placement for a list of parts to be cut out in the flexible material; b) spreading at least one layer of flexible material on a cutting table; c) starting the automatic cutting of the parts in the material spread on the cutting table according to the initial placement; and characterised by the successive steps of: d) during the cutting of the initial placement, upon receipt of a triggering event (Evt) for which the placement of at least one of the parts is no longer adapted to the cutting environment or for which the list of the parts of the initial placement needs to be modified, preparing a list of parts to be maintained; and e) automatically preparing a new placement taking into account the position of the parts to be maintained and calculating new positions for all or part of the other parts - called parts to be repositioned - without taking into account their positions in the initial placement. a) preparing an initial placement for a list of parts to be cut out in the flexible material; b) spreading at least one layer of flexible material on a cutting table; c) starting the automatic cutting of the parts in the material spread on the cutting table according to the initial placement; d) during the cutting of the initial placement, upon receipt of a triggering event (Evt) for which the placement of at least one of the parts is no longer adapted to the cutting environment or for which the list of the parts of the initial placement needs to be modified, preparing a list of parts to be maintained; and e) automatically preparing a new placement taking into account the position of the parts to be maintained and calculating new positions for all or part of the other parts - called parts to be repositioned - without taking into account their positions in the initial placement.
A resource scheduling method, characterized in that the method comprises: allocating, by a Base Station, BS, an uplink subframe for performing uplink transmission of a backhaul link and a downlink subframe for performing downlink transmission of the backhaul link, and sending to a Relay Node, RN, one of allocation information of the uplink subframe and allocation information of the downlink frame, so that the RN determines, according to a predefined timing relationship, the allocated downlink subframe when receiving the allocation information of the uplink subframe from the BS, and determines, according to the predefined timing relationship, the allocated uplink subframe when receiving the allocation information of the downlink subframe from the BS; wherein the predefined timing relationship comprises: a Hybrid Automatic Repeat Request, HARQ, timing relationship between a downlink subframe for transmitting uplink scheduling information and an uplink subframe for transmitting Physical Uplink Shared Channel, PUSCH, or a HARQ timing relationship between a downlink subframe for transmitting Physical Downlink Shared Channel, PDSCH, and an uplink subframe for transmitting uplink ACK/NACK, or a HARQ timing relation between an uplink subframe for transmitting PUSCH and a downlink subframe for transmitting downlink ACK/NACK. allocating, by a Base Station, BS, an uplink subframe for performing uplink transmission of a backhaul link and a downlink subframe for performing downlink transmission of the backhaul link, and sending to a Relay Node, RN, one of allocation information of the uplink subframe and allocation information of the downlink frame, so that the RN determines, according to a predefined timing relationship, the allocated downlink subframe when receiving the allocation information of the uplink subframe from the BS, and determines, according to the predefined timing relationship, the allocated uplink subframe when receiving the allocation information of the downlink subframe from the BS; wherein the predefined timing relationship comprises: a Hybrid Automatic Repeat Request, HARQ, timing relationship between a downlink subframe for transmitting uplink scheduling information and an uplink subframe for transmitting Physical Uplink Shared Channel, PUSCH, or a HARQ timing relationship between a downlink subframe for transmitting Physical Downlink Shared Channel, PDSCH, and an uplink subframe for transmitting uplink ACK/NACK, or a HARQ timing relation between an uplink subframe for transmitting PUSCH and a downlink subframe for transmitting downlink ACK/NACK. a Hybrid Automatic Repeat Request, HARQ, timing relationship between a downlink subframe for transmitting uplink scheduling information and an uplink subframe for transmitting Physical Uplink Shared Channel, PUSCH, or a HARQ timing relationship between a downlink subframe for transmitting Physical Downlink Shared Channel, PDSCH, and an uplink subframe for transmitting uplink ACK/NACK, or a HARQ timing relation between an uplink subframe for transmitting PUSCH and a downlink subframe for transmitting downlink ACK/NACK.
An isolated nucleic acid sequence encoding a chimeric antigen receptor, wherein the CAR comprises an antigen binding domain, an ICOS transmembrane domain, and an ICOS intracellular signaling domain, wherein the ICOS transmembrane domain comprises the amino acid sequence of SEQ ID NO: 12.
A computer-implemented method comprising: providing, to a computing device running an operating system that includes an application layer, a framework layer that includes native libraries, a hardware abstraction layer, and a kernel that includes firmware and drivers, a reference system image that is configured to replace, supplement, or modify the framework layer; loading the reference system image to replace, supplement, or modify the framework layer to provide a modified operating system; providing, to the computing device with the framework layer replaced, supplemented, or modified by the reference system image, test data that is configured to verify functionality of the modified operating system by interacting with the reference system image to test functionality of the hardware abstraction layer without modifying the hardware abstraction layer, wherein the computing device with the framework layer replaced, supplemented, or modified by the reference system image is a non-rooted device; receiving, from the computing device with the framework layer replaced, supplemented, or modified by the reference system image, test reply data in response to the computing device testing the functionality of the hardware abstraction layer; comparing the test reply data to known test reply data that corresponds to a properly functioning computing device running the operating system; and based on the comparison, determining whether the modified operating system of the computing device with the framework layer replaced, supplemented, or modified by the reference system image is functioning properly. providing, to a computing device running an operating system that includes an application layer, a framework layer that includes native libraries, a hardware abstraction layer, and a kernel that includes firmware and drivers, a reference system image that is configured to replace, supplement, or modify the framework layer; loading the reference system image to replace, supplement, or modify the framework layer to provide a modified operating system; providing, to the computing device with the framework layer replaced, supplemented, or modified by the reference system image, test data that is configured to verify functionality of the modified operating system by interacting with the reference system image to test functionality of the hardware abstraction layer without modifying the hardware abstraction layer, wherein the computing device with the framework layer replaced, supplemented, or modified by the reference system image is a non-rooted device; receiving, from the computing device with the framework layer replaced, supplemented, or modified by the reference system image, test reply data in response to the computing device testing the functionality of the hardware abstraction layer; comparing the test reply data to known test reply data that corresponds to a properly functioning computing device running the operating system; and based on the comparison, determining whether the modified operating system of the computing device with the framework layer replaced, supplemented, or modified by the reference system image is functioning properly.
A system for measuring radiation dose, the system comprising: - an excitation device adapted for directing an energy wave at a volume of a substance comprising encapsulated gas-filled microparticles, which volume has been exposed to ionizing radiation; - a detector adapted to detect a response signal emitted and/or modified from the volume of the substance comprising gas-filled microparticles; and - a control unit, wherein the control unit is adapted for calculating, based on the response signal, a dose of ionizing radiation received by the volume of the substance, characterised in that said control unit is adapted for calculating said dose of ionizing radiation received by the volume of the substance, taking into account a change of elasticity of the encapsulated gas-filled microparticles, and wherein said encapsulated gas-filled microparticles are elastic, having a Young modulus greater than 0 GPa and less than or equal to 30 GPa. - an excitation device adapted for directing an energy wave at a volume of a substance comprising encapsulated gas-filled microparticles, which volume has been exposed to ionizing radiation; - a detector adapted to detect a response signal emitted and/or modified from the volume of the substance comprising gas-filled microparticles; and - a control unit,
A method of making a shape memory polymer, comprising: mixing a poly vinyl alcohol solution and a 2-carboxyethyl acrylate oligomer at a specific ratio to make solution 1; adding a carbon nano tube having a specific measurement dispersed in a specific concentration with a sodium dodecyl sulfate surfactant to the solution 1 to make solution 2; and irradiating the solution 2 using a gamma ray source in the range of 5-100kGy to make the shape memory polymer. mixing a poly vinyl alcohol solution and a 2-carboxyethyl acrylate oligomer at a specific ratio to make solution 1; adding a carbon nano tube having a specific measurement dispersed in a specific concentration with a sodium dodecyl sulfate surfactant to the solution 1 to make solution 2; and irradiating the solution 2 using a gamma ray source in the range of 5-100kGy to make the shape memory polymer.
A method for reprocessing wet waste materials containing organic components, in particular sludges in a cement clinker production plant, in which raw meal is preheated in a preheater in countercurrent flow to the hot exhaust gases of a clinker furnace, and calcined in a calciner fired with alternative fuels, wherein the wet waste materials are dried in a drying unit using a hot gas produced from the preheater waste heat, the dried waste materials and the drier exhaust gases are discharged from the drying unit and the drier exhaust gases are fed into the calciner, characterised in that a partial quantity of the hot gas is drawn off before the drying unit and cooled in a heat exchanger with the drier exhaust gases, and that the cooled hot gas is forwarded to the drying unit as sealing gas.
Hinge housing for receiving a door hinge for a domestic appliance door, in which at least a part of the door hinge including a displaceable plunger is accommodated, so that the plunger can be linearly displaced between end positions (E1, E2) in the hinge housing as a function of an opening extent of the domestic appliance door, characterised in that a receptacle for an attachment damper is designed and arranged in the hinge housing such that the plunger touches against the attachment damper inserted into the receptacle before reaching at least one of the end positions (E1, E2).
An injectable pharmaceutical formulation comprising: (i) polidocanol in an amount from 0.5% W/V to 2.0% W/V; and (ii) a C 3 -C 6 alcohol in an amount from 0.5% W/V to 10% W/V, wherein the C 3 -C 6 alcohol is not glycerol. (i) polidocanol in an amount from 0.5% W/V to 2.0% W/V; and (ii) a C 3 -C 6 alcohol in an amount from 0.5% W/V to 10% W/V, wherein the C 3 -C 6 alcohol is not glycerol.
A method for producing a polyacrylic acid (salt)-based water-absorbent resin, the method comprising: a preparation step in which a monomer is prepared by mixing a plurality of acrylic acids having different propionic acid amounts, wherein one acrylic acid of the plurality of acrylic acids contains propionic acid 1.1 to 50 times by mass with respect to another acrylic acid; wherein the plurality of acrylic acids containing different amounts of propionic acid are produced in different acrylic acid productions and the different acrylic acid productions are completely different plants and installation sites, or different in raw materials, catalysts, and refining type; a polymerization step in which the monomer is polymerized; and a drying step in which an obtained hydrogel is dried, wherein the Fe amount in the monomer (on the basis of Fe 2 O 3) is 0.002 to 2 ppm by mass, wherein the Fe amount is measured by an ICP emission spectroscopic analysis method; propionic acid is removed from polyacrylic acid (salt) during polymerization or after polymerization so as to the amount of the propionic acid after removing is an amount of 2 mass% or lower, based on the amount of water-absorbent resin; the neutralization ratio of the obtained polyacrylic acid (salt)-based water absorbent resin is 65% by mole or higher; and the polymerization at the polymerization step is carried out by aqueous solution polymerization or reversed phase suspension polymerization. a preparation step in which a monomer is prepared by mixing a plurality of acrylic acids having different propionic acid amounts, wherein one acrylic acid of the plurality of acrylic acids contains propionic acid 1.1 to 50 times by mass with respect to another acrylic acid; wherein the plurality of acrylic acids containing different amounts of propionic acid are produced in different acrylic acid productions and the different acrylic acid productions are completely different plants and installation sites, or different in raw materials, catalysts, and refining type; a polymerization step in which the monomer is polymerized; and a drying step in which an obtained hydrogel is dried, wherein the Fe amount in the monomer (on the basis of Fe 2 O 3) is 0.002 to 2 ppm by mass, wherein the Fe amount is measured by an ICP emission spectroscopic analysis method; propionic acid is removed from polyacrylic acid (salt) during polymerization or after polymerization so as to the amount of the propionic acid after removing is an amount of 2 mass% or lower, based on the amount of water-absorbent resin; the neutralization ratio of the obtained polyacrylic acid (salt)-based water absorbent resin is 65% by mole or higher; and the polymerization at the polymerization step is carried out by aqueous solution polymerization or reversed phase suspension polymerization.
Belt framework for a vehicle seat or a vehicle-seat bench in a vehicle, wherein the belt framework forms an inner load-bearing structure of the vehicle seat or the vehicle-seat bench, wherein the belt framework comprises attachment means for attaching the belt framework to a vehicle structure of the vehicle in the region of a vehicle floor such that, in the attached state of the belt framework, a lower end section of the belt framework is fixable in the region of the vehicle floor, wherein the belt framework comprises a support arrangement with a support member for supporting the belt framework against the vehicle structure of the vehicle, wherein the belt framework is in the form of a structure of frame-like design, comprising openings surrounded by interconnected elongate profiles which are oriented parallel to one another and at an angle to one another and which are made up of vertical supports (12, 13) and a transverse strut (14, 15, 17), wherein the vertical supports (12, 13) are in each case an elongate profile and extend continuously from an upper end of the belt framework as far as a lower end of the belt framework, wherein, in relation to the attached state of the belt framework in the vehicle, the support member is, as viewed in a vertical direction, present on the framework at a distance above the lower end section of the belt framework, and wherein the support member projects from the belt framework towards the front according to a direction of travel of the vehicle, and the support member is designed in such a way that the support member is connectable in the region of the vehicle structure of the vehicle which is present above the vehicle floor, characterized in that the support arrangement comprises a flat support member which is connectable to an inner side of a vehicle wall or a load-bearing vehicle pillar.
A fuel composition comprising: (a) 50% by weight or more of the total fuel composition of a mixture of hydrocarbons in the gasoline boiling range and (b) at least 0.001% and less than 10% by weight of the total fuel composition of at least one butylene oxide-modified alkyl-bis-ethoxylated monoamine, wherein the alkyl group has carbon atoms in the range of 8 to 22 and ethylene oxide to butylene oxide is in a ratio in the range of 3:1 to 2:1.