mhurhangee/ep-ind-claims huggingface dataset:
A composite panel, comprising: a first layer made from an electrically non-conductive material; a resistance heater printed onto the first layer; a capacitive sensor applied onto the first layer, the capacitive sensor being operably coupled with the resistance heater; a heater control module applied onto the first layer, configured to vary a voltage to the resistance heater at least partially in response to the input sensed by the capacitive sensor; and a second layer adjacent the resistance heater, the capacitive sensor and the heater control module, the resistance heater, the capacitive sensor and the heater control module being positioned between the first layer and the second layer, and the second layer being made from an electrically non-conductive material; wherein the resistance heater is configured to generate heat at least partially in response to input sensed by the capacitive sensor, wherein the first layer, the resistance heater, the capacitive sensor, the heater control module and the second layer are flexible, and wherein the first layer, resistance heater, capacitive sensor, and second layer together form a sandwich panel, the sandwich panel having a non-planar shape. a first layer made from an electrically non-conductive material; a resistance heater printed onto the first layer; a capacitive sensor applied onto the first layer, the capacitive sensor being operably coupled with the resistance heater; a heater control module applied onto the first layer, configured to vary a voltage to the resistance heater at least partially in response to the input sensed by the capacitive sensor; and a second layer adjacent the resistance heater, the capacitive sensor and the heater control module, the resistance heater, the capacitive sensor and the heater control module being positioned between the first layer and the second layer, and the second layer being made from an electrically non-conductive material; wherein the resistance heater is configured to generate heat at least partially in response to input sensed by the capacitive sensor, wherein the first layer, the resistance heater, the capacitive sensor, the heater control module and the second layer are flexible, and wherein the first layer, resistance heater, capacitive sensor, and second layer together form a sandwich panel, the sandwich panel having a non-planar shape.
Fire-fighting training device comprising a dummy of a vehicle, in particular of a road vehicle, wherein the dummy vehicle has the external dimensions of a vehicle, and comprises - at least one dummy of a battery for a vehicle, and - at least one dummy (8.11, 8.l2, 8.r1, 8.r2) of a tire of a vehicle, wherein the or each dummy battery - is positioned on board the dummy vehicle at a possible position of a battery on board a vehicle, and - in each case comprises a smoke generator (61, 62) and a flame generator (62, 63), wherein the smoke generator (61, 62) of the or a dummy battery is designed to generate smoke in such a way that the generated smoke emerges from the dummy battery, wherein the flame generator (62, 63) of the or a dummy battery is designed to generate flames (65, 66) in such a way that the generated flames (65, 66) emerge from the dummy battery, wherein the or each dummy tire (8.11, 8.l2, 8.r1, 8.r2) - is positioned on board the dummy vehicle at a possible position of a tire on a vehicle, and - each comprises a flame generator, and wherein the flame generator of the or a dummy tire (8.11, 8.l2, 8.r1, 8.r2) is designed to generate flames in such a way that the generated flames emerge from the dummy tire (8.11, 8.l2, 8.r1, 8.r2). wherein the dummy vehicle has the external dimensions of a vehicle, and comprises - at least one dummy of a battery for a vehicle, and - at least one dummy (8.11, 8.l2, 8.r1, 8.r2) of a tire of a vehicle, - at least one dummy of a battery for a vehicle, and - at least one dummy (8.11, 8.l2, 8.r1, 8.r2) of a tire of a vehicle, wherein the or each dummy battery - is positioned on board the dummy vehicle at a possible position of a battery on board a vehicle, and - in each case comprises a smoke generator (61, 62) and a flame generator (62, 63), - is positioned on board the dummy vehicle at a possible position of a battery on board a vehicle, and - in each case comprises a smoke generator (61, 62) and a flame generator (62, 63), wherein the smoke generator (61, 62) of the or a dummy battery is designed to generate smoke in such a way that the generated smoke emerges from the dummy battery, wherein the flame generator (62, 63) of the or a dummy battery is designed to generate flames (65, 66) in such a way that the generated flames (65, 66) emerge from the dummy battery, wherein the or each dummy tire (8.11, 8.l2, 8.r1, 8.r2) - is positioned on board the dummy vehicle at a possible position of a tire on a vehicle, and - each comprises a flame generator, and - is positioned on board the dummy vehicle at a possible position of a tire on a vehicle, and - each comprises a flame generator, and wherein the flame generator of the or a dummy tire (8.11, 8.l2, 8.r1, 8.r2) is designed to generate flames in such a way that the generated flames emerge from the dummy tire (8.11, 8.l2, 8.r1, 8.r2).
A method for performing neighboring cell radio resource management measurement, said method being performed by a user equipment and comprising: obtaining, from a base station, first information and second information that are sent by the base station, said first and second information being about a micro base station, wherein the first information is used to indicate the micro base station, and the second information is used to indicate a random access resource allocated by the base station to the micro base station; wherein the micro base station is in the coverage area of the base station; accessing, using the random access resource indicated by the second information, the micro base station indicated by the first information, said method being characterized by obtaining measurement subframe information of a micro cell of the micro base station from the micro base station during the process of accessing the micro base station, wherein the measurement subframe information of the micro cell is different from measurement subframe information of another micro cell that is adjacent to the micro cell and whose interference exceeds a preset interference threshold; and performing neighboring cell radio resource management measurement of the micro cell on a measurement subframe indicated by the measurement subframe information of the micro cell. obtaining, from a base station, first information and second information that are sent by the base station, said first and second information being about a micro base station, wherein the first information is used to indicate the micro base station, and the second information is used to indicate a random access resource allocated by the base station to the micro base station; wherein the micro base station is in the coverage area of the base station; accessing, using the random access resource indicated by the second information, the micro base station indicated by the first information, said method being characterized by obtaining measurement subframe information of a micro cell of the micro base station from the micro base station during the process of accessing the micro base station, wherein the measurement subframe information of the micro cell is different from measurement subframe information of another micro cell that is adjacent to the micro cell and whose interference exceeds a preset interference threshold; and performing neighboring cell radio resource management measurement of the micro cell on a measurement subframe indicated by the measurement subframe information of the micro cell.
A slip ring for optical fibres comprising a first part (10; 110; 110') and a second part (20; 120; 120') able to rotate relative to the first part (10; 110; 110'), said slip ring comprising at least one data transmission channel comprising an optical/electrical converter (11; 111 1, 111 2; 111' 1, 111' 2) for converting an optical signal carried by an optical fibre (100; 100 1, 100 2; 100' 1, 100' 2) into a first electrical signal, at least one optical emitter (E, 102 1, 102 2; 102' 1, 102' 2) receiving the first electrical signal in order to emit a light beam, at least one optical detector (D, 103 1, 103 2, 103' 1, 103' 2) allowing the light beam to be detected and converted into a second electrical signal, the emitter being included in the first part and the detector being included in the second part, or vice versa, and an electrical/optical converter (21; 121 1, 121 2, 121' 1, 121' 2), to which the second electrical signal is transmitted so that said electric/optical converter (21; 121 1, 121 2, 121' 1, 121' 2) generates another optical signal intended to be carried over another optical fibre (200; 200 1, 200 2; 200' 1, 200' 2), characterised in that the slip ring for optical fibres comprises a power slip ring allowing electrical energy to be transferred from the first part to the second part, or vice versa, the power slip ring comprising a transformer comprising a first winding and a second winding magnetically coupled together and respectively included in the first part and the second part, or vice versa, to allow energy to be transferred from the first part to the second part, or vice versa, the transformer comprising a third winding and a fourth winding magnetically coupled together and respectively included in the first part and the second part, or vice versa, to allow data to be transferred from the first part to the second part, or vice versa.
A method for preparing a lithium reagent-porous metal oxide composition comprising the steps of: mixing liquid lithium metal with a porous metal oxide in an inert atmosphere under exothermic conditions sufficient to absorb the liquid lithium metal into the porous metal oxide, and reacting the resulting lithium metal/porous metal oxide composition with a compound RX at a temperature of about -80 °C to 0 °C, wherein R is an alkyl group, an alkenyl group, an alkynyl group, an aryl group, an alkaryl group, or an NR 1 R 2 group; R 1 is an alkyl group, an alkenyl group, an alkynyl group, an aryl group, an alkaryl group or an Si(R 3) 3 group; R 2 is hydrogen, an alkyl group, an alkenyl group, an alkynyl group, an aryl group, an alkaryl group, or an Si(R 3) 3 group; R 3 is an alkyl group, an alkenyl group, an alkynyl group, an aryl group, or an alkaryl group; and X is a halogen. mixing liquid lithium metal with a porous metal oxide in an inert atmosphere under exothermic conditions sufficient to absorb the liquid lithium metal into the porous metal oxide, and reacting the resulting lithium metal/porous metal oxide composition with a compound RX at a temperature of about -80 °C to 0 °C, wherein R is an alkyl group, an alkenyl group, an alkynyl group, an aryl group, an alkaryl group, or an NR 1 R 2 group; R 1 is an alkyl group, an alkenyl group, an alkynyl group, an aryl group, an alkaryl group or an Si(R 3) 3 group; R 2 is hydrogen, an alkyl group, an alkenyl group, an alkynyl group, an aryl group, an alkaryl group, or an Si(R 3) 3 group; R 3 is an alkyl group, an alkenyl group, an alkynyl group, an aryl group, or an alkaryl group; and X is a halogen.
A method for controlling a media server adapted to be connected to a network, said media server receiving a request from a media client device connected to the network to access a broadcast media item through a tuner, wherein said media server carries out the following steps: - determining broadcast parameters for tuning to the broadcast media item, wherein the broadcast parameters include a broadcast frequency and a virtual channel number; - determining a command string representative of the broadcast parameters; and - transmitting the command string to the media client device in response to the request. - determining broadcast parameters for tuning to the broadcast media item, wherein the broadcast parameters include a broadcast frequency and a virtual channel number; - determining a command string representative of the broadcast parameters; and - transmitting the command string to the media client device in response to the request.
A friction material composition comprising a binder, an organic filler, an inorganic filler, and a fibrous base material, wherein, with respect to the entire friction material composition, the friction material composition contains copper in an amount of at most 0.5 mass % as an element or contains no copper, the binder contains silicone-rubber dispersed phenolic resin in an amount of 5 to 10 mass %, the inorganic filler contains zirconium oxide in an amount of 20 to 33 mass %, and the inorganic filler contains titanate having a median size of 1 to 50 μm and a specific surface area of 0.5 to 10 m 2 /g in an amount of 10 to 30 mass %, wherein the median size is a size at 50 % in volume distribution obtained by laser diffraction and wherein the specific surface area is the specific surface area as determined by BET analysis using nitrogen gas as adsorption gas.
A method, comprising: estimating, via a processor, a travel curve that graphically represents a position over time for at least one of a closed, an open or a combination of closed and open operations of circuit interrupter contacts (108,110) of a high voltage circuit breaker based on both one or more predetermined travel distances of the contacts that are stored in a memory with respect to each other and one or more time values corresponding to state transitions of first and second switches, wherein the switches are affixed to the contacts (108,110) so as to transition between closed and open states as the contacts (108,110) move between closed and open positions, the breaker does not include a contact travel sensor that measures actual travel distances of the contacts during breaker operations, and the processor extends via extrapolation the travel curve to a fully open position of the contacts (108,110) from a first point in time on the travel curve that is stored in the memory where a state of the first switch transitions from closed to open as determined by a first switch indicator, and to a fully closed position of the contacts (108,110) from a second point on the travel curve that is stored in the memory where a state of the second switch transitions from open to closed as determined by a second switch indicator. estimating, via a processor, a travel curve that graphically represents a position over time for at least one of a closed, an open or a combination of closed and open operations of circuit interrupter contacts (108,110) of a high voltage circuit breaker based on both one or more predetermined travel distances of the contacts that are stored in a memory with respect to each other and one or more time values corresponding to state transitions of first and second switches, wherein the switches are affixed to the contacts (108,110) so as to transition between closed and open states as the contacts (108,110) move between closed and open positions, the breaker does not include a contact travel sensor that measures actual travel distances of the contacts during breaker operations, and the processor extends via extrapolation the travel curve to a fully open position of the contacts (108,110) from a first point in time on the travel curve that is stored in the memory where a state of the first switch transitions from closed to open as determined by a first switch indicator, and to a fully closed position of the contacts (108,110) from a second point on the travel curve that is stored in the memory where a state of the second switch transitions from open to closed as determined by a second switch indicator.
Sampling system for obtaining a liquid sample, comprising at least one analytical aid, which has a lancet and a test element, and having a mechanical energy reservoir that can output energy to the lancet in order to execute a puncturing movement, characterized in that the sampling system comprises transmission means, which are coupled to the mechanical energy reservoir and to the analytical aid such that a movement of the transmission means at the same time transmits energy to the mechanical energy reservoir, for charging the mechanical energy reservoir, and drives a sample collection movement of the test element.
A separator for a lead-acid battery comprising: a first layer made of a rubber material; and a second layer made of a polymer material, characterised in that the second layer is an envelope adapted to contain an electrode by surrounding its side and bottom, the first layer being a backweb having a first and a second side, the first side being flat and adjacent to the second layer, and the second side having a plurality of ridges extending therefrom. a first layer made of a rubber material; and a second layer made of a polymer material, characterised in that the second layer is an envelope adapted to contain an electrode by surrounding its side and bottom, the first layer being a backweb having a first and a second side, the first side being flat and adjacent to the second layer, and the second side having a plurality of ridges extending therefrom.
Displacement body with a closed casing, which is designed to be arranged in a formwork before a concreting process and which a) has on an upper side of the closed casing at least one first receiving device, which is designed to hold a reinforcing rod extending in a first plane at a distance other than zero from the closed casing and/or from an, in particular horizontal, reference plane of the closed casing, characterised in that the displacement body b) has on the upper side of the closed casing at least one second receiving device, which is designed to hold a reinforcing rod extending in a second plane, which is parallel to and spaced apart from the first plane, at a distance other than zero from the closed casing and/or from the reference plane of the closed casing, and c) has on an underside of the closed casing at least one third receiving device, which is designed to hold a reinforcing rod extending in a third plane, which is parallel to and spaced apart from the first and the second plane (4, 7), at a distance other than zero from the closed casing and/or from the reference plane of the closed casing. a) has on an upper side of the closed casing at least one first receiving device, which is designed to hold a reinforcing rod extending in a first plane at a distance other than zero from the closed casing and/or from an, in particular horizontal, reference plane of the closed casing, characterised in that the displacement body b) has on the upper side of the closed casing at least one second receiving device, which is designed to hold a reinforcing rod extending in a second plane, which is parallel to and spaced apart from the first plane, at a distance other than zero from the closed casing and/or from the reference plane of the closed casing, and c) has on an underside of the closed casing at least one third receiving device, which is designed to hold a reinforcing rod extending in a third plane, which is parallel to and spaced apart from the first and the second plane (4, 7), at a distance other than zero from the closed casing and/or from the reference plane of the closed casing.
A physiological sensor comprising: a first light emitting source comprising an anode and a cathode, the cathode of the first light emitting source connected to a first contact, the first contact in communications with a first row conductor and a first column conductor of an electrical grid, the first row conductor coupled to a first row input of the sensor, the first column conductor coupled to a first column input of the sensor that is different from the first row input, the anode of the first light emitting source connected to a second contact, the second contact in communications with a second row conductor and a second column conductor of the electrical grid, the first light emitting source configured to activate by addressing the first row conductor via the first row input and the second column conductor of the electrical grid; and a second light emitting source comprising an anode and a cathode, the cathode of the second light emitting source connected to the second contact, the anode of the second light emitting source connected to the first contact, the second light emitting source configured to activate by addressing the first column conductor via the first column input and the second row conductor of the electrical grid. a first light emitting source comprising an anode and a cathode, the cathode of the first light emitting source connected to a first contact, the first contact in communications with a first row conductor and a first column conductor of an electrical grid, the first row conductor coupled to a first row input of the sensor, the first column conductor coupled to a first column input of the sensor that is different from the first row input, the anode of the first light emitting source connected to a second contact, the second contact in communications with a second row conductor and a second column conductor of the electrical grid, the first light emitting source configured to activate by addressing the first row conductor via the first row input and the second column conductor of the electrical grid; and a second light emitting source comprising an anode and a cathode, the cathode of the second light emitting source connected to the second contact, the anode of the second light emitting source connected to the first contact, the second light emitting source configured to activate by addressing the first column conductor via the first column input and the second row conductor of the electrical grid.
An oligo- or polypeptide comprising (a) an amino acid sequence which is a partial sequence of SEQ ID No: 3 having at least 75 consecutive amino acids of SEQ ID No: 3, where this partial sequence includes all eight of positions 100, 105, 110, 118, 120, 142, 160 and 173 of SEQ ID No: 3; or (b) a fragment of an HBs antigen of a hepatitis B virus, where the fragment has a length of at least 15 amino acids, the HBs antigen has cysteine at position 100, arginine at position 105, leucine at position 110, arginine at position 118, leucine at position 120, leucine at position 142, asparagine at position 160 and proline at position 173, and the fragment comprises cysteine 100, arginine 105, arginine 118, leucine 120, leucine 142, asparagine 160 and proline 173. (a) an amino acid sequence which is a partial sequence of SEQ ID No: 3 having at least 75 consecutive amino acids of SEQ ID No: 3, where this partial sequence includes all eight of positions 100, 105, 110, 118, 120, 142, 160 and 173 of SEQ ID No: 3; or (b) a fragment of an HBs antigen of a hepatitis B virus, where the fragment has a length of at least 15 amino acids, the HBs antigen has cysteine at position 100, arginine at position 105, leucine at position 110, arginine at position 118, leucine at position 120, leucine at position 142, asparagine at position 160 and proline at position 173, and the fragment comprises cysteine 100, arginine 105, arginine 118, leucine 120, leucine 142, asparagine 160 and proline 173.