mhurhangee/ep-ind-claims huggingface dataset:
A method for coordinating operations on an edge device based on power production, using processing circuitry of the edge device to execute the method, the method comprising: receiving an identifier corresponding to a component of the edge device, wherein the component is one of a core, programmable logic, accelerator, memory, storage resource, network resource; identifying a long-term service level agreement for the component, the long-term SLA including a time interval and a completion metric, wherein the component of the edge device is identified utilizing the received identifier corresponding to the component of the edge device, wherein the long-term SLA is identified utilizing the received identifier corresponding to the component of the edge device, and wherein the completion metric indicates how many tasks are to be completed during the time interval and/or how much work has to be done during the time interval; determining a list of resources related to the component using the long-term SLA, wherein the list of resources comprises one or more of an identification of the component, a criticality of the component; scheduling a task for the component based on the time interval and the completion metric of the long-term SLA, a current battery level at the edge device, a current energy harvest rate at the edge device, and an amount of power required to complete the task, wherein the current energy harvest rate includes an estimated amount of power available to be harvested over the time interval at the edge device using a machine learned model; and causing a resource of the list of resources to initiate the task for the component according to the schedule. receiving an identifier corresponding to a component of the edge device, wherein the component is one of a core, programmable logic, accelerator, memory, storage resource, network resource; identifying a long-term service level agreement for the component, the long-term SLA including a time interval and a completion metric, wherein the component of the edge device is identified utilizing the received identifier corresponding to the component of the edge device, wherein the long-term SLA is identified utilizing the received identifier corresponding to the component of the edge device, and wherein the completion metric indicates how many tasks are to be completed during the time interval and/or how much work has to be done during the time interval; determining a list of resources related to the component using the long-term SLA, wherein the list of resources comprises one or more of an identification of the component, a criticality of the component; scheduling a task for the component based on the time interval and the completion metric of the long-term SLA, a current battery level at the edge device, a current energy harvest rate at the edge device, and an amount of power required to complete the task, wherein the current energy harvest rate includes an estimated amount of power available to be harvested over the time interval at the edge device using a machine learned model; and causing a resource of the list of resources to initiate the task for the component according to the schedule.
A base station comprising: circuitry (1611,1612) adapted to specify backhaul uplink subframes available for backhaul uplink transmission from a relay node to the base station from among a plurality of uplink subframes included in a frame for communication; a transmitter adapted to transmit to the relay node an indicator #TP indicating a number N of Hybrid Automatic Repeat Request, HARQ, processes, the indicator #TP being an explicit signaling parameter for signaling the number of HARQ processes within signaling related to a backhaul subframe configuration; wherein, if a delay between adjacent subframes allocated for the same HARQ process is less than a minimum roundtrip time, the roundtrip time being a time between two consecutive transmissions for a same HARQ process, and the indicator #TP is ignored by the relay node, the circuitry is adapted to determine the number, N, of HARQ processes as a smallest number of HARQ processes leading to a delay between the adjacent subframes of at least the minimum roundtrip time based on positions of the determined backhaul uplink subframes available for the uplink transmission from the relay node to the base station, a mapping of HARQ processes cyclically onto the determined backhaul uplink subframes being assumed; wherein the determined number of HARQ processes are cyclically mapped onto the determined backhaul uplink subframes; and a receiver adapted to receive the backhaul uplink subframes on which the determined number of HARQ processes are mapped, from the relay node in uplink direction. circuitry (1611,1612) adapted to specify backhaul uplink subframes available for backhaul uplink transmission from a relay node to the base station from among a plurality of uplink subframes included in a frame for communication; a transmitter adapted to transmit to the relay node an indicator #TP indicating a number N of Hybrid Automatic Repeat Request, HARQ, processes, the indicator #TP being an explicit signaling parameter for signaling the number of HARQ processes within signaling related to a backhaul subframe configuration; wherein, if a delay between adjacent subframes allocated for the same HARQ process is less than a minimum roundtrip time, the roundtrip time being a time between two consecutive transmissions for a same HARQ process, and the indicator #TP is ignored by the relay node, the circuitry is adapted to determine the number, N, of HARQ processes as a smallest number of HARQ processes leading to a delay between the adjacent subframes of at least the minimum roundtrip time based on positions of the determined backhaul uplink subframes available for the uplink transmission from the relay node to the base station, a mapping of HARQ processes cyclically onto the determined backhaul uplink subframes being assumed; wherein the determined number of HARQ processes are cyclically mapped onto the determined backhaul uplink subframes; and a receiver adapted to receive the backhaul uplink subframes on which the determined number of HARQ processes are mapped, from the relay node in uplink direction.
A thermoplastic composition comprising the melt blending product of: from 10 to 60 percent by weight of a continuous phase, based on the total weight of the thermoplastic composition, wherein said continuous phase comprises one or more thermoplastic polymers; and from 90 to 40 percent by weight of a dispersed phase comprising one or more core/shell polymer particles, based on the total weight of the thermoplastic composition, wherein said one or more core/shell polymer particles comprise a crosslinked elastomer core and a thermoplastic shell and wherein said core/shell polymer has an average particle size diameter in the range of from 70 to 10,000 nm, wherein said one or more core/shell polymer particles comprise a core comprising crosslinked polydimethylsiloxane copolymers, and wherein the crosslinked polydimethylsiloxane copolymer cores comprise one or more monomers selected from the group consisting of vinylmethyldimethoxysilane, allylmethyldimethoxysilane and mercaptopropylmethyldimethoxysilane, and crosslinking monomers selected from the group consisting of divinylbenzene, trimethylolpropane triacrylate, ethylene glycol dimethacrylate, trimethylolpropane trimethacrylate, allyl methacrylate, blends thereof, and combinations thereof. from 10 to 60 percent by weight of a continuous phase, based on the total weight of the thermoplastic composition, wherein said continuous phase comprises one or more thermoplastic polymers; and from 90 to 40 percent by weight of a dispersed phase comprising one or more core/shell polymer particles, based on the total weight of the thermoplastic composition, wherein said one or more core/shell polymer particles comprise a crosslinked elastomer core and a thermoplastic shell and wherein said core/shell polymer has an average particle size diameter in the range of from 70 to 10,000 nm,
An apparatus comprising: an implantable medical lead having a proximal contact and a distal electrode; a sheath containing a shield layer positioned about the implantable medical lead between the proximal contact and the distal electrode, wherein the shield layer is configured to provide shielding from high energy radio frequency energy during a magnetic resonance imaging; and an anchoring structure holding the sheath in a fixed position about the implantable medical lead. an implantable medical lead having a proximal contact and a distal electrode; a sheath containing a shield layer positioned about the implantable medical lead between the proximal contact and the distal electrode, wherein the shield layer is configured to provide shielding from high energy radio frequency energy during a magnetic resonance imaging; and an anchoring structure holding the sheath in a fixed position about the implantable medical lead.
A supporting device for busbars, having at least one holding device, which can be affixed to a base unit and having a receiving opening (11.4) for feeding through at least one busbar and having a clamping device for affixing it in position, wherein a receiving component is provided which is inserted or insertable into the receiving opening (11.4) and having at least one opening adapted to the cross section of the busbar, and the receiving component selectively positioning the respective busbar in the holding device in at least two installation positions that are rotated in relation to each other around a longitudinal axis, the holding device consisting of a bottom piece and a top piece that can be detachably placed onto the bottom piece and clamped to it, between which the receiving opening (11.4) is formed and wherein the receiving component can be removably inserted into the bottom piece and fixed in position by the top piece, characterized in that the bottom piece and the top piece of the holding device have side legs (11.1; 12.1) oriented toward each other and the top piece is clamped to the bottom piece on both sides of the holding device by a screw connection passing through the opposing side legs (11.1; 12.1), with the side legs (11.1; 12.1) of the bottom piece and the top piece supported against each other.
A wind power generator comprising: a nacelle that supports a rotor rotating in response to wind; a tower that supports the nacelle in a rotatable manner; a plurality of yaw driving units for changing a position of the nacelle with respect to the tower; an abnormality detector for detecting abnormality such as adhesion or sticking of at least one of the yaw driving units from among the plurality of yaw driving units; and a releasing unit for releasing drive force from being transmitted to the yaw driving unit in which the abnormality has been detected in response to a command in a case where the abnormality detector detects an abnormality, after the release by the releasing unit, normal yaw driving units are configured to generate drive force required for yaw control, and output commands, the number of which is increased in accordance with the number of the normal yaw driving units, are configured to be sent to the respective normal yaw driving units, characterized in that the nacelle or the tower includes a bearing; the yaw driving units include pinion gears that are configured to engage with the bearing; and the releasing unit is configured to release the engagement between the pinion gear and the bearing in a case where the abnormality detector detects abnormality. a nacelle that supports a rotor rotating in response to wind; a tower that supports the nacelle in a rotatable manner; a plurality of yaw driving units for changing a position of the nacelle with respect to the tower; an abnormality detector for detecting abnormality such as adhesion or sticking of at least one of the yaw driving units from among the plurality of yaw driving units; and a releasing unit for releasing drive force from being transmitted to the yaw driving unit in which the abnormality has been detected in response to a command in a case where the abnormality detector detects an abnormality, after the release by the releasing unit, normal yaw driving units are configured to generate drive force required for yaw control, and output commands, the number of which is increased in accordance with the number of the normal yaw driving units, are configured to be sent to the respective normal yaw driving units, characterized in that the nacelle or the tower includes a bearing; the yaw driving units include pinion gears that are configured to engage with the bearing; and the releasing unit is configured to release the engagement between the pinion gear and the bearing in a case where the abnormality detector detects abnormality.
Product characterized in that it complies with formula I chosen from formulae IB2 and IA2: formulae IA2 and IB2 wherein: the group: is chosen from the radicals: and in that the group: is chosen from the radicals: X is Br or I, in the triad of atoms (T, Y, Z) each of these atoms represents, independently of the two other atoms, a carbon or nitrogen atom, in particular T is a nitrogen atom and Y and Z represent CH, X 3 is oxygen or a single bond s is equal to 1, 2 or 3, r is equal to 0, 1 or 2 provided that the sum r+s is equal to 3 n 2 is an integer equal to 1, 2 or 3 and n 3 is an integer equal to 1, 2 or 3 -L-M is a radical wherein L represents a linker body and M is a cytotoxic drug chosen from a chemotherapeutic agent or a toxin, P is a protein comprising at least one disulfide bridge and t represents an integer from 1 to 15, as well as the derivatives of the carboxylic acid function(s) chosen from salts, esters or amides. X is Br or I, in the triad of atoms (T, Y, Z) each of these atoms represents, independently of the two other atoms, a carbon or nitrogen atom, in particular T is a nitrogen atom and Y and Z represent CH, X 3 is oxygen or a single bond s is equal to 1, 2 or 3, r is equal to 0, 1 or 2 provided that the sum r+s is equal to 3 n 2 is an integer equal to 1, 2 or 3 and n 3 is an integer equal to 1, 2 or 3 -L-M is a radical wherein L represents a linker body and M is a cytotoxic drug chosen from a chemotherapeutic agent or a toxin, P is a protein comprising at least one disulfide bridge and t represents an integer from 1 to 15, as well as the derivatives of the carboxylic acid function(s) chosen from salts, esters or amides.
A monitoring apparatus for monitoring a pulse transit time parameter of a subject, or changes therein, the monitoring apparatus comprising an upper arm unit configured for attachment to a subject's upper arm, the upper arm unit comprising at least one motion sensor (20A, 20B, 20C, 21A, 21B, 21C), the at least one motion sensor configured to monitor motion due to cardiac activity and output at least one motion signal relating to pulse transit time between the heart and the upper arm while the upper arm unit is worn on the subject's upper arm, a photoplethysmograph configured to monitor blood volume within the subject's upper arm and output a PPG signal while the upper arm unit is worn on the subject's upper arm, at least one processor programmed to process both the at least one motion signal and the PPG signal to thereby calculate an estimate of the PTT parameter of the subject, or changes therein characterised in that the processing both the at least one motion signal and the PPG signal comprises cross-calculating the at least one motion signal with the PPG signal, wherein cross-calculating the at least one motion signal with the PPG signal comprises calculating the integral of the product of the at least one motion signal and a time-shifted PPG signal, across time shifts. the upper arm unit comprising at least one motion sensor (20A, 20B, 20C, 21A, 21B, 21C), the at least one motion sensor configured to monitor motion due to cardiac activity and output at least one motion signal relating to pulse transit time between the heart and the upper arm while the upper arm unit is worn on the subject's upper arm, a photoplethysmograph configured to monitor blood volume within the subject's upper arm and output a PPG signal while the upper arm unit is worn on the subject's upper arm, at least one processor programmed to process both the at least one motion signal and the PPG signal to thereby calculate an estimate of the PTT parameter of the subject, or changes therein characterised in that the processing both the at least one motion signal and the PPG signal comprises cross-calculating the at least one motion signal with the PPG signal, wherein cross-calculating the at least one motion signal with the PPG signal comprises calculating the integral of the product of the at least one motion signal and a time-shifted PPG signal, across time shifts.
A halogen-free fire-retardant thermoplastic composition, characterized in that it consists of: - 50% to 75% by weight of fire-retardant fillers, - 0.1% to 45% by weight of a copolymer of ethylene and of an ethylenic monomer carrying a polar functional group, - 10% to 25% by weight of a non-functionalized very-low-density polyethylene (VLDPE), - optionally up to 10% of additives, - and 0.1% to 10% by weight of a linear low-density polyethylene (LLDPE), characterized in that the density of the very-low-density polyethylene (VLDPE) is between 0.85 and 0.91, in that the density of the linear low-density polyethylene is greater than 0.91 and in that the linear low-density polyethylene (LLDPE) is grafted with maleic anhydride grafts present on the main chain. - 50% to 75% by weight of fire-retardant fillers, - 0.1% to 45% by weight of a copolymer of ethylene and of an ethylenic monomer carrying a polar functional group, - 10% to 25% by weight of a non-functionalized very-low-density polyethylene (VLDPE), - optionally up to 10% of additives, - and 0.1% to 10% by weight of a linear low-density polyethylene (LLDPE),
A method for treating a surface (100, 111, 112) of an aircraft part made of organic matrix composite, characterized in that it comprises a texturing step in which the surface is irradiated by femtosecond laser pulses so as to make this surface superhydrophobic.
A resistance system (2; 20) for an exercise apparatus having a frame and a flywheel (5; 14), the resistance system comprising: a first resistance apparatus comprising an adjusting bracket (14; 31), at least two magnetic members (4; 32) mounted on an inner surface of the adjusting bracket; an actuator (1; 70) having an adjusting shaft (6; 34; 72), the adjusting shaft having a first end pivotably attached to the frame, and wherein the actuator is operable to traverse a portion of the adjusting shaft, and wherein at a first position, the two magnetic members are disposed above the flywheel, and wherein in a second position, the two magnetic members are disposed on opposite sides of the flywheel, providing resistance thereto; characterised in that, the resistance system further comprises a load cell (13; 40) attached to the adjusting bracket at a first end of the load cell and to the frame at a second end of the load cell, the load cell generating a signal corresponding to a position of the adjusting bracket relative to the frame as positioned by the actuator; and wherein the adjusting bracket (14; 31) is supported, at least in part, by the load cell. a first resistance apparatus comprising an adjusting bracket (14; 31), at least two magnetic members (4; 32) mounted on an inner surface of the adjusting bracket; an actuator (1; 70) having an adjusting shaft (6; 34; 72), the adjusting shaft having a first end pivotably attached to the frame, and wherein the actuator is operable to traverse a portion of the adjusting shaft, and wherein at a first position, the two magnetic members are disposed above the flywheel, and wherein in a second position, the two magnetic members are disposed on opposite sides of the flywheel, providing resistance thereto; an adjusting bracket (14; 31), at least two magnetic members (4; 32) mounted on an inner surface of the adjusting bracket; an actuator (1; 70) having an adjusting shaft (6; 34; 72), the adjusting shaft having a first end pivotably attached to the frame, and wherein the actuator is operable to traverse a portion of the adjusting shaft, and wherein at a first position, the two magnetic members are disposed above the flywheel, and wherein in a second position, the two magnetic members are disposed on opposite sides of the flywheel, providing resistance thereto; characterised in that, the resistance system further comprises a load cell (13; 40) attached to the adjusting bracket at a first end of the load cell and to the frame at a second end of the load cell, the load cell generating a signal corresponding to a position of the adjusting bracket relative to the frame as positioned by the actuator; and wherein the adjusting bracket (14; 31) is supported, at least in part, by the load cell.
Method for producing a fiber-reinforced plastic component, comprising the following process steps: - providing an at least two-layer or multilayer textile structure consisting of a carrier layer, onto which a short-fiber layer is applied, in which short fibers are saturated with a not-yet-polymerized, reactive, thermoplastic starting component of a matrix material, - assembling the textile structure to form a fiber-reinforced, semi-finished textile fiber product, and - pressing / deep-drawing the fiber-reinforced, semi-finished textile fiber product into the shape of the fiber-reinforced plastic component to be produced, viz., while simultaneously heating the fiber-reinforced, semi-finished textile fiber product to a temperature above the polymerization start temperature, wherein the carrier layer has at least one endless fiber layer which, in an impregnation step, is saturated with a reactive, thermoplastic starting component of a matrix material, and wherein the short fibers are provided as a non-processed, fresh (i.e., in a dry state) fiber material with a predefined fiber length, characterized in that the dry short fibers are applied to the already impregnated carrier layer. - providing an at least two-layer or multilayer textile structure consisting of a carrier layer, onto which a short-fiber layer is applied, in which short fibers are saturated with a not-yet-polymerized, reactive, thermoplastic starting component of a matrix material, - assembling the textile structure to form a fiber-reinforced, semi-finished textile fiber product, and - pressing / deep-drawing the fiber-reinforced, semi-finished textile fiber product into the shape of the fiber-reinforced plastic component to be produced, viz., while simultaneously heating the fiber-reinforced, semi-finished textile fiber product to a temperature above the polymerization start temperature, wherein the carrier layer has at least one endless fiber layer which, in an impregnation step, is saturated with a reactive, thermoplastic starting component of a matrix material, and wherein the short fibers are provided as a non-processed, fresh (i.e., in a dry state) fiber material with a predefined fiber length, characterized in that the dry short fibers are applied to the already impregnated carrier layer.
Holding device for at least one temperature sensor, which holding device can be inserted into a tube, in particular into a dip tube, at least one elongate main body segment being provided that has at least one longitudinal holding groove preferably extending substantially in parallel with the longitudinal axis of the main body segment, in which longitudinal holding groove at least one temperature sensor is received in a preferably form-fitting and/or frictional manner, a temperature sensor head of the temperature sensor projecting at least partially out from the longitudinal holding groove of the main body segment, characterized in that an end face of the temperature sensor head is flush with one of the end faces of the main body segment.