mhurhangee/ep-ind-claims huggingface dataset:
Nickel-based superalloy for the directional solidification of components having columnar grains, said superalloy consisting of(in % by weight): chromium (Cr) 9.0 to 15.0, titanium (Ti) 2.0 to 6.0, molybdenum (Mo) 1.0 to 3.0, tungsten 2.0 to 6.0, tantalum (Ta) 3.0 to 7.0, aluminum (Al) 2.0 to 6.0, cobalt (Co) 6.0 to 11.0, boron 0.0025 to 0.05, carbon 0.01 to 0.3, silicon (Si) 0.01 to 0.12, zirconium (Zr), wherein the alloy contains at most 25 ppm zirconium (Zr), and at least one element selected from the group consisting of iron (Fe), vanadium, niobium (Nb), copper (Cu), hafnium (Hf), zirconium (Zr), phosphorus, sulfur and manganese (Mn), wherein the following applies for said elements, if present, in which the iron content (Fe) is at most 0.2%, and/or in which the iron content (Fe) is at least 0.014%, in particular at least 0.02%, in which the vanadium content is at most 75 ppm, and/or in which the vanadium content is at least 50 ppm, in which the niobium content (Nb) is at most 75 ppm, and/or in which the niobium content (Nb) is at least 50 ppm, in which the copper content (Cu) is at most 0.1%, and/or in which the copper content (Cu) is at least 0.001%, in which the content of hafnium (Hf) is at most 75 ppm, and/or which contains at least 10 ppm hafnium (Hf), and/or which contains at least 10 ppm zirconium (Zr), in which the manganese content (Mn) is at most 0.12%, and/or in which the manganese content (Mn) is at least 0.001%, in which the phosphorus content is at most 0.015%, and/or in which the phosphorus content is at least 0.003%, in which the sulfur content is at most 0.025%, and/or in which the sulfur content is at least 0.0003%, optionally: tin (Sn) or zinc (Zn) 50 ppm to 2000 ppm, remainder nickel. wherein the alloy contains at most 25 ppm zirconium (Zr), and at least one element selected from the group consisting of iron (Fe), vanadium, niobium (Nb), copper (Cu), hafnium (Hf), zirconium (Zr), phosphorus, sulfur and manganese (Mn), wherein the following applies for said elements, if present, in which the iron content (Fe) is at most 0.2%, and/or in which the iron content (Fe) is at least 0.014%, in particular at least 0.02%, in which the vanadium content is at most 75 ppm, and/or in which the vanadium content is at least 50 ppm, in which the niobium content (Nb) is at most 75 ppm, and/or in which the niobium content (Nb) is at least 50 ppm, in which the copper content (Cu) is at most 0.1%, and/or in which the copper content (Cu) is at least 0.001%, in which the content of hafnium (Hf) is at most 75 ppm, and/or which contains at least 10 ppm hafnium (Hf), and/or which contains at least 10 ppm zirconium (Zr), in which the manganese content (Mn) is at most 0.12%, and/or in which the manganese content (Mn) is at least 0.001%, in which the phosphorus content is at most 0.015%, and/or in which the phosphorus content is at least 0.003%, in which the sulfur content is at most 0.025%, and/or in which the sulfur content is at least 0.0003%, optionally: tin (Sn) or zinc (Zn) 50 ppm to 2000 ppm, remainder nickel. tin (Sn) or zinc (Zn) 50 ppm to 2000 ppm, remainder nickel.
Method for transmitting a message representing a detection of a break in electrical supply to a smart electricity meter, referred to as a meter, to a management entity in a communication system furthermore comprising a first network connecting meters to a data concentrator and a second communication network connecting the data concentrator to the management entity, the communication system furthermore comprising a third network connecting the meters to a collecting gateway, referred to as a gateway, a fourth network connecting the gateway to a server, and a fifth network, connecting the server to the management entity, each meter comprising a general electrical supply and a backup electrical supply, and passing to its backup electrical supply in the case of a break in its general electrical supply, characterised in that, when a meter detects a break in its general electrical supply, the method comprises: generating, by said meter, an electrical-supply break message intended for the management entity, said message being in accordance with at least one data exchange standard for the measurement of electrical consumption used by said entity; transmitting, by said meter, said message intended for the management entity via the gateway and the server, the message being encapsulated in a first frame when it passes through the third network, in a second frame when it passes through the fourth network and in a third frame when passes over the fifth network; and transmitting said message in parallel over the first network when the meter receives, via this first network, at least one message from the management entity, from a data concentrator or from another meter following the detection of the break in supply. generating, by said meter, an electrical-supply break message intended for the management entity, said message being in accordance with at least one data exchange standard for the measurement of electrical consumption used by said entity; transmitting, by said meter, said message intended for the management entity via the gateway and the server, the message being encapsulated in a first frame when it passes through the third network, in a second frame when it passes through the fourth network and in a third frame when passes over the fifth network; and transmitting said message in parallel over the first network when the meter receives, via this first network, at least one message from the management entity, from a data concentrator or from another meter following the detection of the break in supply.
A control system for a vehicle (100, 500), the system comprising: a dynamic state sensor (130, 140); an object detection sensor; and, a controller configured to: determine a path of the vehicle (100, 500) based on a signal from the dynamic state sensor (130, 140); detect an object based on the vehicle's path and a signal from the object detection sensor; and, control a braking system of the vehicle (100, 500) based on the determined path and the detected object; characterized in that the controller is configured to control the braking system by prefilling the braking system (100, 500) when the object is detected in or near the determined path of the vehicle (100, 500), applying a first braking amount in a range between 0.1g and 0.35g when a value of the signal from the dynamic state sensor (130, 140) reaches a first threshold, and applying a second braking amount of increasingly heavier braking until full braking is reached when a value of the signal from the dynamic state sensor (130, 140) reaches a second threshold. a dynamic state sensor (130, 140); an object detection sensor; and, a controller configured to: determine a path of the vehicle (100, 500) based on a signal from the dynamic state sensor (130, 140); detect an object based on the vehicle's path and a signal from the object detection sensor; and, control a braking system of the vehicle (100, 500) based on the determined path and the detected object; characterized in that determine a path of the vehicle (100, 500) based on a signal from the dynamic state sensor (130, 140); detect an object based on the vehicle's path and a signal from the object detection sensor; and, control a braking system of the vehicle (100, 500) based on the determined path and the detected object; characterized in that the controller is configured to control the braking system by prefilling the braking system (100, 500) when the object is detected in or near the determined path of the vehicle (100, 500), applying a first braking amount in a range between 0.1g and 0.35g when a value of the signal from the dynamic state sensor (130, 140) reaches a first threshold, and applying a second braking amount of increasingly heavier braking until full braking is reached when a value of the signal from the dynamic state sensor (130, 140) reaches a second threshold.
Method for detecting sticking of a relay of a pair of electrical relays (1, 2) arranged in series in a control line delivering a control voltage for an internal combustion engine starter fitted to a motor vehicle, an electric motor of the starter being supplied when the two relays (1, 2) are closed, each by a separate signal, one of the two signals being a so-called authorization signal (auto) starting before and ending after the other signal, called the control signal (com), in which a measurement is made of a physical quantity representative of the control voltage and a sticking of the relay having received the control signal (com) is detected, when it is determined, from the measurement, that the control voltage is non-zero between the start of the authorization signal (auto) and the start of the control signal (com), characterized in that as long as no relay is detected as being stuck, the authorization signals (auto) and control (com) are alternated between the two relays each time the internal combustion engine is started during the same current phase of vehicle driving.
An article of footwear, comprising: an upper which can be adjustably tightened around a wearer's foot, the upper comprising a forefoot region, a throat region, a heel region, and a tongue; an outsole attached to the upper; a first strap, including a first portion (118; 220); the first portion (118; 220) of the first strap being fixed to a first side of the upper and extendable across the article of footwear to a second side of the upper; a lacing system for constricting the upper along the throat region; a second strap, including a first end and a second end; the first end of the second strap being fixed to the second side of the upper and the second end of the second strap being adjustably fastened to the first side of the upper, characterized in that the first strap is disposed inside the upper along the first side of the upper and extending circumferentially towards the outsole, the first portion (118; 220) of the first strap being disposed between the tongue and the lacing system for applying a downward pressure to the tongue when the first strap is tightened. an upper which can be adjustably tightened around a wearer's foot, the upper comprising a forefoot region, a throat region, a heel region, and a tongue; an outsole attached to the upper; a first strap, including a first portion (118; 220); the first portion (118; 220) of the first strap being fixed to a first side of the upper and extendable across the article of footwear to a second side of the upper; a lacing system for constricting the upper along the throat region; a second strap, including a first end and a second end; the first end of the second strap being fixed to the second side of the upper and the second end of the second strap being adjustably fastened to the first side of the upper, characterized in that the first strap is disposed inside the upper along the first side of the upper and extending circumferentially towards the outsole, the first portion (118; 220) of the first strap being disposed between the tongue and the lacing system for applying a downward pressure to the tongue when the first strap is tightened.
A projector with a detection function, the projector comprising: a projection optical system that projects image light on a projection plane; an irradiation optical system that generates an irradiation beam on a basis of light obtained from a light source, and outputs the irradiation beam, the irradiation beam being used for detection of a detection object on the projection plane, the detection object being configured to be detected; an illumination control section that performs temporal light-quantity modulation of said light obtained from the light source to cause coherence of said irradiation beam to be reduced; and an imaging device to image a projection area on the projection plane, wherein scattered light (La) of the irradiation beam derived from the detection object enters the imaging device. a projection optical system that projects image light on a projection plane; an irradiation optical system that generates an irradiation beam on a basis of light obtained from a light source, and outputs the irradiation beam, the irradiation beam being used for detection of a detection object on the projection plane, the detection object being configured to be detected; an illumination control section that performs temporal light-quantity modulation of said light obtained from the light source to cause coherence of said irradiation beam to be reduced; and an imaging device to image a projection area on the projection plane, wherein scattered light (La) of the irradiation beam derived from the detection object enters the imaging device.
Sports boot comprising: - a rigid shell bottom for holding the foot of a user, comprising a sole and two lateral flanks (2a, 2b) issuing from the sole, which define between them an upper cavity, and - means for tightening the shell bottom around the foot of the user, comprising a thread-shaped element for tightening the flanks towards one another, which element is tightened by pivoting a lever, said lever being provided so as to be pivoted in a tooth of a rack, the rack being designed to top the two flanks (2a, 2b) of the shell bottom in the tightened configuration and bend (F1, F2) the flanks towards the sole due to the action of pivoting the lever, characterized in that said rack straddles and crosses said upper cavity. - a rigid shell bottom for holding the foot of a user, comprising a sole and two lateral flanks (2a, 2b) issuing from the sole, which define between them an upper cavity, and - means for tightening the shell bottom around the foot of the user, comprising a thread-shaped element for tightening the flanks towards one another, which element is tightened by pivoting a lever, said lever being provided so as to be pivoted in a tooth of a rack,
Liquid-crystal medium, characterised in that it consists of a plurality of compounds comprising one or more compounds of formula I in which R 1 denotes H, unfluorinated alkyl or unfluorinated alkoxy having 1 to 17 C atoms or unfluorinated alkenyl, unfluorinated alkenyloxy or unfluorinated alkoxyalkyl having 2 to 15 C atoms, n is 0, 1 or 2, and independently of one another, denote or where alternatively denotes preferably and in case n = 2, one of preferably denotes and the other preferably denotes and where the total concentration of the one or more compounds of formula I in the medium is 73 % by weight or more. R 1 denotes H, unfluorinated alkyl or unfluorinated alkoxy having 1 to 17 C atoms or unfluorinated alkenyl, unfluorinated alkenyloxy or unfluorinated alkoxyalkyl having 2 to 15 C atoms, n is 0, 1 or 2, and independently of one another, denote or where alternatively denotes preferably and in case n = 2, one of preferably denotes and the other preferably denotes
A method of controlling undesired vegetation comprising applying to a locus of the undesired vegetation a herbicidally effective amount of bifenox and florasulam esters, salts and/or combinations thereof jointly or in a succession or as a mixture comprising bifenox and florasulam esters, salts and/or combinations thereof, wherein bifenox is applied at a rate of between 400 g/ha to 550 g/ha, and florasulam is applied at a rate of between 1 g/ha to 10 g/ha.
A wireless power receiver comprising: a receiver resonator coupled to an impedance matching network, characterized in that the impedance matching network has a first node and a second node; a first circuit having a first positive reactance (X 4A) and a second circuit having a first negative reactance (X 4B), wherein an absolute value of the first positive reactance (X 4A) is different from an absolute value of the first negative reactance (X 4B) and wherein an input of the first circuit and an input of the second circuit is coupled to the first node; a third circuit having a second positive reactance (X 4C) and a fourth circuit having a second negative reactance (X 4D), wherein an absolute value of the second positive reactance (X 4C) is different from an absolute value of the second negative reactance (X 4D) and wherein an input of the third circuit and an input of the fourth circuit is coupled to the second node; a first rectifier having an input coupled to an output of the first circuit; a second rectifier having an input coupled to an output of the second circuit; a third rectifier having an input coupled to an output of the third circuit; and a fourth rectifier having an input coupled to an output of the fourth circuit. a receiver resonator coupled to an impedance matching network, characterized in that the impedance matching network has a first node and a second node; a first circuit having a first positive reactance (X 4A) and a second circuit having a first negative reactance (X 4B), wherein an absolute value of the first positive reactance (X 4A) is different from an absolute value of the first negative reactance (X 4B) and wherein an input of the first circuit and an input of the second circuit is coupled to the first node; a third circuit having a second positive reactance (X 4C) and a fourth circuit having a second negative reactance (X 4D), wherein an absolute value of the second positive reactance (X 4C) is different from an absolute value of the second negative reactance (X 4D) and wherein an input of the third circuit and an input of the fourth circuit is coupled to the second node; a first rectifier having an input coupled to an output of the first circuit; a second rectifier having an input coupled to an output of the second circuit; a third rectifier having an input coupled to an output of the third circuit; and a fourth rectifier having an input coupled to an output of the fourth circuit.
A method for managing supply of power to at least one device executed by an apparatus supplying power to the at least one device comprising steps of: measuring (S400, S610) individual power consumption of at least one device connected to the apparatus; determining a priority of each of the at least one device when the sum of measured power consumption exceeds an allowable power; and controlling (S220, S225) the supply of power to each of the at least one device, based on the determined priority, wherein determining of the priority of each of the at least one device comprises: determining (S320, S330, S370) whether a type of each of the at least one device is a type of stably consuming power, a type of periodically consuming power, or a type of aperiodically consuming power based on a power consumption pattern of the at least one device; and determining the priority of each of the at least one device based on the determination whether the type of the each of the at least one device is the type of stably consuming power, the type of periodically consuming power, or the type of aperiodically consuming power, and the cumulative connection time of the at least one device. measuring (S400, S610) individual power consumption of at least one device connected to the apparatus; determining a priority of each of the at least one device when the sum of measured power consumption exceeds an allowable power; and controlling (S220, S225) the supply of power to each of the at least one device, based on the determined priority, wherein determining of the priority of each of the at least one device comprises: determining (S320, S330, S370) whether a type of each of the at least one device is a type of stably consuming power, a type of periodically consuming power, or a type of aperiodically consuming power based on a power consumption pattern of the at least one device; and determining the priority of each of the at least one device based on the determination whether the type of the each of the at least one device is the type of stably consuming power, the type of periodically consuming power, or the type of aperiodically consuming power, and the cumulative connection time of the at least one device. determining (S320, S330, S370) whether a type of each of the at least one device is a type of stably consuming power, a type of periodically consuming power, or a type of aperiodically consuming power based on a power consumption pattern of the at least one device; and determining the priority of each of the at least one device based on the determination whether the type of the each of the at least one device is the type of stably consuming power, the type of periodically consuming power, or the type of aperiodically consuming power, and the cumulative connection time of the at least one device.
A row unit (18, 118) for a seeding machine operable to plant seeds into soil, the row unit (18, 118) comprising: a frame supporting a furrow opener for opening a furrow in the soil, a gauge wheel for rolling atop the soil, a seed dispenser for dispensing seeds into the furrow, and a furrow closer for closing the furrow; a row unit downforce actuator operable to push the row unit frame toward the soil to adjustably control soil engagement forces for the furrow opener, the gauge wheel, and the furrow closer; an acceleration sensor configured to detect accelerations of the row unit (18, 118); and a controller in communication with the acceleration sensor and the row unit downforce actuator, the controller programmed with an algorithm to maintain a target downforce value during operation of the row unit (18, 118), wherein the controller is further programmed to abandon the target downforce value and relieve the row unit downforce actuator to transition to a floating state that enables the row unit (18, 118) to float over soil obstructions in response to a signal from the acceleration sensor indicative of acceleration of the row unit (18, 118) in excess of a predetermined threshold. a frame supporting a furrow opener for opening a furrow in the soil, a gauge wheel for rolling atop the soil, a seed dispenser for dispensing seeds into the furrow, and a furrow closer for closing the furrow; a row unit downforce actuator operable to push the row unit frame toward the soil to adjustably control soil engagement forces for the furrow opener, the gauge wheel, and the furrow closer; an acceleration sensor configured to detect accelerations of the row unit (18, 118); and a controller in communication with the acceleration sensor and the row unit downforce actuator, the controller programmed with an algorithm to maintain a target downforce value during operation of the row unit (18, 118), wherein the controller is further programmed to abandon the target downforce value and relieve the row unit downforce actuator to transition to a floating state that enables the row unit (18, 118) to float over soil obstructions in response to a signal from the acceleration sensor indicative of acceleration of the row unit (18, 118) in excess of a predetermined threshold.