mhurhangee/ep-ind-claims huggingface dataset:
Assembly for using exhaust gas heat comprising a steam generating assembly exposed to the exhaust gas, in which heat contained in the exhaust gas may be transferred to a working medium for further use, characterized by (a) a heat store exposed to said exhaust gas, and (b) control means for controlling substreams of the exhaust gas depending on a value representing the available exhaust gas heat energy through the heat store and the steam generating assembly. (a) a heat store exposed to said exhaust gas, and (b) control means for controlling substreams of the exhaust gas depending on a value representing the available exhaust gas heat energy through the heat store and the steam generating assembly.
Composition, especially a cosmetic composition, comprising at least: - a) one or more polymers comprising monomer units of formulae and: in which: - R1, independently at each instance, is chosen from alkyl and alkylene radicals, and - at least 60% by weight of the groups R1 are behenyl radicals, the weight percentage relating to the sum of all the groups R1 present in the polymer, and - the weight ratio of the sum of all the hydroxyethyl acrylate units to the sum of all the acrylate units bearing the group R1 ranges from 1:30 to 1:1; - and the sum of the total of units A and B is at least 95% by weight relative to the total weight of the polymer, - the polymer having a number-average molecular weight Mn ranging from 2000 to 9000 g/mol, - b) one or more UV-screening agents, and - c) one or more copolymers of acrylamido-2-methylpropanesulfonic acid and of one or more nonionic monomers. - a) one or more polymers comprising monomer units of formulae and: in which: - R1, independently at each instance, is chosen from alkyl and alkylene radicals, and - at least 60% by weight of the groups R1 are behenyl radicals, the weight percentage relating to the sum of all the groups R1 present in the polymer, and - the weight ratio of the sum of all the hydroxyethyl acrylate units to the sum of all the acrylate units bearing the group R1 ranges from 1:30 to 1:1; - and the sum of the total of units A and B is at least 95% by weight relative to the total weight of the polymer, - the polymer having a number-average molecular weight Mn ranging from 2000 to 9000 g/mol, - R1, independently at each instance, is chosen from alkyl and alkylene radicals, and - at least 60% by weight of the groups R1 are behenyl radicals, the weight percentage relating to the sum of all the groups R1 present in the polymer, and - the weight ratio of the sum of all the hydroxyethyl acrylate units to the sum of all the acrylate units bearing the group R1 ranges from 1:30 to 1:1; - and the sum of the total of units A and B is at least 95% by weight relative to the total weight of the polymer, - the polymer having a number-average molecular weight Mn ranging from 2000 to 9000 g/mol, - b) one or more UV-screening agents, and - c) one or more copolymers of acrylamido-2-methylpropanesulfonic acid and of one or more nonionic monomers.
A laminated body in which a thermoplastic resin layer, a thermosetting resin layer, and a protective film are layered one on another in this order, wherein: the thermosetting resin layer contains two or more kinds of organometallic complex, a surface of the protective film at a side contacting the thermosetting resin layer has a surface roughness Ra of 30 nm or less, and an amount of nitrogen atoms present at the surface of the protective film at the side of the thermosetting resin layer is less than 1 atm%, wherein the surface roughness Ra is determined as specified in the description. the thermosetting resin layer contains two or more kinds of organometallic complex, a surface of the protective film at a side contacting the thermosetting resin layer has a surface roughness Ra of 30 nm or less, and an amount of nitrogen atoms present at the surface of the protective film at the side of the thermosetting resin layer is less than 1 atm%, wherein the surface roughness Ra is determined as specified in the description.
A bowed rotor start mitigation system for a gas turbine engine of an aircraft, the bowed rotor start mitigation system comprising: a motoring system; and a controller coupled to the motoring system and an aircraft communication bus, wherein the controller is configured to perform: determining at least one inferred engine operating thermal parameter from at least one aircraft-based parameter received on the aircraft communication bus; and controlling the motoring system to drive rotation of a starting spool of the gas turbine engine below an engine idle speed based on determining that the at least one inferred engine operating thermal parameter is within a preselected threshold, characterized in that the at least one inferred engine operating thermal parameter comprises an engine temperature value, and the at least one aircraft-based parameter received on the aircraft communication bus comprises a throttle lever angle profile history. a motoring system; and a controller coupled to the motoring system and an aircraft communication bus, wherein the controller is configured to perform: determining at least one inferred engine operating thermal parameter from at least one aircraft-based parameter received on the aircraft communication bus; and controlling the motoring system to drive rotation of a starting spool of the gas turbine engine below an engine idle speed based on determining that the at least one inferred engine operating thermal parameter is within a preselected threshold, characterized in that the at least one inferred engine operating thermal parameter comprises an engine temperature value, and the at least one aircraft-based parameter received on the aircraft communication bus comprises a throttle lever angle profile history. determining at least one inferred engine operating thermal parameter from at least one aircraft-based parameter received on the aircraft communication bus; and controlling the motoring system to drive rotation of a starting spool of the gas turbine engine below an engine idle speed based on determining that the at least one inferred engine operating thermal parameter is within a preselected threshold, characterized in that the at least one inferred engine operating thermal parameter comprises an engine temperature value, and the at least one aircraft-based parameter received on the aircraft communication bus comprises a throttle lever angle profile history.
A structure for ballistic application comprising: a first outer layer comprising a strike face of the structure; a second outer layer comprising a back face of the structure; and a series of alternating intermediate layers and polymer fiber composite layers between the first and second outer layers, wherein the stiffness of the intermediate layers located adjacent to the strike face is greater than the stiffness of the intermediate layers located adjacent to the back face, wherein the intermediate layers and the second outer layer have a reduced thickness relative to the thickness of the polymer fiber composite layers, and wherein the second outer layer has a higher stiffness than the polymer fiber composite layers. a first outer layer comprising a strike face of the structure; a second outer layer comprising a back face of the structure; and a series of alternating intermediate layers and polymer fiber composite layers between the first and second outer layers,
A downhole apparatus comprising: a drill collar having an outer surface for interaction with an earth formation; an extendable sample device recessed beneath said outer surface in a first position to extend beyond said outer surface to a second position; a sampling member coupled to said extendable sample device, said sampling member having a bore and a sampling end to extend to a position beyond said extendable sample device second position, said bore to receive at least formation fluid from the earth formation; characterised in that the downhole apparatus further comprises: a screen having a bore coupled to said sampling end, said screen including at least one of: a plurality of adjustable slots (134, 295); and a gravel-packed screen having an adjustable particle size. a drill collar having an outer surface for interaction with an earth formation; an extendable sample device recessed beneath said outer surface in a first position to extend beyond said outer surface to a second position; a sampling member coupled to said extendable sample device, said sampling member having a bore and a sampling end to extend to a position beyond said extendable sample device second position, said bore to receive at least formation fluid from the earth formation;
An electric-bike torque sensor comprising a central shaft, a chain wheel, and a crank fixed on the central shaft, wherein the electric-bike torque sensor further comprises a deformed frame including an outer ring and an inner ring connected with each other through a number of radial connecting bars, the inner ring being secured to the crank, the outer ring being secured to the chain wheel; two torque-sensing steel magnets, their outer surfaces having the opposite polarity, characterized in that; they are fixed on the inner ring, and a signal output board, on which is installed a linear Hall element, is fixed on the outer ring, the sensing face of the linear Hall element being opposite to the outer surface of the two steel magnets; the electric-bike torque sensor further comprises a rotating part, on which is fixed a secondary winding, and a stationary part assembled coaxially on the central shaft, the rotating part being fixed relative to one of the chain wheel, the deformed frame, the crank and the central shaft; the stationary part, on which are fixed a primary winding and a signal receiving board, is kept from rotating relative to the rotating part, the primary and secondary windings together forming an isolation transformer, the primary winding being electrically connected with an alternating-current generator arranged on the signal receiving board provided with a lead wire; and the secondary winding is electrically connected with the signal output board.
A sun and weather protection device, particularly a parasol, with a standing rod, a support rod and a flexible protecting surface, wherein the flexible protecting surface is attached to the support rod and wherein the standing rod and the support rod are connected to each other by means of a hinge combination and wherein the protecting surface can simultaneously be rotated about and fixed to both the axis of the standing rod and the axis of the support rod by actuating a single clamping screw, and wherein furthermore also the angle between the standing rod and the support rod can be adjusted and fixed, characterized in that the hinge combination comprises two hinge halves with rotating disks (42, 44) and integrated gripper clamps (43, 45).
A system for processing audio input signals, comprising: an input processor (103, 107, 109) to accept a plurality of sampled audio input signals to form a mixed-down signal in the sample or frequency domain, and further to form a mixed-down banded instantaneous frequency domain amplitude metric of the input signals for a plurality of frequency bands, at least 90% of the bands having contribution from two or more frequency bins; a banded spatial feature estimator to estimate banded spatial features from the plurality of sampled input signals; a gain calculator to calculate a set of banded suppression probability indicators including a banded out-of-location signal probability indicator determined using two or more of the banded spatial features, and a banded noise suppression probability indicator indicating for each frequency band a noise suppression gain which is determined using a banded estimate of noise spectral content based on the mixed-down banded instantaneous frequency domain amplitude metric of the input signals, the gain calculator further configured to combine the set of probability indicators to calculate a combined gain for each band of the plurality of frequency bands; and a suppressor to apply an interpolated final gain determined from the combined gains of the plurality of frequency bands to carry out suppression on the mixed-down signal to form suppressed signal data. an input processor (103, 107, 109) to accept a plurality of sampled audio input signals to form a mixed-down signal in the sample or frequency domain, and further to form a mixed-down banded instantaneous frequency domain amplitude metric of the input signals for a plurality of frequency bands, at least 90% of the bands having contribution from two or more frequency bins; a banded spatial feature estimator to estimate banded spatial features from the plurality of sampled input signals; a gain calculator to calculate a set of banded suppression probability indicators including a banded out-of-location signal probability indicator determined using two or more of the banded spatial features, and a banded noise suppression probability indicator indicating for each frequency band a noise suppression gain which is determined using a banded estimate of noise spectral content based on the mixed-down banded instantaneous frequency domain amplitude metric of the input signals, the gain calculator further configured to combine the set of probability indicators to calculate a combined gain for each band of the plurality of frequency bands; and a suppressor to apply an interpolated final gain determined from the combined gains of the plurality of frequency bands to carry out suppression on the mixed-down signal to form suppressed signal data.
An electrical system for a wind turbine, the electrical system comprising: a generator located in a nacelle of the wind turbine, the generator comprising a stator and a rotor housed within a generator housing, at least one of the stator and the rotor being operably coupled to at least one generator output connection; and a plurality of electrical subsystems comprising a plurality of electrical subsystem assemblies, at least one electrical subsystem assembly being integrated with the generator housing, the at least one electrical subsystem assembly being operably coupled between the stator or the rotor and the at least one generator output connection, the plurality of electrical subsystems comprising a stator switch subsystem, a power converter subsystem, and a generator step-up transformer, wherein the at least one electrical subsystem assembly integrated with the generator housing comprises at least one of a stator switch of the stator switch subsystem and a rotor-inductor assembly of the power converter subsystem. a generator located in a nacelle of the wind turbine, the generator comprising a stator and a rotor housed within a generator housing, at least one of the stator and the rotor being operably coupled to at least one generator output connection; and a plurality of electrical subsystems comprising a plurality of electrical subsystem assemblies, at least one electrical subsystem assembly being integrated with the generator housing, the at least one electrical subsystem assembly being operably coupled between the stator or the rotor and the at least one generator output connection, the plurality of electrical subsystems comprising a stator switch subsystem, a power converter subsystem, and a generator step-up transformer, wherein the at least one electrical subsystem assembly integrated with the generator housing comprises at least one of a stator switch of the stator switch subsystem and a rotor-inductor assembly of the power converter subsystem.
An environmental control apparatus (10, 10a, 110, 110a, 210, 310) to be installed in a room and is portable, comprising: a sensor unit (11, 211) that senses an air environment of the room; an input unit (17, 117) that inputs a sense of comfort with respect to the air environment of the room if a user determines that the air environment of the room is comfortable, the sense of comfort being a fact that the air environment of the room is comfortable to the user; a setting unit that sets a comfort zone of the air environment of the room based on information about the sense of comfort that is input to the input unit by the user; a determination unit (12, 12a, 212) that determines whether the air environment of the room is within the range of the comfort zone based on information about the air environment of the room sensed with the sensor unit; and an output unit that, based on at least information about the determination result of the determination unit, outputs information or a signal in order to make the air environment of the room fall within the range of the comfort zone. a sensor unit (11, 211) that senses an air environment of the room; an input unit (17, 117) that inputs a sense of comfort with respect to the air environment of the room if a user determines that the air environment of the room is comfortable, the sense of comfort being a fact that the air environment of the room is comfortable to the user; a setting unit that sets a comfort zone of the air environment of the room based on information about the sense of comfort that is input to the input unit by the user; a determination unit (12, 12a, 212) that determines whether the air environment of the room is within the range of the comfort zone based on information about the air environment of the room sensed with the sensor unit; and an output unit that, based on at least information about the determination result of the determination unit, outputs information or a signal in order to make the air environment of the room fall within the range of the comfort zone.
An assembly comprising a melt pot snout and an apparatus for imaging the interior of the melt pot snout of a hot dip steel coating line comprising: an infrared camera which detects images within a desired range of infrared wavelengths within the electromagnetic spectrum; a view port transparent at least to said desired range of infrared wavelengths; said view port positioned to allow view of the desired regions within said melt pot snout; said infrared camera positioned relative to said view port and to said melt pot snout such that the camera can image said desired regions within said melt pot snout at said desired range of infrared wavelengths; and a monitoring device upon which the detected infrared images from said camera may be projected, said images being displayed in a visible form on the monitoring device. an infrared camera which detects images within a desired range of infrared wavelengths within the electromagnetic spectrum; a view port transparent at least to said desired range of infrared wavelengths; said view port positioned to allow view of the desired regions within said melt pot snout; said infrared camera positioned relative to said view port and to said melt pot snout such that the camera can image said desired regions within said melt pot snout at said desired range of infrared wavelengths; and a monitoring device upon which the detected infrared images from said camera may be projected, said images being displayed in a visible form on the monitoring device.
Detergent tablet comprising a body made from compacted powder, said body being coated with a water-soluble coating, said water-soluble coating having a composition comprising a film-forming agent and water, characterised in that the composition of the water-soluble coating further comprises at least one specific agent for improving the efficiency in terms of rinsing of the detergent tablet.
A method of transmitting a discovery signal by a Device-to-Device, D2D, User Equipment, UE, in a wireless communication system, the method comprising: determining a time-frequency resource on which the discovery signal is to be transmitted in multiple discovery periods; and transmitting the discovery signal on the time-frequency resource in the multiple discovery periods; wherein the discovery signal is transmitted "b" times in each of the multiple discovery periods, "b" corresponds to a number of times the discovery signal is transmitted in each of the discovery periods, the discovery signal is repeated on consecutive time resources within each of the discovery periods, and frequency resource in each of the consecutive time resources is respectively hopped by floor(Nf/b) where Nf is a number of discovery resources per subframe, and wherein a frequency resource index on which the discovery signal is transmitted in a current discovery period within the multiple discovery periods is respectively determined by (f shift + floor((nf + Nf ∗ nt)/Nt)) mod Nf where Nt is the number of subframes per discovery period, f shift is a frequency shift, nf is a frequency resource index on which the discovery signal is transmitted in a previous discovery period, and nt is a time resource index on which the discovery signal is transmitted in the previous discovery period, and wherein, for a plurality of cells located in a same site, the frequency shift is set to a same value. determining a time-frequency resource on which the discovery signal is to be transmitted in multiple discovery periods; and transmitting the discovery signal on the time-frequency resource in the multiple discovery periods; wherein the discovery signal is transmitted "b" times in each of the multiple discovery periods, "b" corresponds to a number of times the discovery signal is transmitted in each of the discovery periods, the discovery signal is repeated on consecutive time resources within each of the discovery periods, and frequency resource in each of the consecutive time resources is respectively hopped by floor(Nf/b) where Nf is a number of discovery resources per subframe, and wherein a frequency resource index on which the discovery signal is transmitted in a current discovery period within the multiple discovery periods is respectively determined by (f shift + floor((nf + Nf ∗ nt)/Nt)) mod Nf where Nt is the number of subframes per discovery period, f shift is a frequency shift, nf is a frequency resource index on which the discovery signal is transmitted in a previous discovery period, and nt is a time resource index on which the discovery signal is transmitted in the previous discovery period, and wherein, for a plurality of cells located in a same site, the frequency shift is set to a same value.
A system comprising: i) environmental sensors (205a-d) at multiple facilities, each of the environmental sensors (205a-d) generating data about an environmental condition at different ones of the multiple facilities; and ii) a network allowing communication amongst the environmental sensors (205a-d) at the multiple facilities; iii)a subset of the environmental sensors (205a-d) share the data generated from each of the environmental sensors (205a-d) about the environmental condition at their respective facilities; wherein an environmental condition message relating to shared data about the environmental condition at the subset of environmental sensors (205a-d) is sent through the network to a central location, characterised in that said environmental condition message sent is based upon a comparison of the shared data with a profile for a type of environmental occurrence; and in that the environmental sensors (205a-d) in the subset are configured or adjusted to send more or all of their measurements in an event that the environmental condition message is sent to the central location. i) environmental sensors (205a-d) at multiple facilities, each of the environmental sensors (205a-d) generating data about an environmental condition at different ones of the multiple facilities; and ii) a network allowing communication amongst the environmental sensors (205a-d) at the multiple facilities; iii)a subset of the environmental sensors (205a-d) share the data generated from each of the environmental sensors (205a-d) about the environmental condition at their respective facilities; wherein an environmental condition message relating to shared data about the environmental condition at the subset of environmental sensors (205a-d) is sent through the network to a central location,