mhurhangee/patent-ind-claim-en huggingface dataset:
A glass coating composition for a fuel cell gasket comprising: a glass component comprising particles of glass material, effective to form an alkaline solution in the presence of an equivalent amount of water by weight, wherein the glass component is of the type which hardens and sets in water and comprises one or more of the compounds selected from SiO 2 , Al 2 O 3 , B 2 O 3 , BaO, Bi 2 O 3 , CaO, Cs 2 O, K 2 O, La 2 O 3 , Li 2 O, MgO, Na 2 O, PbO, Rb 2 O, Sb 2 O 3 , SnO, SrO, TiO 2 , Y 2 O 3 and/or ZnO; a binder component wherein the binder is selected from one or more of the group consisting of cellulose binders; acrylate homo or copolymers; vinyl acetate homo or copolymers; ethylene copolymers; and/or polyvinyl butyral; a liquid carrier which is greater than 50% by volume water; characterised in that the composition further comprises a retarder effective to inhibit hardening of the composition, wherein the retarder is selected from one or more of the group consisting of lignin compounds, for example lignosulfonates, including calcium, sodium and/or ammonium salts thereof; hydroxycarboxylic (HC) acids, such as gluconic acid, citric acid, tartaric acid or malic acid and salts thereof, suitably water soluble salts thereof; monosaccharides and disaccharides, for example, sucrose; fluorates; borates, such as alkali borates, for example, sodium metaborate, sodium tetraborate (also known as borax), and/or potassium pentaborate; and/or derivatives thereof, or mixtures thereof, wherein the level of retarder in the composition is between 0.02 to 20wt%, the glass component is present in the range 10-90wt% of the composition and the level of binder in the composition is in the range 1 to 20wt%. a glass component comprising particles of glass material, effective to form an alkaline solution in the presence of an equivalent amount of water by weight, wherein the glass component is of the type which hardens and sets in water and comprises one or more of the compounds selected from SiO 2 , Al 2 O 3 , B 2 O 3 , BaO, Bi 2 O 3 , CaO, Cs 2 O, K 2 O, La 2 O 3 , Li 2 O, MgO, Na 2 O, PbO, Rb 2 O, Sb 2 O 3 , SnO, SrO, TiO 2 , Y 2 O 3 and/or ZnO; a binder component wherein the binder is selected from one or more of the group consisting of cellulose binders; acrylate homo or copolymers; vinyl acetate homo or copolymers; ethylene copolymers; and/or polyvinyl butyral; a liquid carrier which is greater than 50% by volume water;
A method of manufacturing an optoelectronic device , comprising the steps of: forming, on a first surface of a first wafer comprising assemblies of electronic components , a stack of first insulating layers and of conductive tracks ; forming, on a second wafer , assemblies of three-dimensional light-emitting diodes , each comprising first and second ends; forming a first metal layer on at least a portion of the first surface of the first wafer and a second metal layer on at least a portion of a first surface of the second wafer, the second metal layer being electrically coupled to the first end of each light-emitting diode ; placing into contact the first and second metal layers to bond them by molecular bonding; forming at least one insulated conductive via connecting a second surface of the first wafer to one of the conductive tracks ; and forming, after putting into contact the first and second metal layers, insulated conductive trenches surrounding each assembly of light-emitting diodes and laterally insulating from one another portions of the first and second metal layers , each portion being connected to one of the assemblies of light-emitting diodes. forming, on a first surface of a first wafer comprising assemblies of electronic components , a stack of first insulating layers and of conductive tracks ; forming, on a second wafer , assemblies of three-dimensional light-emitting diodes , each comprising first and second ends; forming a first metal layer on at least a portion of the first surface of the first wafer and a second metal layer on at least a portion of a first surface of the second wafer, the second metal layer being electrically coupled to the first end of each light-emitting diode ; placing into contact the first and second metal layers to bond them by molecular bonding; forming at least one insulated conductive via connecting a second surface of the first wafer to one of the conductive tracks ; and forming, after putting into contact the first and second metal layers, insulated conductive trenches surrounding each assembly of light-emitting diodes and laterally insulating from one another portions of the first and second metal layers , each portion being connected to one of the assemblies of light-emitting diodes.
A method for constructing a model for estimating the state of health of a battery of an electric or hybrid vehicle in conditions of use, comprising the following steps: A) over a plurality of periods of operation of said battery, acquiring at least one time series of measurements of speed (v) or of acceleration of said vehicle and, simultaneously, at least one time series of measurements (I, U, P) of at least one quantity chosen from: a current delivered by said battery, a power delivered by said battery or a voltage at its terminals; B) extracting segments of said at least one time series corresponding to speed or acceleration patterns that satisfy at least one predefined condition; C) determining reference states of health of said battery during said periods of operation by interpolation of estimations of said state of health obtained by means of offline characterization performed between said periods of operation; and D) constructing at least one continuous estimation or classification model from said segments of said at least one time series and from the corresponding reference states of health. A) over a plurality of periods of operation of said battery, acquiring at least one time series of measurements of speed (v) or of acceleration of said vehicle and, simultaneously, at least one time series of measurements (I, U, P) of at least one quantity chosen from: a current delivered by said battery, a power delivered by said battery or a voltage at its terminals; B) extracting segments of said at least one time series corresponding to speed or acceleration patterns that satisfy at least one predefined condition; C) determining reference states of health of said battery during said periods of operation by interpolation of estimations of said state of health obtained by means of offline characterization performed between said periods of operation; and D) constructing at least one continuous estimation or classification model from said segments of said at least one time series and from the corresponding reference states of health.
A method, comprising: determining , by a host radio access network, RAN, node hosting a packet data convergence protocol, PDCP, entity , a location of a primary radio link control, RLC, entity; determining , by the host RAN node , an initial state of uplink duplication of at least one secondary RLC entity at the assisting RAN node as one of RLC activated or deactivated; transmitting , by the host RAN node to an assisting RAN node , the location of the primary RLC entity (3 10A) to indicate whether the primary RLC is at the assisting RAN node ; and transmitting , by the host RAN node to the assisting RAN node , the initial state of uplink duplication of the at least one secondary RLC entity at the assisting RAN node . determining , by a host radio access network, RAN, node hosting a packet data convergence protocol, PDCP, entity , a location of a primary radio link control, RLC, entity; determining , by the host RAN node , an initial state of uplink duplication of at least one secondary RLC entity at the assisting RAN node as one of RLC activated or deactivated; transmitting , by the host RAN node to an assisting RAN node , the location of the primary RLC entity (3 10A) to indicate whether the primary RLC is at the assisting RAN node ; and transmitting , by the host RAN node to the assisting RAN node , the initial state of uplink duplication of the at least one secondary RLC entity at the assisting RAN node .
A method for producing slot insulators for winding slots of a component of an electrical machine, comprising a) supplying a strip of insulating material, c) cutting off an insulator strip portion from the strip , d) molding the insulator strip portion for adjustment to the shape of the winding slot , and e) inserting the molded insulator strip portion into the winding slot , characterized in that at least the steps d) and e) are carried out in parallel for at least two insulator strip portions to be inserted into different winding slots in such a way that step d) is carried out for an insulator strip portion at a station (C), while step e) is simultaneously carried out for a previously molded further insulator strip portion at another station (D). a) supplying a strip of insulating material, c) cutting off an insulator strip portion from the strip , d) molding the insulator strip portion for adjustment to the shape of the winding slot , and e) inserting the molded insulator strip portion into the winding slot ,
A method of characterizing an object that includes, at least locally, a plane of symmetry (P1), wherein emitting and receiving ultrasound transducers positioned on a common axis are shifted, while emitting ultrasound by the emitting ultrasound transducer and observing, by the receiving ultrasound transducer, transmitted ultrasound (A, B, C) by said object , each observation being performed on an axis perpendicular to the plane of symmetry (P1), each observation resulting from an emission of ultrasound generated along a respective one of said axes and meeting the object along said axis at an incidence (θ 1 ) other than normal, the ultrasound meeting the object in such a manner as to follow a path that is symmetrical relative to the plane of symmetry (P1), at least two waves being observed among the longitudinal, transverse, and Rayleigh waves created by the emitted ultrasound, by observing two amplitude maximums of the measured signals, the travel time associated to said maximums of each ultrasound wave being analyzed in order to characterize the object.
A method operative in an overlay network comprising a sending peer and a receiving peer, wherein the sending peer and receiving peer provide stream-based data deduplication by examining data that flow through the sending peer and receiving peer and replacing blocks of the data with references that point into data dictionaries associated with each of the peers, the method comprising: maintaining a first directed cyclic graph, DCG, in association with the sending peer; maintaining a second directed cyclic graph, DCG, in association with the receiving peer; wherein each directed cyclic graph represents temporal and ordered relationships among the blocks of data in the data stream by the respective peer, at least one or each directed cyclic graph being annotated with information from which the respective peer generates a prediction about the blocks of data that are subject to the stream-based data deduplication; in response to reception at the receiving peer of a first request for a page, the receiving peer generates a second request that predicts which blocks of data the sending peer is expected to utilize during the stream-based data deduplication of the page; upon receipt of the second request at the sending peer, the sending peer generates a response that predicts which blocks of data are expected to compose the page; and while sending a third request to an origin to fetch the page, the sending peer returning the second response to the receiving peer to provide a pre-warming operation at the receiving peer during the stream-based data deduplication of the page; wherein the sending peer ceases sending information associated with one or more second responses when the data from the origin begins to arrive at the sending peer. maintaining a first directed cyclic graph, DCG, in association with the sending peer; maintaining a second directed cyclic graph, DCG, in association with the receiving peer; wherein each directed cyclic graph represents temporal and ordered relationships among the blocks of data in the data stream by the respective peer, at least one or each directed cyclic graph being annotated with information from which the respective peer generates a prediction about the blocks of data that are subject to the stream-based data deduplication; in response to reception at the receiving peer of a first request for a page, the receiving peer generates a second request that predicts which blocks of data the sending peer is expected to utilize during the stream-based data deduplication of the page; upon receipt of the second request at the sending peer, the sending peer generates a response that predicts which blocks of data are expected to compose the page; and while sending a third request to an origin to fetch the page, the sending peer returning the second response to the receiving peer to provide a pre-warming operation at the receiving peer during the stream-based data deduplication of the page; wherein the sending peer ceases sending information associated with one or more second responses when the data from the origin begins to arrive at the sending peer.
A construction assist system (SYS) for a shovel to assist construction with the shovel , comprising: a processor configured to perform a simulation of a motion of the shovel in a virtual environment set based on a work environment of the shovel and identify in advance, through the simulation, an event that occurs when the shovel is actually moved, characterized in that the processor is configured to modify a motion command when the identified event is an undesirable event. a processor configured to perform a simulation of a motion of the shovel in a virtual environment set based on a work environment of the shovel and identify in advance, through the simulation, an event that occurs when the shovel is actually moved, characterized in that the processor is configured to modify a motion command when the identified event is an undesirable event.
Method for operating a luminaire comprising a plurality of individually controllable units for light emission , the luminaire further comprising a control unit , a plurality of external brightness setpoint values being transmitted to the control unit of the luminaire and received by the control unit , and a relevant internal brightness setpoint value being established by the control device for each of the individually controllable units for light emission , in each case on the basis of all received external brightness setpoint values, taking into account associated weighting factors of the relevant individually controllable unit, each received external brightness setpoint value being multiplied by a relevant associated weighting factor (m ij ) of the associated weighting factors to establish the relevant internal brightness setpoint value for each of the individually controllable units for light emission , and the relevant internal brightness setpoint value being the sum of the weighted external brightness setpoint values, each of the plurality of individually controllable units for light emission being controlled by the control unit in accordance with the relevant established internal brightness setpoint value, characterized in that the weighting factors are summarized in the form of a weighting matrix and stored in the control unit of the luminaire . the luminaire further comprising a control unit , a plurality of external brightness setpoint values being transmitted to the control unit of the luminaire and received by the control unit , and a relevant internal brightness setpoint value being established by the control device for each of the individually controllable units for light emission , in each case on the basis of all received external brightness setpoint values, taking into account associated weighting factors of the relevant individually controllable unit, each received external brightness setpoint value being multiplied by a relevant associated weighting factor (m ij ) of the associated weighting factors to establish the relevant internal brightness setpoint value for each of the individually controllable units for light emission , and the relevant internal brightness setpoint value being the sum of the weighted external brightness setpoint values, each of the plurality of individually controllable units for light emission being controlled by the control unit in accordance with the relevant established internal brightness setpoint value, characterized in that the weighting factors are summarized in the form of a weighting matrix and stored in the control unit of the luminaire .
A device (100; 200, 400) for measuring power of an alternating current (AC) with respect to a selected frequency, comprising: a frequency detector having a first oscillator to generate a local reference signal to detect a fundamental frequency of the AC; and a power analyzer to analyze power of the AC, the power analyzer comprising: a second oscillator to receive from the frequency detector a signal indicating the detected fundamental frequency of the AC and generate first and second substantially mutually orthogonal sinusoid signals at the selected frequency using the signal indicating the detected fundamental frequency of the AC; a first group of multipliers for mixing the first and second sinusoid signals with a current data signal and a voltage data signal of the AC respectively; a group of low-pass filters for respectively removing high frequency components from a multiplication product of the first group of multipliers; a second group of multipliers for respectively mixing the filtered multiplication products; and a plurality of adders each to sum together a pair of multiplication products of the second group of multipliers. a frequency detector having a first oscillator to generate a local reference signal to detect a fundamental frequency of the AC; and a power analyzer to analyze power of the AC, the power analyzer comprising: a second oscillator to receive from the frequency detector a signal indicating the detected fundamental frequency of the AC and generate first and second substantially mutually orthogonal sinusoid signals at the selected frequency using the signal indicating the detected fundamental frequency of the AC; a first group of multipliers for mixing the first and second sinusoid signals with a current data signal and a voltage data signal of the AC respectively; a group of low-pass filters for respectively removing high frequency components from a multiplication product of the first group of multipliers; a second group of multipliers for respectively mixing the filtered multiplication products; and a plurality of adders each to sum together a pair of multiplication products of the second group of multipliers. a second oscillator to receive from the frequency detector a signal indicating the detected fundamental frequency of the AC and generate first and second substantially mutually orthogonal sinusoid signals at the selected frequency using the signal indicating the detected fundamental frequency of the AC; a first group of multipliers for mixing the first and second sinusoid signals with a current data signal and a voltage data signal of the AC respectively; a group of low-pass filters for respectively removing high frequency components from a multiplication product of the first group of multipliers; a second group of multipliers for respectively mixing the filtered multiplication products; and a plurality of adders each to sum together a pair of multiplication products of the second group of multipliers.
Premix gas burner comprising, - a metal mounting plate ; - a mixing chamber ; - a porous burner deck enclosing the mixing chamber and onto which combustion is stabilized after premix gas has flown from the mixing chamber through the porous burner deck; and - a plate structure comprising a plurality of perforations , wherein the plate structure is provided in the mixing chamber for flow of premix gas through the perforations of the plate structure before the premix gas flows through the porous burner deck; wherein the plate structure comprises a convex shape; wherein the circumference of the porous burner deck has the shape of a rectangle of which the two short sides have been rounded; wherein the plate structure has along its length an elongated section and two end caps , wherein each of the end caps is provided at an end of the elongated section; characterized in that the plate structure is provided via cutting and folding of a metal plate into the convex shape of the plate structure; wherein the elongated section of the plate structure comprises at least one groove created by deep drawing, wherein the at least one groove is provided on the crest line of the plate structure; and wherein the at least one groove is convex in the same direction as the plate structure; wherein in each of the two end caps two edges of the metal plate join parallel to the length direction of the elongated section in order to form the end caps. - a metal mounting plate ; - a mixing chamber ; - a porous burner deck enclosing the mixing chamber and onto which combustion is stabilized after premix gas has flown from the mixing chamber through the porous burner deck; and - a plate structure comprising a plurality of perforations , wherein the plate structure is provided in the mixing chamber for flow of premix gas through the perforations of the plate structure before the premix gas flows through the porous burner deck; wherein the plate structure comprises a convex shape; wherein the circumference of the porous burner deck has the shape of a rectangle of which the two short sides have been rounded; wherein the plate structure has along its length an elongated section and two end caps , wherein each of the end caps is provided at an end of the elongated section; characterized in that the plate structure is provided via cutting and folding of a metal plate into the convex shape of the plate structure; wherein the elongated section of the plate structure comprises at least one groove created by deep drawing, wherein the at least one groove is provided on the crest line of the plate structure; and wherein the at least one groove is convex in the same direction as the plate structure; wherein in each of the two end caps two edges of the metal plate join parallel to the length direction of the elongated section in order to form the end caps.