mhurhangee/patent-ind-claim-en huggingface dataset:
A submarine vessel provided with a hull device reversibly fastened on an outer surface of a structure of the submarine vessel , the structure being made from a ferromagnetic material , the hull device comprising at least one attachment surface able to allow the attachment of the hull device to the structure , the attachment surface being deposed nearby the structure , characterized in that the hull device includes a plurality of permanent magnets arranged in the vicinity of the attachment surface in order to attach the hull device to the structure , and wherein the magnets are positioned in a grid on the attachment surface , each magnet being adjacent to or in the vicinity of at least one closest neighbor, each magnet having a polarity, the polarity of each magnet being oriented in the direction opposite the polarity of its at least one closest neighbor, wherein the hull device comprises a tile of elastomer material intended to form a coating for at least part of the hull . characterized in that the hull device includes a plurality of permanent magnets arranged in the vicinity of the attachment surface in order to attach the hull device to the structure , and wherein the magnets are positioned in a grid on the attachment surface , each magnet being adjacent to or in the vicinity of at least one closest neighbor, each magnet having a polarity, the polarity of each magnet being oriented in the direction opposite the polarity of its at least one closest neighbor, wherein the hull device comprises a tile of elastomer material intended to form a coating for at least part of the hull .
A method for producing a metal sheet by use of a rolling mill including at least two roll stands (S1-S6), the metal sheet including, on an upper surface or a lower surface, one or more raised lines extending in a rolling direction, the method comprising: a preparing step of preparing a grooved roll , the grooved roll including, in an outer peripheral surface, one or more grooves extending in a circumferential direction; a choosing step of choosing a roll stand (S1-S5) at least one stage before a last roll stand (S6), from the roll stands (S1-S6); an incorporating step of incorporating the grooved roll in the rolling mill as an upper roll or a lower roll of the chosen, specified roll stand (S1-S6); and a forming step of rolling a workpiece by the rolling mill incorporating the grooved roll , thereby forming the workpiece into a metal sheet with raised lines formed corresponding to the respective grooves of the grooved roll , characterised in that in the forming step, until a leading edge of the workpiece reaches a roll stand (S2-S6) next to the specified roll stand (S1-S5), a maximum rolling reduction achieved by rolls of the specified roll stand (S1-S5) is set to a provisional value that is less than a required value, and immediately after the leading edge of the workpiece reaches the roll stand (S2-S5) next to the specified roll stand (S1-S5), the maximum rolling reduction achieved by the rolls of the specified roll stand (S1-S5) is changed to the required value; and the roll stand (S2-S6) next to the specified roll stand (S1-S5) is a non-rolling-performing stand for conveyance. a preparing step of preparing a grooved roll , the grooved roll including, in an outer peripheral surface, one or more grooves extending in a circumferential direction; a choosing step of choosing a roll stand (S1-S5) at least one stage before a last roll stand (S6), from the roll stands (S1-S6); an incorporating step of incorporating the grooved roll in the rolling mill as an upper roll or a lower roll of the chosen, specified roll stand (S1-S6); and a forming step of rolling a workpiece by the rolling mill incorporating the grooved roll , thereby forming the workpiece into a metal sheet with raised lines formed corresponding to the respective grooves of the grooved roll , characterised in that in the forming step, until a leading edge of the workpiece reaches a roll stand (S2-S6) next to the specified roll stand (S1-S5), a maximum rolling reduction achieved by rolls of the specified roll stand (S1-S5) is set to a provisional value that is less than a required value, and immediately after the leading edge of the workpiece reaches the roll stand (S2-S5) next to the specified roll stand (S1-S5), the maximum rolling reduction achieved by the rolls of the specified roll stand (S1-S5) is changed to the required value; and
A chiller system comprising: - a compressor configured to circulate a refrigerant between an evaporator and a condenser in a closed refrigerant loop; - a synchronous motor configured to drive the compressor , the motor comprising a stator winding and a rotor ; and - a controller configured to provide a control signal to the motor based on an estimated flux linkage, wherein the controller is configured to estimate the flux linkage of the rotor by: - applying a voltage of the stator winding to a transfer function comprising an S-domain integration operation and an error correction variable; characterized by - using a first value of the error correction variable in the transfer function to obtain convergence of the flux linkage over an initial motor starting interval; and - updating the transfer function to replace the first value of the error correction variable with a second value of the error correction variable after the initial motor starting interval to reduce a flux linkage estimation error resulting from the error correction variable. - a compressor configured to circulate a refrigerant between an evaporator and a condenser in a closed refrigerant loop; - a synchronous motor configured to drive the compressor , the motor comprising a stator winding and a rotor ; and - a controller configured to provide a control signal to the motor based on an estimated flux linkage, wherein the controller is configured to estimate the flux linkage of the rotor by: - applying a voltage of the stator winding to a transfer function comprising an S-domain integration operation and an error correction variable; characterized by - using a first value of the error correction variable in the transfer function to obtain convergence of the flux linkage over an initial motor starting interval; and - updating the transfer function to replace the first value of the error correction variable with a second value of the error correction variable after the initial motor starting interval to reduce a flux linkage estimation error resulting from the error correction variable. - applying a voltage of the stator winding to a transfer function comprising an S-domain integration operation and an error correction variable; - using a first value of the error correction variable in the transfer function to obtain convergence of the flux linkage over an initial motor starting interval; and - updating the transfer function to replace the first value of the error correction variable with a second value of the error correction variable after the initial motor starting interval to reduce a flux linkage estimation error resulting from the error correction variable.
Method for producing a ceramic-metal-connection that is repeatedly subjected to large thermic cycles during use, in which metal and ceramic are brazed to one another two-dimensionally, characterized in that metal and ceramic are arranged against one another in a controlled manner by pressing the metal-ceramic parts against one another with a ram prior to substantial softening of the brazing solder and positioning the ram in a displacement-controlled manner on softening of the brazing solder so as to achieve the controlled arrangement of metal and ceramic against one another. by pressing the metal-ceramic parts against one another with a ram prior to substantial softening of the brazing solder pressing the metal-ceramic parts against one another with a ram prior to substantial softening of the brazing solder and positioning the ram in a displacement-controlled manner on softening of the brazing solder so as to achieve the controlled arrangement of metal and ceramic against one another. positioning the ram in a displacement-controlled manner on softening of the brazing solder so as to achieve the controlled arrangement of metal and ceramic against one another.
An isolated human monoclonal antibody or antigen-binding fragment thereof that binds specifically to the cat allergen Fel d1, wherein: the antibody or antigen-binding fragment comprises: (i) a HCVR having an amino acid sequence of SEQ ID NO: 306; and (ii) a LCVR having an amino acid sequence of SEQ ID NO: 314; and wherein the antibody or antigen-binding fragment is an isotype other than an IgA isotype. the antibody or antigen-binding fragment comprises: (i) a HCVR having an amino acid sequence of SEQ ID NO: 306; and (ii) a LCVR having an amino acid sequence of SEQ ID NO: 314; and wherein the antibody or antigen-binding fragment is an isotype other than an IgA isotype.
A method for controlling an automotive internal combustion engine having direct fuel injection, with the method comprising a fuel adaption part in which a fuel quality parameter (F) is determined using a first fuel quality parameter determination procedure when the engine exhibits predetermined operation conditions, wherein the first fuel quality parameter determination procedure determines the fuel quality parameter (F) from a delay of ignition (DOI), being computed as a difference between start of injection (SOI) and start of combustion (SOC) and determines a target value (aT) for MFB50 from the fuel quality parameter (F) and engine speed and load, wherein MFB50 is a time of crank angle at which half of fuel mass injected into a combustion chamber has been converted, and a control part performing a closed-loop control of the start of injection (SOI) at the engine based on the target value (aT) for MFB50 being a function of engine speed and load, with the closed-loop control determining an actual value (aA) of MFB50 from a measured pressure within the combustion chamber. a fuel adaption part in which a fuel quality parameter (F) is determined using a first fuel quality parameter determination procedure when the engine exhibits predetermined operation conditions, wherein the first fuel quality parameter determination procedure determines the fuel quality parameter (F) from a delay of ignition (DOI), being computed as a difference between start of injection (SOI) and start of combustion (SOC) and determines a target value (aT) for MFB50 from the fuel quality parameter (F) and engine speed and load, wherein MFB50 is a time of crank angle at which half of fuel mass injected into a combustion chamber has been converted, and a control part performing a closed-loop control of the start of injection (SOI) at the engine based on the target value (aT) for MFB50 being a function of engine speed and load, with the closed-loop control determining an actual value (aA) of MFB50 from a measured pressure within the combustion chamber.
An additive mixture consisting of at least one thiobis phenolic antioxidant and at least one polyalkylene glycol (PAG) of a weight average molecular weight of at least 1,000; wherein the mixture is a dry blend.
Method for the preparation of a mixture of glaze for a glazing plant, said glaze mixture comprising selected doses of high density virgin glaze, additives and dilution liquid, said virgin glaze and additives being provided on request by a dosing unit (D), said method being characterized by including: - dosing components of said glaze and dilution liquid mixture in a dosing and measuring vessel provided in said glazing plant, and checking the density and composition of said mixture to keep it within tolerances prescribed for its use by drawing suitable quantities of virgin glaze, additives or dilution liquid; - periodically drawing amounts of said glaze mixture having workable density by a feeding vessel provided in said glazing plant and connected to said dosing and measuring vessel , so as to keep a quantity of glaze mixture greater than a minimum operating value inside said feeding vessel ; - taking said glaze mixture having workable density from the feeding vessel to feed a glaze applicator assembly located in at least one glazing chamber provided in said glazing plant; - recovering supplied and non-applied glaze mixture from bottom of the glazing chamber , and re-introduction thereof in circulation upstream of said dosing and measuring vessel . - dosing components of said glaze and dilution liquid mixture in a dosing and measuring vessel provided in said glazing plant, and checking the density and composition of said mixture to keep it within tolerances prescribed for its use by drawing suitable quantities of virgin glaze, additives or dilution liquid; - periodically drawing amounts of said glaze mixture having workable density by a feeding vessel provided in said glazing plant and connected to said dosing and measuring vessel , so as to keep a quantity of glaze mixture greater than a minimum operating value inside said feeding vessel ; - taking said glaze mixture having workable density from the feeding vessel to feed a glaze applicator assembly located in at least one glazing chamber provided in said glazing plant; - recovering supplied and non-applied glaze mixture from bottom of the glazing chamber , and re-introduction thereof in circulation upstream of said dosing and measuring vessel .
A method for an ultrasonic time-of-flight flow meter , comprising: driving an ultrasonic transducer using a first waveform ( V 1 ) for a first duration ( Δt 1 ), the first waveform configured to cause oscillation of the ultrasonic transducer, wherein the first waveform has a frequency spectrum in which a majority of the power is within one or more bandwidths (δ f 1 , δf 2 , δ f 3 ) corresponding to respective resonances ( f 1 , f 2 , f 3 ) of the ultrasonic transducer, driving the ultrasonic transducer using a second waveform ( V 2 ) for a second duration ( Δt 2 ), wherein there is a discontinuity between the first waveform and the second waveform, characterized in that the second waveform and the second duration are configured to maintain a voltage across the ultrasonic transducer within a predetermined range ( V L , V H ); wherein the second waveform has a frequency spectrum in which a majority of the power is at frequencies outside the one or more bandwidths corresponding to respective resonances of the ultrasonic transducer. driving an ultrasonic transducer using a first waveform ( V 1 ) for a first duration ( Δt 1 ), the first waveform configured to cause oscillation of the ultrasonic transducer, wherein the first waveform has a frequency spectrum in which a majority of the power is within one or more bandwidths (δ f 1 , δf 2 , δ f 3 ) corresponding to respective resonances ( f 1 , f 2 , f 3 ) of the ultrasonic transducer, driving the ultrasonic transducer using a second waveform ( V 2 ) for a second duration ( Δt 2 ), wherein there is a discontinuity between the first waveform and the second waveform, characterized in that the second waveform and the second duration are configured to maintain a voltage across the ultrasonic transducer within a predetermined range ( V L , V H ); wherein the second waveform has a frequency spectrum in which a majority of the power is at frequencies outside the one or more bandwidths corresponding to respective resonances of the ultrasonic transducer.
A computer implemented method for modeling brain function, the computer performing steps comprising: a) receiving functional neuroimaging data and experimental electrophysiology data for one or more brain regions of interest of a subject; b) fitting the functional neuroimaging data to a dynamic causal model; c) calculating neural inter-regional and intra-regional connectivity strength estimates from the dynamic causal model; d) generating a biophysics model that simulates synthetic electrophysiology data from the inter-regional and intra-regional connectivity strength estimates; e) comparing the synthetic electrophysiology data to the experimental electrophysiology data; f) adjusting the biophysical model iteratively until model convergence is reached with the experimental electrophysiology data; and g) displaying information regarding the modeling of brain function. a) receiving functional neuroimaging data and experimental electrophysiology data for one or more brain regions of interest of a subject; b) fitting the functional neuroimaging data to a dynamic causal model; c) calculating neural inter-regional and intra-regional connectivity strength estimates from the dynamic causal model; d) generating a biophysics model that simulates synthetic electrophysiology data from the inter-regional and intra-regional connectivity strength estimates; e) comparing the synthetic electrophysiology data to the experimental electrophysiology data; f) adjusting the biophysical model iteratively until model convergence is reached with the experimental electrophysiology data; and g) displaying information regarding the modeling of brain function.
A method for generating a plurality of ranging sound signals for positioning a mobile device, comprising: mixing, by a mixing device, a synchronization signal with a content audio signal, where the content audio signal is for driving a plurality of speakers connected in series to an audio signal cable to reproduce the content audio signal; transmitting the mixed signal on the audio signal cable; separating the synchronization signal and the content audio signal from each other, where the synchronization signal is transmitted to a plurality of ranging signal generating devices connected to the audio signal cable and located at different positions in an area, and the content audio signal is transmitted to the plurality of speakers; generating (S203), by each of the plurality of ranging signal generating devices, an electric ranging sound signal based on the synchronization signal transmitted on the audio signal cable; converting, by the ranging signal generating devices or by respective ones of the plurality of speakers connected to the respective ranging signal generating devices, the respective electric ranging sound signals into respective acoustic signals and broadcasting the respective acoustic signals to the mobile device, such that a location of the mobile device within the area can be obtained (S207) based on records (S205) of the acoustic signals made by the mobile device. mixing, by a mixing device, a synchronization signal with a content audio signal, where the content audio signal is for driving a plurality of speakers connected in series to an audio signal cable to reproduce the content audio signal; transmitting the mixed signal on the audio signal cable; separating the synchronization signal and the content audio signal from each other, where the synchronization signal is transmitted to a plurality of ranging signal generating devices connected to the audio signal cable and located at different positions in an area, and the content audio signal is transmitted to the plurality of speakers; generating (S203), by each of the plurality of ranging signal generating devices, an electric ranging sound signal based on the synchronization signal transmitted on the audio signal cable; converting, by the ranging signal generating devices or by respective ones of the plurality of speakers connected to the respective ranging signal generating devices, the respective electric ranging sound signals into respective acoustic signals and broadcasting the respective acoustic signals to the mobile device, such that a location of the mobile device within the area can be obtained (S207) based on records (S205) of the acoustic signals made by the mobile device.
A process for the preparation of a solid catalyst component for the (co)polymerization of olefins CH 2 =CHR, in which R is hydrogen or hydrocarbyl radical with 1-12 carbon atoms, comprising a Ti compound, a Bi compound and optionally an electron donor on a Mg chloride based support, said process comprising one or more steps (a) carried out at a temperature ranging from 0 to 150°C in which a Mg based compound of formula (M g Cl m X 2-m )·nLB, in which m ranges from 0 to 2, n ranges from 0 to 6, X is, independently R 1 , OR 1 , -OCOR 1 or O-C(O)-OR 1 group in which R 1 is a C 1 -C 20 hydrocarbon group and LB is a Lewis base, is reacted with a liquid medium comprising a Ti compound having at least a Ti-Cl bond in an amount such that the Ti/Mg molar ratio is greater than 3; said process being characterized by the fact that in at least one of said steps (a) a Bi compound is dissolved or dispersed in said liquid medium comprising the titanium compound.
A method for generating a downlink frame including a plurality of synchronization channel symbol durations in an orthogonal frequency division multiplexing, OFDM, based system, the method, comprising: generating a synchronization pattern by a combination of a first code and a second code; and allocating the synchronization pattern to a frequency domain of each of the synchronization channel symbol durations, wherein a cell group number is determined based on the combination of the first code and the second code, and the cell group number is not determined based on only one of the first code and the second code, and wherein the synchronization pattern included in a first synchronization channel symbol duration among the synchronization channel symbol durations is different from the synchronization pattern included in a second synchronization channel symbol duration among the synchronization channel symbol durations. generating a synchronization pattern by a combination of a first code and a second code; and allocating the synchronization pattern to a frequency domain of each of the synchronization channel symbol durations, wherein a cell group number is determined based on the combination of the first code and the second code, and the cell group number is not determined based on only one of the first code and the second code, and wherein the synchronization pattern included in a first synchronization channel symbol duration among the synchronization channel symbol durations is different from the synchronization pattern included in a second synchronization channel symbol duration among the synchronization channel symbol durations.