mhurhangee/patent-ind-claim-en huggingface dataset:
System for deploying and recovering an autonomous underwater craft by a recovery vehicle towed by a surface ship , the system including the ship and the recovery vehicle , the towing being ensured by a towing cable connecting the recovery vehicle to the ship , the system being configured so that when not in use the underwater craft is stored in a housing of the recovery vehicle and the recovery vehicle is stored out of water in the ship , the recovery vehicle having, along its length, two opposite ends, including an end for receiving the autonomous underwater craft , providing access to the housing, the system being configured to allow the deployment to be performed in two stages, a first stage of submersing the recovery vehicle with the underwater craft stored in said recovery vehicle, a second stage of releasing the underwater craft by bringing the latter out of the housing of the submersed recovery vehicle once the towed recovery vehicle at a determined distance away from the ship , the system being configured to allow the recovery to be made in two phases, a first phase of entry of the underwater craft , through the receiving end , into the housing of the submersed towed recovery vehicle , a second phase of loading the towed recovery vehicle on board the ship , with the underwater craft stored in said recovery vehicle , the ship comprising a launch ramp , which is tilting, and the system being configured to store the recovery vehicle on the launch ramp , the launch ramp having a longitudinal extent and two longitudinal ends, a front end on the ship bow side and a rear end on the ship stern side, said tilting launch ramp being able to take at least two positions: a raised position in which the stored recovery vehicle is out of water, said raised launch ramp being above the waterline of the ship , and an inclined position in which the rear end of the launch ramp is immersed, the system including a translational device enabling the recovery vehicle , in the inclined position of the launch ramp , to move along the launch ramp to be submersed and be able to move away from the ship while being towed by the latter during the deployment and to be raised along the launch ramp during the recovery, and in that the rear end of the launch ramp comprises buoyancy means allowing said launch ramp in the inclined position to beat as a function of the water height at the buoyancy means, characterized in that the ship is a catamaran whose shell has two parallel lateral hulls , separated by an intermediate link area located above the waterline, and in that the system is further configured so that, in the raised position, the launch ramp is out of water and forms part of the intermediate link area , and in that the launch ramp comprises at least one beat damper intended to damp the beats due to the wave impact on the inclined launch ramp, the lower face of the launch ramp comprising a material that damps the wave impact on the inclined launch ramp, said material being a porous double-skin absorbing the wave impact.
A computer implemented method for generating a final corrected head-related, HR, filter dataset, , the method comprising: obtaining a first corrected HR filter dataset, H I ′ , wherein the obtaining comprises: obtaining (s802) an initial HR filter dataset, ; obtaining (s804) an extracted HR filter dataset, , extracted from the initial HR filter dataset, ; obtaining (s806) a model, , of the extracted HR filter dataset, ; generating (s808) a modelled HR filter dataset, , using the model, ; selecting (s810) for correction one or more HR filters that are included in the initial HR filter dataset, , based on the modelled HR filter dataset, , and the extracted HR filter dataset, ; and generating (s812) the first corrected HR filter dataset, H I ′ by correcting the selected one or more HR filters, wherein the method further comprises generating the final corrected HR filter set using the first corrected HR filter dataset H I ′ , or the final corrected HR filter dataset is the first corrected HR filter dataset H I ′ . obtaining a first corrected HR filter dataset, H I ′ , wherein the obtaining comprises: obtaining (s802) an initial HR filter dataset, ; obtaining (s804) an extracted HR filter dataset, , extracted from the initial HR filter dataset, ; obtaining (s806) a model, , of the extracted HR filter dataset, ; generating (s808) a modelled HR filter dataset, , using the model, ; selecting (s810) for correction one or more HR filters that are included in the initial HR filter dataset, , based on the modelled HR filter dataset, , and the extracted HR filter dataset, ; and generating (s812) the first corrected HR filter dataset, H I ′ by correcting the selected one or more HR filters, wherein obtaining (s802) an initial HR filter dataset, ; obtaining (s804) an extracted HR filter dataset, , extracted from the initial HR filter dataset, ; obtaining (s806) a model, , of the extracted HR filter dataset, ; generating (s808) a modelled HR filter dataset, , using the model, ; selecting (s810) for correction one or more HR filters that are included in the initial HR filter dataset, , based on the modelled HR filter dataset, , and the extracted HR filter dataset, ; and generating (s812) the first corrected HR filter dataset, H I ′ by correcting the selected one or more HR filters, wherein the method further comprises generating the final corrected HR filter set using the first corrected HR filter dataset H I ′ , or the final corrected HR filter dataset is the first corrected HR filter dataset H I ′ .
An unsaturated double bond-containing compound represented by the following general formula (II): wherein R 5 represents a hydrogen atom or a methyl group, R 6 represents any of a hydroxy group, a (meth)acryloyloxy group, a styryloxy group, and an alkenyloxy group having 2 to 5 carbon atoms.
An adhesive composition comprising: a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm) of 45°C or higher and 50°C or less as measured using a differential scanning calorimetry (DSC), wherein the polymer is a copolymer of a monofunctional polysiloxane and one type of monomer, wherein the polymer having a melting temperature of 45°C or higher and 50°C or less comprises, based on 100 parts by weight of the polymer having a melting temperature of 45°C or higher and 50°C or less, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the monomer in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight, and wherein the monomer is represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R1 is hydrogen or a methyl group; and n is an integer of 10 to 30. a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm) of 45°C or higher and 50°C or less as measured using a differential scanning calorimetry (DSC), wherein the polymer is a copolymer of a monofunctional polysiloxane and one type of monomer, wherein the polymer having a melting temperature of 45°C or higher and 50°C or less comprises, based on 100 parts by weight of the polymer having a melting temperature of 45°C or higher and 50°C or less, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the monomer in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight, and wherein the monomer is represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R1 is hydrogen or a methyl group; and n is an integer of 10 to 30.
A heat exchanger comprising: a plurality of first fluid channels defining a flow path for a first fluid; a first fractal channel for conveying the first fluid to the plurality of first fluid channels; and a second fractal channel for conveying the first fluid from the plurality of first fluid channels; wherein the first fractal channel and the second fractal channel each comprises a parent channel , a plurality of sub-channels and at least one divergence point along its length where the parent channel splits into the plurality of sub-channels which diverge away from each other, and characterised in that one or each of the first fractal channel and the second fractal channel defines one or more through-channels for a second fluid to pass through the respective fractal channel, each through-channel extending from a parent channel side of the at least one divergence point and emerging between the corresponding sub-channels on a sub-channel side of the at least one the divergence point . a plurality of first fluid channels defining a flow path for a first fluid; a first fractal channel for conveying the first fluid to the plurality of first fluid channels; and a second fractal channel for conveying the first fluid from the plurality of first fluid channels; wherein the first fractal channel and the second fractal channel each comprises a parent channel , a plurality of sub-channels and at least one divergence point along its length where the parent channel splits into the plurality of sub-channels which diverge away from each other, and characterised in that one or each of the first fractal channel and the second fractal channel defines one or more through-channels for a second fluid to pass through the respective fractal channel, each through-channel extending from a parent channel side of the at least one divergence point and emerging between the corresponding sub-channels on a sub-channel side of the at least one the divergence point .
A jaw assembly for use with a clip applier device , comprising: a metal frame having a proximal portion and a distal portion with first and second jaws having opposed inward facing surfaces , each inward facing surface having at least one protrusion formed thereon; and a first outer housing overmolded around the first jaw and a second housing overmolded around the second jaw , the first and second housings including opposed inward facing surfaces , wherein each inward facing surface of the outer housings has a clip track formed therein and extending longitudinally therealong for seating a clip therein, wherein the at least one protrusion on each of the first and second jaws is configured to extend through the inward facing surface of the first and second housings , respectively, such that the at least one protrusion on each of the first and second jaws is configured to contact a clip seated in the clip track . a metal frame having a proximal portion and a distal portion with first and second jaws having opposed inward facing surfaces , each inward facing surface having at least one protrusion formed thereon; and a first outer housing overmolded around the first jaw and a second housing overmolded around the second jaw , the first and second housings including opposed inward facing surfaces , wherein each inward facing surface of the outer housings has a clip track formed therein and extending longitudinally therealong for seating a clip therein, wherein the at least one protrusion on each of the first and second jaws is configured to extend through the inward facing surface of the first and second housings , respectively, such that the at least one protrusion on each of the first and second jaws is configured to contact a clip seated in the clip track .
A regulation system (REG) for regulating a physical parameter (y) of a real system F(p) of a turbomachine from a physical parameter set point (yc), the regulation system (REG) having a response time and comprising: - a corrector comprising a correction function C1(p) and a parameterization gain K, - a theoretical inverse transfer function F -1 (p) of the real system F(p), and - a system for optimizing (OPTK) the parameterization gain K during regulation, the optimization system (OPTK) being characterized by : i. a stability correction module configured to determine a first gain constant K1, with a positive value, upon detecting an instability of the regulation system (REG) upon regulating the physical parameter (y), ii. a module for correcting the response time of the regulation system (REG), configured to determine a second gain constant K2, with a negative value, upon detecting a delay upon regulating the physical parameter (y), the stability correction module being configured to inhibit the response time correction module upon detecting an instability (TopIS) upon regulating the physical parameter (y), and iii. a determination module configured to determine the parameterization gain K as a function of the first gain component K1 and second gain component K2 previously determined. - a corrector comprising a correction function C1(p) and a parameterization gain K, - a theoretical inverse transfer function F -1 (p) of the real system F(p), and - a system for optimizing (OPTK) the parameterization gain K during regulation, the optimization system (OPTK) being characterized by : i. a stability correction module configured to determine a first gain constant K1, with a positive value, upon detecting an instability of the regulation system (REG) upon regulating the physical parameter (y), ii. a module for correcting the response time of the regulation system (REG), configured to determine a second gain constant K2, with a negative value, upon detecting a delay upon regulating the physical parameter (y), the stability correction module being configured to inhibit the response time correction module upon detecting an instability (TopIS) upon regulating the physical parameter (y), and iii. a determination module configured to determine the parameterization gain K as a function of the first gain component K1 and second gain component K2 previously determined. i. a stability correction module configured to determine a first gain constant K1, with a positive value, upon detecting an instability of the regulation system (REG) upon regulating the physical parameter (y), ii. a module for correcting the response time of the regulation system (REG), configured to determine a second gain constant K2, with a negative value, upon detecting a delay upon regulating the physical parameter (y), the stability correction module being configured to inhibit the response time correction module upon detecting an instability (TopIS) upon regulating the physical parameter (y), and iii. a determination module configured to determine the parameterization gain K as a function of the first gain component K1 and second gain component K2 previously determined.
Method for determining the position of a vehicle, wherein - high-accuracy localization data are ascertained for positions of the vehicle (F) while travelling on a route, the high-accuracy localization data being ascertained by means of a digital map of the surroundings and sensor detection of landmarks entered in the digital map of the surroundings; - odometrical measured variables for the on-vehicle odometry of the vehicle (F) are measured while travelling on the route; - the ascertained high-accuracy localization data and the measured odometrical measured variables are collectively evaluated ; - characterized in that the on-vehicle odometry is continually corrected on the basis of the evaluation while high-accuracy localization data can be ascertained; and - the corrected on-vehicle odometry is used to determine the position of the vehicle in regions in which high-accuracy localization data cannot be ascertained. - high-accuracy localization data are ascertained for positions of the vehicle (F) while travelling on a route, the high-accuracy localization data being ascertained by means of a digital map of the surroundings and sensor detection of landmarks entered in the digital map of the surroundings; - odometrical measured variables for the on-vehicle odometry of the vehicle (F) are measured while travelling on the route; - the ascertained high-accuracy localization data and the measured odometrical measured variables are collectively evaluated ; - characterized in that the on-vehicle odometry is continually corrected on the basis of the evaluation while high-accuracy localization data can be ascertained; and - the corrected on-vehicle odometry is used to determine the position of the vehicle in regions in which high-accuracy localization data cannot be ascertained.
Method of manufacturing a board-shaped material with a thickness swelling which, according to DIN 317, is less than 5% relative to the original board thickness, comprising lignocellulosic fibers obtained from plants by chemical or physical methods, and binders and filler, wherein melamine resin, formaldehyde resin, phenolic resin, methylene diphenyl isocyanate (MDI), also in emulsified form as eMDI, polymeric diphenylmethane diisocyanate (PMDI), polyurethane or mixtures of the aforementioned binders are used as binders and wherein the proportion of the binder and the filler is more than 50 % by weight of the board-shaped material , comprising the steps of a. Providing lignocellulosic fibers , b. Providing the binder, preferably in liquid form, c. Providing the filler, d. Applying of the binder and the filler to the fibers , e. Forming a fiber cake from the fibers provided with binder and filler , f. Pressing of the fiber cake in a press while curing of the binder to manufacture a board-shaped material with a thickness of 3 mm to 80 mm and a density of between 1,000 kg/m 3 and 1,800 kg/m 3 . a. Providing lignocellulosic fibers , b. Providing the binder, preferably in liquid form, c. Providing the filler, d. Applying of the binder and the filler to the fibers , e. Forming a fiber cake from the fibers provided with binder and filler , f. Pressing of the fiber cake in a press while curing of the binder to manufacture a board-shaped material with a thickness of 3 mm to 80 mm and a density of between 1,000 kg/m 3 and 1,800 kg/m 3 .
A photocurable composition comprising: (A) a compound having an unsaturated double bond; (B) at least one compound represented by general formula ; (C) a sensitizer; and (D) at least one compound selected from the group consisting of a metal salt and a metal complex, wherein said at least one compound is selected from cobalt-based compounds, manganese-based compounds, lead-based compounds, copper-based compounds, iron-based compounds, calcium-based compounds, and vanadium (4+) acetylacetone, where R 1 and R 2 are each independently a substituent containing at least one group selected from the group consisting of a nitro group, a cyano group, a hydroxy group, an acetyl group, a carbonyl group, a substituted or unsubstituted allyl group, a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkoxy group, an unsubstituted or substituted aryl group, an unsubstituted or substituted aryloxy group, a heterocyclic ring structure-containing group, and a group having a plurality of rings; or R 1 and R 2 are bonded to each other to form a cyclic structure with carbon atoms to which the groups are bonded. (A) a compound having an unsaturated double bond; (B) at least one compound represented by general formula ; (C) a sensitizer; and (D) at least one compound selected from the group consisting of a metal salt and a metal complex, wherein said at least one compound is selected from cobalt-based compounds, manganese-based compounds, lead-based compounds, copper-based compounds, iron-based compounds, calcium-based compounds, and vanadium (4+) acetylacetone, where R 1 and R 2 are each independently a substituent containing at least one group selected from the group consisting of a nitro group, a cyano group, a hydroxy group, an acetyl group, a carbonyl group, a substituted or unsubstituted allyl group, a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkoxy group, an unsubstituted or substituted aryl group, an unsubstituted or substituted aryloxy group, a heterocyclic ring structure-containing group, and a group having a plurality of rings; or R 1 and R 2 are bonded to each other to form a cyclic structure with carbon atoms to which the groups are bonded.
A method for balancing a battery pack comprising a plurality of battery cells connected in series and providing an output battery voltage (V B ), said method comprises the steps of: - initiating a process of balancing said battery pack depending on the distribution of energy between said battery cells ; - feeding a relatively low current (i 1 ) not exceeding approximately 300 mA through a resistor being arranged in series with said battery pack , and feeding said relatively low current (i1) to said battery pack during said balancing; - measuring the voltage across said resistor , thereby obtaining a value of said current (ii); - controlling the magnitude of said relatively low current so as to be adapted to compensate for a loss of electric charge in said battery cells during said cell balancing, whereby a battery cell voltage drop of said battery cells is limited during the cell balancing; and - terminating the step of feeding said relatively low current (ii) when said balancing process is terminated. - initiating a process of balancing said battery pack depending on the distribution of energy between said battery cells ; - feeding a relatively low current (i 1 ) not exceeding approximately 300 mA through a resistor being arranged in series with said battery pack , and feeding said relatively low current (i1) to said battery pack during said balancing; - measuring the voltage across said resistor , thereby obtaining a value of said current (ii); - controlling the magnitude of said relatively low current so as to be adapted to compensate for a loss of electric charge in said battery cells during said cell balancing, whereby a battery cell voltage drop of said battery cells is limited during the cell balancing; and - terminating the step of feeding said relatively low current (ii) when said balancing process is terminated.
Luminous module for a motor vehicle comprising at least: - one light source capable of emitting light rays, - optical deflection elements mounted to be movable in rotation about a first rotation axis , and arranged so as to deflect said light rays to form a light beam, - an actuator capable of displacing the optical element in rotation about the first rotation axis , said module being configured to be also movable in rotation about a second rotation axis distinct from the first rotation axis , - a support cooperating with the optical deflection elements and bearing the light source , characterized in that said second rotation axis is defined at least partly by two aligned protuberances projecting from the support , configured to cooperate with coaxial bearings . - one light source capable of emitting light rays, - optical deflection elements mounted to be movable in rotation about a first rotation axis , and arranged so as to deflect said light rays to form a light beam, - an actuator capable of displacing the optical element in rotation about the first rotation axis , said module being configured to be also movable in rotation about a second rotation axis distinct from the first rotation axis , - a support cooperating with the optical deflection elements and bearing the light source , characterized in that said second rotation axis is defined at least partly by two aligned protuberances projecting from the support , configured to cooperate with coaxial bearings .