mhurhangee/patent-ind-claim-en huggingface dataset:
A method of characterizing an inertial measurement unit comprising a block carrying at least one accelerometer having a sensing axis positioned on an axis of a measurement reference frame (Rm) and having at least one inertial angular sensor arranged to determine the orientation of the measurement reference frame relative to an inertial reference frame, the method comprising the steps of: . keeping the inertial measurement unit centered on a point that is stationary relative to the ground and that is in a predetermined environment, in order to obtain accelerometer signals that are images of at least one component of the specific force vector in the measurement reference frame and also angular signals that are images of at least one component of the instantaneous rotation of the measurement reference frame relative to an inertial reference frame; . processing the signals in order to obtain data representative of projecting the specific force vector into the inertial reference frame after compensating the projection for the rotation of the Earth about the measurement axis of the inertial angular sensor; and . calculating Allan variance on the data and comparing it with reference data. . keeping the inertial measurement unit centered on a point that is stationary relative to the ground and that is in a predetermined environment, in order to obtain accelerometer signals that are images of at least one component of the specific force vector in the measurement reference frame and also angular signals that are images of at least one component of the instantaneous rotation of the measurement reference frame relative to an inertial reference frame; . processing the signals in order to obtain data representative of projecting the specific force vector into the inertial reference frame after compensating the projection for the rotation of the Earth about the measurement axis of the inertial angular sensor; and . calculating Allan variance on the data and comparing it with reference data.
A heat-resistant hose for a vehicle, comprising: an inner layer; and an outer layer directly formed on an outer peripheral surface of the inner layer, wherein the inner layer comprises a fluorine-based rubber composition containing the following components (a) to (e) and being free of a benzenediol: (a) a fluorine-based rubber; (b) a polyol-based vulcanizing agent; (c) an organic onium compound as polyol-based vulcanization accelerator; (d) magnesium oxide; and (e) calcium hydroxide, and wherein the outer layer comprises an acrylic rubber composition containing the following components (A) to (C): (A) an acrylic rubber; (B) a benzenediol; and (C) at least one of an imidazole compound and a diamine-based vulcanizing agent. an inner layer; and an outer layer directly formed on an outer peripheral surface of the inner layer, wherein the inner layer comprises a fluorine-based rubber composition containing the following components (a) to (e) and being free of a benzenediol: (a) a fluorine-based rubber; (b) a polyol-based vulcanizing agent; (c) an organic onium compound as polyol-based vulcanization accelerator; (d) magnesium oxide; and (e) calcium hydroxide, and (a) a fluorine-based rubber; (b) a polyol-based vulcanizing agent; (c) an organic onium compound as polyol-based vulcanization accelerator; (d) magnesium oxide; and (e) calcium hydroxide, and wherein the outer layer comprises an acrylic rubber composition containing the following components (A) to (C): (A) an acrylic rubber; (B) a benzenediol; and (C) at least one of an imidazole compound and a diamine-based vulcanizing agent. (A) an acrylic rubber; (B) a benzenediol; and (C) at least one of an imidazole compound and a diamine-based vulcanizing agent.
Method (M) for producing a one-piece seat shell from a fibre composite mat for use in a seat , comprising: heating (M1) the fibre composite mat to a shaping temperature, pressing (M2) the heated fibre composite mat , in a single working pass of a shaping tool , into a planar shaped part curved in accordance with a formation of the seat shell , and joining (M3) a mounting element to the shaped part to mount the seat shell on the seat , the shaped part being contour-die-cut from the fibre composite mat and pressed into shape in the working pass, the fibre composite mat being formed as a one-piece, flexible, planar textile formation comprising a plastics material component having a melting point below the shaping temperature, and characterised in that , following the pressing, the mounting element is joined to the shaped part in a material connection by ultrasound welding. heating (M1) the fibre composite mat to a shaping temperature, pressing (M2) the heated fibre composite mat , in a single working pass of a shaping tool , into a planar shaped part curved in accordance with a formation of the seat shell , and joining (M3) a mounting element to the shaped part to mount the seat shell on the seat , the shaped part being contour-die-cut from the fibre composite mat and pressed into shape in the working pass, the fibre composite mat being formed as a one-piece, flexible, planar textile formation comprising a plastics material component having a melting point below the shaping temperature, and characterised in that , following the pressing, the mounting element is joined to the shaped part in a material connection by ultrasound welding.
A method for producing a RIG-I agonist, comprising the steps of (a) preparing a first polyribonucleotide with 21-300 nucleotides in length, which polyribonucleotide starts at the 5' end with a sequence selected from 5'-gbucndnwnnnnnnnnwnsnn-3' (SEQ ID NO: 12), 5'-gucuadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 13), 5'-guagudnwnnnnnnnnwnsnn-3' (SEQ ID NO: 14), 5'-gguaadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 15), 5'-ggcagdnwnnnnnnnnwnsnn-3' (SEQ ID NO: 16), 5'-gcuucdnwnnnnnnnnwnsnn-3' (SEQ ID NO: 17), 5'-gcccadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 18), and 5'-gcgcudnwnnnnnnnnwnsnn-3' (SEQ ID NO: 19); (b) preparing a second polyribonucleotide with 21-300 nucleotides in length which is at least 80% complementary to the first polyribonucleotide of step (a) over the whole length of the first polyribonucleotide of step (a), and which, if annealed to the first polyribonucleotide of step (a), exhibits a 3' overhang of at most 2 nucleotides, more preferably at most 1 nucleotide, and most preferably forms a blunt end with the 5' end of the polyribonucleotide of step (a); and (c) annealing the first polyribonucleotide of step (a) with the second polyribonucleotide of step (b), thereby obtaining a RIG-I agonist. (a) preparing a first polyribonucleotide with 21-300 nucleotides in length, which polyribonucleotide starts at the 5' end with a sequence selected from 5'-gbucndnwnnnnnnnnwnsnn-3' (SEQ ID NO: 12), 5'-gucuadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 13), 5'-guagudnwnnnnnnnnwnsnn-3' (SEQ ID NO: 14), 5'-gguaadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 15), 5'-ggcagdnwnnnnnnnnwnsnn-3' (SEQ ID NO: 16), 5'-gcuucdnwnnnnnnnnwnsnn-3' (SEQ ID NO: 17), 5'-gcccadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 18), and 5'-gcgcudnwnnnnnnnnwnsnn-3' (SEQ ID NO: 19); 5'-gbucndnwnnnnnnnnwnsnn-3' (SEQ ID NO: 12), 5'-gucuadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 13), 5'-guagudnwnnnnnnnnwnsnn-3' (SEQ ID NO: 14), 5'-gguaadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 15), 5'-ggcagdnwnnnnnnnnwnsnn-3' (SEQ ID NO: 16), 5'-gcuucdnwnnnnnnnnwnsnn-3' (SEQ ID NO: 17), 5'-gcccadnwnnnnnnnnwnsnn-3' (SEQ ID NO: 18), and 5'-gcgcudnwnnnnnnnnwnsnn-3' (SEQ ID NO: 19); (b) preparing a second polyribonucleotide with 21-300 nucleotides in length which is at least 80% complementary to the first polyribonucleotide of step (a) over the whole length of the first polyribonucleotide of step (a), and which, if annealed to the first polyribonucleotide of step (a), exhibits a 3' overhang of at most 2 nucleotides, more preferably at most 1 nucleotide, and most preferably forms a blunt end with the 5' end of the polyribonucleotide of step (a); and (c) annealing the first polyribonucleotide of step (a) with the second polyribonucleotide of step (b), thereby obtaining a RIG-I agonist.
A process for purifying a feedstock, the process comprising the steps of; a) providing a feedstock, b) adding to the feedstock phosphoric acid or sulphuric acid forming a separate phase with impurities present in the feedstock, i) adjusting the water content of the feedstock in step b) to 0.05 wt% - 10 wt%, c) heating the admixture b) to a temperature of 200°C - 280°C, d) optionally removing water, e) removing the separated phase from the heat treated feedstock to obtain a purified feedstock. a) providing a feedstock, b) adding to the feedstock phosphoric acid or sulphuric acid forming a separate phase with impurities present in the feedstock, i) adjusting the water content of the feedstock in step b) to 0.05 wt% - 10 wt%, i) adjusting the water content of the feedstock in step b) to 0.05 wt% - 10 wt%, c) heating the admixture b) to a temperature of 200°C - 280°C, d) optionally removing water, e) removing the separated phase from the heat treated feedstock to obtain a purified feedstock.
A method performed by a control unit for handling safe stop mode of a vehicle in autonomous mode, whereby the method comprises: obtaining , from an inside input device being activated by a user, wherein the inside input device is located inside the vehicle , an activation request for activating the safe stop mode, wherein the vehicle cannot perform autonomous driving when the safe stop mode is activated, and wherein the autonomous mode is enabled at the same time as the safe stop mode is activated; when the activation request has been obtained, verifying that all safety conditions of the vehicle are fulfilled, wherein the fulfilled safety conditions indicates that the vehicle cannot move; activating the safe stop mode when the activation request has been obtained and when all safety conditions are fulfilled, wherein the activating the safe stop mode comprises disconnection of communication between the vehicle and an autonomous system comprised in the vehicle; triggering at least one light source located on the outside of the vehicle to be turned on when all safety conditions are fulfilled; after the safe stop mode has been activated, obtaining , from an outside input device being activated by the user, an inactivation request for inactivating the safe stop mode of the vehicle , wherein the outside input device is located on the outside of the vehicle ; and inactivating the safe stop mode of the vehicle when the inactivation request has been obtained, wherein the vehicle can perform autonomous driving when the safe stop mode is inactivated. obtaining , from an inside input device being activated by a user, wherein the inside input device is located inside the vehicle , an activation request for activating the safe stop mode, wherein the vehicle cannot perform autonomous driving when the safe stop mode is activated, and wherein the autonomous mode is enabled at the same time as the safe stop mode is activated; when the activation request has been obtained, verifying that all safety conditions of the vehicle are fulfilled, wherein the fulfilled safety conditions indicates that the vehicle cannot move; activating the safe stop mode when the activation request has been obtained and when all safety conditions are fulfilled, wherein the activating the safe stop mode comprises disconnection of communication between the vehicle and an autonomous system comprised in the vehicle; triggering at least one light source located on the outside of the vehicle to be turned on when all safety conditions are fulfilled; after the safe stop mode has been activated, obtaining , from an outside input device being activated by the user, an inactivation request for inactivating the safe stop mode of the vehicle , wherein the outside input device is located on the outside of the vehicle ; and inactivating the safe stop mode of the vehicle when the inactivation request has been obtained, wherein the vehicle can perform autonomous driving when the safe stop mode is inactivated.
Method for controlling a half-bridge having a first switching device for connecting a connection to a first potential and a second switching device for connecting the connection to a second potential , wherein the method comprises the following steps: - outputting a close signal for the first switching device while the second switching device is open; - determining a latency between the beginning of the close signal and a dip in a voltage applied across the first switching device , wherein a voltage is ascertained metrologically by means of a first comparator via the first switching device and is evaluated by means of a timer , - characterized by - determining a time at which the first switching device is intended to be closed; and - outputting a close signal to the first switching device at the determined time minus the determined latency; - wherein the time corresponds to an opening of the second switching device in order to minimize a dead time between the opening of the second switching device and a closing of the first switching device based on the determined latency; - wherein latencies for each switching device are ascertained individually during operation of the half-bridge . - outputting a close signal for the first switching device while the second switching device is open; - determining a latency between the beginning of the close signal and a dip in a voltage applied across the first switching device , wherein a voltage is ascertained metrologically by means of a first comparator via the first switching device and is evaluated by means of a timer , - characterized by - determining a time at which the first switching device is intended to be closed; and - outputting a close signal to the first switching device at the determined time minus the determined latency; - wherein the time corresponds to an opening of the second switching device in order to minimize a dead time between the opening of the second switching device and a closing of the first switching device based on the determined latency; - wherein latencies for each switching device are ascertained individually during operation of the half-bridge .
An intraoral force module configured for moving the relative positions of upper and lower dental arches, the force module comprising: an upper arch module having a outer end segment and coupled to a helical compression spring coaxial with at least a portion of said upper arch module , the upper arch module having a length; a lower arch module connected to the upper arch module at a pivot link and pivotally movable about a facial-lingual reference axis relative to the upper arch module , a portion of the lower arch module extending to a distal end coupling along a portion of the length of the upper arch module when the force module is in a nearly fully compressed configuration; and a rotatable first connector connected to the distal end coupling of the lower arch module , wherein the rotatable first connector includes a first arcuate channel , the first arcuate channel defining a limit on the rotation for the lower arch module in an arc that is in the range of 20 degrees to 70 degrees, wherein the lower arch module is movable in the arc relative to the first connector about a first axis that is generally parallel to the facial-lingual reference axis, and wherein the first connector is rotatable between a first orientation and a second orientation. an upper arch module having a outer end segment and coupled to a helical compression spring coaxial with at least a portion of said upper arch module , the upper arch module having a length; a lower arch module connected to the upper arch module at a pivot link and pivotally movable about a facial-lingual reference axis relative to the upper arch module , a portion of the lower arch module extending to a distal end coupling along a portion of the length of the upper arch module when the force module is in a nearly fully compressed configuration; and a rotatable first connector connected to the distal end coupling of the lower arch module , wherein the rotatable first connector includes a first arcuate channel , the first arcuate channel defining a limit on the rotation for the lower arch module in an arc that is in the range of 20 degrees to 70 degrees, wherein the lower arch module is movable in the arc relative to the first connector about a first axis that is generally parallel to the facial-lingual reference axis, and wherein the first connector is rotatable between a first orientation and a second orientation.
A composition comprising an amount of a MASP-3 inhibitory agent effective to inhibit MASP-3-dependent complement activation for use for treating a subject suffering from, or at risk for developing age-related macular degeneration, wherein said MASP-3 inhibitory agent is a MASP-3 monoclonal antibody, or fragment thereof, that specifically binds to a portion of human MASP-3 (SEQ ID NO:8) and inhibits factor D maturation.
A computer-implemented method for identifying a malicious user, comprising: obtaining , with at least one processor, a plurality of service requests for a service provided by a processing system , wherein the plurality of service requests is associated with a requesting user and a requesting system ; providing, with at least one processor, the plurality of service requests to the processing system ; receiving, with at least one processor, from the processing system , a plurality of service responses associated with the plurality of service requests, wherein each service response of the plurality of service responses includes response data associated with an acceptance or a denial of the service at the processing system inserted as a transaction status header value in a HyperText Transfer Protocol, HTTP, response of that service response, wherein the HTTP response is of the type HTTP 200 OK success status response code; and identifying , with at least one processor, the requesting user as malicious based on the plurality of service requests and the plurality of service responses; wherein the service provided by the processing system includes a transaction authorization service, and wherein the plurality of service requests includes a plurality of transaction authorization service requests associated with a plurality of transactions between the requesting user and the requesting system . obtaining , with at least one processor, a plurality of service requests for a service provided by a processing system , wherein the plurality of service requests is associated with a requesting user and a requesting system ; providing, with at least one processor, the plurality of service requests to the processing system ; receiving, with at least one processor, from the processing system , a plurality of service responses associated with the plurality of service requests, wherein each service response of the plurality of service responses includes response data associated with an acceptance or a denial of the service at the processing system inserted as a transaction status header value in a HyperText Transfer Protocol, HTTP, response of that service response, wherein the HTTP response is of the type HTTP 200 OK success status response code; and identifying , with at least one processor, the requesting user as malicious based on the plurality of service requests and the plurality of service responses; wherein the service provided by the processing system includes a transaction authorization service, and wherein the plurality of service requests includes a plurality of transaction authorization service requests associated with a plurality of transactions between the requesting user and the requesting system .
Device for ascertaining a vehicle acceleration specification for a vehicle during operation of a plurality of different automated driving functions in a vehicle ; wherein the device is configured, for a specific point in time - on the basis of a plurality of controllers for the plurality of driving functions, to ascertain a corresponding plurality of function-specific acceleration specifications ; and - to ascertain the vehicle acceleration specification for automated guidance of the vehicle at the specific point in time on the basis of the plurality of function-specific acceleration specifications ; characterized in that the device is configured - to provide feedback with respect to the ascertained vehicle acceleration specification to at least a part of the plurality of controllers ; wherein the feedback is taken into consideration by the part of the plurality of controllers in the ascertainment of the respective function-specific acceleration specification for a subsequent point in time. - on the basis of a plurality of controllers for the plurality of driving functions, to ascertain a corresponding plurality of function-specific acceleration specifications ; and - to ascertain the vehicle acceleration specification for automated guidance of the vehicle at the specific point in time on the basis of the plurality of function-specific acceleration specifications ; - to provide feedback with respect to the ascertained vehicle acceleration specification to at least a part of the plurality of controllers ; wherein the feedback is taken into consideration by the part of the plurality of controllers in the ascertainment of the respective function-specific acceleration specification for a subsequent point in time.