mhurhangee/patent-ind-claim-en huggingface dataset:
Method for managing, by a computer system on board a motor vehicle, the operation of a vehicle driving assistance device, the method comprising the steps of: i) determining data characterizing an identifier of a driver of the vehicle and data characterizing, for each of the traffic lanes of a set of traffic lanes used by the vehicle, the type of traffic lane; ii) determining, once it is established that the absolute value of the instantaneous rate of change of the acceleration of the vehicle is non-zero, data characterizing, for each traffic lane of the set of traffic lanes used by the vehicle, at least one extreme value relating to the kinematics of the vehicle on the traffic lane; iii) feeding a deep learning module with data characterizing, for each traffic lane of a set of traffic lanes used by the vehicle, the type of traffic lane and with data characterizing, for each traffic lane of the set of traffic lanes used by the vehicle, at least one extreme value relating to the kinematics of the vehicle on the traffic lane in order to generate data characterizing, for each type of traffic lane, an estimate of at least one extreme value relating to the kinematics of the vehicle; and iv) managing the operation of the driving assistance equipment based on data characterizing an identifier of a driver of the vehicle, data characterizing the type of traffic lane used by the vehicle at the current time and data characterizing, for each type of traffic lane, an estimate of an extreme value relating to the kinematics of the vehicle. i) determining data characterizing an identifier of a driver of the vehicle and data characterizing, for each of the traffic lanes of a set of traffic lanes used by the vehicle, the type of traffic lane; ii) determining, once it is established that the absolute value of the instantaneous rate of change of the acceleration of the vehicle is non-zero, data characterizing, for each traffic lane of the set of traffic lanes used by the vehicle, at least one extreme value relating to the kinematics of the vehicle on the traffic lane; iii) feeding a deep learning module with data characterizing, for each traffic lane of a set of traffic lanes used by the vehicle, the type of traffic lane and with data characterizing, for each traffic lane of the set of traffic lanes used by the vehicle, at least one extreme value relating to the kinematics of the vehicle on the traffic lane in order to generate data characterizing, for each type of traffic lane, an estimate of at least one extreme value relating to the kinematics of the vehicle; and iv) managing the operation of the driving assistance equipment based on data characterizing an identifier of a driver of the vehicle, data characterizing the type of traffic lane used by the vehicle at the current time and data characterizing, for each type of traffic lane, an estimate of an extreme value relating to the kinematics of the vehicle.
A terminal device , comprising: a display unit having a display screen , the display unit configured to display images on the display screen ; an outer case configured to receive the display unit ; a first light sensing unit located below the display unit and configured to sense incident light transmitted through the display screen ; a second light sensing unit moveably held to a first position inside the outer case responsive to deactivation of the second light sensing unit and moveably held to a second position outside the outer case responsive to activation of the second light sensing unit ; and a timing control module , configured to control a timing sequence in operating the first light sensing unit and the display unit , control the first light sensing unit to sense light intensity or capture one or more than one images while the display screen is turned off, and control the display unit to resume displaying the images after the first light sensing unit completes in light sensing or image capturing. a display unit having a display screen , the display unit configured to display images on the display screen ; an outer case configured to receive the display unit ; a first light sensing unit located below the display unit and configured to sense incident light transmitted through the display screen ; a second light sensing unit moveably held to a first position inside the outer case responsive to deactivation of the second light sensing unit and moveably held to a second position outside the outer case responsive to activation of the second light sensing unit ; and a timing control module , configured to control a timing sequence in operating the first light sensing unit and the display unit , control the first light sensing unit to sense light intensity or capture one or more than one images while the display screen is turned off, and control the display unit to resume displaying the images after the first light sensing unit completes in light sensing or image capturing.
A medical device comprising at least one acellular biological matrix covered in whole or in part by at least one layer comprising at least one polymer, characterized in that the acellular biological matrix has been prepared prior to polymer coating, so as to allow the adhesion of a polymer solution, by chemical and/or mechanical and/or electrochemical and/or physical surface treatment.
A head mounted display (HMD) device comprising: a camera unit configured to sense an image of surroundings located in front of the HMD device; an image processing unit configured to detect a reference object from the sensed image of the surroundings; an eye gaze detection unit configured to detect an eye gaze direction in which a user gazes at the detected reference object; and a controller configured to perform eye gaze calibration based on the detected reference object and the detected eye gaze direction, wherein the image processing unit is configured to detect at least one object contained in the sensed image of the surroundings as a first object, the at least one object being a real object (11-1, 11-2) contained in the surroundings, detect a hand of the user contained in the sensed image of the surroundings as a second object, detect an event of the second object with respect to the first object, and decide the first object, on which the event has been detected, as the reference object, and wherein the controller is configured to; set a virtual line linking a pupil of the user to the reference object and calculate an intersection point (24- 2) between the virtual line and the HMD, and decide a position of digital information to be displayed on the HMD based on the calculated position of the intersection point. a camera unit configured to sense an image of surroundings located in front of the HMD device; an image processing unit configured to detect a reference object from the sensed image of the surroundings; an eye gaze detection unit configured to detect an eye gaze direction in which a user gazes at the detected reference object; and a controller configured to perform eye gaze calibration based on the detected reference object and the detected eye gaze direction, wherein the image processing unit is configured to detect at least one object contained in the sensed image of the surroundings as a first object, the at least one object being a real object (11-1, 11-2) contained in the surroundings, detect a hand of the user contained in the sensed image of the surroundings as a second object, detect an event of the second object with respect to the first object, and decide the first object, on which the event has been detected, as the reference object, and wherein the controller is configured to; set a virtual line linking a pupil of the user to the reference object and calculate an intersection point (24- 2) between the virtual line and the HMD, and decide a position of digital information to be displayed on the HMD based on the calculated position of the intersection point.
Egg inspection device comprising a sampling device by means of which a liquid sample to be taken can be extracted from a respective egg of a rack loaded with eggs, a feeding device for feeding the rack loaded with eggs to the sampling device , and a control unit by means of which the feeding device and the sampling device can be controlled, characterized in that the feeding device is configured such that it feeds the rack to the sampling device at an oblique angle of between 20° and 80° to a plane perpendicular to the direction of gravity; and the egg inspection device further comprises a lifting-out device , by means of which the egg can be lifted out of the rack and by means of which the egg can be brought into a sampling position, in which it can be pierced oblique to its axis of rotation and the amount of liquid to be taken can be extracted from the egg by means of the sampling device , wherein the lifting-out device can be controlled by means of the control unit .
A positioning device for arranging and orienting a plurality of fastening elements on a base layer of a main body of an orthopedic device, comprising a first holder having at least one receiving device for a fastening element , and a second holder having at least one receiving device for a fastening element , wherein the first holder and the second holder are mounted on each other so as to be pivotable about a pivot axis about a limited angle range proceeding from a starting position wherein the holders are mounted pivotably on a central piece and that a fixing device for the orientation of the positioning device on the main body is arranged in or on the central piece .
A shoe sole comprising: a rubber component containing at least one of a natural rubber and an isoprene rubber; a crosslinked ethylene-based polymer; and 1,2-polybutadiene, wherein the content of the 1,2-polybutadiene is 3 to 60 parts by mass with respect to 100 parts by mass of the rubber component, and wherein the ethylene-based polymer has been added as a crosslinked ethylene-based polymer. a rubber component containing at least one of a natural rubber and an isoprene rubber; a crosslinked ethylene-based polymer; and 1,2-polybutadiene, wherein the content of the 1,2-polybutadiene is 3 to 60 parts by mass with respect to 100 parts by mass of the rubber component, and wherein the ethylene-based polymer has been added as a crosslinked ethylene-based polymer.
A catalyst for glycerin dehydration, comprising a physically mixed mixture of a metal sulfate and a zeolite, wherein the metal sulfate and the zeolite are included at a weight ratio of 1:3 to 10:1, wherein the metal sulfate includes two kinds of sulfates containing different metals at a weight ratio of 1:1 to 1:5, wherein the metal sulfate includes one or more selected from the group consisting of CuSO4, Fe2(SO4)3, ZnSO4, CaSO4, and CoSO4 and the zeolite includes one or more selected from the group consisting of β-zeolite and ZSM-5.
A method of manufacturing a tire tread comprising: extruding a rubber strip (S); conveying the rubber strip (S) to a roller die that rotates about a roller die axis; applying the rubber strip (S) from the roller die onto a drum (130; 200; 300) that rotates about a drum axis, wherein the drum axis is substantially parallel to the roller die axis; translating the roller die in a first direction parallel to the roller die axis while applying the rubber strip (S), thereby forming a spiral of the rubber strip (S) about the drum (130; 200; 300); and varying a rotation speed of at least one of the roller die and the drum (130; 200; 300) while translating the roller die , thereby creating positive or negative stretch in the rubber strip (S) such that peaks and valleys are formed in the spiral of the rubber strip (S) about the drum (130; 200; 300). extruding a rubber strip (S); conveying the rubber strip (S) to a roller die that rotates about a roller die axis; applying the rubber strip (S) from the roller die onto a drum (130; 200; 300) that rotates about a drum axis, wherein the drum axis is substantially parallel to the roller die axis; translating the roller die in a first direction parallel to the roller die axis while applying the rubber strip (S), thereby forming a spiral of the rubber strip (S) about the drum (130; 200; 300); and varying a rotation speed of at least one of the roller die and the drum (130; 200; 300) while translating the roller die , thereby creating positive or negative stretch in the rubber strip (S) such that peaks and valleys are formed in the spiral of the rubber strip (S) about the drum (130; 200; 300).
An idling control apparatus for a vehicle, comprising: an engine ; and a motor , both of the engine and the motor being mutually linked with each other, and the idling control apparatus performing an idling revolution speed control to maintain an engine speed (Ne) at a predetermined target idling speed during an idling drive and being arranged to enable a switching between an engine idling mode in which the idling revolution speed control through the engine is carried out and a motor idling mode in which the idling revolution speed control through the motor is carried out, characterized in that the idling control apparatus is arranged to more largely retard a firing timing of the engine in the motor idling mode with respect to the firing timing of the engine in the engine idling mode, during the idling drive in a predetermined engine cold state. an engine ; and a motor , both of the engine and the motor being mutually linked with each other, and the idling control apparatus performing an idling revolution speed control to maintain an engine speed (Ne) at a predetermined target idling speed during an idling drive and being arranged to enable a switching between an engine idling mode in which the idling revolution speed control through the engine is carried out and a motor idling mode in which the idling revolution speed control through the motor is carried out, characterized in that the idling control apparatus is arranged to more largely retard a firing timing of the engine in the motor idling mode with respect to the firing timing of the engine in the engine idling mode, during the idling drive in a predetermined engine cold state.
Drive device comprising at least one clutch and a shaft, wherein the clutch is configured as a dog clutch, wherein a clamping region for clampingly connecting to the shaft is integrated in the clutch, wherein the clamping region can be actuated by means of a screw , wherein the clamping region has a through-slot through which there is made a stepped bore oriented through the clamping region , wherein the stepped bore has, on the side of the slot facing away from the step, a threaded portion into which the screw is screwed at least in part, characterised in that - the range of motion of the screw is limited by a pin , which in particular is inserted at least in part into an opening of the clamping region and limits the range of motion of the screw in the screw-axis direction of said screw , - and/or wherein the spatial region covered by the screw when the screw is actuated, in particular the spatial region covered overall when the screw moves, is limited in the screw-axis direction of the screw by means of a pin inserted at least in part into an opening of the clamping region , wherein a limiting part is interlockingly connected to the clamping region on both sides of the slot . wherein the clutch is configured as a dog clutch, wherein a clamping region for clampingly connecting to the shaft is integrated in the clutch, wherein the clamping region can be actuated by means of a screw , wherein the clamping region has a through-slot through which there is made a stepped bore oriented through the clamping region , wherein the stepped bore has, on the side of the slot facing away from the step, a threaded portion into which the screw is screwed at least in part, - the range of motion of the screw is limited by a pin , which in particular is inserted at least in part into an opening of the clamping region and limits the range of motion of the screw in the screw-axis direction of said screw , - and/or wherein the spatial region covered by the screw when the screw is actuated, in particular the spatial region covered overall when the screw moves, is limited in the screw-axis direction of the screw by means of a pin inserted at least in part into an opening of the clamping region ,
An image forming apparatus configured to base printing on a side of a sheet (P) followed by overprinting on the same side of the sheet (P), comprising: a conveyance section configured to convey the sheet (P) in a first conveyance direction during base printing and to convey the sheet in a second conveyance direction after base printing, wherein the second conveyance direction is the reverse of the first conveyance direction; and a distortion correction section disposed on an upstream side of a transfer nip of the image forming apparatus in the first conveyance direction and configured to correct distortion of the sheet that was generated as the sheet passed through a fixing nip of the image forming apparatus during base printing, as the sheet is conveyed by the conveyance section in the second conveyance direction through the distortion correction section, and wherein the distortion correction section is further configured to control the conveyance section to convey the sheet in the first conveyance direction for overprinting after conveying the sheet in the second direction. a conveyance section configured to convey the sheet (P) in a first conveyance direction during base printing and to convey the sheet in a second conveyance direction after base printing, wherein the second conveyance direction is the reverse of the first conveyance direction; and a distortion correction section disposed on an upstream side of a transfer nip of the image forming apparatus in the first conveyance direction and configured to correct distortion of the sheet that was generated as the sheet passed through a fixing nip of the image forming apparatus during base printing, as the sheet is conveyed by the conveyance section in the second conveyance direction through the distortion correction section, and wherein the distortion correction section is further configured to control the conveyance section to convey the sheet in the first conveyance direction for overprinting after conveying the sheet in the second direction.
A protective circuit for an inverter, with the inverter comprising a control system and a power element controlled by the control system, with the control system being embodied for issuing control signals to the power element, and with the control system being embodied for the periodic issuance of a control pulse (WD1, WD2), the protective circuit comprising: a safety element , a switching arrangement , and a control circuit , wherein: the safety element is arranged in a feed line to the power element, the switching arrangement is switched to the safety element such that the switching arrangement bridges the safety element into a switched-through state, the control switch comprises a control input , at which the control pulse (WD1, WD2) is applied, and the control circuit is configured such that the control circuit , upon receipt of a control pulse (WD1, WD2) or several successive control pulses (WD1, WD2) emits for a predetermined period of time a switching signal to the switching arrangement , causing the switching arrangement to switch through when periodically receiving the control pulse (WD1, WD2) and when the control pulse (WD1, WD2) is missing, the switching arrangement opens after a predetermined period, and a safety of the inverter is triggered by the safety element . a safety element , a switching arrangement , and a control circuit , wherein: the safety element is arranged in a feed line to the power element, the switching arrangement is switched to the safety element such that the switching arrangement bridges the safety element into a switched-through state, the control switch comprises a control input , at which the control pulse (WD1, WD2) is applied, and the control circuit is configured such that the control circuit , upon receipt of a control pulse (WD1, WD2) or several successive control pulses (WD1, WD2) emits for a predetermined period of time a switching signal to the switching arrangement , causing the switching arrangement to switch through when periodically receiving the control pulse (WD1, WD2) and when the control pulse (WD1, WD2) is missing, the switching arrangement opens after a predetermined period, and a safety of the inverter is triggered by the safety element . the safety element is arranged in a feed line to the power element, the switching arrangement is switched to the safety element such that the switching arrangement bridges the safety element into a switched-through state, the control switch comprises a control input , at which the control pulse (WD1, WD2) is applied, and the control circuit is configured such that the control circuit , upon receipt of a control pulse (WD1, WD2) or several successive control pulses (WD1, WD2) emits for a predetermined period of time a switching signal to the switching arrangement , causing the switching arrangement to switch through when periodically receiving the control pulse (WD1, WD2) and when the control pulse (WD1, WD2) is missing, the switching arrangement opens after a predetermined period, and a safety of the inverter is triggered by the safety element .
A method for producing nanoparticles containing tacrolimus or a salt thereof comprising the steps of: a) providing a solution of tacrolimus or a salt thereof in an organic solvent; b) providing a liquid non-solvent for tacrolimus or a salt thereof; c) precipitating nanoparticles containing tacrolimus or a salt thereof by colliding a stream of the organic solvent from a) with the non-solvent stream from b); and d) isolating the nanoparticles, wherein the nanoparticles have a size of from 10 to 400 nm, and preferably a polydispersity index of ≤ 0.4. a) providing a solution of tacrolimus or a salt thereof in an organic solvent; b) providing a liquid non-solvent for tacrolimus or a salt thereof; c) precipitating nanoparticles containing tacrolimus or a salt thereof by colliding a stream of the organic solvent from a) with the non-solvent stream from b); and d) isolating the nanoparticles, wherein the nanoparticles have a size of from 10 to 400 nm, and preferably a polydispersity index of ≤ 0.4.