mhurhangee/patent-ind-claim-en huggingface dataset:
A three-dimensional reconstruction method of reconstructing a three-dimensional model from multi-view images captured by a plurality of cameras with different viewpoints, the method comprising: selecting (S2300) two frames from the multi-view images; calculating a capturing time of each of the two frames; selecting a method of calculating corresponding keypoints in the two frames; and calculating (S3100, S3200) the corresponding keypoints using the method of calculating corresponding keypoints selected in the selecting of the method of calculating corresponding keypoints; characterized by the method of calculating the corresponding keypoints being selected according to the capturing times, wherein the corresponding keypoints are calculated using different methods depending on whether the capturing times are the same, wherein, when the two frames have the same capturing time, the corresponding keypoints in entire regions of the two frames are calculated (S3130), and when the two frames do not have the same capturing time, each of the two frames is divided (S3140) into a plurality of regions each having a motion vector, regions having the same motion vector, with a magnitude smaller than a threshold value, in the two frames are identified, and the corresponding keypoints only in the identified regions are calculated (S3140), using feature vectors of the keypoints; and reconstructing (S3150) the three-dimensional model based on the calculated corresponding keypoints selecting (S2300) two frames from the multi-view images; calculating a capturing time of each of the two frames; selecting a method of calculating corresponding keypoints in the two frames; and calculating (S3100, S3200) the corresponding keypoints using the method of calculating corresponding keypoints selected in the selecting of the method of calculating corresponding keypoints; characterized by the method of calculating the corresponding keypoints being selected according to the capturing times, wherein the corresponding keypoints are calculated using different methods depending on whether the capturing times are the same, wherein, when the two frames have the same capturing time, the corresponding keypoints in entire regions of the two frames are calculated (S3130), and when the two frames do not have the same capturing time, each of the two frames is divided (S3140) into a plurality of regions each having a motion vector, regions having the same motion vector, with a magnitude smaller than a threshold value, in the two frames are identified, and the corresponding keypoints only in the identified regions are calculated (S3140), using feature vectors of the keypoints; and each of the two frames is divided (S3140) into a plurality of regions each having a motion vector, regions having the same motion vector, with a magnitude smaller than a threshold value, in the two frames are identified, and the corresponding keypoints only in the identified regions are calculated (S3140), using feature vectors of the keypoints; and reconstructing (S3150) the three-dimensional model based on the calculated corresponding keypoints
A sealing resin composition comprising: an epoxy resin; a curing agent; an inorganic filler; and rubber particles, wherein a toughness index of a cured product of the sealing resin composition at 25°C is equal to or more than 80 and equal to or less than 100, and a bending elastic modulus of the cured product of the sealing resin composition at 25°C is equal to or less than 12,000 MPa. MPa,wherein the toughness index and the bending elastic modulus are determined as indicated in the specification. an epoxy resin; a curing agent; an inorganic filler; and rubber particles, wherein a toughness index of a cured product of the sealing resin composition at 25°C is equal to or more than 80 and equal to or less than 100, and a bending elastic modulus of the cured product of the sealing resin composition at 25°C is equal to or less than 12,000 MPa. MPa,wherein the toughness index and the bending elastic modulus are determined as indicated in the specification.
An interchangeable structure of a LED lamp and a mercury lamp, comprising: a base device comprising opposed guiding rails and a bottom plate connected to the guiding rails ; a connector device provided at an end of the base device , the connector device comprising a power supply connector , an air pipe connector , and a water pipe connector ; and a LED lamp box body and a mercury lamp body that are slidably connected to the base device , respectively; wherein an inner end of the LED lamp box body is provided with a first power connector corresponding to and matching the power supply connector , and a nozzle connector corresponding to the water pipe connector ; an inner end of the mercury lamp body is provided with a second power connector corresponding to and matching the power supply connector , and an air intake port corresponding to the air pipe connector ; characterized in that the connector device further comprises a connector mounting plate fixedly connected to a first end of the guiding rails , and the power supply connector , the air pipe connector , and the water pipe connector are mounted on the connector mounting plate . a base device comprising opposed guiding rails and a bottom plate connected to the guiding rails ; a connector device provided at an end of the base device , the connector device comprising a power supply connector , an air pipe connector , and a water pipe connector ; and a LED lamp box body and a mercury lamp body that are slidably connected to the base device , respectively; wherein an inner end of the LED lamp box body is provided with a first power connector corresponding to and matching the power supply connector , and a nozzle connector corresponding to the water pipe connector ; an inner end of the mercury lamp body is provided with a second power connector corresponding to and matching the power supply connector , and an air intake port corresponding to the air pipe connector ; characterized in that the connector device further comprises a connector mounting plate fixedly connected to a first end of the guiding rails , and the power supply connector , the air pipe connector , and the water pipe connector are mounted on the connector mounting plate .
A tire, comprising a component prepared using a rubber composition, comprising a rubber component, a chemically modified microfibrillated cellulose, and carbon black, the chemically modified microfibrillated cellulose having a structure in which part of the hydroxyl hydrogen atoms of microfibrillated cellulose is replaced with a substituent represented by the following formula : -A-R 1 wherein R 1 represents a C3-C30 hydrocarbon group having at least one unsaturated bond, and A represents a carbonyl group (-CO-), and wherein the amount of the carbon black is 5 to 70 parts by mass per 100 parts by mass of the rubber component.
Pneumatic spring assembly for vehicles, in particular for rail vehicles, having a pneumatic spring, wherein at least one first tilting element is connected to the pneumatic spring , wherein the at least one first tilting element is embodied as a pivoted joint, and wherein the pivoted joint has at least one resilient return element, characterised in that a second tilting element , which is embodied as a tilting spring, is connected to the at least first tilting element , wherein the tilting spring is designed as an elastomer metal spring, which has arch-shaped intermediate plates with curvatures which increase in the direction of a longitudinal axis toward the pneumatic spring , and/or which has V-shaped intermediate plates with inclinations which increase in the direction of the longitudinal axis , toward the pneumatic spring , with respect to a first transverse axis , as a result of which the at least first tilting element is tilting opposite to the transverse movements of the pneumatic spring .
A method for producing a consolidated fiber preform intended for the manufacture of a part made of composite material, comprising the steps of: - shaping a fiber texture in a heated metal mold , the texture being pre-impregnated with a transient or fugitive material , or shaping a fiber texture in a metal mold and injecting a transient or fugitive material into the fiber texture held in shape in the metal mold, - cooling the mold, - removing the set fiber preform from the mold, - coating the fiber preform with a slurry containing a powder of ceramic or carbon particles, - heat-treating the coated fiber preform so as to form a porous shell around the fiber preform by consolidation of the slurry and so as to remove the transient or fugitive material present in the fiber preform, - consolidating the fiber preform by gas-phase chemical infiltration. - shaping a fiber texture in a heated metal mold , the texture being pre-impregnated with a transient or fugitive material , or shaping a fiber texture in a metal mold and injecting a transient or fugitive material into the fiber texture held in shape in the metal mold, - cooling the mold, - removing the set fiber preform from the mold, - coating the fiber preform with a slurry containing a powder of ceramic or carbon particles, - heat-treating the coated fiber preform so as to form a porous shell around the fiber preform by consolidation of the slurry and so as to remove the transient or fugitive material present in the fiber preform, - consolidating the fiber preform by gas-phase chemical infiltration.
A substrate for surface-enhanced Raman scattering, comprising: a support layer ; a plurality of metal nanoparticle clusters arranged on the support layer , each of the plurality of metal nanoparticle clusters comprising a plurality of conductive metal nanoparticles stacked in a three-dimensional structure; and a plurality of perforations formed by depositing the plurality of conductive metal nanoparticles on surfaces of a plurality of elements formed on the support layer and at least partially removing the plurality of the elements during a deposition operation of the metal nanoparticles and arranged among the plurality of metal nanoparticle clusters , wherein each of the plurality of perforations is configured such that incident light can be transmitted therethrough, wherein a mean diameter of the plurality of metal nanoparticles is 10 nm to 20 nm. a support layer ; a plurality of metal nanoparticle clusters arranged on the support layer , each of the plurality of metal nanoparticle clusters comprising a plurality of conductive metal nanoparticles stacked in a three-dimensional structure; and a plurality of perforations formed by depositing the plurality of conductive metal nanoparticles on surfaces of a plurality of elements formed on the support layer and at least partially removing the plurality of the elements during a deposition operation of the metal nanoparticles and arranged among the plurality of metal nanoparticle clusters , wherein each of the plurality of perforations is configured such that incident light can be transmitted therethrough, wherein a mean diameter of the plurality of metal nanoparticles is 10 nm to 20 nm.
A device for individually detecting animal parameters wherein the device comprises a sensor package with one or more sensors for the detection of animal parameters, wherein the device is attachable to the head and/or neck of an animal , wherein the sensor package comprises a pressure difference sensor and a sensor of the pressure difference sensor is attachable in at least one nostril of the animal, wherein the pressure difference sensor is preferably adapted to measure a relative pressure in a fluid flow of respiratory gases in the nose of the animal, characterized in that the sensor package further comprises a sensor for measuring a moisture content in the fluid flow and wherein conclusions about a condition of the animal can be derived from the detected animal parameters and/or different conditions of the animal can be displayed with a condition-specific marking on the device . the device comprises a sensor package with one or more sensors for the detection of animal parameters, wherein the device is attachable to the head and/or neck of an animal , wherein the sensor package comprises a pressure difference sensor and a sensor of the pressure difference sensor is attachable in at least one nostril of the animal, wherein the pressure difference sensor is preferably adapted to measure a relative pressure in a fluid flow of respiratory gases in the nose of the animal, characterized in that the sensor package further comprises a sensor for measuring a moisture content in the fluid flow and wherein conclusions about a condition of the animal can be derived from the detected animal parameters and/or different conditions of the animal can be displayed with a condition-specific marking on the device .
A method of assembling a connector for automotive applications, comprising the steps of: providing a cable having at least one inner conductor ; connecting at least one elongated inner signal contact of the connector to a stripped end of the at least one inner conductor ; surrounding the at least one elongated inner signal contact by an insulating element ; placing a first shielding part of the connector around a first portion of the insulating element from a first radial direction; placing a second shielding part of the connector around a second portion of the insulating element from a second radial direction generally opposite to the first radial direction; and joining the first and second shielding parts to form a shielding contact of the connector surrounding the insulating element , characterized in that the at least one elongated inner signal contact is connected to the stripped end of the at least one inner conductor by welding and in that at least one of the first and second shielding part is molded over by an electrically insulating material, wherein edges of the insulating material are formed on an outer side of the at least one of the first and second shielding parts for locking the connector in a connector housing and/or by a TPA . connecting at least one elongated inner signal contact of the connector to a stripped end of the at least one inner conductor ; surrounding the at least one elongated inner signal contact by an insulating element ; placing a first shielding part of the connector around a first portion of the insulating element from a first radial direction; placing a second shielding part of the connector around a second portion of the insulating element from a second radial direction generally opposite to the first radial direction; and joining the first and second shielding parts to form a shielding contact of the connector surrounding the insulating element , characterized in that the at least one elongated inner signal contact is connected to the stripped end of the at least one inner conductor by welding and in that at least one of the first and second shielding part is molded over by an electrically insulating material, wherein edges of the insulating material are formed on an outer side of the at least one of the first and second shielding parts for locking the connector in a connector housing and/or by a TPA .
Hybrid vehicle , comprising: - an internal combustion engine with a drive shaft for driving the wheels of at least one axle , - at least one first electric machine for driving the wheels of said axle or at least one further axle, wherein the at least one first electric machine can be operated as a generator during a braking process and as a motor during an acceleration process, - a flywheel accumulator which has a rotor and can be charged during a braking process and discharged during an acceleration process, characterised in that a planetary gear is arranged between the flywheel accumulator and the internal combustion engine or between the flywheel accumulator and a gear connected to the internal combustion engine or between the flywheel accumulator and an axle of the hybrid vehicle, which planetary gear is coupled to a second electric machine and wherein the second electric machine is designed to match the speed of the flywheel accumulator and the speed of the internal combustion engine to one another via the planetary gear . - an internal combustion engine with a drive shaft for driving the wheels of at least one axle , - at least one first electric machine for driving the wheels of said axle or at least one further axle, wherein the at least one first electric machine can be operated as a generator during a braking process and as a motor during an acceleration process, - a flywheel accumulator which has a rotor and can be charged during a braking process and discharged during an acceleration process,
A combination therapy comprising therapeutically effective amounts, independently, of: (a) methyl N-[ -1-({4-[3-(5-chloro-2-fluoro-3-methanesulfonamidophenyl)-1-(propan-2-yl)-1H-pyrazol-4-yl]pyrimidin-2-yl}amino)propan-2-yl]carbamate (COMPOUND A) or a pharmaceutically acceptable salt thereof, (b) 6-(4-bromo-2-fluorophenylamino)-7-fluoro-3-methyl-3H-benzoimidazole-5-carboxylic acid (2-hydroxyethoxy)-amide (COMPOUND B) or a pharmaceutically acceptable salt thereof, and (c) cetuximab (COMPOUND C). (a) methyl N-[ -1-({4-[3-(5-chloro-2-fluoro-3-methanesulfonamidophenyl)-1-(propan-2-yl)-1H-pyrazol-4-yl]pyrimidin-2-yl}amino)propan-2-yl]carbamate (COMPOUND A) or a pharmaceutically acceptable salt thereof, (b) 6-(4-bromo-2-fluorophenylamino)-7-fluoro-3-methyl-3H-benzoimidazole-5-carboxylic acid (2-hydroxyethoxy)-amide (COMPOUND B) or a pharmaceutically acceptable salt thereof, and (c) cetuximab (COMPOUND C).
A plastic covered stent for aortic dissection, comprising: a tubular membrane ; and a plurality of annular stents sequentially sutured on the membrane along an axial direction, wherein part of the annular stents on the membrane are semi-suture stents, each of the semi-suture stents has non-suture zones separable from the membrane , and when the plastic covered stent for aortic dissection is bent, the membrane corresponding to the non-suture zones of each of the semi-suture stents at an inner bending side of the plastic covered stent for aortic dissection is separated from each of the semi-suture stents and folded, wherein each of the semi-suture stents fluctuates along the axial direction to form a wave while extending circumferentially, and the non-suture zones of each of the semi-suture stents are located at turning portions of the wave, wherein along a trend of a blood vessel, after the plastic covered stent for aortic dissection is implanted, the turning portions pointing to heart are peaks, the turning portions facing away from the heart are valleys, and each of the annular stents comprises connecting rods each connecting one peak and one valley adjacent to the peak. a tubular membrane ; and a plurality of annular stents sequentially sutured on the membrane along an axial direction, wherein part of the annular stents on the membrane are semi-suture stents, each of the semi-suture stents has non-suture zones separable from the membrane , and when the plastic covered stent for aortic dissection is bent, the membrane corresponding to the non-suture zones of each of the semi-suture stents at an inner bending side of the plastic covered stent for aortic dissection is separated from each of the semi-suture stents and folded, wherein each of the semi-suture stents fluctuates along the axial direction to form a wave while extending circumferentially, and the non-suture zones of each of the semi-suture stents are located at turning portions of the wave, wherein along a trend of a blood vessel, after the plastic covered stent for aortic dissection is implanted, the turning portions pointing to heart are peaks, the turning portions facing away from the heart are valleys, and each of the annular stents comprises connecting rods each connecting one peak and one valley adjacent to the peak.
Method for emptying the bags of a transport device in the form of an overhead conveyor, said transport device comprising one or a plurality of carriages which are mounted on a guide rail so as to be movable in the guide rail direction, and on which one laterally open bag for receiving transported goods is in each case disposed so as to hang downwards, wherein the bag is formed by at least one flexible material web which in the opened state is flat and by way of the two ends is fastened to the carriage while forming a carrying strap or transport strap, respectively, that hangs downwards, and wherein the fastening of the material web to the carriage on at least one end of the material web is configured to be releasable, wherein the method comprises the following steps: a) advancing a bag in the closed state; b) opening the bag by releasing the fastening of the at least one end of the material web on the carriage by means of a first device for automatically opening and closing the bag and a second device for flipping open the opened bag ; c) emptying an item of transported goods from the opened bag ; d) closing the bag by means of the first device for automatically opening and closing the bag by fastening the at least one end of the material web to the carriage ; and e) moving away the emptied and closed bag . a) advancing a bag in the closed state; b) opening the bag by releasing the fastening of the at least one end of the material web on the carriage by means of a first device for automatically opening and closing the bag and a second device for flipping open the opened bag ; c) emptying an item of transported goods from the opened bag ; d) closing the bag by means of the first device for automatically opening and closing the bag by fastening the at least one end of the material web to the carriage ; and e) moving away the emptied and closed bag .
Drive system for a weaving machine comprising a first drive gear wheel for driving a first group of elements, a second drive gear wheel for driving a second group of elements, a switching gearwheel , wherein the switching gearwheel is displaceable between a first position, in which the switching gear wheel is in drive connection with the first drive gear wheel and the second drive gear wheel , and a second position, in which the switching gear wheel is not in drive connection with the first drive gear wheel , a holding element , which is displaceable with the switching gear wheel , wherein in the second position of the switching gear wheel , the holding element engages with the first drive gear wheel for holding the first drive gear wheel against rotation, and wherein in the first position of the switching gear wheel , the holding element is disengaged from the first drive gear wheel , and a displacement device for displacing the switching gear wheel and the holding element between the first position and the second position, characterized in that the displacement device comprises a stationary rod extending in parallel to a rotation axis of the first drive gear wheel and a slider element slideably mounted to the stationary rod , wherein the holding element is arranged at the slider element .