mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining distance information based on Time of Flight, ToF, sensor data, the method comprising: Obtaining the ToF sensor data; Determining one or more saturated regions within the ToF sensor data, the one or more saturated regions being caused by one or more objects; Determining distance information for one or more boundary regions located adjacent to the one or more saturated regions based on the ToF sensor data, the one or more boundary regions being based on stray light reflected off the one or more objects; and Determining distance information for at least a part of the one or more saturated regions based on the distance information of the one or more boundary regions. Obtaining the ToF sensor data; Determining one or more saturated regions within the ToF sensor data, the one or more saturated regions being caused by one or more objects; Determining distance information for one or more boundary regions located adjacent to the one or more saturated regions based on the ToF sensor data, the one or more boundary regions being based on stray light reflected off the one or more objects; and Determining distance information for at least a part of the one or more saturated regions based on the distance information of the one or more boundary regions.
Method , comprising the following steps: - determining a trajectory of a motor vehicle ; - scanning an area around the motor vehicle along the trajectory ; - determining , on the basis of the scanning, that the trajectory extends along a road; - determining , on the basis of map data, a known path between two points of the trajectory ; - determining a deviation of the trajectory from the known path; and - updating the map data on the basis of the trajectory if the trajectory extends along a road and the trajectory deviates from the known path . - determining a trajectory of a motor vehicle ; - scanning an area around the motor vehicle along the trajectory ; - determining , on the basis of the scanning, that the trajectory extends along a road; - determining , on the basis of map data, a known path between two points of the trajectory ; - determining a deviation of the trajectory from the known path; and - updating the map data on the basis of the trajectory if the trajectory extends along a road and the trajectory deviates from the known path .
Fastening device for fixing a push element to a movable rail of a pullout guide , having a web-shaped retaining part which is formed integrally with the rail or is fastened to the rail , and a clamping mechanism with a receptacle on which at least one self-locking clamping element is provided, which is formed by a rolling element arranged movably in a housing and which frictionally secures the web-shaped retaining part inserted into the receptacle against being pulled out, characterized in that on the web-shaped retaining part at least one embossing is formed, against which the clamping element bears.
A vehicle front body structure comprising: a pair of front frames that are arranged away from each other in a vehicle width direction and extend in a vehicle longitudinal direction; a pair of crash cans each of which is fixed to a front end of respective one of the pair of front frames and extends in the vehicle longitudinal direction; and a bumper beam that is fixed to the front ends of the pair of crash cans and extends in the vehicle width direction, wherein the bumper beam includes, on each side in the vehicle width direction: a crash can fixed section that is fixed to the crash can ; and an extending section that extends outward in the vehicle width direction from the crash can fixed section , bending rigidity at each position in the vehicle width direction of the bumper beam is configured or set, or the bumper beam is configured, such that bending moment generated on the bumper beam at the time when a collision load in a direction toward a vehicle rear side is applied to the extending section is the highest in a vehicle width direction inner end portion of the crash can fixed section on a side where the collision load is applied, the bumper beam has a reinforcing member in the bumper beam , the reinforcing member extending in the vehicle width direction and having a U-shaped cross section, and the U-shaped cross section is formed such that an area defined by the U-shaped cross section is the largest at the same position in the vehicle width direction as the vehicle width direction inner end portion of the crash can fixed section . a pair of front frames that are arranged away from each other in a vehicle width direction and extend in a vehicle longitudinal direction; a pair of crash cans each of which is fixed to a front end of respective one of the pair of front frames and extends in the vehicle longitudinal direction; and a bumper beam that is fixed to the front ends of the pair of crash cans and extends in the vehicle width direction, wherein the bumper beam includes, on each side in the vehicle width direction: a crash can fixed section that is fixed to the crash can ; and an extending section that extends outward in the vehicle width direction from the crash can fixed section , bending rigidity at each position in the vehicle width direction of the bumper beam is configured or set, or the bumper beam is configured, such that bending moment generated on the bumper beam at the time when a collision load in a direction toward a vehicle rear side is applied to the extending section is the highest in a vehicle width direction inner end portion of the crash can fixed section on a side where the collision load is applied, the bumper beam has a reinforcing member in the bumper beam , the reinforcing member extending in the vehicle width direction and having a U-shaped cross section, and the U-shaped cross section is formed such that an area defined by the U-shaped cross section is the largest at the same position in the vehicle width direction as the vehicle width direction inner end portion of the crash can fixed section .
A suction unit for a vacuum cleaner comprising: a cover provided with an air inlet ; a noise reduction part provided on the cover and disposed outside the air inlet so as to spaced apart from the air inlet ; an impeller to allow air passing through the air inlet via the noise reduction part to flow; a motor provided with a rotating shaft connected to the impeller ; a guide mechanism to guide the air discharged from an outlet of the impeller ; and a shaft coupling part coupled to the rotating shaft and connected to the impeller . a cover provided with an air inlet ; a noise reduction part provided on the cover and disposed outside the air inlet so as to spaced apart from the air inlet ; an impeller to allow air passing through the air inlet via the noise reduction part to flow; a motor provided with a rotating shaft connected to the impeller ; a guide mechanism to guide the air discharged from an outlet of the impeller ; and a shaft coupling part coupled to the rotating shaft and connected to the impeller .
A renewable energy microgeneration apparatus comprising: one or more portable containers comprising: a plurality of first holding tanks that are configured to perform at least one of pasteurization and thermophilic anaerobic digestion on waste, a second holding tank that is larger than each of the plurality of first holding tanks , that is in fluid communication with the plurality of first holding tanks , and that is configured to perform mesophilic anaerobic digestion on the waste after at least one of pasteurization and thermophilic anaerobic digestion is performed on the waste; and a de-watering unit in fluid communication with the second holding tank for drying what remains of the waste after mesophilic anaerobic digestion in performed on the waste; and a controller for automatically moving the waste between the plurality of first holding tanks , the second holding tank , and the de-watering unit as required to facilitate mesophilic anaerobic digestion in the second holding tank , wherein the one or more portable containers are configured to be transported to a site and placed in fluid communication with each other at the site. a plurality of first holding tanks that are configured to perform at least one of pasteurization and thermophilic anaerobic digestion on waste, a second holding tank that is larger than each of the plurality of first holding tanks , that is in fluid communication with the plurality of first holding tanks , and that is configured to perform mesophilic anaerobic digestion on the waste after at least one of pasteurization and thermophilic anaerobic digestion is performed on the waste; and a de-watering unit in fluid communication with the second holding tank for drying what remains of the waste after mesophilic anaerobic digestion in performed on the waste; and a controller for automatically moving the waste between the plurality of first holding tanks , the second holding tank , and the de-watering unit as required to facilitate mesophilic anaerobic digestion in the second holding tank , wherein the one or more portable containers are configured to be transported to a site and placed in fluid communication with each other at the site.
A process for converting petroleum processing units into a renewable fuel processing plant, the process comprising: reconfiguring a first reaction zone configured to treat a petroleum feedstock to a reaction zone for treating a renewable feedstock into hydrocarbons and providing a treated effluent; providing a stripping zone configured to remove one or more of hydrogen sulfide (H2S), ammonia (NH 3 ), water (H 2 O), carbon monoxide (CO) and carbon dioxide (CO 2 ) from the treated effluent and provide a gaseous stream; providing a scrubbing zone configured to remove carbon dioxide from the gaseous stream and provide a scrubbed gaseous stream; reconfiguring a second reaction zone configured to treat a petroleum feedstock to a reaction zone for converting the treated effluent from first reaction zone and providing a converted effluent; separating a hydrogen containing gas from the converted effluent; and, passing the hydrogen containing gas separated from the converted effluent to the first reaction zone; wherein both of the reaction zones were configured to treat the petroleum feedstock as a hydrocracking zone, a reforming zone, or an isomerization zone; and wherein the first unit is converted to deoxygenation service with suitable graded bed, guard, and deoxygenation catalysts, and wherein the second unit is converted to isomerization service with suitable catalyst. reconfiguring a first reaction zone configured to treat a petroleum feedstock to a reaction zone for treating a renewable feedstock into hydrocarbons and providing a treated effluent; providing a stripping zone configured to remove one or more of hydrogen sulfide (H2S), ammonia (NH 3 ), water (H 2 O), carbon monoxide (CO) and carbon dioxide (CO 2 ) from the treated effluent and provide a gaseous stream; providing a scrubbing zone configured to remove carbon dioxide from the gaseous stream and provide a scrubbed gaseous stream; reconfiguring a second reaction zone configured to treat a petroleum feedstock to a reaction zone for converting the treated effluent from first reaction zone and providing a converted effluent; separating a hydrogen containing gas from the converted effluent; and, passing the hydrogen containing gas separated from the converted effluent to the first reaction zone; wherein both of the reaction zones were configured to treat the petroleum feedstock as a hydrocracking zone, a reforming zone, or an isomerization zone; and wherein the first unit is converted to deoxygenation service with suitable graded bed, guard, and deoxygenation catalysts, and wherein the second unit is converted to isomerization service with suitable catalyst.
A data transmission method performed by a data transmission apparatus, the method comprising: • generating a configuration message used to configure, for a user equipment, UE, a function of receiving Physical Downlink Shared Channel, PDSCH, downlink bundled data and/or Physical Downlink Control Channel, PDCCH, downlink bundled data, and generating PDSCH downlink data and PDCCH control signaling (S 110), wherein PDCCH control signaling is used for scheduling the PDSCH downlink data; • sending (S120) the configuration message to the UE; • sending (S120) the PDCCH control signaling repeatedly at least twice in a time-domain bundling manner to the UE in at least two transmission time intervals, wherein the PDCCH downlink bundled data are the PDCCH control signaling repeatedly sent at least twice, and/or • sending (S120) the PDSCH downlink data repeatedly at least twice in the time-domain bundling manner to the UE in at least two transmission time intervals, wherein the PDSCH downlink bundled data are the PDSCH downlink data repeatedly sent at least twice. • generating a configuration message used to configure, for a user equipment, UE, a function of receiving Physical Downlink Shared Channel, PDSCH, downlink bundled data and/or Physical Downlink Control Channel, PDCCH, downlink bundled data, and generating PDSCH downlink data and PDCCH control signaling (S 110), wherein PDCCH control signaling is used for scheduling the PDSCH downlink data; • sending (S120) the configuration message to the UE; • sending (S120) the PDCCH control signaling repeatedly at least twice in a time-domain bundling manner to the UE in at least two transmission time intervals, wherein the PDCCH downlink bundled data are the PDCCH control signaling repeatedly sent at least twice, and/or • sending (S120) the PDSCH downlink data repeatedly at least twice in the time-domain bundling manner to the UE in at least two transmission time intervals, wherein the PDSCH downlink bundled data are the PDSCH downlink data repeatedly sent at least twice.
A semiconductor device, comprising: a lead frame on which a semiconductor element is mounted; a metal plating that partially or totally coats the front surface of the lead frame ;and a molding resin which seals at least a surface of the lead frame and the semiconductor element mounted on the lead frame, characterized in that , the metal plating has a scale-like portion in a region sealed with the molding resin , and the scale-like portion has a scale portion in which scale-like projections are continuously disposed, and ridges are raised higher than the scale portion including the scale-like projections, on either side of the scale portion . a lead frame on which a semiconductor element is mounted; a metal plating that partially or totally coats the front surface of the lead frame ;and a molding resin which seals at least a surface of the lead frame and the semiconductor element mounted on the lead frame, characterized in that , the metal plating has a scale-like portion in a region sealed with the molding resin , and the scale-like portion has a scale portion in which scale-like projections are continuously disposed, and ridges are raised higher than the scale portion including the scale-like projections, on either side of the scale portion .
A device for calibrating and lightening the weight of crankshafts, which comprises a tooling provided with a seat for the crankshaft ; a plurality of moveable bodies , moveable between an initial position and a final position, such that in the final position one end of each said moveable body penetrates the seat to form a cavity to lighten the weight of the crankshaft; and wedges , on which the movable bodies are mounted, provided with an inclined Z plane for moving the bodies with respect to the seat of the tooling , characterised in that two of said bodies are mounted on an intermediate piece which, in turn, is mounted on one of said wedges such that said movable bodies are movable laterally to their respective longitudinal axis.
A tape for controlling crawling pests, comprising on the first side (S1) a carrier layer, comprising a multitude of vertically extending structures, and on the opposite side (S2) means for attaching the tape to a surface, wherein at least the first side (S1) is impregnated with with a composition comprising A) 0.1 to 45% by weight (based on the total of A plus B) of one or more insecticides and B) 99.9 to 55% by weight (based on the total of A plus B) of an (meth)acrylate binder comprising one or more homo- or copolymer, comprising units derived from one or more acrylates and/or methacrylates. A) 0.1 to 45% by weight (based on the total of A plus B) of one or more insecticides and B) 99.9 to 55% by weight (based on the total of A plus B) of an (meth)acrylate binder comprising one or more homo- or copolymer, comprising units derived from one or more acrylates and/or methacrylates.
A large embroidery machine, in particular a shuttle embroidery machine, having embroidery needles and their drives and having a device for cutting and firmly clamping the front threads, comprising at each embroidery position one thread cutting and thread clamping element each, which is formed for the front thread to be cut there, for cutting and clamping the thread leading from the needle to the embroidery material before the needle plate , having at least one carrier plate , wherein multiple thread cutting and thread clamping elements are arranged on a carrier plate , wherein the thread cutting and thread clamping elements can be moved with a drive profile having at least one drive means during a change of thread, wherein the carrier plate is swivelably mounted, together with the drive profile arranged displaceably thereon, about a horizontal axis (C), wherein the drive means is connected in an articulated manner to the carrier plate , characterized in that the thread cutting and thread clamping elements can be individually activated and deactivated on the at least one carrier plate , that is to say can be individually brought into a cutting and clamping position, wherein each thread cutting and thread clamping element comprises a slide plate , on which a carriage is displaceably mounted, wherein the carriage of each individual thread cutting and thread clamping element is formed in such a way that it can be engageably and releasably connected to the drive profile during a change of thread.
A frozen confection coating composition, the composition comprising, expressed in weight % based on the total weight of the coating, 35 - 75 wt.% of non-interesterified fat, preferably 40-65 wt.% of non-interesterified fat which comprises a fat blend of medium soft fat and liquid oil, and 25 - 65 wt.% of non-fat solids, preferably 35-60 wt.% of non-fat solids, wherein, the coating composition comprises, less than 30 wt.% of saturated fatty acids 9-50 wt.%, preferably 15-30 wt.% of monounsaturated fatty acid and less than 30 wt.%, preferably less than 15 wt.% of polyunsaturated fatty acid, and wherein the medium soft fat has 35-50 %, preferably 40-45 % of solid fat at 20°C, and the medium soft fat has less than 55 wt. % saturated fatty acids,and wherein the liquid oil is liquid at 20°C and contains less than 5% of solid fat content at 0°C and wherein the medium soft fat is selected from the group consisting of: palm oil medium soft fractions including soft stearins and mid fractions, shea, cocoa butter, cocoa butter equivalents, cocoa butter replacers, or a combination thereof; and wherein the non-fat solids are selected from the group consisting of: sugar, fibres, cocoa powder, milk powder, emulsifier and one or more flavours. less than 30 wt.% of saturated fatty acids 9-50 wt.%, preferably 15-30 wt.% of monounsaturated fatty acid and less than 30 wt.%, preferably less than 15 wt.% of polyunsaturated fatty acid, and
A method for dynamically adjusting gain in a seismic survey, comprising: (a) providing a seismic source and a seismic receiver in a body of water, the seismic receiver having an adjustable gain, wherein the seismic source is located higher in the body of water than the seismic receiver; (b) determining (205; 315; 505) an arrival time at the seismic receiver of a downgoing seismic wavefield associated with seismic energy emitted from the seismic source based at least in part on an estimated position of the seismic source, an estimated position of the seismic receiver, or combinations thereof; (c) setting a first gain level of the seismic receiver; and (d) decreasing (210; 320; 510) the gain relative to the first gain level at a time after the setting of the first gain level and before the determined arrival time of the downgoing seismic wavefield; and (e) increasing (210; 320; 520) the gain to a second gain level following the arrival of the downgoing seismic wavefield, the second gain level being higher than the first gain level. (a) providing a seismic source and a seismic receiver in a body of water, the seismic receiver having an adjustable gain, wherein the seismic source is located higher in the body of water than the seismic receiver; (b) determining (205; 315; 505) an arrival time at the seismic receiver of a downgoing seismic wavefield associated with seismic energy emitted from the seismic source based at least in part on an estimated position of the seismic source, an estimated position of the seismic receiver, or combinations thereof; (c) setting a first gain level of the seismic receiver; and (d) decreasing (210; 320; 510) the gain relative to the first gain level at a time after the setting of the first gain level and before the determined arrival time of the downgoing seismic wavefield; and (e) increasing (210; 320; 520) the gain to a second gain level following the arrival of the downgoing seismic wavefield, the second gain level being higher than the first gain level.
Spectroscopic measuring head for forestry, agricultural and food applications, comprising: a housing having a window and a spectrometer which is arranged inside the housing and which comprises a dispersive element and a sensor , a first light source for exposing a sample to light which, after it has been transmitted and/or reflected by the sample , passes through the window into the spectrometer , a standard that can be exposed to light for referencing the spectrometer , wherein the standard can be exposed to light by a second light source arranged in the housing , a partly transmissive mirror is arranged on the window or between the window and the spectrometer and reflects light reflected by the standard into the spectrometer , and a filter having electrically controllable transmissivity is arranged between the second light source and the spectrometer , characterized in that the filter is arranged between the mirror and the standard . a housing having a window and a spectrometer which is arranged inside the housing and which comprises a dispersive element and a sensor , a first light source for exposing a sample to light which, after it has been transmitted and/or reflected by the sample , passes through the window into the spectrometer , a standard that can be exposed to light for referencing the spectrometer , wherein the standard can be exposed to light by a second light source arranged in the housing , a partly transmissive mirror is arranged on the window or between the window and the spectrometer and reflects light reflected by the standard into the spectrometer , and a filter having electrically controllable transmissivity is arranged between the second light source and the spectrometer , characterized in that the filter is arranged between the mirror and the standard .