mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising: - at least 30% of dimethyl sulfoxide, or DMSO, and - at least 20% of a fatty acid methyl ester or a mixture of such esters, said fatty acid having 6 to 10 carbon atoms, these percentages being by mass with respect to the total mass of the composition. - at least 30% of dimethyl sulfoxide, or DMSO, and - at least 20% of a fatty acid methyl ester or a mixture of such esters, said fatty acid having 6 to 10 carbon atoms,
A multivalent CD20-binding molecule comprising two or more components, each component comprising: a) a CD20 binding region capable of specifically binding an extracellular part of a CD20, and b) a Shiga toxin effector polypeptide comprising a sequence that is at least 90% identical to a sequence selected from: (i) amino acids 75 to 251 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; (ii) amino acids 1 to 241 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; (iii) amino acids 1 to 251 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; and/or (iv) amino acids 1 to 261 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO:3; wherein the Shiga toxin effector polypeptide is capable of exhibiting at least one Shiga toxin function; wherein the molecule does not comprise an immunoglobulin Fc region; and wherein the two or more components are associated through one or more disulfide bond. a) a CD20 binding region capable of specifically binding an extracellular part of a CD20, and b) a Shiga toxin effector polypeptide comprising a sequence that is at least 90% identical to a sequence selected from: (i) amino acids 75 to 251 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; (ii) amino acids 1 to 241 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; (iii) amino acids 1 to 251 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; and/or (iv) amino acids 1 to 261 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO:3; wherein the Shiga toxin effector polypeptide is capable of exhibiting at least one Shiga toxin function; wherein the molecule does not comprise an immunoglobulin Fc region; and wherein the two or more components are associated through one or more disulfide bond. (i) amino acids 75 to 251 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; (ii) amino acids 1 to 241 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; (iii) amino acids 1 to 251 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; and/or (iv) amino acids 1 to 261 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO:3;
An image processing apparatus comprising: an acquisition unit configured to acquire a MPD (Media Presentation Description) file comprising group information of one or more adaptation sets, wherein each of the one or more adaptation sets comprises information suitable for playing 3D object contents generated by volumetric capturing and composed of a plurality of bitstreams, wherein the group information comprises information indicating that the content is the 3D object content, and information for 3D object contents for each of the one or more adaptation sets; a MPD file processing unit configured to select the adaptation sets corresponding to a bitstream used for playing the content based on the MPD file; and a segment file acquisition unit configured to acquire data based on the selected adaptation sets, wherein the group information and each of the one or more adaptation sets includes information indicating a displayable region of the 3D object content. an acquisition unit configured to acquire a MPD (Media Presentation Description) file comprising group information of one or more adaptation sets, wherein each of the one or more adaptation sets comprises information suitable for playing 3D object contents generated by volumetric capturing and composed of a plurality of bitstreams, wherein the group information comprises information indicating that the content is the 3D object content, and information for 3D object contents for each of the one or more adaptation sets; a MPD file processing unit configured to select the adaptation sets corresponding to a bitstream used for playing the content based on the MPD file; and a segment file acquisition unit configured to acquire data based on the selected adaptation sets, wherein the group information and each of the one or more adaptation sets includes information indicating a displayable region of the 3D object content.
A vibration device used in a camera body having a lens , the vibration device comprising: a cylindrical vibrating body part including a cylindrical member and a piezoelectric vibrator fixed to the cylindrical member ; a cylindrical mode converting connected part (21, 21A - 21H, 21B1) connected to one end of the cylindrical vibrating body part ; and a light transmitting body part bonded to a side of the mode converting connected part (21, 21A - 21H, 21B1) opposite from a side to which the cylindrical vibrating body part is connected, and disposed on a front side of the lens , wherein the mode converting connected part (21, 21A - 21H, 21B1) has a thin portion having a wall thickness smaller than a wall thickness of the cylindrical vibrating body part , characterized in that a flange portion extending outward is provided in an end portion of the vibrating body part on a side of the mode converting connected part (21, 21A - 21H, 21B1), wherein a node of a vibration of the vibrating body part exists in the flange portion , and wherein the flange portion is fixed to a case member . a cylindrical vibrating body part including a cylindrical member and a piezoelectric vibrator fixed to the cylindrical member ; a cylindrical mode converting connected part (21, 21A - 21H, 21B1) connected to one end of the cylindrical vibrating body part ; and a light transmitting body part bonded to a side of the mode converting connected part (21, 21A - 21H, 21B1) opposite from a side to which the cylindrical vibrating body part is connected, and disposed on a front side of the lens , wherein the mode converting connected part (21, 21A - 21H, 21B1) has a thin portion having a wall thickness smaller than a wall thickness of the cylindrical vibrating body part , characterized in that a flange portion extending outward is provided in an end portion of the vibrating body part on a side of the mode converting connected part (21, 21A - 21H, 21B1), wherein a node of a vibration of the vibrating body part exists in the flange portion , and wherein the flange portion is fixed to a case member .
A system comprising: a plurality of tube rollers upon which a tubular section is supportable as the tubular section rotates in a rotation direction ; and being characterised by following features: a fitting unit including a locating roller and a pusher roller spaced relative to one another to define therebetween a pinch through which a flange is rotatable in the rotation direction ; a sensing unit including one or more sensors positioned relative to the pinch to detect a radial offset of the flange and the tubular section moving in the rotation direction ; and a controller in communication with the sensing unit and the fitting unit , the controller configured to receive one or more signals indicative of the radial offset , to compare the one or more signals indicative of the radial offset to a target value, and, based at least in part on the comparison, to move the locating roller to adjust the radial offset between the flange and the tubular section moving in the rotation direction , wherein a radial offset refers to a shift in radial position of the flange and the center axis of the tubular section relative to one another, with a zero radial offset corresponding to alignment of the inner diameter of the flange to the inner diameter of the tubular section . a plurality of tube rollers upon which a tubular section is supportable as the tubular section rotates in a rotation direction ; and being characterised by following features: a fitting unit including a locating roller and a pusher roller spaced relative to one another to define therebetween a pinch through which a flange is rotatable in the rotation direction ; and being characterised by following features: a fitting unit including a locating roller and a pusher roller spaced relative to one another to define therebetween a pinch through which a flange is rotatable in the rotation direction ; a sensing unit including one or more sensors positioned relative to the pinch to detect a radial offset of the flange and the tubular section moving in the rotation direction ; and a controller in communication with the sensing unit and the fitting unit , the controller configured to receive one or more signals indicative of the radial offset , to compare the one or more signals indicative of the radial offset to a target value, and, based at least in part on the comparison, to move the locating roller to adjust the radial offset between the flange and the tubular section moving in the rotation direction , wherein a radial offset refers to a shift in radial position of the flange and the center axis of the tubular section relative to one another, with a zero radial offset corresponding to alignment of the inner diameter of the flange to the inner diameter of the tubular section .
A method for producing a forged crankshaft including a plurality of journals (J) which define a rotation center and a plurality of pins (P) which are decentered with respect to the plurality of journals (J), the production method comprising: a pressing step of pressing a first region , which is a part in a longitudinal direction of a bar-like member , with a pair of first dies , to decrease a cross sectional area of the first region ; and a decentering step of decentering a second region of the bar-like member with a second die , wherein the second region is at least a part of a region of the bar-like member excepting the first region , characterized in that the forged crankshaft further includes a plurality of crank arms (A) which connect the plurality of journals (J) with the plurality of pins (P), respectively, wherein at least one of the plurality of crank arms (A) is a weighted arm having a counterweight (W), wherein in the decentering step, the pressed first region is held by the first dies , and wherein the decentering direction by the second die is a direction perpendicular to each of the pressing direction by the first dies and to the longitudinal direction of the bar-like member . a pressing step of pressing a first region , which is a part in a longitudinal direction of a bar-like member , with a pair of first dies , to decrease a cross sectional area of the first region ; and a decentering step of decentering a second region of the bar-like member with a second die , wherein the second region is at least a part of a region of the bar-like member excepting the first region , characterized in that the forged crankshaft further includes a plurality of crank arms (A) which connect the plurality of journals (J) with the plurality of pins (P), respectively, wherein at least one of the plurality of crank arms (A) is a weighted arm having a counterweight (W), wherein in the decentering step, the pressed first region is held by the first dies , and wherein the decentering direction by the second die is a direction perpendicular to each of the pressing direction by the first dies and to the longitudinal direction of the bar-like member .
A vacuum lifter apparatus for lifting sheet material articles , comprising an upper chassis joined to a substantially planar lower suction plate and an airflow suction system for conveying vacuum air pressure to the suction plate, wherein: - the suction plate comprises a plurality of suction plate modules (40, 40', 40"), each of said modules comprising a housing with a substantially hollow interior and each of said housings being located laterally adjacent at least one other of said housings, characterised in that - each of said housings comprises a lower plate , an upper plate and at least one side plate , each housing being affixed to said laterally adjacent housing along a seam between adjoining pairs of side plates; - said upper plates each comprise at least one opening and said lower plates are each perforated with a plurality of orifices through which, in use, air is drawn along airflow paths through said interior and out of said opening by the airflow suction system to provide, in use, on a lower side of the suction plate a substantially planar suction lifting surface for applying a suction lifting pressure to an upper surface of said sheet material articles to be lifted; - said upper plates together provide an upper side of the suction plate, the upper side of the suction plate being affixed to the chassis at each one of said housings. - the suction plate comprises a plurality of suction plate modules (40, 40', 40"), each of said modules comprising a housing with a substantially hollow interior and each of said housings being located laterally adjacent at least one other of said housings, characterised in that - each of said housings comprises a lower plate , an upper plate and at least one side plate , each housing being affixed to said laterally adjacent housing along a seam between adjoining pairs of side plates; - said upper plates each comprise at least one opening and said lower plates are each perforated with a plurality of orifices through which, in use, air is drawn along airflow paths through said interior and out of said opening by the airflow suction system to provide, in use, on a lower side of the suction plate a substantially planar suction lifting surface for applying a suction lifting pressure to an upper surface of said sheet material articles to be lifted; - said upper plates together provide an upper side of the suction plate, the upper side of the suction plate being affixed to the chassis at each one of said housings.
An apparatus for providing a time source for autonomous driving, applied to an autonomous driving system of a vehicle, and comprising a first processor and a first crystal oscillator connected to the first processor, wherein the first processor is configured to provide a first time source for a first subsystem of the autonomous driving system by using the first crystal oscillator, and provide a second time source for a second subsystem of the autonomous driving system based on a received satellite time signal, the first subsystem is configured to process driving service-related data of the vehicle, and the second subsystem is configured to process management-related data of the vehicle, characterized in that the management-related data includes data related to real time, wherein the data related to real time comprises one or more of the following: security audit, digital certificate validity check, and driving data migration to cloud in real time. the first processor is configured to provide a first time source for a first subsystem of the autonomous driving system by using the first crystal oscillator, and provide a second time source for a second subsystem of the autonomous driving system based on a received satellite time signal, the first subsystem is configured to process driving service-related data of the vehicle, and the second subsystem is configured to process management-related data of the vehicle, characterized in that the management-related data includes data related to real time, wherein the data related to real time comprises one or more of the following: security audit, digital certificate validity check, and driving data migration to cloud in real time.
A rotary mill comprising a body portion having a milling surface for milling a first bone, a guide portion having a guide body , and inter-engageable guide formations formed on the body portion and guide portion , the inter-engageable guide formations comprise a central bore extending along the rotary axis of the body portion and a guide peg extending from the guide body , the guide peg being operable to be received in the central bore of the body portion, characterized in that the guide body has a projection which is adapted to hold a second bone away from the rotary mill during the milling operation.
A method performed by a processor of a computing system , comprising: receiving a first seismic dataset generated using a first type of survey system ; receiving a second seismic dataset generated using a second type of survey system ; filtering the first seismic dataset to generate a first filtered seismic dataset having a first bandwidth; filtering the second seismic dataset to generate a second filtered seismic dataset having the first bandwidth; estimating a time shift volume between the first filtered seismic dataset and the second filtered seismic dataset; applying the time shift volume to the first seismic dataset to generate an aligned dataset, the method being characterized by : determining a frequency band and a portion of the second seismic dataset based on a comparison between a signal-to-noise ratio, SNR, of the first seismic dataset and a SNR of the second seismic dataset at different frequencies; combining the aligned dataset with the portion of the second seismic dataset to generate a combined dataset having the frequency band; and generating a seismic image based upon the combined dataset, wherein the seismic image represents hydrocarbons in a subsurface region of Earth or subsurface drilling hazards. receiving a first seismic dataset generated using a first type of survey system ; receiving a second seismic dataset generated using a second type of survey system ; filtering the first seismic dataset to generate a first filtered seismic dataset having a first bandwidth; filtering the second seismic dataset to generate a second filtered seismic dataset having the first bandwidth; estimating a time shift volume between the first filtered seismic dataset and the second filtered seismic dataset; applying the time shift volume to the first seismic dataset to generate an aligned dataset, the method being characterized by : determining a frequency band and a portion of the second seismic dataset based on a comparison between a signal-to-noise ratio, SNR, of the first seismic dataset and a SNR of the second seismic dataset at different frequencies; combining the aligned dataset with the portion of the second seismic dataset to generate a combined dataset having the frequency band; and generating a seismic image based upon the combined dataset, wherein the seismic image represents hydrocarbons in a subsurface region of Earth or subsurface drilling hazards. determining a frequency band and a portion of the second seismic dataset based on a comparison between a signal-to-noise ratio, SNR, of the first seismic dataset and a SNR of the second seismic dataset at different frequencies; combining the aligned dataset with the portion of the second seismic dataset to generate a combined dataset having the frequency band; and generating a seismic image based upon the combined dataset, wherein the seismic image represents hydrocarbons in a subsurface region of Earth or subsurface drilling hazards.
A method of performing an assay, comprising: (A) forming an emulsion including droplets disposed in a continuous phase that includes a silicone oil and at least one silicone surfactant having the formula: [SILICONE BACKBONE] [POLYETHER] y [POLYSILOXANE] z wherein y is 1-35, and z is 2-50; POLYETHER is an organic polyether side chain; and POLYSILOXANE is a polydimethylsiloxane side chain, and (B) collecting data related to an analyte disposed in the droplets. (A) forming an emulsion including droplets disposed in a continuous phase that includes a silicone oil and at least one silicone surfactant having the formula: [SILICONE BACKBONE] [POLYETHER] y [POLYSILOXANE] z wherein y is 1-35, and z is 2-50; POLYETHER is an organic polyether side chain; and POLYSILOXANE is a polydimethylsiloxane side chain, and (B) collecting data related to an analyte disposed in the droplets.
Recovery device for arrangement on a recovery vehicle , in particular on the rear of a military recovery vehicle, having a recovery arm for lifting a damaged vehicle and a support joint for jointed support of the recovery arm on the recovery vehicle , the recovery arm being cardanically mounted and being mountable via the support joint such that the recovery arm is movable relative to the recovery vehicle about at least three axes (N, W, R), characterized in that the support joint is displaceable along a displacement direction (B), the recovery arm being connected to the support joint via a coupling region in the manner of a fifth wheel coupling.
A piezoelectric element comprising: a substrate containing carbon; a first electrode formed above the substrate ; a piezoelectric layer which contains a composite oxide having a perovskite crystal structure and which is formed above the first electrode ; and a second electrode formed above the piezoelectric layer , wherein the amount of carbon contained in the substrate is greater than 0.26 to less than 14.00 atomic percent; and wherein the substrate contains zirconium. a substrate containing carbon; a first electrode formed above the substrate ; a piezoelectric layer which contains a composite oxide having a perovskite crystal structure and which is formed above the first electrode ; and a second electrode formed above the piezoelectric layer , wherein the amount of carbon contained in the substrate is greater than 0.26 to less than 14.00 atomic percent; and wherein the substrate contains zirconium.
A semiconductor chip comprising a semiconductor image sensor circuit and a temperature measurement circuit wherein the temperature measurement circuit is integrated in the semiconductor chip and comprises: a plurality of local temperature sensors ; and a central processing unit connected to the plurality of local temperature sensors via respective integrated wiring structures in the semiconductor chip ; the central processing unit comprising: a control logic unit ; an analog-to-digital converter, ADC, circuit (4-8) for providing digital measurement output data; wherein the control logic unit is connected to the ADC circuit (4-8) and arranged to select one or more of the plurality of local temperature sensors and execute a measurement cycle for the selected one or more of the plurality of local temperature sensors , characterised in that the plurality of local temperature sensors is distributed at a perimeter of the semiconductor image sensor circuit . a plurality of local temperature sensors ; and a central processing unit connected to the plurality of local temperature sensors via respective integrated wiring structures in the semiconductor chip ; the central processing unit comprising: a control logic unit ; an analog-to-digital converter, ADC, circuit (4-8) for providing digital measurement output data; wherein the control logic unit is connected to the ADC circuit (4-8) and arranged to select one or more of the plurality of local temperature sensors and execute a measurement cycle for the selected one or more of the plurality of local temperature sensors , characterised in that the plurality of local temperature sensors is distributed at a perimeter of the semiconductor image sensor circuit . a control logic unit ; an analog-to-digital converter, ADC, circuit (4-8) for providing digital measurement output data; wherein the control logic unit is connected to the ADC circuit (4-8) and arranged to select one or more of the plurality of local temperature sensors and execute a measurement cycle for the selected one or more of the plurality of local temperature sensors , characterised in that the plurality of local temperature sensors is distributed at a perimeter of the semiconductor image sensor circuit .