mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing a gas in a plurality of fuel cells, comprising: passing a gas from a conduit into a transition region , the transition region having an expansion half-angle of 15° to 80°, the transition region being in fluid communication with the conduit and in fluid communication with a common volume , a width of the transition region at an interface with the common volume being at least 25% of a width of the common volume; introducing at least a portion of the gas from the transition region into the common volume, the common volume containing a plurality of fuel cell stacks (252-257), each of the plurality of fuel cell stacks comprising a plurality of fuel cells, the plurality of fuel cell stacks comprising at least 8 fuel cell stacks, the plurality of fuel cell stacks being arranged to have a row (131-134) to column (141-144) ratio (R/C) of 0.2 to 5.0; and operating the plurality of fuel cell stacks to process at least a portion of the introduced gas in process flow paths of the plurality of fuel cell stacks, each of the plurality of fuel cell stacks having a process flow path inlet pressure, a coefficient of variation for the flow path inlet pressures of the plurality of fuel cell stacks being less than 8.0%, the coefficient of variation being the standard deviation of the flow path inlet pressures divided by the mean of these values; wherein the at least a portion of introduced gas that is processed in the process flow paths of the plurality of fuel cell stacks is passed from the common volume into the plurality of fuel cell stacks without passing through an intervening manifold. passing a gas from a conduit into a transition region , the transition region having an expansion half-angle of 15° to 80°, the transition region being in fluid communication with the conduit and in fluid communication with a common volume , a width of the transition region at an interface with the common volume being at least 25% of a width of the common volume; introducing at least a portion of the gas from the transition region into the common volume, the common volume containing a plurality of fuel cell stacks (252-257), each of the plurality of fuel cell stacks comprising a plurality of fuel cells, the plurality of fuel cell stacks comprising at least 8 fuel cell stacks, the plurality of fuel cell stacks being arranged to have a row (131-134) to column (141-144) ratio (R/C) of 0.2 to 5.0; and operating the plurality of fuel cell stacks to process at least a portion of the introduced gas in process flow paths of the plurality of fuel cell stacks, each of the plurality of fuel cell stacks having a process flow path inlet pressure, a coefficient of variation for the flow path inlet pressures of the plurality of fuel cell stacks being less than 8.0%, the coefficient of variation being the standard deviation of the flow path inlet pressures divided by the mean of these values; wherein the at least a portion of introduced gas that is processed in the process flow paths of the plurality of fuel cell stacks is passed from the common volume into the plurality of fuel cell stacks without passing through an intervening manifold.
A method of wireless communication, the method performed by an apparatus and comprising: determining an arrangement of multiple synchronization signals for wireless communication between two or more nodes, wherein the arrangement of multiple synchronization signals is configured for multiple communication modes, each communication mode of the multiple communication modes utilizing a different subcarrier spacing, and wherein the arrangement comprises a combination of the multiple synchronization signals in any order; and indicating , using boundary information carried by at least one synchronization signal of the arrangement of multiple synchronization signals, a distance between a beginning of the arrangement of multiple synchronization signals and a beginning of a communication block containing the arrangement of multiple synchronization signals. determining an arrangement of multiple synchronization signals for wireless communication between two or more nodes, wherein the arrangement of multiple synchronization signals is configured for multiple communication modes, each communication mode of the multiple communication modes utilizing a different subcarrier spacing, and wherein the arrangement comprises a combination of the multiple synchronization signals in any order; and indicating , using boundary information carried by at least one synchronization signal of the arrangement of multiple synchronization signals, a distance between a beginning of the arrangement of multiple synchronization signals and a beginning of a communication block containing the arrangement of multiple synchronization signals.
A compound having a formula Ir(L A )(L B )(L C ); wherein the ligand L A is selected from the group consisting of: wherein the ligand L B is wherein the ligand L C is wherein rings A, B, C, and D are each independently a 5 or 6-membered carbocyclic or heterocyclic ring; wherein R 1 , R 2 , R 3 , R A , R B , R C , and R D each independently represents mono, to a maximum possible number of substitutions, or no substitution; wherein X 1 to X 10 , Z 1 , and Z 2 are each independently C or N; wherein X is selected from the group consisting of BR', NR', PR', O, S, Se, C=O, S=O, SO 2 , CR'R", SiR'R", and GeR'R"; wherein L A , L B , and L C are different from each other, and can be connected to each other to form multidentate ligand; wherein R 1 , R 2 , R 3 , R A , R B , R C , R D , R', and R" are each independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein any two or more substituents among R 1 , R 2 , R 3 , R A , R B , R C , R D , R', and R" are optionally joined or fused into a ring; and wherein at least one of R A , R B , R C , and R D is selected from the group consisting of alkyl, cycloalkyl, aryl, heteroaryl, partially or fully deuterated variants thereof, partially or fully fluorinated variants thereof, and combinations thereof. wherein the ligand L C is wherein rings A, B, C, and D are each independently a 5 or 6-membered carbocyclic or heterocyclic ring; wherein R 1 , R 2 , R 3 , R A , R B , R C , and R D each independently represents mono, to a maximum possible number of substitutions, or no substitution; wherein X 1 to X 10 , Z 1 , and Z 2 are each independently C or N; wherein X is selected from the group consisting of BR', NR', PR', O, S, Se, C=O, S=O, SO 2 , CR'R", SiR'R", and GeR'R"; wherein L A , L B , and L C are different from each other, and can be connected to each other to form multidentate ligand; wherein R 1 , R 2 , R 3 , R A , R B , R C , R D , R', and R" are each independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein any two or more substituents among R 1 , R 2 , R 3 , R A , R B , R C , R D , R', and R" are optionally joined or fused into a ring; and wherein at least one of R A , R B , R C , and R D is selected from the group consisting of alkyl, cycloalkyl, aryl, heteroaryl, partially or fully deuterated variants thereof, partially or fully fluorinated variants thereof, and combinations thereof.
A method of transmitting a discovery signal related to device-to-device, D2D, communication by a user equipment, UE, in a wireless communication system, the method comprising: mapping a codeword related to the discovery signal to at least two physical resource block, PRB, pairs including a first PRB pair and a second PRB pair on a time axis; and transmitting the mapped codeword related to the discovery signal, wherein the first PRB pair includes a resource region for transmitting a specific signal used for automatic gain control, AGC, of a counterpart UE receiving the mapped codeword, and wherein the second PRB pair includes a resource region for transmitting the specific signal for AGC when a subframe subsequent to a subframe including the first PRB pair is for downlink transmission, and the second PRB pair does not include a resource region for transmitting the specific signal for AGC when the subframe subsequent to the subframe including the first PRB pair is for uplink transmission. mapping a codeword related to the discovery signal to at least two physical resource block, PRB, pairs including a first PRB pair and a second PRB pair on a time axis; and transmitting the mapped codeword related to the discovery signal, wherein the first PRB pair includes a resource region for transmitting a specific signal used for automatic gain control, AGC, of a counterpart UE receiving the mapped codeword, and wherein the second PRB pair includes a resource region for transmitting the specific signal for AGC when a subframe subsequent to a subframe including the first PRB pair is for downlink transmission, and the second PRB pair does not include a resource region for transmitting the specific signal for AGC when the subframe subsequent to the subframe including the first PRB pair is for uplink transmission.
An ammunition case roll sizing apparatus comprising: a base defining a surface and a case receptacle proximate the surface , and having a former protruding from a boundary of said surface ; a circular disk rotatably flat mounted onto the surface of the base so that a case channel is complementarily defined commencing from the case receptacle between the former and the disk being operatively rotatable via a rotational actuator a case feeder configured for operatively receiving a plurality of cases and for feeding a case lengthwise into the case receptacle ; and a case pusher configured to be operatively actuatable by the rotating disk to push a case from the receptacle into the channel , wherein rotation of the disk urges said case through the channel to roll-size the case. a base defining a surface and a case receptacle proximate the surface , and having a former protruding from a boundary of said surface ; a circular disk rotatably flat mounted onto the surface of the base so that a case channel is complementarily defined commencing from the case receptacle between the former and the disk being operatively rotatable via a rotational actuator a case feeder configured for operatively receiving a plurality of cases and for feeding a case lengthwise into the case receptacle ; and a case pusher configured to be operatively actuatable by the rotating disk to push a case from the receptacle into the channel , wherein rotation of the disk urges said case through the channel to roll-size the case.
A method performed by a mobile device , the method comprising: determining a vision based pose of the mobile device using images captured by a camera of the mobile device by extracting one or more features and comparing the extracted features to features from a reference image, wherein the reference image is a previous image or model of a known or learned target; determining a sensor based pose of the mobile device using inertial sensors of the mobile device , wherein the vision based pose is a first estimate of a position and orientation of the mobile device that is determined using computer vision techniques and the sensor based pose is a second estimate of the position and orientation of the mobile device that is determined using inertial sensors of the mobile device ; and using the vision based pose and the sensor based pose separately in a visualization application, wherein using the vision based pose and the sensor based pose separately in the visualization application comprises displaying a first graphic based on the vision based pose and a second graphic based on the sensor based pose; wherein using the vision based pose and the sensor based pose separately in the visualization application comprises performing calibration of the inertial sensors (no), wherein a user is prompted to move the mobile device along trajectories for the calibration based on the first graphic and the second graphic to collect data which are fed into a calibration algorithm. determining a vision based pose of the mobile device using images captured by a camera of the mobile device by extracting one or more features and comparing the extracted features to features from a reference image, wherein the reference image is a previous image or model of a known or learned target; determining a sensor based pose of the mobile device using inertial sensors of the mobile device , wherein the vision based pose is a first estimate of a position and orientation of the mobile device that is determined using computer vision techniques and the sensor based pose is a second estimate of the position and orientation of the mobile device that is determined using inertial sensors of the mobile device ; and using the vision based pose and the sensor based pose separately in a visualization application, wherein using the vision based pose and the sensor based pose separately in the visualization application comprises displaying a first graphic based on the vision based pose and a second graphic based on the sensor based pose; wherein using the vision based pose and the sensor based pose separately in the visualization application comprises performing calibration of the inertial sensors (no), wherein a user is prompted to move the mobile device along trajectories for the calibration based on the first graphic and the second graphic to collect data which are fed into a calibration algorithm.
Assay apparatus for use with a handheld specimen collection tool having an elongated specimen collection tip for bearing bodily specimen therealong, the assay apparatus comprising: a) a drum having a transparent, generally cylindrical, hollow drum body with a horizontal longitudinal drum body centerline , an internal drum body surface and an external drum body surface ; b) an elongated specimen collection tube co-directional with said horizontal longitudinal drum body centerline and having a specimen collection tube port for snug sliding insertion of the elongated specimen collection tip into said specimen collection tube for depositing bodily specimen on said drum body; c) a backlight illuminator inside said drum body for backlighting said drum body; and d) an elongated scanner outside said drum body and co-extensive therewith for scanning at least some of said backlighted drum body for acquiring a bodily specimen scan. a) a drum having a transparent, generally cylindrical, hollow drum body with a horizontal longitudinal drum body centerline , an internal drum body surface and an external drum body surface ; b) an elongated specimen collection tube co-directional with said horizontal longitudinal drum body centerline and having a specimen collection tube port for snug sliding insertion of the elongated specimen collection tip into said specimen collection tube for depositing bodily specimen on said drum body; c) a backlight illuminator inside said drum body for backlighting said drum body; and d) an elongated scanner outside said drum body and co-extensive therewith for scanning at least some of said backlighted drum body for acquiring a bodily specimen scan.
Vehicle cab (C) or vehicle seat comprising an upper part and a lower part which are vertically spring-mounted relative to one another by means of at least one height-adjustable scissor-action frame comprising two scissor arms which are pivotable about a common axis , and at least one air spring having a variable air volume, it being possible for movements of the scissor-action frame to be transmitted to a switching element , by means of a transmission element that is mechanically operatively connected to the scissor-action frame , in order to control the air volume of the air spring , characterised by a height-adjustment device for the scissor-action frame , comprising a manually actuable control lever element and a guide element that is mechanically operatively connected thereto, the switching element being able to be pivoted about a first axis of rotation and the transmission element being able to be pivoted about the first axis of rotation in the opposite direction to the switching element by means of the guide element , in order to change a neutral position (N) of the switching element that is between two switches provided for controlling an air volume of the air spring .
A crack analysis device comprising: a captured image acquiring unit configured to acquire at least a captured image obtained by imaging a road surface with a predetermined angle of depression , a position data acquiring unit , for providing position information on the captured position, the device further comprising a camera model information input unit configured to acquire camera information relating to a camera which captured the image; a crack detecting unit configured to generate an orthoimage based on the one or more captured images and the camera information acquired from the camera model information input unit , and to process the orthoimage for detecting a crack in the road surface and the shape of such crack; the crack detecting unit being further configured to output position data indicating the position at which the cracks are detected on the road surface, based on the input of the position data acquiring unit ; and a crack ratio calculator configured to calculate a crack ratio indicating a ratio of an area of the cracks to a predetermined area on the basis of the detected cracks for each captured image based on the orthoimage and the crack position and shape information generated by the crack detecting unit , wherein angle of depression refers to an angle which is formed by a sight line from the camera to a subject and a horizontal plane when imaging the subject below the horizontal plane with the same height as a camera, wherein the one or more captured image is imaged by the camera mountable on a roof of a vehicle at the predetermined angle of depression. a captured image acquiring unit configured to acquire at least a captured image obtained by imaging a road surface with a predetermined angle of depression , a position data acquiring unit , for providing position information on the captured position, the device further comprising a camera model information input unit configured to acquire camera information relating to a camera which captured the image; a crack detecting unit configured to generate an orthoimage based on the one or more captured images and the camera information acquired from the camera model information input unit , and to process the orthoimage for detecting a crack in the road surface and the shape of such crack; the crack detecting unit being further configured to output position data indicating the position at which the cracks are detected on the road surface, based on the input of the position data acquiring unit ; and a crack ratio calculator configured to calculate a crack ratio indicating a ratio of an area of the cracks to a predetermined area on the basis of the detected cracks for each captured image based on the orthoimage and the crack position and shape information generated by the crack detecting unit , wherein angle of depression refers to an angle which is formed by a sight line from the camera to a subject and a horizontal plane when imaging the subject below the horizontal plane with the same height as a camera, wherein the one or more captured image is imaged by the camera mountable on a roof of a vehicle at the predetermined angle of depression.
A process for the recovery of propylene comprising: (i) contacting a hydrocarbon feed with a catalyst in a fluid catalytic cracking process to produce a product stream; (ii) distilling the product stream in a fractionator to obtain heavier liquid products as side/bottom draws and a gaseous top product; (iii) cooling and condensing the gaseous top product and thereafter, separating the obtained gas-liquid mixture in a receiver to obtain an unstabilized gasoline liquid fraction and a lighter gaseous fraction; (iv) sequentially sending the gaseous fraction obtained from step (iii) to a wet gas compressor train; (v) feeding a first portion of the liquid fraction obtained in step (iii) back to the fractionator; (vi) feeding a second portion of the liquid fraction obtained in step (iii) to at least one heat exchanger to produce a heated stream; (vii) feeding the heated stream to a flash drum to produce a flashed light ends stream and a bottoms liquid stream, wherein the flashed light ends stream contains light ends and propylene; (viii) sending the flashed light ends stream to the wet gas compressor train in step (iv), and (ix) sending the bottoms liquid stream to one or more heat exchangers in step (vi), and then routing the liquid stream to a FCC gas concentration absorber. (i) contacting a hydrocarbon feed with a catalyst in a fluid catalytic cracking process to produce a product stream; (ii) distilling the product stream in a fractionator to obtain heavier liquid products as side/bottom draws and a gaseous top product; (iii) cooling and condensing the gaseous top product and thereafter, separating the obtained gas-liquid mixture in a receiver to obtain an unstabilized gasoline liquid fraction and a lighter gaseous fraction; (iv) sequentially sending the gaseous fraction obtained from step (iii) to a wet gas compressor train; (v) feeding a first portion of the liquid fraction obtained in step (iii) back to the fractionator; (vi) feeding a second portion of the liquid fraction obtained in step (iii) to at least one heat exchanger to produce a heated stream; (vii) feeding the heated stream to a flash drum to produce a flashed light ends stream and a bottoms liquid stream, wherein the flashed light ends stream contains light ends and propylene; (viii) sending the flashed light ends stream to the wet gas compressor train in step (iv), and (ix) sending the bottoms liquid stream to one or more heat exchangers in step (vi), and then routing the liquid stream to a FCC gas concentration absorber.