mhurhangee/patent-ind-claim-en huggingface dataset:
A fastener driving tool for driving fasteners of at least two different lengths as the fasteners in a magazine are guided toward a driving bore to be driven by a driver blade , comprising: a nosepiece defining a passageway of the fasteners being fed from said magazine; a nose chamber guide member operatively connected to said nose piece and configured for transitioning between a first position and a second position; and wherein in said first position, said nose chamber guide member is disposed to align with said driving bore for allowing driving of the fasteners having a first length, and in said second position, said nose chamber guide member is disposed out of alignment with respect to said driving bore for allowing driving of the fasteners having a second length, which is longer than the first length, characterised in that said transitioning between said first position and said second position is relative to said nose piece in a direction transverse to an operational flow direction of the fasteners from said magazine . a nosepiece defining a passageway of the fasteners being fed from said magazine; a nose chamber guide member operatively connected to said nose piece and configured for transitioning between a first position and a second position; and wherein in said first position, said nose chamber guide member is disposed to align with said driving bore for allowing driving of the fasteners having a first length, and in said second position, said nose chamber guide member is disposed out of alignment with respect to said driving bore for allowing driving of the fasteners having a second length, which is longer than the first length, characterised in that said transitioning between said first position and said second position is relative to said nose piece in a direction transverse to an operational flow direction of the fasteners from said magazine .
An aerosol-generating system comprising: a cartridge comprising: a cartridge housing ; a solid aerosol-forming substrate positioned within the cartridge housing ; a liquid aerosol-forming substrate positioned within the cartridge housing ; a porous carrier material , wherein the liquid aerosol-forming substrate is provided on the porous carrier material ; and an airflow channel positioned between the porous carrier material and the cartridge housing , wherein a downstream end of the airflow channel is in fluid communication with the solid aerosol-forming substrate ; a heater section separate from the cartridge , the heater section comprising an electric heater ; and an aerosol-generating device comprising a device housing configured to receive the cartridge and a power supply for supplying electrical power to the electric heater , the power supply positioned within the device housing . a cartridge comprising: a cartridge housing ; a solid aerosol-forming substrate positioned within the cartridge housing ; a liquid aerosol-forming substrate positioned within the cartridge housing ; a porous carrier material , wherein the liquid aerosol-forming substrate is provided on the porous carrier material ; and an airflow channel positioned between the porous carrier material and the cartridge housing , wherein a downstream end of the airflow channel is in fluid communication with the solid aerosol-forming substrate ; a cartridge housing ; a solid aerosol-forming substrate positioned within the cartridge housing ; a liquid aerosol-forming substrate positioned within the cartridge housing ; a porous carrier material , wherein the liquid aerosol-forming substrate is provided on the porous carrier material ; and an airflow channel positioned between the porous carrier material and the cartridge housing , wherein a downstream end of the airflow channel is in fluid communication with the solid aerosol-forming substrate ; a heater section separate from the cartridge , the heater section comprising an electric heater ; and an aerosol-generating device comprising a device housing configured to receive the cartridge and a power supply for supplying electrical power to the electric heater , the power supply positioned within the device housing .
A manway cover assembly comprising: a frame defining an opening and comprising a flange , wherein the flange comprises a plurality of slots ; a cover hingedly attached to the frame and thereby configured to move between a first position spaced away from the opening and a second position covering the opening; a strongback comprising a threaded opening and a plurality of arms , each arm comprising a ledge and a slot , the ledge forming a portion of the slot ; and a ram having a threaded body and an end rotatingly connected to the cover , the threaded body positioned within the threaded opening of the strongback and configured to change the relationship between the strongback and the cover as the ram rotates; wherein, the manway cover assembly is configured such that the ledge of each arm is configured for positioning within a respective one of the plurality of slots of the flange when moving the cover between the first position and the second position, and when the cover is in the second position covering the opening, the strongback is configured to rotate such that each slot of each arm engages the flange and each ledge of each arm is configured to move to engage the flange to move the manway cover assembly to a locked position, as rotation of the ram forces the strongback away from the cover until each ledge engages the flange. a frame defining an opening and comprising a flange , wherein the flange comprises a plurality of slots ; a cover hingedly attached to the frame and thereby configured to move between a first position spaced away from the opening and a second position covering the opening; a strongback comprising a threaded opening and a plurality of arms , each arm comprising a ledge and a slot , the ledge forming a portion of the slot ; and a ram having a threaded body and an end rotatingly connected to the cover , the threaded body positioned within the threaded opening of the strongback and configured to change the relationship between the strongback and the cover as the ram rotates; wherein, the manway cover assembly is configured such that the ledge of each arm is configured for positioning within a respective one of the plurality of slots of the flange when moving the cover between the first position and the second position, and when the cover is in the second position covering the opening, the strongback is configured to rotate such that each slot of each arm engages the flange and each ledge of each arm is configured to move to engage the flange to move the manway cover assembly to a locked position, as rotation of the ram forces the strongback away from the cover until each ledge engages the flange.
Viewing device (10; 10') of a motor vehicle interior , the device comprising an image sensor and an optical system for forming an image (IM0, IM1, IM2) on the image sensor with an enlargement, the viewing device (10; 10') being characterized in that the optical system comprises electrically-controllable setting means for setting said enlargement, and in that the viewing device (10; 10') further comprises: - a lighting system which comprises: - at least one light source , and - a lens for forming, from the light emitted by said source , a lighting beam (F) having a transverse dimension (L2), the lens being adapted to be electrically controlled so as to set said transverse dimension (L2), - and a control unit (13; 13') programmed to: a) control the setting means of the optical system for the enlargement to have a given value, and jointly control the lens of the lighting system so as to jointly set the transverse dimension (L2) of the lighting beam (F) and the enlargement of the viewing device (10; 10'), then b) control the capture of an image (IM1, IM2) by the image sensor . - a lighting system which comprises: - at least one light source , and - a lens for forming, from the light emitted by said source , a lighting beam (F) having a transverse dimension (L2), the lens being adapted to be electrically controlled so as to set said transverse dimension (L2), - at least one light source , and - a lens for forming, from the light emitted by said source , a lighting beam (F) having a transverse dimension (L2), the lens being adapted to be electrically controlled so as to set said transverse dimension (L2), - and a control unit (13; 13') programmed to: a) control the setting means of the optical system for the enlargement to have a given value, and jointly control the lens of the lighting system so as to jointly set the transverse dimension (L2) of the lighting beam (F) and the enlargement of the viewing device (10; 10'), then b) control the capture of an image (IM1, IM2) by the image sensor . a) control the setting means of the optical system for the enlargement to have a given value, and jointly control the lens of the lighting system so as to jointly set the transverse dimension (L2) of the lighting beam (F) and the enlargement of the viewing device (10; 10'), then b) control the capture of an image (IM1, IM2) by the image sensor .
A rotor thrust balancing system for a turbomachine, wherein the turbomachine defines a centerline extending a length of the turbomachine, the system comprising: a rotating drive shaft coupling a turbine section and a compressor section of the turbomachine; a thrust bearing supporting the rotating drive shaft of the turbomachine, the thrust bearing comprising: a plurality of ball bearings ; an inner race coupled to the rotating drive shaft ; and an outer race coupled to a fixed structure ; a first waveguide sensor coupled to the outer race at a first end of the waveguide sensor , wherein the waveguide sensor communicates a vibrational frequency from the thrust bearing to a second end of the waveguide sensor ; and a valve configured to reduce or increase pressure supplied to a thrust cavity , wherein the thrust cavity modifies a force either forward or aft on the rotating drive shaft relative to the centerline . a rotating drive shaft coupling a turbine section and a compressor section of the turbomachine; a thrust bearing supporting the rotating drive shaft of the turbomachine, the thrust bearing comprising: a plurality of ball bearings ; an inner race coupled to the rotating drive shaft ; and an outer race coupled to a fixed structure ; a plurality of ball bearings ; an inner race coupled to the rotating drive shaft ; and an outer race coupled to a fixed structure ; a first waveguide sensor coupled to the outer race at a first end of the waveguide sensor , wherein the waveguide sensor communicates a vibrational frequency from the thrust bearing to a second end of the waveguide sensor ; and a valve configured to reduce or increase pressure supplied to a thrust cavity , wherein the thrust cavity modifies a force either forward or aft on the rotating drive shaft relative to the centerline .
A random access method, applied to a contention-based access process, wherein the method comprises: determining, by a base station, that a detected first preamble value is a preamble value sent by a target terminal; calculating, by the base station, a preamble offset and a time offset of the target terminal; generating, by the base station, at least two random access response messages, wherein in the at least two random access response messages: at least one of the at least two random access response messages comprises a second preamble value and a second timing advance, TA, value, and at least one of the at least two random access response messages comprises a third preamble value and a third TA value; and the second preamble value is the same as the first preamble value, the second TA value is the same as a first TA value that corresponds to the first preamble value detected by the base station, the third preamble value is a sum of the first preamble value and the preamble offset or a difference between the first preamble value and the preamble offset, and the third TA value is a sum of the first TA value and the time offset or a difference between the first TA value and the time offset; and sending, by the base station, the at least two random access response messages to the target terminal. determining, by a base station, that a detected first preamble value is a preamble value sent by a target terminal; calculating, by the base station, a preamble offset and a time offset of the target terminal; generating, by the base station, at least two random access response messages, wherein in the at least two random access response messages: at least one of the at least two random access response messages comprises a second preamble value and a second timing advance, TA, value, and at least one of the at least two random access response messages comprises a third preamble value and a third TA value; and the second preamble value is the same as the first preamble value, the second TA value is the same as a first TA value that corresponds to the first preamble value detected by the base station, the third preamble value is a sum of the first preamble value and the preamble offset or a difference between the first preamble value and the preamble offset, and the third TA value is a sum of the first TA value and the time offset or a difference between the first TA value and the time offset; and sending, by the base station, the at least two random access response messages to the target terminal.
An intravenous (IV) priming cap comprising: a cover body having a proximal end , a distal end , and an inner surface defining a connector cavity extending into the cover body from the proximal end toward the distal end , wherein the connector cavity comprises a longitudinal connector cavity axis extending from the proximal end toward the distal end of the cover body; a priming passage the extends from within the connector cavity to outside the cover body; and a coupling tab extending from an outer surface of the cover body, the coupling tab comprising a base portion coupled to the cover body, a tip portion distal to the cover body, a tubing passage through the coupling tab , and a slot extending through an outer surface of the coupling tab to the tubing passage , wherein the coupling tab comprises a height (H10) extending along the cover body, and a length (L14) extending between the base and tip portions , and wherein the length is greater than the height such that the coupling tab is flexible, relative to the cover body, and configured to engage against a length of tubing moved through the slot to the tubing passage . a cover body having a proximal end , a distal end , and an inner surface defining a connector cavity extending into the cover body from the proximal end toward the distal end , wherein the connector cavity comprises a longitudinal connector cavity axis extending from the proximal end toward the distal end of the cover body; a priming passage the extends from within the connector cavity to outside the cover body; and a coupling tab extending from an outer surface of the cover body, the coupling tab comprising a base portion coupled to the cover body, a tip portion distal to the cover body, a tubing passage through the coupling tab , and a slot extending through an outer surface of the coupling tab to the tubing passage , wherein the coupling tab comprises a height (H10) extending along the cover body, and a length (L14) extending between the base and tip portions , and wherein the length is greater than the height such that the coupling tab is flexible, relative to the cover body, and configured to engage against a length of tubing moved through the slot to the tubing passage .
An anti-Acanthamoeba contact lens solution containing a. a cationic polymer having an average molecular weight in a range of 150,000 to 1,600,000 and having in its molecule a diallyldimethylammonium chloride unit represented by the following general formula (I): wherein n is an integer determined such that the average molecular weight of the polymer is in the range specified above); and wherein the cationic polymer is - a cationic polymer having an average molecular weight in a range of 150,000 to 1,200,000 and having in its molecule the diallyldimethylammonium chloride unit as the only polymer unit or - a cationic polymer having an average molecular weight in a range of 150,000 to 1,200,000 and having in its molecule the diallyldimethylammonium chloride unit and an acrylamide unit and/or an acrylic acid unit as polymer units; b. a borate buffer; c. a chelating agent selected from the group consisting of sodium edetate, disodium edetate and ethylenediaminetetraacetic acid; and d. an inorganic salt; wherein the anti-Acanthamoeba contact lens solution has a pH of the range between 6.4 and 8.4. a. a cationic polymer having an average molecular weight in a range of 150,000 to 1,600,000 and having in its molecule a diallyldimethylammonium chloride unit represented by the following general formula (I): wherein n is an integer determined such that the average molecular weight of the polymer is in the range specified above); and wherein the cationic polymer is - a cationic polymer having an average molecular weight in a range of 150,000 to 1,200,000 and having in its molecule the diallyldimethylammonium chloride unit as the only polymer unit or - a cationic polymer having an average molecular weight in a range of 150,000 to 1,200,000 and having in its molecule the diallyldimethylammonium chloride unit and an acrylamide unit and/or an acrylic acid unit as polymer units; - a cationic polymer having an average molecular weight in a range of 150,000 to 1,200,000 and having in its molecule the diallyldimethylammonium chloride unit as the only polymer unit or - a cationic polymer having an average molecular weight in a range of 150,000 to 1,200,000 and having in its molecule the diallyldimethylammonium chloride unit and an acrylamide unit and/or an acrylic acid unit as polymer units; b. a borate buffer; c. a chelating agent selected from the group consisting of sodium edetate, disodium edetate and ethylenediaminetetraacetic acid; and d. an inorganic salt;
A computer-implemented image processing method, comprising: determining a first estimated sparse depth map and first estimated pose information corresponding to a first video frame in a video frame sequence, wherein the video frame sequence is acquired by a mobile RGB camera; determining a first corrected sparse depth map and first corrected pose information corresponding to the first video frame based on the first video frame, the first estimated sparse depth map, the first estimated pose information, a second video frame in the video frame sequence before the first video frame, a second estimated sparse depth map and second estimated pose information corresponding to the second video frame, and a target sparse depth map that is synchronized with the first video frame and acquired by a depth camera; and determining a dense depth map corresponding to the first video frame based on the first video frame, the first corrected sparse depth map, the first corrected pose information, the second video frame, and a second corrected sparse depth map and second corrected pose information of the second video frame. determining a first estimated sparse depth map and first estimated pose information corresponding to a first video frame in a video frame sequence, wherein the video frame sequence is acquired by a mobile RGB camera; determining a first corrected sparse depth map and first corrected pose information corresponding to the first video frame based on the first video frame, the first estimated sparse depth map, the first estimated pose information, a second video frame in the video frame sequence before the first video frame, a second estimated sparse depth map and second estimated pose information corresponding to the second video frame, and a target sparse depth map that is synchronized with the first video frame and acquired by a depth camera; and determining a dense depth map corresponding to the first video frame based on the first video frame, the first corrected sparse depth map, the first corrected pose information, the second video frame, and a second corrected sparse depth map and second corrected pose information of the second video frame.
A coating composition comprising: kaolin having a shape factor of 30 to less than 70; calcium carbonate, wherein less than 80% by weight and greater than 60% by weight of particles of the calcium carbonate have an equivalent spherical diameter (esd) less than 2 μm (microns); a binder forming from 8% to 20% by weight of the solids content of the coating composition; further wherein: the ratio of kaolin to calcium carbonate is from 20:80 to 80:20; the mean particle equivalent spherical diameter (esd) of the kaolin is from 0.3 μm (micron) to 0.8 μm (micron). kaolin having a shape factor of 30 to less than 70; calcium carbonate, wherein less than 80% by weight and greater than 60% by weight of particles of the calcium carbonate have an equivalent spherical diameter (esd) less than 2 μm (microns); a binder forming from 8% to 20% by weight of the solids content of the coating composition; further wherein: the ratio of kaolin to calcium carbonate is from 20:80 to 80:20; the mean particle equivalent spherical diameter (esd) of the kaolin is from 0.3 μm (micron) to 0.8 μm (micron). the ratio of kaolin to calcium carbonate is from 20:80 to 80:20; the mean particle equivalent spherical diameter (esd) of the kaolin is from 0.3 μm (micron) to 0.8 μm (micron).
A method comprising: receiving, at a first time interval (int opt ) rate from a first sensor configured to output data indicative of a first position of an eye , first data; receiving, at a second time interval (int eog ) rate from a second sensor configured to output data indicative of a delta position of the eye , second data, wherein the type of the second sensor is distinct from the type of the first sensor ; iteratively determining , based on the first data, a first position of the eye ; iteratively determining , based on the second data, a delta position of the eye ; iteratively determining , using the first position of the eye and the delta position of the eye, a second position of the eye; characterized by the method further comprising: determining , using a plurality of said determined second positions of the eye, an eye movement behavior comprising saccadic movement, smooth pursuit, fixation, nystagmus, or vestibulo-ocular movement; updating, based on the determined eye movement behavior, the first time interval (int opt ); updating, based on the determined eye movement behavior, the second time interval (int eog ). receiving, at a first time interval (int opt ) rate from a first sensor configured to output data indicative of a first position of an eye , first data; receiving, at a second time interval (int eog ) rate from a second sensor configured to output data indicative of a delta position of the eye , second data, wherein the type of the second sensor is distinct from the type of the first sensor ; iteratively determining , based on the first data, a first position of the eye ; iteratively determining , based on the second data, a delta position of the eye ; iteratively determining , using the first position of the eye and the delta position of the eye, a second position of the eye; characterized by the method further comprising: determining , using a plurality of said determined second positions of the eye, an eye movement behavior comprising saccadic movement, smooth pursuit, fixation, nystagmus, or vestibulo-ocular movement; updating, based on the determined eye movement behavior, the first time interval (int opt ); updating, based on the determined eye movement behavior, the second time interval (int eog ). determining , using a plurality of said determined second positions of the eye, an eye movement behavior comprising saccadic movement, smooth pursuit, fixation, nystagmus, or vestibulo-ocular movement; updating, based on the determined eye movement behavior, the first time interval (int opt ); updating, based on the determined eye movement behavior, the second time interval (int eog ).