mhurhangee/patent-ind-claim-en huggingface dataset:
Method for applying liquid by means of an agricultural sprayer, in particular a field sprayer, comprising the steps of: - detecting rows of plants on an area of agriculturally productive land (N) by means of a detection device of the sprayer; and - applying liquid onto the agriculturally productive land (N) by means of application elements (12a-12k, 14a-14j), which are arranged along a spray boom of the agricultural sprayer transversely to the direction of travel, characterized in that the liquid is applied by means of a plurality of first of the application elements (12a-12k) along row regions (22a-22k) which have rows of plants (20a-20k) extending in the direction of travel, and by means of a plurality of second of the application elements (14a-14j) along intermediate regions (24a-24j), which are each located between two rows of plants (20a-20k) extending in the direction of travel, the application of liquid along the row regions (22a-22k) differing from the delivery of liquid along the intermediate regions (24a-24j) with respect to the application rate of liquid, and/or the application of liquid along the row regions (22a-22k) differing from the application of liquid along the intermediate regions (24a-24j) with respect to the application method, and/or the liquid being applied along the row regions (22a-22k) means of a first type of application elements (12a-12k) and the liquid being applied along the intermediate regions (24a-24j) by means of a second type of application elements (14a-14j). - detecting rows of plants on an area of agriculturally productive land (N) by means of a detection device of the sprayer; and - applying liquid onto the agriculturally productive land (N) by means of application elements (12a-12k, 14a-14j), which are arranged along a spray boom of the agricultural sprayer transversely to the direction of travel,
A steel-shape measurement device including a laser rangefinder and a laser-beam absorber , wherein the laser rangefinder includes a laser light source , which is configured to emit laser beams, and a galvanometer mirror , which is configured to redirect the laser beams, wherein the steel-shape measurement device is configured to measure a distance to a detection spot group on a to-be-scanned surface of a steel product (S) with the laser rangefinder by measuring the distance through scanning of the steel product (S) with a laser beam redirected with the galvanometer mirror after being emitted from the laser light source , and wherein the steel-shape measurement device is configured to measure a shape of the steel product (S) from obtained measured-distance data, characterized by the laser-beam absorber having a 45°-0° diffuse reflectance of equal to or lower than 10% and being disposed at least at one location within an irradiation range irradiated with a regularly-reflected laser beam (LS2) from the to-be-scanned surface of the steel product (S) . wherein the laser rangefinder includes a laser light source , which is configured to emit laser beams, and a galvanometer mirror , which is configured to redirect the laser beams, wherein the steel-shape measurement device is configured to measure a distance to a detection spot group on a to-be-scanned surface of a steel product (S) with the laser rangefinder by measuring the distance through scanning of the steel product (S) with a laser beam redirected with the galvanometer mirror after being emitted from the laser light source , and wherein the steel-shape measurement device is configured to measure a shape of the steel product (S) from obtained measured-distance data, characterized by the laser-beam absorber having a 45°-0° diffuse reflectance of equal to or lower than 10% and being disposed at least at one location within an irradiation range irradiated with a regularly-reflected laser beam (LS2) from the to-be-scanned surface of the steel product (S) .
A sheath for a medical device, comprising: an elongate body extending from a proximal end to a distal face ; a first hollow lumen and a second hollow lumen extending from a first end proximate the proximal end to a second end proximate the distal face ; at least one lighting device (28; 128; 228; 328; 428; 528) positioned in the sheath proximate the distal face ; a transparent window positioned at the second end of the first lumen to seal the first lumen at the second end, the transparent window being configured to transmit light therethrough; and a second transparent window positioned at the second end of the second lumen to seal the second lumen at the second end, the transparent window being configured to transmit light therethrough. an elongate body extending from a proximal end to a distal face ; a first hollow lumen and a second hollow lumen extending from a first end proximate the proximal end to a second end proximate the distal face ; at least one lighting device (28; 128; 228; 328; 428; 528) positioned in the sheath proximate the distal face ; a transparent window positioned at the second end of the first lumen to seal the first lumen at the second end, the transparent window being configured to transmit light therethrough; and a second transparent window positioned at the second end of the second lumen to seal the second lumen at the second end, the transparent window being configured to transmit light therethrough.
A method comprising: dividing a display of an electronic device into multiple regions defined by vertices; calculating time varying positions for each vertex relative to a z dimension; wherein the z dimension corresponds to an appearance of depth, and composing a screen for the display that includes the time varying positions for each vertex to create an animated display distortion; wherein the varying positions vary between enlarged and shrunken, creating a distortion in the display; wherein the varying positions appear to move closer and further away from a user viewing the display; characterized in that creating the varying positions utilizes a piston rod sin function, wherein a length of the piston rod is varied over time. dividing a display of an electronic device into multiple regions defined by vertices; calculating time varying positions for each vertex relative to a z dimension; wherein the z dimension corresponds to an appearance of depth, and composing a screen for the display that includes the time varying positions for each vertex to create an animated display distortion; wherein the varying positions vary between enlarged and shrunken, creating a distortion in the display; wherein the varying positions appear to move closer and further away from a user viewing the display; characterized in that creating the varying positions utilizes a piston rod sin function, wherein a length of the piston rod is varied over time.
A station to which a cleaner including a dust bin and a body cover selectively opening and closing a lower part of the dust bin is coupled, comprising; a coupling body to which the dust bin is coupled and forms a predetermined angle with a ground; characterized in that the station further comprises: a separating unit which separates the body cover from the dust bin ; a driving unit which rotates the coupling body horizontally to the ground; and a dust storage unit which is disposed under the coupling body . a coupling body to which the dust bin is coupled and forms a predetermined angle with a ground; characterized in that the station further comprises: a separating unit which separates the body cover from the dust bin ; a driving unit which rotates the coupling body horizontally to the ground; and a dust storage unit which is disposed under the coupling body . a separating unit which separates the body cover from the dust bin ; a driving unit which rotates the coupling body horizontally to the ground; and a dust storage unit which is disposed under the coupling body .
Method for producing asphalt comprising a heat treatment step, wherein the rubber granules from end-of-life tyres are subjected to a temperature of between 80 and 300°C, for a period of time necessary in order to obtain rubber granules with a density of between 1.0 and 1.5 g/cm3; and a mixing step comprising a first mixing operation wherein the stone aggregate and the bitumen are mixed together at a temperature of between 150 and 200°C, and a second mixing operation wherein the rubber granules are added to the mixture from the first mixing operation.
An image inspection apparatus , comprising: an inspection unit configured to inspect a formed image formed on a recording material and specify from the formed image, a portion which does not satisfy a predetermined requirement; and a conveying unit configured to sequentially convey the recording material subjected to inspection by the inspection unit; characterized by further comprising a supplying unit configured to supply a sheet either between the recording material on which the formed image having the portion which does not satisfy the predetermined requirement is formed and a subsequent recording material which is conveyed by the conveying unit or between the recording material on which the formed image is formed and a preceding recording material conveyed by the conveying unit; and an image forming unit configured to form an image on the sheet, wherein: the forming of the image onto the sheet is performed by the image forming unit such that a position of the image relative to the sheet coincides with a position of the portion relative to the recording material. an inspection unit configured to inspect a formed image formed on a recording material and specify from the formed image, a portion which does not satisfy a predetermined requirement; and a conveying unit configured to sequentially convey the recording material subjected to inspection by the inspection unit; characterized by further comprising a supplying unit configured to supply a sheet either between the recording material on which the formed image having the portion which does not satisfy the predetermined requirement is formed and a subsequent recording material which is conveyed by the conveying unit or between the recording material on which the formed image is formed and a preceding recording material conveyed by the conveying unit; and an image forming unit configured to form an image on the sheet, wherein: the forming of the image onto the sheet is performed by the image forming unit such that a position of the image relative to the sheet coincides with a position of the portion relative to the recording material.
A control system for a work vehicle comprising: a position determination unit which determines a position of loading on a loaded vehicle based on a state of loading on the loaded vehicle ; a display ; and a representation control unit which has the display show loading guidance corresponding to the position of loading determined by the position determination unit in a lateral view of the loaded vehicle . a position determination unit which determines a position of loading on a loaded vehicle based on a state of loading on the loaded vehicle ; a display ; and a representation control unit which has the display show loading guidance corresponding to the position of loading determined by the position determination unit in a lateral view of the loaded vehicle .
An aspirating detection system for monitoring for the presence of a pathogen, the aspirating detection system comprising: a network of one or more pipes for sampling air from a plurality of locations monitored by the aspirating detection system; a plurality of sensor units , each sensor unit comprising a housing fluidly connected to the network of one or more pipes; and one or more aspirators configured to draw airflow through the network of one or more pipes and through the sensor units; wherein the plurality of sensor units comprises: a first sensor unit comprising a sensor mounted within the housing configured to monitor for the presence of smoke; and a second sensor unit comprising a biosensor mounted within the housing, the biosensor being configured to monitor for the presence of the pathogen. a network of one or more pipes for sampling air from a plurality of locations monitored by the aspirating detection system; a plurality of sensor units , each sensor unit comprising a housing fluidly connected to the network of one or more pipes; and one or more aspirators configured to draw airflow through the network of one or more pipes and through the sensor units; wherein the plurality of sensor units comprises: a first sensor unit comprising a sensor mounted within the housing configured to monitor for the presence of smoke; and a second sensor unit comprising a biosensor mounted within the housing, the biosensor being configured to monitor for the presence of the pathogen. a first sensor unit comprising a sensor mounted within the housing configured to monitor for the presence of smoke; and a second sensor unit comprising a biosensor mounted within the housing, the biosensor being configured to monitor for the presence of the pathogen.
A non-aqueous electrolyte solution comprising: a non-aqueous organic solvent; lithium bis(fluorosulfonyl)imide (LiFSI); a lithium salt in addition to the lithium bis(fluorosulfonyl)imide (LiFSI), the lithium salt comprising one selected from LiPF 6 , LiBF 4 , LiSbF 6 , LiAsF 6 , LiClO 4 , LiN(C 2 F 5 SO 2 ) 2 , LiN(CF 3 SO 2 ) 2 , CF 3 SO 3 Li, LiC(CF 3 SO 2 ) 3 , and LiC 4 BO 8 , or a mixture of two or more thereof; and a pyridine-based compound represented by Formula 1 in an amount of 0.01 wt% to 3 wt% based on a total weight of the non-aqueous electrolyte solution: wherein a concentration of the lithium bis(fluorosulfonyl)imide (LiFSI) in the non-aqueous electrolyte solution is in a range of 0.01 mol/L to 2 mol/L. a non-aqueous organic solvent; lithium bis(fluorosulfonyl)imide (LiFSI); a lithium salt in addition to the lithium bis(fluorosulfonyl)imide (LiFSI), the lithium salt comprising one selected from LiPF 6 , LiBF 4 , LiSbF 6 , LiAsF 6 , LiClO 4 , LiN(C 2 F 5 SO 2 ) 2 , LiN(CF 3 SO 2 ) 2 , CF 3 SO 3 Li, LiC(CF 3 SO 2 ) 3 , and LiC 4 BO 8 , or a mixture of two or more thereof; and a pyridine-based compound represented by Formula 1 in an amount of 0.01 wt% to 3 wt% based on a total weight of the non-aqueous electrolyte solution: wherein a concentration of the lithium bis(fluorosulfonyl)imide (LiFSI) in the non-aqueous electrolyte solution is in a range of 0.01 mol/L to 2 mol/L.
A water tank assembly, comprising: a water storage box , provided with a water outlet at a bottom thereof; a box cover , fastened to an opening of the water storage box ; and a fence , rotatably arranged around the water storage box , wherein the fence and the box cover enclose a space for placing articles when the fence is rotated to a position above the water storage box ; and the fence and a bottom wall or a side wall of the water storage box enclose a second storage space, forming a box cover placement space when the fence is rotated to a position under or beside the water storage box . a water storage box , provided with a water outlet at a bottom thereof; a box cover , fastened to an opening of the water storage box ; and a fence , rotatably arranged around the water storage box , wherein the fence and the box cover enclose a space for placing articles when the fence is rotated to a position above the water storage box ; and the fence and a bottom wall or a side wall of the water storage box enclose a second storage space, forming a box cover placement space when the fence is rotated to a position under or beside the water storage box .
An assembly column-beam connection component, comprising a vertically-oriented connecting body for connecting to columns and a horizontally-oriented connecting body for connecting to beams; one end of the horizontally-oriented connecting body is connected to the vertically-oriented connecting body ; the vertically-oriented connecting body comprises sequentially arranged front sidewall , left sidewall , rear sidewall , and right sidewall ; characterized in that the left sidewall and rear sidewall have the same width, while the front sidewall and right sidewall have the same width, which is smaller than that of the left sidewall and rear sidewall ; the front sidewall connected to the left sidewall and the right sidewall connected to the rear sidewall are joined by an inwardly bent right-angled wall plate ; two horizontally-oriented connecting bodies are each connected to the front sidewall or right sidewall ; each of the sidewalls is equipped with inward concave portions extending along the length of the vertically-oriented connecting body in the vertical direction; the concave portions on the left sidewall and rear sidewall are positioned near the junction of the left sidewall and rear sidewall ; the concave portions on the front sidewall and right sidewall are situated at their respective centers; a plurality of installation through-holes for connecting to columns are provided on the sidewalls of at least one end of the vertically-oriented connecting body . the vertically-oriented connecting body comprises sequentially arranged front sidewall , left sidewall , rear sidewall , and right sidewall ; characterized in that the left sidewall and rear sidewall have the same width, while the front sidewall and right sidewall have the same width, which is smaller than that of the left sidewall and rear sidewall ; the front sidewall connected to the left sidewall and the right sidewall connected to the rear sidewall are joined by an inwardly bent right-angled wall plate ; two horizontally-oriented connecting bodies are each connected to the front sidewall or right sidewall ; each of the sidewalls is equipped with inward concave portions extending along the length of the vertically-oriented connecting body in the vertical direction; the concave portions on the left sidewall and rear sidewall are positioned near the junction of the left sidewall and rear sidewall ; the concave portions on the front sidewall and right sidewall are situated at their respective centers; a plurality of installation through-holes for connecting to columns are provided on the sidewalls of at least one end of the vertically-oriented connecting body .
A method of generating computer graphics, the method comprising: receiving , by a computing device , a plurality of sets of intermediate graphics data from a different computing device , wherein the sets of intermediate graphics data are generated by a first portion of an image rendering process for a plurality of graphics objects in a scene, wherein each graphics object has an associated depth value and comprises one or more graphics primitives, wherein the graphics objects are grouped into a plurality of depth layers based on their associated depth values, wherein each depth layer has an associated depth value and each graphics object is assigned to the depth layer having the depth value that is closest to the depth value of the graphics object, wherein each set of the plurality of sets of intermediate graphics data comprises partially rendered graphics objects of a respective depth layer; and performing , by a graphics processing unit, GPU , of the computing device, a second portion of the image rendering process to render an image from the plurality of sets of intermediate graphics data in combination. receiving , by a computing device , a plurality of sets of intermediate graphics data from a different computing device , wherein the sets of intermediate graphics data are generated by a first portion of an image rendering process for a plurality of graphics objects in a scene, wherein each graphics object has an associated depth value and comprises one or more graphics primitives, wherein the graphics objects are grouped into a plurality of depth layers based on their associated depth values, wherein each depth layer has an associated depth value and each graphics object is assigned to the depth layer having the depth value that is closest to the depth value of the graphics object, wherein each set of the plurality of sets of intermediate graphics data comprises partially rendered graphics objects of a respective depth layer; and performing , by a graphics processing unit, GPU , of the computing device, a second portion of the image rendering process to render an image from the plurality of sets of intermediate graphics data in combination.
A secondary cell activation method, comprising: receiving (S420), by a terminal device, activation signaling of a secondary cell sent by a network device, wherein the activation signaling comprises at least one piece of first quasi co-location indication information; and activating (S430), by the terminal device, the secondary cell based on the activation signaling; wherein the activation signaling is received by the terminal device by means of a medium access control-control element, MAC CE, and wherein the activation signaling further comprises indication information of a plurality of component carriers, and at least one piece of said first quasi co-location indication information corresponds to one group of component carriers in the plurality of component carriers. receiving (S420), by a terminal device, activation signaling of a secondary cell sent by a network device, wherein the activation signaling comprises at least one piece of first quasi co-location indication information; and activating (S430), by the terminal device, the secondary cell based on the activation signaling; wherein the activation signaling is received by the terminal device by means of a medium access control-control element, MAC CE, and wherein the activation signaling further comprises indication information of a plurality of component carriers, and at least one piece of said first quasi co-location indication information corresponds to one group of component carriers in the plurality of component carriers.
An ink-jet printing method comprising the step of ejecting a water-based ink onto a printing medium using a printing apparatus to print characters or images on the printing medium , said printing apparatus comprising an ink-jet printing head that ejects the water-based ink onto the printing medium that is transported in a feeding direction thereof; and a drying mechanism that is disposed on a downstream side in a feeding direction of the printing medium, in which the printing medium is in the form of a transparent resin printing medium, and the water-based ink comprises a white ink, and a black or chromatic ink, and characterized in that the drying mechanism blows a superheated steam that is heated to a temperature of not lower than 100°C and not higher than 180°C against at least one of a printing surface and an opposite surface of the printing medium.
A human antibody, or antigen binding fragment thereof, specific for human CD40 comprising the CDRs of: (a) SEQ ID NOs 13, 14, 15, 16, 17 and 18 (CDRs of antibody 1132/1133); or (b) SEQ ID NOs 1, 2, 3, 4, 5 and 6 (CDRs of antibody 1146/1147); or (c) SEQ ID NOs 19, 20, 21, 22, 23 and 24 (CDRs of antibody 1148/1149); or (d) SEQ ID NOs 37, 38, 39, 40, 41 and 42 (CDRs of antibody 1136/1137); wherein the antibody or fragment thereof comprises: (i) a heavy chain variable region amino acid sequence having at least 90% amino acid sequence identity to a sequence of SEQ ID NO: 65, 61, 67 or 73; and (ii) a light chain variable region amino acid sequence having at least 90% amino acid sequence identity to a sequence of SEQ ID NO: 66, 62, 68 or 74. (a) SEQ ID NOs 13, 14, 15, 16, 17 and 18 (CDRs of antibody 1132/1133); or (b) SEQ ID NOs 1, 2, 3, 4, 5 and 6 (CDRs of antibody 1146/1147); or (c) SEQ ID NOs 19, 20, 21, 22, 23 and 24 (CDRs of antibody 1148/1149); or (d) SEQ ID NOs 37, 38, 39, 40, 41 and 42 (CDRs of antibody 1136/1137); (i) a heavy chain variable region amino acid sequence having at least 90% amino acid sequence identity to a sequence of SEQ ID NO: 65, 61, 67 or 73; and (ii) a light chain variable region amino acid sequence having at least 90% amino acid sequence identity to a sequence of SEQ ID NO: 66, 62, 68 or 74.