mhurhangee/patent-ind-claim-en huggingface dataset:
A process of producing a duplex stainless steel tube, said duplex stainless steel having the following composition in weight %, C 0-0.3; Cr 22-26; Cu 0-0.5; Mn 0-1.2; Mo 3.0-4.0, N 0-0.35; Ni 5.0-7.0; Si 0.2-0.8; balance Fe and unavoidable impurities, said process comprising the steps of a) producing an ingot or a continuous casted billet of said duplex stainless steel; b) hot extruding the ingot or the billet obtained from step a) into a tube; and c) cold rolling the tube obtained from step b) to a final dimension thereof; wherein the outer diameter D and the wall thickness t of the cold rolled tube is 50-250 mm respectively is 5-25 mm, wherein, for the cold rolling step, R and Q are set such that the following formula is satisfied: Rp 0.2 target = 416.53 + 113.26 ⋅ logQ + 4.0479 ⋅ R + 2694.9 ⋅ C % − 82.750 ⋅ logQ 2 − 0.04279 ⋅ R 2 − 2.2601 ⋅ logQ ⋅ R + 16.9 ⋅ Cr % + 26.1 ⋅ Mo % + 83.6 ⋅ N % ± Z wherein - Rp0.2target is targeted yield strength and is 800 - 1100 MPa Q = W 0 − W 1 × OD 0 − W 0 / W 0 OD 0 − W 0 − OD 1 − W 1 wherein W1 is tube wall thickness after cold rolling, W0 is tube wall thickness before cold rolling, OD1 is outer diameter of tube after cold rolling, and OD0 is outer diameter of tube before cold rolling, - R is cold reduction and is defined as R = 1 − A 1 A 0 - wherein A1 is tube cross sectional area after cold rolling and A0 is tube cross sectional before cold rolling; - Z=65, and wherein 0<Q<3.6. a) producing an ingot or a continuous casted billet of said duplex stainless steel; b) hot extruding the ingot or the billet obtained from step a) into a tube; and c) cold rolling the tube obtained from step b) to a final dimension thereof; - Rp0.2target is targeted yield strength and is 800 - 1100 MPa Q = W 0 − W 1 × OD 0 − W 0 / W 0 OD 0 − W 0 − OD 1 − W 1 wherein W1 is tube wall thickness after cold rolling, W0 is tube wall thickness before cold rolling, OD1 is outer diameter of tube after cold rolling, and OD0 is outer diameter of tube before cold rolling, - R is cold reduction and is defined as R = 1 − A 1 A 0 - wherein A1 is tube cross sectional area after cold rolling and A0 is tube cross sectional before cold rolling; - Z=65,
An isolated antibody, or antigen-binding fragment thereof, which specifically binds to a human argininosuccinate synthase polypeptide and comprises a heavy chain variable region (VH) sequence that comprises complementary determining region VHCDR1, VHCDR2, and VHCDR3 sequences set forth respectively in SEQ ID NOs:7, 8, and 9, and a light chain variable region (VL) sequence that comprises complementary determining region VLCDR1, VLCDR2, and VLCDR3 sequences set forth respectively in SEQ ID NOs:10, 11, and 12.
A bottle adapter connector comprising: a generally cylindrical body comprising an outer peripheral surface having an outer diameter (Di) at an upper end and a lower end of the body and a length (H) extending from the upper end to the lower end of the body, and an inner peripheral surface ; and a recess defined by the inner peripheral surface of the body, a base member , and a male coupling generally centrally positioned on the base member , the male coupling comprising a conduit extending therethrough; characterized in that : the outer peripheral surface of the body defines a plurality of outer peripheral flanges or steps that are flexible, resilient and configured to press-in and frictionally engage the opening of a bottle, wherein the plurality of outer peripheral flanges or steps are laterally offset from each other extending along the entire length (H) of the body; and the bottle adapter connector is configured to engage a bottle opening having an interior diameter of up to 5 millimetres difference with respect to the diameter (D 1 ) of the body. a generally cylindrical body comprising an outer peripheral surface having an outer diameter (Di) at an upper end and a lower end of the body and a length (H) extending from the upper end to the lower end of the body, and an inner peripheral surface ; and a recess defined by the inner peripheral surface of the body, a base member , and a male coupling generally centrally positioned on the base member , the male coupling comprising a conduit extending therethrough; characterized in that : the outer peripheral surface of the body defines a plurality of outer peripheral flanges or steps that are flexible, resilient and configured to press-in and frictionally engage the opening of a bottle, wherein the plurality of outer peripheral flanges or steps are laterally offset from each other extending along the entire length (H) of the body; and the bottle adapter connector is configured to engage a bottle opening having an interior diameter of up to 5 millimetres difference with respect to the diameter (D 1 ) of the body. the outer peripheral surface of the body defines a plurality of outer peripheral flanges or steps that are flexible, resilient and configured to press-in and frictionally engage the opening of a bottle, wherein the plurality of outer peripheral flanges or steps are laterally offset from each other extending along the entire length (H) of the body; and the bottle adapter connector is configured to engage a bottle opening having an interior diameter of up to 5 millimetres difference with respect to the diameter (D 1 ) of the body.
An injectable formulation of fosnetupitant, liquid or lyophilized, comprising: a) fosnetupitant or a pharmaceutically acceptable salt thereof; b) optionally palonosetron or a pharmaceutically acceptable salt thereof; c) sodium hydroxide; d) disodium edetate; e) optionally hydrochloric acid; and f) mannitol. a) fosnetupitant or a pharmaceutically acceptable salt thereof; b) optionally palonosetron or a pharmaceutically acceptable salt thereof; c) sodium hydroxide; d) disodium edetate; e) optionally hydrochloric acid; and f) mannitol.
A truck for a railcar having at least three wheelsets in a truck frame of the one truck , in which in each of the wheelsets , axle boxes are supported by the truck frame through axle springs ; the truck being configured such that spring constants of both-end axle springs in the respective wheelsets located at both ends of the at least three wheelsets are set to be larger than a spring constant of a middle axle spring , which is an axle spring of at least one wheelset other than those at the both ends; characterised in that : assuming that the spring constant of the middle axle spring is k1, the spring constants of the both-end axle springs are k2, and the spring constant in the spring action of the truck frame with respect to the carbody load is kt, wherein the following relationship therebetween is established, k 2 = 1 / 1 / k 1 − 1 / kt .
A method of monitoring the collection of plant material, comprising the following steps: on a worksite, collecting plant location and attribute data suited for a later identification of the respective plant material, before and/or during and/or after harvesting the plant material on the worksite; providing the plant location and the attribute data on a collecting vehicle adapted to collect the harvested plant material; moving the collecting vehicle to the harvested plant material on the worksite, based on the plant location data; collecting the harvested plant material in a loading space of the collecting vehicle ; characterized by sensing attribute data of the harvested plant material with at least one sensor , within a chronological context with the collecting step, before or during the collecting; comparing the sensed attribute data with the plant attribute data and generating an output dependent on the result of the comparison, and presenting the result of the comparison to an operator of the collecting vehicle via a user interface including displaying an error message if the comparison reveals that the stored plant attribute data and the sensed plant attribute data do not match. on a worksite, collecting plant location and attribute data suited for a later identification of the respective plant material, before and/or during and/or after harvesting the plant material on the worksite; providing the plant location and the attribute data on a collecting vehicle adapted to collect the harvested plant material; moving the collecting vehicle to the harvested plant material on the worksite, based on the plant location data; collecting the harvested plant material in a loading space of the collecting vehicle ; characterized by sensing attribute data of the harvested plant material with at least one sensor , within a chronological context with the collecting step, before or during the collecting; comparing the sensed attribute data with the plant attribute data and generating an output dependent on the result of the comparison, and presenting the result of the comparison to an operator of the collecting vehicle via a user interface including displaying an error message if the comparison reveals that the stored plant attribute data and the sensed plant attribute data do not match.
A vehicle-to-infrastructure cooperation information processing method, comprising: acquiring (S11) first on-board perception data of a target vehicle, the first on-board perception data comprising data of an obstacle around the target vehicle sensed by the target vehicle; generating (S12) virtual obstacle data for representing the target vehicle in the onboard perception data virtually, according to positioning data of the target vehicle; generating (S13) second on-board perception data based on the virtual obstacle data and the first on-board perception data; and fusing (S14) the second on-board perception data with roadside perception data to obtain fusion data, the fusion data comprising all obstacle data in both the second on-board perception data and the roadside perception data, and obstacle data in the roadside perception data comprising obstacle data for representing the target vehicle, wherein the generating (S13) the second on-board perception data based on the virtual obstacle data and the first on-board perception data, comprises: assigning a first target value to a type field of the virtual obstacle data for representing the target vehicle; and adding the virtual obstacle data assigned with the first target value to the first onboard perception data to obtain the second on-board perception data. acquiring (S11) first on-board perception data of a target vehicle, the first on-board perception data comprising data of an obstacle around the target vehicle sensed by the target vehicle; generating (S12) virtual obstacle data for representing the target vehicle in the onboard perception data virtually, according to positioning data of the target vehicle; generating (S13) second on-board perception data based on the virtual obstacle data and the first on-board perception data; and fusing (S14) the second on-board perception data with roadside perception data to obtain fusion data, the fusion data comprising all obstacle data in both the second on-board perception data and the roadside perception data, and obstacle data in the roadside perception data comprising obstacle data for representing the target vehicle, wherein the generating (S13) the second on-board perception data based on the virtual obstacle data and the first on-board perception data, comprises: assigning a first target value to a type field of the virtual obstacle data for representing the target vehicle; and adding the virtual obstacle data assigned with the first target value to the first onboard perception data to obtain the second on-board perception data. assigning a first target value to a type field of the virtual obstacle data for representing the target vehicle; and adding the virtual obstacle data assigned with the first target value to the first onboard perception data to obtain the second on-board perception data.
A computer implemented method comprising: forming a blur map of images of a focal stack by estimating a blur between each pixel and a corresponding pixel in another image of the focal stack; generating a relative depth map by comparing thresholded blur maps, wherein the pixels with similar blur level are classified as the same depth level, and wherein each of the images have a set of in-focus pixels; characterized in that the computer implemented method further comprises: applying an image matting technique on images for producing matting maps, wherein in-focus pixels of an image are used as foreground indication, and the in-focus pixels in all other images are used as background indication; comparing the matting maps with the threshold to extract foreground and background regions of images; forming and displaying foreground regions merged into one image as segment regions for selection of at least one segment region; and fusing a focal stack of images into a refocused image, wherein the refocused image comprises selected segment regions from at least two of the images of the focal stack. forming a blur map of images of a focal stack by estimating a blur between each pixel and a corresponding pixel in another image of the focal stack; generating a relative depth map by comparing thresholded blur maps, wherein the pixels with similar blur level are classified as the same depth level, and wherein each of the images have a set of in-focus pixels; characterized in that the computer implemented method further comprises: applying an image matting technique on images for producing matting maps, wherein in-focus pixels of an image are used as foreground indication, and the in-focus pixels in all other images are used as background indication; comparing the matting maps with the threshold to extract foreground and background regions of images; forming and displaying foreground regions merged into one image as segment regions for selection of at least one segment region; and fusing a focal stack of images into a refocused image, wherein the refocused image comprises selected segment regions from at least two of the images of the focal stack. applying an image matting technique on images for producing matting maps, wherein in-focus pixels of an image are used as foreground indication, and the in-focus pixels in all other images are used as background indication; comparing the matting maps with the threshold to extract foreground and background regions of images; forming and displaying foreground regions merged into one image as segment regions for selection of at least one segment region; and fusing a focal stack of images into a refocused image, wherein the refocused image comprises selected segment regions from at least two of the images of the focal stack.
A variable section nozzle comprising an ejection casing and a plurality of internal flaps arranged in a ring downstream from the ejection casing, each internal flap being connected to the ejection casing by a movable lever (210; 220) pivotally mounted to the downstream end of the ejection casing , each lever being movable between a first position in which the internal flaps are in a high position and a second position in which the internal flaps are in a folded-down position, the nozzle further comprising a plurality of rigid movement transmission parts distributed circumferentially around the ejection casing , each rigid movement transmission part being connected respectively to two adjacent levers by first and second connecting rods , each rigid movement transmission part also being connected to a control actuator , each rigid movement transmission part being suitable for moving in a direction (D230) corresponding to the axial direction (XX') of the nozzle under the action of the control actuator to which it is connected in such a manner as to move the adjacent levers between the first and second positions; the nozzle being characterized in that each rigid movement transmission part is connected to a guide carriage slidably mounted in a respective slideway , each slideway being fastened on the ejection casing upstream from the levers in a direction corresponding to the axial direction (XX') of the nozzle , each slideway being in axial alignment with a control actuator , or in that each rigid movement transmission part is connected to two guide carriages each slidably mounted in a respective slideway (470; 471), each slideway being fastened on the ejection casing upstream from each lever (410; 420) in a direction corresponding to the axial direction (XX') of the nozzle, the slideways being offset in the circumferential direction relative to each control actuator .
At least one non-transitory computer readable storage medium comprising a set of instructions, which, if executed by at least one processor at a first compute node of a peer-to-peer, P2P, network (105; 205; 305; 405), cause the at least one processor to: listen, at the first compute node (105; 205; 305; 405), for a connection request on at least one network port from a second compute node of the P2P network (155; 255; 355; 455); receive a connection request on the network port from the second compute node (155; 255; 355; 455); receive a content sharing request from the second compute node (155; 255; 355; 455); and establish a data path with the second compute node (155; 255; 355; 455) based on the sharing request; characterized in that the set of instructions, if executed by the at least one processor, further cause the at least one processor to establish a persistent control path with the second compute node (155; 255; 355; 455) following the received connection request. listen, at the first compute node (105; 205; 305; 405), for a connection request on at least one network port from a second compute node of the P2P network (155; 255; 355; 455); receive a connection request on the network port from the second compute node (155; 255; 355; 455); receive a content sharing request from the second compute node (155; 255; 355; 455); and establish a data path with the second compute node (155; 255; 355; 455) based on the sharing request; characterized in that the set of instructions, if executed by the at least one processor, further cause the at least one processor to establish a persistent control path with the second compute node (155; 255; 355; 455) following the received connection request.
A three-dimensional object producing method comprising: forming a powder material layer with a powder material for three-dimensional object formation, where the powder material includes a base material and a resin including a reactive functional group; and applying a curing liquid to the powder material layer to form a cured product, where the curing liquid contains a curing agent capable of forming a covalent bond with the reactive functional group, wherein the curing agent includes an aliphatic compound having two or more isocyanate groups at a molecular terminal thereof. forming a powder material layer with a powder material for three-dimensional object formation, where the powder material includes a base material and a resin including a reactive functional group; and applying a curing liquid to the powder material layer to form a cured product, where the curing liquid contains a curing agent capable of forming a covalent bond with the reactive functional group, wherein the curing agent includes an aliphatic compound having two or more isocyanate groups at a molecular terminal thereof.
A photocurable primer composition, comprising: (a) a (meth)acrylate monomer component; (b) a photoinitiator component; and (c) a rubber component comprising the combination of a core shell rubber having a mean diameter in the range of 100 to 300 nm and a polyvinyl butyral component having a molecular weight of less than 120,000 Mw. (a) a (meth)acrylate monomer component; (b) a photoinitiator component; and (c) a rubber component comprising the combination of a core shell rubber having a mean diameter in the range of 100 to 300 nm and a polyvinyl butyral component having a molecular weight of less than 120,000 Mw.
A method for receiving common reference signals in a wireless communications system, the method comprising: receiving an indicator from a base station (105, 105a - 105e) that a phase discontinuity is used between a first common reference signal, CRS, transmission and a second CRS transmission; receiving the first CRS transmission and the second CRS transmission without maintaining a phase continuity between the first CRS transmission and the second CRS transmission; receiving a third CRS transmission and a fourth CRS transmission that use a continuous CRS phase; and receiving an indicator from a base station (105, 105a - 105e) that the phase continuity is used between the third CRS transmission and the fourth CRS transmission. receiving an indicator from a base station (105, 105a - 105e) that a phase discontinuity is used between a first common reference signal, CRS, transmission and a second CRS transmission; receiving the first CRS transmission and the second CRS transmission without maintaining a phase continuity between the first CRS transmission and the second CRS transmission; receiving a third CRS transmission and a fourth CRS transmission that use a continuous CRS phase; and receiving an indicator from a base station (105, 105a - 105e) that the phase continuity is used between the third CRS transmission and the fourth CRS transmission.
An electronic device , the electronic device comprising: a first component carrier package comprising a first electronic component embedded in the first component carrier package and comprising at least one first external terminal ; a second component carrier package comprising a second electronic component embedded in the second component carrier package and comprising at least one second external terminal ; wherein the second component carrier package is mounted on the first component carrier package by electrically and mechanically connecting the at least one first external terminal with the at least one second external terminal ; wherein the first component carrier package further comprises an electromagnetic radiation shielding structure , formed as an electrically conductive coating, the electromagnetic radiation shielding structure being configured for entirely shielding electromagnetic radiation from propagating between an exterior and an interior of the first component carrier package and characterised in that the electromagnetic radiation shielding structure being configured for providing an hermetic shielding of the electronic device with regard to electromagnetic radiation, wherein the electronic device is entirely surrounded by the electromagnetic radiation shielding structure . a first component carrier package comprising a first electronic component embedded in the first component carrier package and comprising at least one first external terminal ; a second component carrier package comprising a second electronic component embedded in the second component carrier package and comprising at least one second external terminal ; wherein the second component carrier package is mounted on the first component carrier package by electrically and mechanically connecting the at least one first external terminal with the at least one second external terminal ; wherein the first component carrier package further comprises an electromagnetic radiation shielding structure , formed as an electrically conductive coating, the electromagnetic radiation shielding structure being configured for entirely shielding electromagnetic radiation from propagating between an exterior and an interior of the first component carrier package and characterised in that the electromagnetic radiation shielding structure being configured for providing an hermetic shielding of the electronic device with regard to electromagnetic radiation, wherein the electronic device is entirely surrounded by the electromagnetic radiation shielding structure .