mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a rotary-cylinder lock set intended to be actuated by a key with multiple tracks (101, 102, 103, 104) respectively arranged on both faces of the key, said lock set including at least two types of tumblers (31, 32, 33, 34, 35, 36), said lock set including a rotor mounted movable in axial rotation inside a stator, and at least one guide housing (41, 42, 43, 44, 45, 46) arranged through the rotor, and capable of receiving a tumbler (31, 32, 33, 34, 35, 36) of each of said at least two types of tumblers (31, 32, 33, 34, 35, 36) said tumbler being mounted movable in displacement in said guide housing (41, 42, 43, 44, 45, 46), between a locking position blocking the axial rotation of said rotor and an unlocked position releasing said axial rotation, each tumbler (31, 32, 33, 34, 35, 36) being, on the one hand, coupled to an elastic return means (51, 52, 53, 54, 55, 56) which permanently drives it in the locking position and, on the other hand, capable of being displaced in the unlocked position by slipping along a track (101, 102, 103, 104) of the key when said key is fully inserted inside the rotor, each of said at least two types of tumblers (31, 32, 33, 34, 35, 36) being designed to be respectively capable of cooperating with each of the two tracks (101, 102, 103, 104) of the key and coming in the unlocked position in this given housing when said key is inserted in the rotor, wherein each guide housing (41, 42, 43, 44, 45, 46) is capable of indifferently receiving a tumbler of said at least two types of tumblers (31, 32, 33, 34, 35, 36), and a tumbler of the first type cooperates with a first track (101, 102, 103, 104) arranged on one of the faces of the key, and a tumbler of the second type cooperates with a track (101, 102, 103, 104) arranged on the other face of the key, substantially at the same level as the first track, the tumblers (31, 32, 33, 34, 35, 36) coming in the unlocked position in this housing in opposition with respect to the driving force exerted by the associated elastic return means (51, 52, 53, 54, 55, 56), when said key is inserted in the rotor, and wherein all the elastic return means (51, 52, 53, 54, 55, 56) are implanted in the rotor to the same side of the tumblers (31, 32, 33, 34, 35, 36), the corresponding crimping being carried out simultaneously.
An inertial sensor (100; 200; 300) comprising: a central anchor (130; 230; 330); a proof mass (110; 210; 310), wherein the proof mass surrounds the central anchor; a flexure (120; 220; 320), the flexure having a shape comprising a first set of spiral arms, the first set of spiral arms comprising a first plurality of N spiral arms (121; 221; 321) and a second plurality of N spiral arms (122; 222; 322), where N is an integer greater than 1, each of the arms connected between the central anchor and the proof mass and lying in a first plane, each of the arms of the first plurality of N spiral arms winding about the central anchor in a first sense and each of the arms of the second plurality of N spiral arms winding about the central anchor in a second sense, the second sense being opposite to the first sense; and a plurality of electrodes comprising, at least one drive electrode (151, 152) for driving the proof mass in a first mode of vibration, and at least one sense electrode (153, 154) for sensing a response of the proof mass in a second mode of vibration. a central anchor (130; 230; 330); a proof mass (110; 210; 310), wherein the proof mass surrounds the central anchor; a flexure (120; 220; 320), the flexure having a shape comprising a first set of spiral arms, the first set of spiral arms comprising a first plurality of N spiral arms (121; 221; 321) and a second plurality of N spiral arms (122; 222; 322), where N is an integer greater than 1, each of the arms connected between the central anchor and the proof mass and lying in a first plane, each of the arms of the first plurality of N spiral arms winding about the central anchor in a first sense and each of the arms of the second plurality of N spiral arms winding about the central anchor in a second sense, the second sense being opposite to the first sense; and a plurality of electrodes comprising, at least one drive electrode (151, 152) for driving the proof mass in a first mode of vibration, and at least one sense electrode (153, 154) for sensing a response of the proof mass in a second mode of vibration.
An environmental barrier coating system for a component of a gas turbine, comprising: at least one rare earth disilicate layer; and at least one rare earth monosilicate layer, wherein at least one of the at least one rare earth disilicate layer or the at least one rare earth monosilicate layer includes an alkaline earth oxide dopant, characterized in that the at least one rare earth monosilicate layer is doped and an amount of the alkaline earth oxide dopant is 1-25 mole % of the layer, and in that the amount of the dopant is limited such that the dopant either reduces the coefficient of thermal expansion or increases the coefficient of thermal expansion of the at least one rare earth monosilicate layer by less than 10%, and wherein the addition of the alkaline earth oxide dopant promotes the formation of an apatite phase and increases the chemical activity of the alkaline earth oxide to a level that reduces the driving force for chemical reaction with dust deposits. at least one rare earth disilicate layer; and at least one rare earth monosilicate layer, wherein at least one of the at least one rare earth disilicate layer or the at least one rare earth monosilicate layer includes an alkaline earth oxide dopant, characterized in that the at least one rare earth monosilicate layer is doped and an amount of the alkaline earth oxide dopant is 1-25 mole % of the layer, and in that the amount of the dopant is limited such that the dopant either reduces the coefficient of thermal expansion or increases the coefficient of thermal expansion of the at least one rare earth monosilicate layer by less than 10%, and wherein the addition of the alkaline earth oxide dopant promotes the formation of an apatite phase and increases the chemical activity of the alkaline earth oxide to a level that reduces the driving force for chemical reaction with dust deposits.
A foil for a secondary battery negative electrode collector comprising, in the following order: a first Cu layer made of Cu or a Cu-based alloy; a stainless steel layer made of martensitic stainless steel containing Ni of more than 0.6% by mass and 3.0% by mass or less, Cr of 10.5% by mass or more and C of 1.2% by mass or less, and exhibiting a two-phase structure of a ferrite phase and a martensite phase; and a second Cu layer made of Cu or a Cu-based alloy, wherein a total thickness is 200 um or less and a 0.01% proof stress is 500 MPa or more, the 0.01% proof stress being measured according to the method disclosed in the description, and a ratio of the ferrite phase and the martensite phase is 50% or less for the ferrite phase and 50% or more for the martensite phase. a first Cu layer made of Cu or a Cu-based alloy; a stainless steel layer made of martensitic stainless steel containing Ni of more than 0.6% by mass and 3.0% by mass or less, Cr of 10.5% by mass or more and C of 1.2% by mass or less, and exhibiting a two-phase structure of a ferrite phase and a martensite phase; and a second Cu layer made of Cu or a Cu-based alloy, wherein a total thickness is 200 um or less and a 0.01% proof stress is 500 MPa or more, the 0.01% proof stress being measured according to the method disclosed in the description, and a ratio of the ferrite phase and the martensite phase is 50% or less for the ferrite phase and 50% or more for the martensite phase.
A composition comprising (i) a neonicotinoid; and (ii) a compound of formula I, wherein, R 1 is a C 1 to C 12 alkyl; and R 2 is selected from H and a C 1 to C 5 alkyl. R 1 is a C 1 to C 12 alkyl; and R 2 is selected from H and a C 1 to C 5 alkyl.
A method for uplink, UL, multi-user, MU, transmission by a station, STA, in a wireless communication system, the method comprising: receiving a trigger frame including resource allocation information indicating a resource for the UL MU transmission from an access point, AP; transmitting a UL frame in response to the trigger frame to the AP; and receiving an acknowledgement frame in response to the UL frame from the AP, wherein the UL frame includes legacy fields, a high-efficiency-SIGNAL-A, HE-SIG-A, field, a high efficiency-short training field, HE-STF, a high-efficiency-long training field, HE-LTF, and a data field, wherein the UL frame does not include a high-efficiency-SIGNAL-B, HE-SIG-B, field, wherein the HE-STF, the HE-LTF, and the data field are transmitted in the resource based on the resource allocation information. receiving a trigger frame including resource allocation information indicating a resource for the UL MU transmission from an access point, AP; transmitting a UL frame in response to the trigger frame to the AP; and receiving an acknowledgement frame in response to the UL frame from the AP, wherein the UL frame includes legacy fields, a high-efficiency-SIGNAL-A, HE-SIG-A, field, a high efficiency-short training field, HE-STF, a high-efficiency-long training field, HE-LTF, and a data field, wherein the UL frame does not include a high-efficiency-SIGNAL-B, HE-SIG-B, field, wherein the HE-STF, the HE-LTF, and the data field are transmitted in the resource based on the resource allocation information.
An antibody that binds to a human Sortilin protein, wherein the antibody comprises a heavy chain variable region comprising the amino acid sequence of SEQ ID NO: 56 and a light chain variable region comprising the amino acid sequence of SEQ ID NO: 60.
An interventional catheter for treating an artery, comprising: an elongated body sized and shaped to be transcervically introduced into a common carotid artery at an access location in the neck, the elongated body sized and shaped to be navigated distally to an intracranial artery through the common carotid artery via the access location in the neck; and an internal lumen in the elongated body, the internal lumen forming a proximal opening in a proximal region of the elongated body and a distal opening in a distal region of the elongated body; wherein the elongated body has a proximal most section and a distal most section wherein the proximal most section is a stiffest portion of the elongated body, and wherein the elongated body has an overall length and a distal most section length such that the distal most section can be positioned in an intracranial artery and while simultaneously at least a portion of the proximal most section is positioned in the common carotid artery during use, wherein the distal most section of the catheter has an inner diameter of 0.889mm to 1.574mm (.035 to.062 inch), wherein the catheter can navigate around a 180° bend with a radius of 2.54mm (.100") without kinking; and the catheter is configured to resist collapse when connected to a vacuum up to 84.660 kPa (25 inHg) while navigating around a 180° bend with a radius of 2.54mm (.100"), wherein the catheter has a Polytetrafluoroethylene (PTFE) inner liner having a thickness of 0.0127mm to 0.0254mm (0.0005 inch to 0.0010 inch). an elongated body sized and shaped to be transcervically introduced into a common carotid artery at an access location in the neck, the elongated body sized and shaped to be navigated distally to an intracranial artery through the common carotid artery via the access location in the neck; and an internal lumen in the elongated body, the internal lumen forming a proximal opening in a proximal region of the elongated body and a distal opening in a distal region of the elongated body; wherein the elongated body has a proximal most section and a distal most section wherein the proximal most section is a stiffest portion of the elongated body, and wherein the elongated body has an overall length and a distal most section length such that the distal most section can be positioned in an intracranial artery and while simultaneously at least a portion of the proximal most section is positioned in the common carotid artery during use, wherein the distal most section of the catheter has an inner diameter of 0.889mm to 1.574mm (.035 to.062 inch), wherein the catheter can navigate around a 180° bend with a radius of 2.54mm (.100") without kinking; and the catheter is configured to resist collapse when connected to a vacuum up to 84.660 kPa (25 inHg) while navigating around a 180° bend with a radius of 2.54mm (.100"), wherein the catheter has a Polytetrafluoroethylene (PTFE) inner liner having a thickness of 0.0127mm to 0.0254mm (0.0005 inch to 0.0010 inch).
An antibody which binds to human CD38 (SEQ ID NO:31), and which does not bind to a mutant human CD38 wherein the serine residue in position 274 has been substituted with a phenylalanine residue (SEQ ID No:34) to the same degree that it binds to human CD38 (SEQ ID No:31), and which does not bind to a mutant human CD38 wherein the glutamine residue in position 272 has been substituted with an arginine residue (SEQ ID No:33) to the same degree that it binds to human CD38 (SEQ ID No:31); and wherein the antibody recognizes the motifs KRN and VQTL of human CD38 (SEQ ID No:31).
An unstacker device comprising a feed magazine suitable for storing mailpieces in a stack and on edge, the mailpieces bearing laterally against a jogging edge that extends on one side of the magazine, and an unstacker head (2, 4) suitable for unstacking the mailpieces one-by-one from the front of the stack in the magazine, the magazine having a floor on which the mailpieces stand on edge and a retaining paddle that retains the back of the stack, the floor and the paddle being designed to move the stack towards the unstacker head under the action of a monitoring and control unit as the mailpieces are being unstacked from the front of the stack, said unstacker device further comprising a vision system suitable for detecting tipping of the stack forwards or backwards, and, for responding to such detection by causing the floor and the paddle to move in such a manner as to straighten up the stack in the magazine so as to place said mailpiece at the head of the stack in a satisfactory position of angular inclination so that it can be unstacked by the unstacker head, said unstacker head being characterized in that said system is a camera disposed on the side of the magazine that is opposite from the side on which the jogging edge is situated in order to form digital images over the entire height of the mailpieces of the stack of mailpieces as seen in profile comprising the foot and the top of the mailpieces over a certain length of the magazine from the unstacker head, and in that said monitoring and control unit is arranged to evaluate a certain inclination of the mailpieces in the stack on the basis of the profile images of the stack and to apply from said evaluation at least one scenario to cause the floor and/or the paddle selectively or simultaneously to move forwards or backwards relative to the unstacker head so as to straighten up the stack in the magazine.
A pharmaceutical composition for use in the prophylaxis and/or treatment of human rhinovirus infection or human influenza virus infection, wherein said composition is to be applied to the nasal and/or oral mucosa, and which composition comprises a pharmaceutically acceptable carrier and (i) lactoferrin and soluble ICAM-1; (ii) lysozyme and soluble ICAM-1; (iii) lactoferrin, lysozyme, and soluble ICAM-1; (iv) lactoferrin and lysozyme; (v) lactoferrin, lysozyme, and sialic acid; or (vi) lactoferrin, lysozyme, sialic acid, and isoquercetin. (i) lactoferrin and soluble ICAM-1; (ii) lysozyme and soluble ICAM-1; (iii) lactoferrin, lysozyme, and soluble ICAM-1; (iv) lactoferrin and lysozyme; (v) lactoferrin, lysozyme, and sialic acid; or (vi) lactoferrin, lysozyme, sialic acid, and isoquercetin.
Method for producing a modified allergenic polypeptide, the method comprising the steps of: (a) modifying nucleic acid sequence encoding an allergenic polypeptide comprising a planar surface so that in the polypeptide expressed from the modified nucleic acid the structure of the planar surface of said polypeptide is altered; (b) expressing or producing the modified allergenic polypeptide from the modified nucleic acid; and (c) selecting those modified allergenic polypeptides towards which an IgE-antibody specific to said allergenic polypeptide shows at least tenfold lower affinity; wherein said planar surface has an area of 600-900 Å 2 and is determined by computational analysis to be as the allergenic epitope of β-lactoglobulin defined by the structure or 3D-coordinates of β-lactoglobulin (SEQ ID NO:8) amino acids Val43-Lys47 and Leu57-Gln59 in an antibody-β-lactoglobulin immunocomplex according to Table VIII. (a) modifying nucleic acid sequence encoding an allergenic polypeptide comprising a planar surface so that in the polypeptide expressed from the modified nucleic acid the structure of the planar surface of said polypeptide is altered; (b) expressing or producing the modified allergenic polypeptide from the modified nucleic acid; and (c) selecting those modified allergenic polypeptides towards which an IgE-antibody specific to said allergenic polypeptide shows at least tenfold lower affinity;
A coated drill stem assembly for subterraneous rotary drilling operations comprising: a body assembly with an exposed outer surface including a drill string coupled to a bottom hole assembly or a coiled tubing coupled to a bottom hole assembly and an ultra-low friction coating on at least a portion of the exposed outer surface of the body assembly, wherein the coefficient of friction of the ultra-low friction coating is less than or equal to 0.15, wherein the ultra-low friction coating is chosen from a diamond based material, diamond-like-carbon, boron nitride, and combinations thereof, and wherein the body assembly further includes hardbanding on at least a portion of the exposed outer surface to provide enhanced wear resistance and durability to the drill stem assembly and wherein the hardbanding comprises a cermet based material, a metal matrix composite or a hard metallic alloy. a body assembly with an exposed outer surface including a drill string coupled to a bottom hole assembly or a coiled tubing coupled to a bottom hole assembly and an ultra-low friction coating on at least a portion of the exposed outer surface of the body assembly, wherein the coefficient of friction of the ultra-low friction coating is less than or equal to 0.15, wherein the ultra-low friction coating is chosen from a diamond based material, diamond-like-carbon, boron nitride, and combinations thereof, and wherein the body assembly further includes hardbanding on at least a portion of the exposed outer surface to provide enhanced wear resistance and durability to the drill stem assembly and wherein the hardbanding comprises a cermet based material, a metal matrix composite or a hard metallic alloy.
Line feedthrough for feeding at least one line through a wall, with a. a housing with a tube-shaped outer shell extending in an axial direction from a front side end to a rear side end, and b. an insert arranged inside the outer shell of the housing and having at least one sealing membrane which surrounds a feed-through opening for feeding through a line, and c. the at least one sealing membrane is surrounded by a tube-shaped inner shell of the insert, which extends in the axial direction and at least in some areas along the outer shell of the housing, and characterized in that d. the housing has cut-outs extending through the outer shell, through each of which a clamping rib of the insert extends radially outwards. a. a housing with a tube-shaped outer shell extending in an axial direction from a front side end to a rear side end, and b. an insert arranged inside the outer shell of the housing and having at least one sealing membrane which surrounds a feed-through opening for feeding through a line, and c. the at least one sealing membrane is surrounded by a tube-shaped inner shell of the insert, which extends in the axial direction and at least in some areas along the outer shell of the housing, and characterized in that d. the housing has cut-outs extending through the outer shell, through each of which a clamping rib of the insert extends radially outwards.
A support structure for a heating or cooling system, comprising: a base; and a plurality of projections extending from said base, said projections being capable of retaining one or more thermal elements positioned adjacent thereto; wherein each of said projections comprises a wall (6, 11) extending from said base, at least part of said wall having an oscillating form; characterised in that: each projection has an overall curved shape and at least a portion of the wall on the inside of the curved shape has the oscillating form. a base; and a plurality of projections extending from said base, said projections being capable of retaining one or more thermal elements positioned adjacent thereto; wherein each of said projections comprises a wall (6, 11) extending from said base, at least part of said wall having an oscillating form; characterised in that: each projection has an overall curved shape and at least a portion of the wall on the inside of the curved shape has the oscillating form.
A method for obtaining and identifying transgenic maize plants, comprising: (a) obtaining maize plant cells germline-transformed with a DNA segment comprising a nucleic acid sequence of interest; (b) regenerating a plurality of maize plants or differentiated maize plant parts from the cells by growth on liquid media, without first selecting for the presence of said DNA segment or without selecting for the presence of a selectable agent or screenable marker gene, prior to obtaining regenerated maize plants; and (c) identifying at least a first transgenic maize plant or transgenic differentiated plant part from the plurality of maize plants or differentiated maize plant parts, wherein the regenerated plants or differentiated plant parts are non-chimeric with respect to the presence of the DNA segment, and wherein the plants are regenerated by growth solely on liquid media prior to identifying the transgenic maize plant or transgenic differentiated plant part. (a) obtaining maize plant cells germline-transformed with a DNA segment comprising a nucleic acid sequence of interest; (b) regenerating a plurality of maize plants or differentiated maize plant parts from the cells by growth on liquid media, without first selecting for the presence of said DNA segment or without selecting for the presence of a selectable agent or screenable marker gene, prior to obtaining regenerated maize plants; and (c) identifying at least a first transgenic maize plant or transgenic differentiated plant part from the plurality of maize plants or differentiated maize plant parts, wherein the regenerated plants or differentiated plant parts are non-chimeric with respect to the presence of the DNA segment, and wherein the plants are regenerated by growth solely on liquid media prior to identifying the transgenic maize plant or transgenic differentiated plant part.