mhurhangee/patent-ind-claim-en huggingface dataset:
Moisture-curing composition which is liquid or pasty at room temperature, comprising - at least one polyether urethane polymer P1 containing isocyanate groups and having a content of at least 80% by weight of 1,2-propyleneoxy units in the polyether segment, and - at least one room temperature liquid, hydrophobic polymer P2 containing isocyanate groups, obtained from the reaction of at least one monomeric diisocyanate and a hydrophobic diol having an OH number in the range from 28 to 120 mg KOH/g, wherein polymers P1 and P2 are prepared separately from one another and polymer P1 and polymer P2 are present in a weight ratio in the range from 70/30 to 98/2, characterized in that the hydrophobic diol for the preparation of polymer P2 is selected from the group consisting of dimer fatty acid-based polyester diols and poly(1,2-butylene glycol). - at least one polyether urethane polymer P1 containing isocyanate groups and having a content of at least 80% by weight of 1,2-propyleneoxy units in the polyether segment, and - at least one room temperature liquid, hydrophobic polymer P2 containing isocyanate groups, obtained from the reaction of at least one monomeric diisocyanate and a hydrophobic diol having an OH number in the range from 28 to 120 mg KOH/g, wherein polymers P1 and P2 are prepared separately from one another and polymer P1 and polymer P2 are present in a weight ratio in the range from 70/30 to 98/2, characterized in that the hydrophobic diol for the preparation of polymer P2 is selected from the group consisting of dimer fatty acid-based polyester diols and poly(1,2-butylene glycol).
A method for applying a structured surface to a building surface, particularly for the interior design of a room, wherein a carrier material is provided with a surface structure and the carrier material with this surface structure is applied to the building surface, wherein the surface structure is formed by a mineral graining ; characterized in that the carrier material used is dissolvable, under the influence of moisture. wherein the surface structure is formed by a mineral graining ; characterized in that the carrier material used is dissolvable, under the influence of moisture.
A method of manufacturing an optical semiconductor apparatus comprising: placing a light transmissive lid body on a package substrate adapted to house an optical semiconductor device (20_) in an atmosphere of a first gas containing oxygen (O 2 ), sandwiching a bonding member containing gold-tin (AuSn); exchanging an atmosphere gas for a second gas so as to reduce an oxygen concentration in the atmosphere while a load is exerted from above the lid body placed on the package substrate for temporary sealing; and heating and melting the bonding member after an exchange for the second gas is started so as to bond the package substrate and the lid body . placing a light transmissive lid body on a package substrate adapted to house an optical semiconductor device (20_) in an atmosphere of a first gas containing oxygen (O 2 ), sandwiching a bonding member containing gold-tin (AuSn); exchanging an atmosphere gas for a second gas so as to reduce an oxygen concentration in the atmosphere while a load is exerted from above the lid body placed on the package substrate for temporary sealing; and heating and melting the bonding member after an exchange for the second gas is started so as to bond the package substrate and the lid body .
A compound of Formula I wherein: M is selected from titanium, zirconium and hafnium; X 1 and X 2 are independently selected from halo, (1-6C)alkyl and (1-6C)alkoxy; Y is a group: wherein X is a heteroatom chosen from NR 10 , O and S; the heterocyclic ring A is optionally substituted with one or more substituents selected independently from halo, hydroxy, amino, (1-6C)alkyl, (1-6C)alkoxy, (1-6C)haloalkyl, aryl and heteroaryl, wherein said aryl and heteroaryl groups are optionally substituted with one or more substituents selected independently from halo, hydroxy, amino, nitro, (1-6C)alkyl and (1-6C)haloalkyl; and R 10 is (1-6C)alkyl, aryl or heteroaryl, wherein said (1-6C)alkyl, aryl and heteroaryl groups are optionally substituted with one or more substituents selected independently from halo, hydroxy, amino, nitro, (1-6C)alkyl and (1-6C)haloalkyl; and Z is a polydentate ligand coordinated to M by at least 2 donor atoms Q, wherein each Q is independently selected from N, O, S and P. M is selected from titanium, zirconium and hafnium; X 1 and X 2 are independently selected from halo, (1-6C)alkyl and (1-6C)alkoxy; Y is a group: wherein X is a heteroatom chosen from NR 10 , O and S; the heterocyclic ring A is optionally substituted with one or more substituents selected independently from halo, hydroxy, amino, (1-6C)alkyl, (1-6C)alkoxy, (1-6C)haloalkyl, aryl and heteroaryl, wherein said aryl and heteroaryl groups are optionally substituted with one or more substituents selected independently from halo, hydroxy, amino, nitro, (1-6C)alkyl and (1-6C)haloalkyl; and R 10 is (1-6C)alkyl, aryl or heteroaryl, wherein said (1-6C)alkyl, aryl and heteroaryl groups are optionally substituted with one or more substituents selected independently from halo, hydroxy, amino, nitro, (1-6C)alkyl and (1-6C)haloalkyl; and wherein X is a heteroatom chosen from NR 10 , O and S; the heterocyclic ring A is optionally substituted with one or more substituents selected independently from halo, hydroxy, amino, (1-6C)alkyl, (1-6C)alkoxy, (1-6C)haloalkyl, aryl and heteroaryl, wherein said aryl and heteroaryl groups are optionally substituted with one or more substituents selected independently from halo, hydroxy, amino, nitro, (1-6C)alkyl and (1-6C)haloalkyl; and R 10 is (1-6C)alkyl, aryl or heteroaryl, wherein said (1-6C)alkyl, aryl and heteroaryl groups are optionally substituted with one or more substituents selected independently from halo, hydroxy, amino, nitro, (1-6C)alkyl and (1-6C)haloalkyl; and Z is a polydentate ligand coordinated to M by at least 2 donor atoms Q, wherein each Q is independently selected from N, O, S and P.
A method of nondestructively examining a bolt having a recessed socket in a head of the bolt, the recessed socket having an unknown or varying surface geometry in a bottom of the recessed socket, with the bolt anchored in a fixture and with the surface geometry covered by water as an ultrasonic coupling fluid , comprising the steps of: placing a phased array ultrasonic transducer , having a plurality of transducer elements within or on the ultrasonic coupling fluid and over the head of the bolt with a beam emitting end directed towards the head of the bolt; scanning an ultrasonic beam of the phased array through a plurality of combinations of control parameters that alters the beam so that an incident angle of the beam on the surface geometry in the bottom of the recessed socket is varied about a centerline of the bolt; monitoring a reflected or refracted beam ; determining the surface geometry of the bottom of the recessed socket from the monitored strongest reflected or refracted beam ; adjusting the phased array to operate at a combination of control parameters that produces an optimized beam for the surface geometry determined in the previous determining step that produced the strongest reflected or refracted beam; and performing a scan of a volume of the bolt employing the optimized beam to determine any defects in the bolt . placing a phased array ultrasonic transducer , having a plurality of transducer elements within or on the ultrasonic coupling fluid and over the head of the bolt with a beam emitting end directed towards the head of the bolt; scanning an ultrasonic beam of the phased array through a plurality of combinations of control parameters that alters the beam so that an incident angle of the beam on the surface geometry in the bottom of the recessed socket is varied about a centerline of the bolt; monitoring a reflected or refracted beam ; determining the surface geometry of the bottom of the recessed socket from the monitored strongest reflected or refracted beam ; adjusting the phased array to operate at a combination of control parameters that produces an optimized beam for the surface geometry determined in the previous determining step that produced the strongest reflected or refracted beam; and performing a scan of a volume of the bolt employing the optimized beam to determine any defects in the bolt .
An arrangement of at least two adjacently arranged and identically constructed layer structures for a magnetoresistive magnetic field sensor , each layer structure comprising at least one antiferromagnetic layer , a first ferromagnetic layer with a first magnetic moment, wherein exchange coupling is present between the antiferromagnetic layer and the first ferromagnetic layer , and a second ferromagnetic layer with a second magnetic moment, wherein the second ferromagnetic layer is antiparallel coupled with the first ferromagnetic layer via a non-magnetic coupling layer arranged between the first and second ferromagnetic layers , wherein the magnetisations of the corresponding first and corresponding second ferromagnetic layers of the layer structures arranged adjacently with a centre-to-centre distance □D of 50 μm or less differs from one another, in particular is of substantially mutually opposed orientation, characterised in that the different magnetisations of all corresponding ferromagnetic layers of the adjacent layer structures of the adjacent layer structures were simultaneously established in one pinning step.
A method for recovering a fuel material deposit from a formation, the method comprising: providing a combustion fuel and an oxidant into a combustor positioned above ground; combusting the combustion fuel to provide a CO 2 containing stream comprising supercritical CO 2 ; expanding the CO 2 containing stream comprising supercritical CO 2 across a turbine for power generation to form an expanded CO 2 containing stream; injecting at least a portion of the CO 2 containing stream into the formation including the fuel material deposit for recovery such that at least a portion of the fuel material in the formation and at least a portion of the CO 2 stream flow from the formation and into a recovery well , wherein the CO 2 containing stream injected into the formation comprises supercritical CO 2 ; receiving from the recovery well a recovery stream comprising the fuel material and the CO 2 ; separating the recovery stream into a recovered gas stream comprising methane and CO 2 and a recovered liquid stream; and directing at least a portion of the recovered gas stream comprising methane and CO 2 to the combustor as at least a portion of the combustion fuel . providing a combustion fuel and an oxidant into a combustor positioned above ground; combusting the combustion fuel to provide a CO 2 containing stream comprising supercritical CO 2 ; expanding the CO 2 containing stream comprising supercritical CO 2 across a turbine for power generation to form an expanded CO 2 containing stream; injecting at least a portion of the CO 2 containing stream into the formation including the fuel material deposit for recovery such that at least a portion of the fuel material in the formation and at least a portion of the CO 2 stream flow from the formation and into a recovery well , wherein the CO 2 containing stream injected into the formation comprises supercritical CO 2 ; receiving from the recovery well a recovery stream comprising the fuel material and the CO 2 ; separating the recovery stream into a recovered gas stream comprising methane and CO 2 and a recovered liquid stream; and directing at least a portion of the recovered gas stream comprising methane and CO 2 to the combustor as at least a portion of the combustion fuel .
A binder composition for a non-aqueous secondary battery porous membrane, comprising: a polymer; and an organic solvent, wherein a boiling point of the organic solvent is 30 °C or more and 100 °C or less, an absolute difference |SP diff | = |SP p - SP s | between a solubility parameter SP p of the polymer and a solubility parameter SP s of the organic solvent is 1.5 MPa 1/2 or more and 6.0 MPa 1/2 or less, wherein the parameters SP p and SP s are calculated based on a calculation method of Fedors, the polymer contains a nitrile group in a content proportion of a nitrile group in the polymer of 9 mass% or more and 40 mass% or less and a straight chain alkylene structural unit having a carbon number of 4 or more, in a same molecule, and the glass-transition temperature of the polymer is 20 °C or less, determined as mentioned in the description. a polymer; and an organic solvent, wherein a boiling point of the organic solvent is 30 °C or more and 100 °C or less, an absolute difference |SP diff | = |SP p - SP s | between a solubility parameter SP p of the polymer and a solubility parameter SP s of the organic solvent is 1.5 MPa 1/2 or more and 6.0 MPa 1/2 or less, wherein the parameters SP p and SP s are calculated based on a calculation method of Fedors, the polymer contains a nitrile group in a content proportion of a nitrile group in the polymer of 9 mass% or more and 40 mass% or less and a straight chain alkylene structural unit having a carbon number of 4 or more, in a same molecule, and the glass-transition temperature of the polymer is 20 °C or less, determined as mentioned in the description.
An aliphatic polycarbonate macropolyol comprising -O A O- and Z (O-) a as repeating units in which the repeating units -O A O- and Z (O-) a are linked to each other via carbonyl (-C(O)-) linkers or are bonded to hydrogen to form terminal -OH groups and the number of moles of the terminal -OH groups is from a Z to a Z +0.2 Z (where Z represents the number of moles of the repeating unit Z (O-) a ) wherein A is a substituted or unsubstituted C 3 -C 60 alkylene or a combination of two or more substituted or unsubstituted C 3 -C 60 alkylenes, a is an integer from 2 to 4, provided that when a is 2, Z is a substituted or unsubstituted C 3 -C 60 alkylene, when a is 3, Z is a substituted or unsubstituted C 3 -C 60 trialkylene, and when a is 4, Z is a substituted or unsubstituted C 4 -C 60 tetraalkylene, wherein HO A OH as a raw material for the repeating unit -O A O- is selected from the group consisting of Formulae 1a to 1d, 1f and 1h: and Z (OH) a as a raw material for the repeating unit Z (O-) a is selected from the group consisting of Formulae 2a to 2d:
A moisture-curable polyolefin composition comprising constituents (A) to (C): (A) a (hydrolyzable silyl group)-functional polyolefin prepolymer, (B) an acidic condensation catalyst, and (C) a secondary diarylamine of formula (I): (R 1 -Ar) 2 NH (I), wherein each Ar is benzene-1,4-diyl or both Ar are bonded to each other and taken together with the NH of formula (I) constitute a carbazol-3,6-diyl; and each R 1 is independently (C 1 -C 20 )hydrocarbyl; wherein constituent (C) secondary diamine of formula (I) is from > 0.200 weight percent (wt%) to 0.500 wt% based on total weight of the moisture-curable polyolefin composition.
A system for rapid molecular quantification comprising a housing containing a fluidic path along which the following elements are successively arranged one underneath the other: - a cover having an aperture allowing the deposition of a fluid sample to be measured, - a filter , - a fluid connecting element , said system further comprising - several nanofluidic biosensors comprising lateral inlet apertures and one or several channels, having at least one dimension below 10μm; said nanofluidic biosensors are positioned in a way that their inlet apertures are in contact with said fluid connecting element , said nanofluidic biosensors being arranged at a lateral side of the fluid connecting element wherein the fluid connecting element comprises a material configured to absorb and distribute the fluid sample to the nanofluidic biosensors . - a cover having an aperture allowing the deposition of a fluid sample to be measured, - a filter , - a fluid connecting element , said system further comprising - several nanofluidic biosensors comprising lateral inlet apertures and one or several channels, having at least one dimension below 10μm; said nanofluidic biosensors are positioned in a way that their inlet apertures are in contact with said fluid connecting element , said nanofluidic biosensors being arranged at a lateral side of the fluid connecting element wherein the fluid connecting element comprises a material configured to absorb and distribute the fluid sample to the nanofluidic biosensors .
A device for deploying a stent-graft within a body lumen comprising: an outer tubular member defining an outer lumen; an intermediate tubular member at least partially disposed within the outer lumen and configured to move axially therein, wherein the intermediate tubular member defines an intermediate lumen; an inner tubular member at least partially disposed within the intermediate lumen and configured to move axially therein; a self-expanding stent-graft disposed in the outer lumen and at least partially overlying the intermediate tubular member , wherein the stent-graft is configured to move axially in cooperation with the intermediate tubular member; a stent lock disposed on the intermediate tubular member and configured to releasably couple the stent-graft and the intermediate tubular member, the stent lock being cylindrical with an inside diameter designed to be coupled to the outer cylindrical surface of the intermediate tubular member; wherein the inner tubular member and the outer tubular member are configured to be coupled to one another such that movement of the outer tubular member in an axial direction results in movement of the inner tubular member in the axial direction with respect to the intermediate tubular member so as to deploy the stent-graft . an outer tubular member defining an outer lumen; an intermediate tubular member at least partially disposed within the outer lumen and configured to move axially therein, wherein the intermediate tubular member defines an intermediate lumen; an inner tubular member at least partially disposed within the intermediate lumen and configured to move axially therein; a self-expanding stent-graft disposed in the outer lumen and at least partially overlying the intermediate tubular member , wherein the stent-graft is configured to move axially in cooperation with the intermediate tubular member; a stent lock disposed on the intermediate tubular member and configured to releasably couple the stent-graft and the intermediate tubular member, the stent lock being cylindrical with an inside diameter designed to be coupled to the outer cylindrical surface of the intermediate tubular member; wherein the inner tubular member and the outer tubular member are configured to be coupled to one another such that movement of the outer tubular member in an axial direction results in movement of the inner tubular member in the axial direction with respect to the intermediate tubular member so as to deploy the stent-graft .
An airfoil component for a gas turbine comprising: a first segment including a first piece of a mount and a first piece of an airfoil , the first segment formed of a first ceramic-based material; and a second segment including a second piece of the mount and a second piece of the airfoil , the second segment formed of a second ceramic-based material, the first and second segments being bonded together along a bond joint such that the first and second pieces of the mount are bonded to each other and the first and second pieces of the airfoil are bonded to each other; and wherein the mount is configured to support the airfoil from another structure; characterized in that the first segment and the second segment include a radially inner end at the mount and a radially outer end at the airfoil that define a radial direction, the bond joint extending in the radial direction, and further including a third segment including at least one of a third piece of the mount and a third piece of the airfoil, the third segment being bonded with at least one of the first segment and the second segment along another bond joint. a first segment including a first piece of a mount and a first piece of an airfoil , the first segment formed of a first ceramic-based material; and a second segment including a second piece of the mount and a second piece of the airfoil , the second segment formed of a second ceramic-based material, the first and second segments being bonded together along a bond joint such that the first and second pieces of the mount are bonded to each other and the first and second pieces of the airfoil are bonded to each other; and wherein the mount is configured to support the airfoil from another structure; characterized in that the first segment and the second segment include a radially inner end at the mount and a radially outer end at the airfoil that define a radial direction, the bond joint extending in the radial direction, and further including a third segment including at least one of a third piece of the mount and a third piece of the airfoil, the third segment being bonded with at least one of the first segment and the second segment along another bond joint.
An anti-lock sensor ring comprising an annular ring body comprising a flattened exciting portion comprising a plurality of exciting elements configured to interact with a stationary sensor; said annular ring body comprising a rotation axis (X-X) defining an axial direction (A-A) parallel or coincident with said rotation axis (X-X), a radial direction (R-R) orthogonal to said axial direction (A-A), and a circumferential direction (C-C) orthogonal both to said axial direction (A-A) and said radial direction (R-R); said flattened portion comprising an external ring radial edge ; a retention mechanism is projecting from said ring radial edge ; said retention mechanism comprises cantilever spring retention clips elastically deformable to snap on a disc brake band retention seat ; said retention mechanism comprises a cantilever support portion ; at least a portion of each of said cantilever spring retention clips is side by side to and spaced apart from said cantilever support portion defining a clamp channel ; each of said cantilever spring retention clips comprising a retention surface ; said cantilever support portion comprising a support surface ; wherein said anti-lock sensor ring is configured to be mounted on a disc brake band ; and is configured such that when said anti-lock sensor ring is dismounted from said disc brake band , the plane defined by said retention surface and the plane defined by said support surface are facing each other in order to create opposing gripping elements. an annular ring body comprising a flattened exciting portion comprising a plurality of exciting elements configured to interact with a stationary sensor; said annular ring body comprising a rotation axis (X-X) defining an axial direction (A-A) parallel or coincident with said rotation axis (X-X), a radial direction (R-R) orthogonal to said axial direction (A-A), and a circumferential direction (C-C) orthogonal both to said axial direction (A-A) and said radial direction (R-R); said flattened portion comprising an external ring radial edge ; a retention mechanism is projecting from said ring radial edge ; said retention mechanism comprises cantilever spring retention clips elastically deformable to snap on a disc brake band retention seat ; said retention mechanism comprises a cantilever support portion ; at least a portion of each of said cantilever spring retention clips is side by side to and spaced apart from said cantilever support portion defining a clamp channel ; each of said cantilever spring retention clips comprising a retention surface ; said cantilever support portion comprising a support surface ; wherein said anti-lock sensor ring is configured to be mounted on a disc brake band ; and is configured such that when said anti-lock sensor ring is dismounted from said disc brake band , the plane defined by said retention surface and the plane defined by said support surface are facing each other in order to create opposing gripping elements.