mhurhangee/ep-ind-claims huggingface dataset:
A catheter comprising: a proximal end, a distal end, and a longitudinal axis; an inner liner; a braided wire support structure disposed around the inner liner; a metallic tubular reinforcing layer disposed around the braided wire support structure, the reinforcing layer comprising one or more axial segments configured to give different stiffness properties to at least a portion of the catheter; and a plurality of outer polymer jackets (180, 182) disposed around the tubular reinforcing layer, the plurality of outer polymer jackets (180, 182) bonding the reinforcing layer to the braided wire support structure; the at least one of the one or more axial segments comprising one or more ribbon cut segments configured in a longitudinally extending spiral around the longitudinal axis; and the at least one of the one or more axial segments further comprising one or more axial hole patterns (222, 226) cut from the tubular reinforcing layer. a proximal end, a distal end, and a longitudinal axis; an inner liner; a braided wire support structure disposed around the inner liner; a metallic tubular reinforcing layer disposed around the braided wire support structure, the reinforcing layer comprising one or more axial segments configured to give different stiffness properties to at least a portion of the catheter; and a plurality of outer polymer jackets (180, 182) disposed around the tubular reinforcing layer, the plurality of outer polymer jackets (180, 182) bonding the reinforcing layer to the braided wire support structure; the at least one of the one or more axial segments comprising one or more ribbon cut segments configured in a longitudinally extending spiral around the longitudinal axis; and the at least one of the one or more axial segments further comprising one or more axial hole patterns (222, 226) cut from the tubular reinforcing layer.
A gear oil comprising: a base oil selected from the group consisting of Group I-IV base oils; silicone oil in an amount of 0.1 to 5 wt%, based on the total weight of the gear oil, said silicone oil having a viscosity of 10-350 cSt at 25 °C, and said gear oil having a viscosity less than 500 cSt at 25 °C. a base oil selected from the group consisting of Group I-IV base oils; silicone oil in an amount of 0.1 to 5 wt%, based on the total weight of the gear oil, said silicone oil having a viscosity of 10-350 cSt at 25 °C, and said gear oil having a viscosity less than 500 cSt at 25 °C.
Fuse, preferably low-voltage fuse, preferably provided for use for a rated voltage range of greater than or equal to 900 V and/or for a rated current range of greater than or equal to 250 A, in particular for use in DC voltage circuits, comprising an insulating body and comprising at least one strip-like fusible conductor, wherein the insulating body has a receiving region for receiving the fusible conductor, wherein the receiving region in the cross section perpendicular to its longitudinal axis comprises an at least substantially rectangular or rectangle-like shape having diagonals which extend between the corner regions, characterised in that the at least one fusible conductor is arranged at least substantially in a diagonal plane along the diagonals of the cross section perpendicular to the longitudinal axis of the receiving region and along the longitudinal axis, and in that a plurality of fusible conductors, in particular up to four or eight fusible conductors, is arranged at least substantially in at least one diagonal plane along the diagonal of the cross section perpendicular to the longitudinal axis of the receiving region and along the longitudinal axis of the receiving region.
An elevator car door interlock for unlocking an elevator car door of an elevator car, comprising: a lock member including an electrical contact; a rotatable link arm having a sensing mechanism configured to detect a position of the elevator car door; characterised by an engagement latch pivotally mounted to the rotatable link arm, wherein the engagement latch is engaged with the electrical contact when the elevator car door is locked, and the engagement latch is rotated out of engagement with the electrical contact when the elevator car door is unlocked. a lock member including an electrical contact; a rotatable link arm having a sensing mechanism configured to detect a position of the elevator car door; characterised by an engagement latch pivotally mounted to the rotatable link arm, wherein the engagement latch is engaged with the electrical contact when the elevator car door is locked, and the engagement latch is rotated out of engagement with the electrical contact when the elevator car door is unlocked.
A pentosan polysulfate having β-D-xylopyranose units, wherein the pentosan polysulfate has an acetyl group content of 0.0 mass% to 2.0 mass% and a uronic acid content of 0.0 mass% to 2.0 mass%; a pharmaceutically acceptable salt of the pentosan polysulfate; or a pharmaceutically acceptable solvate of the pentosan polysulfate or of the pharmaceutically acceptable salt of the pentosan polysulfate. wherein the pentosan polysulfate has an acetyl group content of 0.0 mass% to 2.0 mass% and a uronic acid content of 0.0 mass% to 2.0 mass%; a pharmaceutically acceptable salt of the pentosan polysulfate; or a pharmaceutically acceptable solvate of the pentosan polysulfate or of the pharmaceutically acceptable salt of the pentosan polysulfate.
A curable epoxy resin system, comprising 1) an epoxy resin component containing one or more epoxy resins, wherein at least 80% by weight of the epoxy resins is one or more polyglycidyl ethers of a polyphenol that has an epoxy equivalent weight of up to about 250; 2) an amine hardener, wherein the amine hardener is a polyethylene tetraamine mixture containing at least 95% by weight polyethylene tetraamines, the mixture containing at least 40% by weight linear triethylene tetraamine, wherein at least 0.8 epoxy equivalents are provided to the reaction mixture by the epoxy resin component per amine hydrogen equivalent provided by the amine hardener; and 3) a catalytically effective amount of at least one catalyst selected from the group consisting of i) alkali metal salts, ii) carboxylic acid-, carboxylic anhydride or carboxylic acid ester-substituted phenol compounds, iii) an amino acid, the catalyst being present in the epoxy resin component, the amine hardener, or both. 1) an epoxy resin component containing one or more epoxy resins, wherein at least 80% by weight of the epoxy resins is one or more polyglycidyl ethers of a polyphenol that has an epoxy equivalent weight of up to about 250; 2) an amine hardener, wherein the amine hardener is a polyethylene tetraamine mixture containing at least 95% by weight polyethylene tetraamines, the mixture containing at least 40% by weight linear triethylene tetraamine, wherein at least 0.8 epoxy equivalents are provided to the reaction mixture by the epoxy resin component per amine hydrogen equivalent provided by the amine hardener; and 3) a catalytically effective amount of at least one catalyst selected from the group consisting of i) alkali metal salts, ii) carboxylic acid-, carboxylic anhydride or carboxylic acid ester-substituted phenol compounds, iii) an amino acid, the catalyst being present in the epoxy resin component, the amine hardener, or both.
An air filter cartridge comprising: (a) a media pack surrounding an open filter interior and having first and second ends; (b) a first end cap positioned in the media pack first end; (i) the first end cap having a central aperture therein; (c) a seal member positioned on the first end cap; (d) a second end cap positioned on the media pack second end; the second end cap including an inner surface and an outer surface; (i) the outer surface including a first receiving groove at least 6 mm deep therein; the receiving groove having a width, along its depth of extension, of no greater than 10 mm, an outer wall of the receiving groove being spaced radially inwardly at least 20 mm from the media pack; and, (ii) the inner surface having a central receiver projecting outwardly away from the first end cap; (iii) the central receiver being surrounded by the receiving groove, and (iii) the receiving groove being configured to receive a projection of an access cover having a thickness of at least 1 mm and extending into the receiving groove a distance of at least 5 mm to provide cantilever support. (a) a media pack surrounding an open filter interior and having first and second ends; (b) a first end cap positioned in the media pack first end; (i) the first end cap having a central aperture therein; (i) the first end cap having a central aperture therein; (c) a seal member positioned on the first end cap; (d) a second end cap positioned on the media pack second end; the second end cap including an inner surface and an outer surface; (i) the outer surface including a first receiving groove at least 6 mm deep therein; the receiving groove having a width, along its depth of extension, of no greater than 10 mm, an outer wall of the receiving groove being spaced radially inwardly at least 20 mm from the media pack; and, (ii) the inner surface having a central receiver projecting outwardly away from the first end cap; (iii) the central receiver being surrounded by the receiving groove, and (iii) the receiving groove being configured to receive a projection of an access cover having a thickness of at least 1 mm and extending into the receiving groove a distance of at least 5 mm to provide cantilever support. (i) the outer surface including a first receiving groove at least 6 mm deep therein; the receiving groove having a width, along its depth of extension, of no greater than 10 mm, an outer wall of the receiving groove being spaced radially inwardly at least 20 mm from the media pack; and, an outer wall of the receiving groove being spaced radially inwardly at least 20 mm from the media pack; and, (ii) the inner surface having a central receiver projecting outwardly away from the first end cap; (iii) the central receiver being surrounded by the receiving groove, and (iii) the receiving groove being configured to receive a projection of an access cover having a thickness of at least 1 mm and extending into the receiving groove a distance of at least 5 mm to provide cantilever support.
A method for mitigating crosstalk performed by a network node of a wireless communication network operable in a base station system of the wireless communication network, the base station system comprising an intermediate radio unit, IRU, a baseband unit, BBU, connected to the IRU and a plurality of radio heads, RHs, connected to the IRU via a plurality of metallic conductors, the method comprising: receiving from a first of the plurality of RHs, a measure of an error of one or more symbols of a signal received by the first RH from the IRU over a first of the plurality of metallic conductors, the measure of the error being detected by the first RH, the signal being destined to a user equipment, UE, wirelessly connected to the first RH, determining precoding coefficients for a precoder according to the received error measure, and triggering applying the determined precoding coefficients when sending further signals to the first RH over the first of the plurality of metallic conductors, the further signals being destined to UEs wirelessly connected to the first RH, and triggering sending, to the first of the plurality of RHs, the signal destined to the UE connected to the first of the plurality of RHs, and triggering sending, to a second of the plurality of RHs, a signal destined to a UE connected to the second of the plurality of RHs, the signal sent to the second RH comprising a reference signal symbol, wherein the signal sent to the first RH and the signal sent to the second RH are sent in the same frequency and time slot. receiving from a first of the plurality of RHs, a measure of an error of one or more symbols of a signal received by the first RH from the IRU over a first of the plurality of metallic conductors, the measure of the error being detected by the first RH, the signal being destined to a user equipment, UE, wirelessly connected to the first RH, determining precoding coefficients for a precoder according to the received error measure, and triggering applying the determined precoding coefficients when sending further signals to the first RH over the first of the plurality of metallic conductors, the further signals being destined to UEs wirelessly connected to the first RH, and triggering sending, to the first of the plurality of RHs, the signal destined to the UE connected to the first of the plurality of RHs, and triggering sending, to a second of the plurality of RHs, a signal destined to a UE connected to the second of the plurality of RHs, the signal sent to the second RH comprising a reference signal symbol, wherein the signal sent to the first RH and the signal sent to the second RH are sent in the same frequency and time slot.
An alkali-soluble polymer, which contains a structural unit of formula having a carboxyl group; and which comprises a functional group of formula at a side chain of the alkali-soluble polymer, the functional group being capable of changing to an acid group through hydrolysis with alkali: -Q-X 1 wherein in formula, R 1 represents a hydrogen atom or a methyl group; R 2 represents an (n+1)-valent organic linking group containing an ester group represented by -O(C-O)-; A represents an oxygen atom or NR 3 -; R 3 represents a hydrogen atom, or an monovalent hydrocarbon group, having from 1 to 10 carbon atoms; and n indicates an integer of from 1 to 5; and in formula, Q represents a linking group that links X 1 to a main chain of the polymer; X 1 represents a protective group hydrolyzable with an alkali aqueous solution having a pH of 10 or more; and when the functional group represented by the formula gives -Q-OH after hydrolysis, the -Q-OH is an acid group having a pKa of 10.or less, the alkali-soluble polymer being characterised in that the functional group of the formula is a functional group represented by the following formula: wherein A 1 represents an aromatic group or a cyclo group; n indicates an integer selected from 1 to 5; X 2 represents -NR 1 R 2, -SR 3, or -OR 4; R 1 to R 4 each independently represents a substituent composed of at least one or more atoms selected from a group consisting of a hydrogen atom, a carbon atom, an oxygen atom, a nitrogen atom, a sulfur atom and a halogen atom; Y represents a single bond, -O-, or -NR 5 -; R 5 represents a hydrogen atom or group a hydrocarbon group.
A light scanning unit comprising: a light source unit including a first light source to emit a first light beam and a second light source to emit a second light beam, wherein the first light source and the second light source are installed on a single circuit substrate; a light deflector to deflect the first light beam emitted from the first light source in a first main scanning direction and the second light beam emitted from the second light source in a second main scanning direction; and an incident optical system comprising a first incident light path changing member that folds the light path of the first light beam by reflection, between the first light source and a first reflection surface of the light deflector and a second incident light path changing member that folds the light path of the second light beam by reflection, between the second light source and a second reflection surface of the light deflector, wherein the first reflection surface and the second reflection surface 140b) are symmetrically at opposite sides with respect to the light deflector, and wherein the first incident light path changing member and the second incident light path changing member are disposed on an opposite side of the light deflector to the light source unit, with respect to the first and second main scanning directions. a light source unit including a first light source to emit a first light beam and a second light source to emit a second light beam, wherein the first light source and the second light source are installed on a single circuit substrate; a light deflector to deflect the first light beam emitted from the first light source in a first main scanning direction and the second light beam emitted from the second light source in a second main scanning direction; and an incident optical system comprising a first incident light path changing member that folds the light path of the first light beam by reflection, between the first light source and a first reflection surface of the light deflector and a second incident light path changing member that folds the light path of the second light beam by reflection, between the second light source and a second reflection surface of the light deflector, wherein the first reflection surface and the second reflection surface 140b) are symmetrically at opposite sides with respect to the light deflector, and wherein the first incident light path changing member and the second incident light path changing member are disposed on an opposite side of the light deflector to the light source unit, with respect to the first and second main scanning directions.
A wireless transmit/receive unit, WTRU, configured to utilize control information for an uplink shared channel or a downlink shared channel, the WTRU comprising: circuitry configured to receive control information including downlink or uplink control information via a same physical downlink control channel; circuitry configured to determine whether the control information is intended for the WTRU based on WTRU identity-masked, ID-masked, cyclic redundancy check, CRC, bits; circuitry configured to determine whether the control information is for assigning radio resources for the uplink shared channel or the downlink shared channel; wherein a first WTRU ID is associated with only uplink control information and a second WTRU ID is associated with downlink control information; and circuitry configured on a condition that the control information is intended for the WTRU: to transmit data over the uplink shared channel on a condition that the control information is for assigning radio resources for the uplink shared channel and to receive data over the downlink shared channel on a condition that the control information is for assigning radio resources for the downlink shared channel. circuitry configured to receive control information including downlink or uplink control information via a same physical downlink control channel; circuitry configured to determine whether the control information is intended for the WTRU based on WTRU identity-masked, ID-masked, cyclic redundancy check, CRC, bits; circuitry configured to determine whether the control information is for assigning radio resources for the uplink shared channel or the downlink shared channel; wherein a first WTRU ID is associated with only uplink control information and a second WTRU ID is associated with downlink control information; and circuitry configured on a condition that the control information is intended for the WTRU: to transmit data over the uplink shared channel on a condition that the control information is for assigning radio resources for the uplink shared channel and to receive data over the downlink shared channel on a condition that the control information is for assigning radio resources for the downlink shared channel.
A plug connector, comprising: a body having a mating face, the body having a thermal surface on a first side, wherein the thermal surface is used to dissipate thermal energy via air flow; a paddle card (26a, 26b) positioned in the body and extending from the thermal surface to a position adjacent the mating face; and circuitry positioned in the body, the circuitry configured to emit at least 1 watt of thermal energy, wherein the thermal surface includes at least 50% more surface area than a corresponding flat surface, the body having the mating face at a mating end, the body being elongated and extending in a first direction that is parallel with an insertion direction, wherein the thermal surface area includes fins, the plug connector being characterised in that the fins of the thermal surface extend along the first side toward the mating end. a body having a mating face, the body having a thermal surface on a first side, wherein the thermal surface is used to dissipate thermal energy via air flow; a paddle card (26a, 26b) positioned in the body and extending from the thermal surface to a position adjacent the mating face; and circuitry positioned in the body, the circuitry configured to emit at least 1 watt of thermal energy, wherein the thermal surface includes at least 50% more surface area than a corresponding flat surface, the body having the mating face at a mating end, the body being elongated and extending in a first direction that is parallel with an insertion direction, wherein the thermal surface area includes fins, the plug connector being characterised in that the fins of the thermal surface extend along the first side toward the mating end.
A seal for a gas turbine engine, the seal comprising: a rotary seal element configured to rotate during operation of a gas turbine engine; and a stationary seal element having an annular seal surface, wherein the stationary seal element includes a first area of the annular seal surface having a trench configured to engage with the rotary seal element, characterised in that the stationary seal element includes a second area of the annular seal surface for use during a flight windmilling event, wherein the second area of the stationary seal element is tapered to provide additional clearance between the stationary seal element and the rotary seal element; the rotary seal element is configured to contact the second area when the rotary seal element is displaced from the trench of the first area during windmilling; and the second seal area provides reduced rotational resistance to the rotary seal element during the flight windmilling event when the casing of the gas turbine engine has cooled and rapidly shrunk whereby the rotary seal element has been axially and radially displaced from the trench. a rotary seal element configured to rotate during operation of a gas turbine engine; and a stationary seal element having an annular seal surface, wherein the stationary seal element includes a first area of the annular seal surface having a trench configured to engage with the rotary seal element, characterised in that the stationary seal element includes a second area of the annular seal surface for use during a flight windmilling event, wherein the second area of the stationary seal element is tapered to provide additional clearance between the stationary seal element and the rotary seal element; the rotary seal element is configured to contact the second area when the rotary seal element is displaced from the trench of the first area during windmilling; and the second seal area provides reduced rotational resistance to the rotary seal element during the flight windmilling event when the casing of the gas turbine engine has cooled and rapidly shrunk whereby the rotary seal element has been axially and radially displaced from the trench.