mhurhangee/patent-ind-claim-en huggingface dataset:
A rotational joint comprising a rotation mechanism for rotatably coupling a wing tip device to a fixed wing , to allow the wing tip device to rotate relative to the fixed wing between • a flight configuration for use during flight, and • a ground configuration for use during ground-based operations, in which ground configuration the wing tip device is rotated relative to the fixed wing such that the span of the wing is reduced and a locking mechanism for locking the rotation mechanism such that the wing tip device is locked in the flight and ground configurations , wherein the locking mechanism comprises first and second locking members and first and second receiving members , the locking mechanism being configured to lock the wing tip device in one of the flight configuration and ground configuration by receiving the first and second locking members in the first and second receiving members respectively, and to lock the wing tip device in the other of the flight configuration and ground configuration by receiving the first locking member in the second receiving member . • a flight configuration for use during flight, and • a ground configuration for use during ground-based operations, in which ground configuration the wing tip device is rotated relative to the fixed wing such that the span of the wing is reduced
A method for producing a rubber composition containing a rubber component (A) that contains a modified conjugated diene-based polymer obtained by using a modifying agent that has a functional group compatible with silica, a filler containing an inorganic filler (B), a silane coupling agent (C), and at least one promoter (D) selected from guanidines, sulfenamides, thiazoles, thiurams, thioureas, dithiocarbamic acid compounds and xanthogenic acid compounds, wherein the rubber composition is kneaded in plural stages, and in the first stage (X) of kneading, the rubber component (A), all or a part of the inorganic filler (B), all or a part of the silane coupling agent (C) and the promoter (D) are added and kneaded, wherein the amount of the inorganic filler (B) in the rubber composition is from 20 to 120 parts by mass relative to 100 parts by mass of the rubber component (A), wherein the amount of the silane coupling agent (C) in the rubber composition is of from 1 to 20% by mass of the inorganic filler (B), and wherein the molar amount of the promoter (D) in the rubber composition in the first stage of kneading is from 0.1 to 1.0 times the molar amount of the silane coupling agent (C).
A sealing element comprising: an inner sealing body having a sealing lip defining an innermost diameter of the sealing element that forms a contact point to contact a surface to be sealed; an outer shell defining an outer perimeter of the sealing element and forming a housing for the inner sealing body ; and an energizing porous matrix structure that is formed integrally with the sealing lip or the outer shell and extends from the outer shell to the inner sealing body , wherein the energizing porous matrix structure is defined by a plurality of struts ; and wherein the energizing porous matrix structure is used to tune a sealing force of the sealing element by adjusting a geometry of the energizing porous matrix structure , characterised by $ the plurality of struts being joined together at ends of the struts , wherein the ends of the struts are joined together at the connecting points , and wherein the plurality of connecting points that are arranged along the outer shell are radially spaced from the connecting points arranged along the inner sealing body . an inner sealing body having a sealing lip defining an innermost diameter of the sealing element that forms a contact point to contact a surface to be sealed; an outer shell defining an outer perimeter of the sealing element and forming a housing for the inner sealing body ; and an energizing porous matrix structure that is formed integrally with the sealing lip or the outer shell and extends from the outer shell to the inner sealing body , wherein the energizing porous matrix structure is defined by a plurality of struts ; and wherein the energizing porous matrix structure is used to tune a sealing force of the sealing element by adjusting a geometry of the energizing porous matrix structure , characterised by $ the plurality of struts being joined together at ends of the struts , wherein the ends of the struts are joined together at the connecting points , and wherein the plurality of connecting points that are arranged along the outer shell are radially spaced from the connecting points arranged along the inner sealing body .
A measurement system for measuring the relative position of a first component of a crane and a second component of the crane with one of the first component and the second component being movable relative to the other of the first component and the second component, the measurement system comprising: a plurality of RFID tags , each RFID tag configured to output tag information, each RFID tag having a width, and the plurality of RFID tags being adapted to be arranged on the first component ; a single RFID reader configured to read the tag information from at least one RFID tag of the plurality of RFID tags , the single RFID reader being adapted to be arranged on the second component ; a plate having a window disposed between the RFID reader and the plurality of RFID tags , wherein the window is dimensioned to control a transmission range between the RFID tags and the RFID reader ; a carrier to which the plurality of RFID tags are mounted; and a control system configured to determine a position of the at least one RFID tag based on the tag information; characterized in that the plurality of RFID tags are disposed in a first layer and a second layer in an overlapping relationship with one another on the first component , and each RFID tag being spaced from an adjacent RFID tag by a pitch within a respective layer . a plurality of RFID tags , each RFID tag configured to output tag information, each RFID tag having a width, and the plurality of RFID tags being adapted to be arranged on the first component ; a single RFID reader configured to read the tag information from at least one RFID tag of the plurality of RFID tags , the single RFID reader being adapted to be arranged on the second component ; a plate having a window disposed between the RFID reader and the plurality of RFID tags , wherein the window is dimensioned to control a transmission range between the RFID tags and the RFID reader ; a carrier to which the plurality of RFID tags are mounted; and a control system configured to determine a position of the at least one RFID tag based on the tag information; characterized in that the plurality of RFID tags are disposed in a first layer and a second layer in an overlapping relationship with one another on the first component , and each RFID tag being spaced from an adjacent RFID tag by a pitch within a respective layer .
A tire defining axial, circumferential, and radial directions, the tire having an equatorial plane (EP), the tire comprising: a pair of opposing bead portions ; a pair of opposing sidewall portions , each sidewall portion connected with a bead portion; a crown portion connected between opposing sidewall portions; a body ply extending between the bead portions and through the opposing sidewall portions and crown portion; a breaker ply positioned in the crown portion and radially outward of the body ply; a first working ply positioned in the crown portion and radially outward of the breaker ply; and a second working ply positioned in the crown portion and radially outward of the first working ply; a layer of circumferential reinforcement elements positioned in the crown layer; wherein the breaker ply has an axial width and comprises a plurality of breaker ply reinforcement elements that each extends continuously across the entire axial width of the breaker ply and have a length L of no more than 155 mm, at an angle θ from the equatorial plane, wherein the range of θ is 5° ≤ θ ≤ 60°, characterized in that the circumferential reinforcement elements are divided along the axial direction into a plurality of discrete zones of varying pace. a pair of opposing bead portions ; a pair of opposing sidewall portions , each sidewall portion connected with a bead portion; a crown portion connected between opposing sidewall portions; a body ply extending between the bead portions and through the opposing sidewall portions and crown portion; a breaker ply positioned in the crown portion and radially outward of the body ply; a first working ply positioned in the crown portion and radially outward of the breaker ply; and a second working ply positioned in the crown portion and radially outward of the first working ply; a layer of circumferential reinforcement elements positioned in the crown layer; wherein the breaker ply has an axial width and comprises a plurality of breaker ply reinforcement elements that each extends continuously across the entire axial width of the breaker ply and have a length L of no more than 155 mm, at an angle θ from the equatorial plane, wherein the range of θ is 5° ≤ θ ≤ 60°, characterized in that the circumferential reinforcement elements are divided along the axial direction into a plurality of discrete zones of varying pace.
Liquid or extruded-solid composition comprising usnic acid and a polymer selected from PVC, a copolymer selected from SBS, SEBS, SEP, SEPS, SEBS, SEEPS, SBC and mixtures of said copolymers.
A multilayer film comprising an odor barrier layer having sound dampening properties, wherein the odor barrier layer is formed from a polyamide modified with a functionalized vinyl-bond rich triblock copolymer, wherein the vinyl-bond rich triblock copolymer is a vinyl-bond rich styrene-isoprene-styrene (SIS) block copolymer or a vinyl-bond rich styrene-ethylene-propylene-styrene (SEPS) block copolymer.
A polymerizable composition comprising at least (A) a polymerizable compound, (B) a binder polymer having structural units represented by any one of the general formulae (B1), (B2) and (B3), (C) a photopolymerization initiator, and (D) a titanium black dispersion, wherein the mass ratio of the content of (A) the polymerizable compound to the content of (B) the binder polymer is from 1.2 to 50; wherein A 1 , A 2 , and A 3 each independently represents an oxygen atom, a sulphur atom, or -N(R 21 )-, wherein R 21 represents an alkyl group which may have a substituent; G 1 , G 2 , and G 3 each independently represents a divalent organic group; X and Z each independently represents an oxygen atom, a sulphur atom, or -N(R 22 )-, wherein R 22 represents an alkyl group which may have a substituent; Y represents a single bond, an oxygen atom, a sulfur atom, a phenylene group which may have a substituent, or -N(R 23 )-, wherein R 23 represents an alkyl group which may have a substituent; and R 1 to R 20 each independently represent a monovalent substituent.
Method for replacing a sliding pad of a rotational sliding bearing , wherein the bearing comprises a plurality of sliding pads each supporting an annular rotatable part of the bearing on a stationary part of the bearing in an axial direction and/or a radial direction, wherein the stationary part is annular and the rotatable part is arranged on a circumference of the stationary part , wherein the stationary part comprises a plurality of axial and/or radial openings arranged circumferentially and/or axially displaced in the circumference of the stationary part , comprising the steps: - Removing a load of the rotatable part from the sliding pad to be removed by applying a force to the rotatable part , - Removing the sliding pad in an axial and/or a radial direction through one of the openings , - Inserting a replacement sliding pad through the opening , - Supporting the rotatable part on the replacement sliding pad by removing the force applied to the rotatable part . - Removing a load of the rotatable part from the sliding pad to be removed by applying a force to the rotatable part , - Removing the sliding pad in an axial and/or a radial direction through one of the openings , - Inserting a replacement sliding pad through the opening , - Supporting the rotatable part on the replacement sliding pad by removing the force applied to the rotatable part .
A powdering system, having a working configuration and a cleaning configuration and comprising: - a powder reservoir , comprising a supply chamber receiving powder and comprising a discharge opening , arranged through a wall of the supply chamber and opening into the supply chamber , wherein the wall is preferably a vertical wall of the powder reservoir ; - at least one sprayer , comprising: ∘ a powder applicator , and ∘ a supply line , connecting the powder applicator to a respective supply outlet of the supply chamber , such that, in the working configuration, the powder applicator is supplied with powder contained in the supply chamber by means of the supply line ; and - at least one cleaning inlet , fluidly connected to the supply chamber such that, in the cleaning configuration, a cleaning air (F55) supply source can be connected to the cleaning inlet so as to circulate cleaning air (F55) in the supply chamber ; characterized in that the powder reservoir comprises a movable plug , which is movable between: - a closing position of the discharge opening , adopted in the working configuration, and - an open position of the discharge opening , adopted in the cleaning configuration such that the circulation of cleaning air (F55) in the supply chamber through the cleaning inlet causes a discharge of residual powder contained in the supply chamber through the discharge opening , to the outside of the supply chamber . - a powder reservoir , comprising a supply chamber receiving powder and comprising a discharge opening , arranged through a wall of the supply chamber and opening into the supply chamber , wherein the wall is preferably a vertical wall of the powder reservoir ; - at least one sprayer , comprising: ∘ a powder applicator , and ∘ a supply line , connecting the powder applicator to a respective supply outlet of the supply chamber , such that, in the working configuration, the powder applicator is supplied with powder contained in the supply chamber by means of the supply line ; and ∘ a powder applicator , and ∘ a supply line , connecting the powder applicator to a respective supply outlet of the supply chamber , such that, in the working configuration, the powder applicator is supplied with powder contained in the supply chamber by means of the supply line ; and - at least one cleaning inlet , fluidly connected to the supply chamber such that, in the cleaning configuration, a cleaning air (F55) supply source can be connected to the cleaning inlet so as to circulate cleaning air (F55) in the supply chamber ; - a closing position of the discharge opening , adopted in the working configuration, and - an open position of the discharge opening , adopted in the cleaning configuration such that the circulation of cleaning air (F55) in the supply chamber through the cleaning inlet causes a discharge of residual powder contained in the supply chamber through the discharge opening , to the outside of the supply chamber .
A condensation-curable electrically conductive silicone adhesive composition (condensation-curable ECSA composition) comprising constituents (A) to (C): (A) a reactive MQ organosiloxane resin that is a product of a hydrosilylation reaction of a (C 2 -C 6 )alkenyl group-functional MQ organosiloxane resin, containing a first concentration of the (C 2 -C 6 )alkenyl groups, and a compound of formula (I) (R 1 O) 3 Si-(C 1 -C 6 )alkylene-Si(R 2 ) 2 O-Si(R 3 ) 2 H (I), wherein each R 1 is independently (C 1 -C 3 )alkyl, each R 2 is independently (C 1 -C 3 )alkyl, and each R 3 is independently (C 1 -C 3 )alkyl; (B) a reactive polydiorganosiloxane polymer that is a product of a hydrosilylation reaction of a same or different compound of formula (I) and a (C 2 -C 6 )alkenyl group-terminated polydiorganosiloxane, having a dynamic viscosity from 5,000 to 200,000 centipoise (cp) at 25 degrees Celsius (° C.) and 101325 Pa and wherein each organo group is independently (C 1 -C 3 )alkyl; and (C) at least one kind of particulate metal-based filler, wherein concentration of constituent (A) is from 40 to 70 weight percent (wt%) based on total weight of constituents (A) and (B); and wherein the concentration of the constituent (C) is from 15 to 80 volume percent (vol%) based on total volume of the condensation-curable ECSA composition; wherein the total weight of constituents (A) to (C) is less than or equal to 100 wt% of the condensation-curable ECSA composition. (A) a reactive MQ organosiloxane resin that is a product of a hydrosilylation reaction of a (C 2 -C 6 )alkenyl group-functional MQ organosiloxane resin, containing a first concentration of the (C 2 -C 6 )alkenyl groups, and a compound of formula (I) (R 1 O) 3 Si-(C 1 -C 6 )alkylene-Si(R 2 ) 2 O-Si(R 3 ) 2 H (I), wherein each R 1 is independently (C 1 -C 3 )alkyl, each R 2 is independently (C 1 -C 3 )alkyl, and each R 3 is independently (C 1 -C 3 )alkyl; (B) a reactive polydiorganosiloxane polymer that is a product of a hydrosilylation reaction of a same or different compound of formula (I) and a (C 2 -C 6 )alkenyl group-terminated polydiorganosiloxane, having a dynamic viscosity from 5,000 to 200,000 centipoise (cp) at 25 degrees Celsius (° C.) and 101325 Pa and wherein each organo group is independently (C 1 -C 3 )alkyl; and (C) at least one kind of particulate metal-based filler,
A coordination node for controlling communications between Light Fidelity, Li-Fi, Access Points, APs, and user equipment, UEs, , the coordination node configured to: receive peer connectivity reports from Li-Fi APs which identify Li-Fi APs having at least partially overlapping coverage areas; develop a handover pathway data structure, based on the peer connectivity reports, that identifies Li-Fi APs that can receive communication handover from other identified Li-Fi APs ; determine an identifier of a first Li-Fi AP providing Li-Fi communication service for a UE ; access the handover pathway data structure using the identifier of the first Li-Fi AP to determine an identifier of a second Li-Fi AP to which handover from the first Li-Fi AP can be performed; and initiate handover of the Li-Fi communication service for the UE from the first Li-Fi AP to the second Li-Fi AP . receive peer connectivity reports from Li-Fi APs which identify Li-Fi APs having at least partially overlapping coverage areas; develop a handover pathway data structure, based on the peer connectivity reports, that identifies Li-Fi APs that can receive communication handover from other identified Li-Fi APs ; determine an identifier of a first Li-Fi AP providing Li-Fi communication service for a UE ; access the handover pathway data structure using the identifier of the first Li-Fi AP to determine an identifier of a second Li-Fi AP to which handover from the first Li-Fi AP can be performed; and initiate handover of the Li-Fi communication service for the UE from the first Li-Fi AP to the second Li-Fi AP .
An antifungal composition comprising: (a) at least one antifungal agent, wherein the antifungal agent is piroctone olamine, ciclopirox olamine, ketoconazole, climbazole, miconazole nitrate, itraconazole, fluconazole, econazole, terconazole, saperconazole, amorolfine, oxiconazole, clotrimazole, luliconazole, terbinafine, butenafine, naftifine, selenium disulfide, salicylic acid, sulfur, zinc pyrithione, hinokitiol or a combination thereof; (b) at least one oil, wherein said oil is caprylic acid, a mono/di ester of caprylic acid with propylene glycol or a mono/di/tri ester of caprylic acid with glycerol; and (c) at least one excipient, and wherein said composition is devoid of C-11 or greater fatty acid or ester thereof. (a) at least one antifungal agent, wherein the antifungal agent is piroctone olamine, ciclopirox olamine, ketoconazole, climbazole, miconazole nitrate, itraconazole, fluconazole, econazole, terconazole, saperconazole, amorolfine, oxiconazole, clotrimazole, luliconazole, terbinafine, butenafine, naftifine, selenium disulfide, salicylic acid, sulfur, zinc pyrithione, hinokitiol or a combination thereof; (b) at least one oil, wherein said oil is caprylic acid, a mono/di ester of caprylic acid with propylene glycol or a mono/di/tri ester of caprylic acid with glycerol; and (c) at least one excipient, and
A blood sampling device , comprising: a housing having an inlet port configured to be fluidically coupled to a patient and an outlet port configured to be fluidically coupled to a sample reservoir; a fluid reservoir disposed in and at least partially defined by the housing, the fluid reservoir configured to receive an initial volume of blood withdrawn from the patient; and a seal member disposed in and in contact with a wall of the housing, the seal member at least partially defining the fluid reservoir, the blood sampling device having a first configuration in which the initial volume of blood is allowed to flow from the inlet port, through a portion of the fluid reservoir, and toward the seal member, and a second configuration in which (a) the initial volume of blood is contained in the fluid reservoir, and (b) a subsequent volume of blood can flow from the inlet port toward the outlet port via a sampling flow path, thereby bypassing the fluid reservoir and the initial volume of blood contained therein. a housing having an inlet port configured to be fluidically coupled to a patient and an outlet port configured to be fluidically coupled to a sample reservoir; a fluid reservoir disposed in and at least partially defined by the housing, the fluid reservoir configured to receive an initial volume of blood withdrawn from the patient; and a seal member disposed in and in contact with a wall of the housing, the seal member at least partially defining the fluid reservoir, the blood sampling device having a first configuration in which the initial volume of blood is allowed to flow from the inlet port, through a portion of the fluid reservoir, and toward the seal member, and a second configuration in which (a) the initial volume of blood is contained in the fluid reservoir, and (b) a subsequent volume of blood can flow from the inlet port toward the outlet port via a sampling flow path, thereby bypassing the fluid reservoir and the initial volume of blood contained therein.