mhurhangee/ep-ind-claims huggingface dataset:
A hair cutting member comprising: an optical waveguide including a core and a cladding covering at least a portion of the core, the optical waveguide guiding light to hair growing on a skin; a connecting member retaining an end of the optical waveguide; and a bonding member bonding the optical waveguide and the connecting member to each other, characterized in that the core is disposed off-center toward an outer circumference of the cladding; and when viewed from an end face of the connecting member, a first distance between a center of the end face and an optical axis of the core is shorter than a second distance between the center of the end face and a center of the cladding. an optical waveguide including a core and a cladding covering at least a portion of the core, the optical waveguide guiding light to hair growing on a skin; a connecting member retaining an end of the optical waveguide; and a bonding member bonding the optical waveguide and the connecting member to each other, characterized in that the core is disposed off-center toward an outer circumference of the cladding; and when viewed from an end face of the connecting member, a first distance between a center of the end face and an optical axis of the core is shorter than a second distance between the center of the end face and a center of the cladding.
Heat transfer method for transferring onto a textile a multilayer complex formed of a plurality of superposed thermoplastic layers, including a layer based on polyurethane, and an expandable layer containing a gelled polyvinyl chloride plastisol and a non-expanded heat-expandable agent, in order to form a marking or a decoration on said textile, characterized in that it comprises the following steps: - placing the multilayer complex on the visible front face of the textile, its polyurethane-based layer being the layer that is the furthest away from the textile so that, after transfer, it constitutes a visible decorative layer on the visible front face of the textile; - applying temperature and pressure conditions that cause the multilayer complex to adhere to the visible front face of the textile and simultaneously cause its expandable layer to expand. - placing the multilayer complex on the visible front face of the textile, its polyurethane-based layer being the layer that is the furthest away from the textile so that, after transfer, it constitutes a visible decorative layer on the visible front face of the textile; - applying temperature and pressure conditions that cause the multilayer complex to adhere to the visible front face of the textile and simultaneously cause its expandable layer to expand.
A methane-powered refrigeration unit (220; 320; 420; 520; 620) comprising: a housing; a refrigeration engine (248; 348; 448; 548; 648) positioned within the housing; a regulator (250; 350; 450; 550; 650) positioned within the housing and fluidly connected to the engine, the regulator configured to control fuel supply to the refrigeration engine through at least one fuel line (254; 354; 554; 654); a lock-off valve (358; 458; 558; 658) operably connected to the regulator and configured to shut off fuel supply through the regulator to the refrigeration engine; a safety controller (360; 460; 560; 660) operably connected to at least one of the lock-off valve and the regulator; characterised by a guide (462; 562; 662a, 662b, 662c) positioned within the housing and proximate to at least one of the refrigeration engine, the regulator, and the at least one fuel line, the guide arranged to direct gases leaking from the respective refrigeration engine, regulator, and at least one fuel line; and a methane sensor (566; 666a, 666b, 666c) positioned within the guide and configured to detect the presence of methane within the guide that is directed by the guide, the methane sensor in communication with the safety controller and configured to transmit a signal to the safety controller when methane is detected by the methane sensor; wherein the safety controller performs a safety action when the signal from the methane sensor is received. a housing; a refrigeration engine (248; 348; 448; 548; 648) positioned within the housing; a regulator (250; 350; 450; 550; 650) positioned within the housing and fluidly connected to the engine, the regulator configured to control fuel supply to the refrigeration engine through at least one fuel line (254; 354; 554; 654); a lock-off valve (358; 458; 558; 658) operably connected to the regulator and configured to shut off fuel supply through the regulator to the refrigeration engine; a safety controller (360; 460; 560; 660) operably connected to at least one of the lock-off valve and the regulator; characterised by a guide (462; 562; 662a, 662b, 662c) positioned within the housing and proximate to at least one of the refrigeration engine, the regulator, and the at least one fuel line, the guide arranged to direct gases leaking from the respective refrigeration engine, regulator, and at least one fuel line; and a methane sensor (566; 666a, 666b, 666c) positioned within the guide and configured to detect the presence of methane within the guide that is directed by the guide, the methane sensor in communication with the safety controller and configured to transmit a signal to the safety controller when methane is detected by the methane sensor; wherein the safety controller performs a safety action when the signal from the methane sensor is received.
A wiring structure of one or a plurality of electric wires between two structures (4a, 5) that move relatively, each of electric wires having one end fixed to one of the two structures (4a, 5) and the other end fixed to the other of the two structures, the wiring structure comprising: an electric wire having a U-shaped excessive part provided along a relatively-moving direction in a middle part of the electric wire to allow the two structures to move relatively; and a longitudinally-appended spring member provided longitudinally along the electric wire for maintaining the excessive part in a U-shape and a bent shape, wherein an elastic rod member having a property of nonbiased bending in direction is used as the longitudinally-appended spring member., characterized in that opposite ends of the longitudinally-appended spring member are supported rotatably and regulated in the longitudinal direction of the longitudinally-appended spring member. an electric wire having a U-shaped excessive part provided along a relatively-moving direction in a middle part of the electric wire to allow the two structures to move relatively; and a longitudinally-appended spring member provided longitudinally along the electric wire for maintaining the excessive part in a U-shape and a bent shape, wherein an elastic rod member having a property of nonbiased bending in direction is used as the longitudinally-appended spring member., characterized in that opposite ends of the longitudinally-appended spring member are supported rotatably and regulated in the longitudinal direction of the longitudinally-appended spring member.
Process for depositing cells on an analysis plate, the cells being contained in a cell suspension comprising a fixing agent and the cells, comprising the step of: furnishing a system comprising a chamber, for receiving the suspension, which is positioned above the analysis plate and whose base is open and extends opposite a cell depositing zone of the plate and a material for absorbing the fixing agent placed around the chamber and the depositing zone of the plate, characterised in that the process comprises the following steps: - placing the chamber in a first position (Figure 1) in abutment against the analysis plate in order to allow the cells to be deposited on the depositing zone of the plate by means of decantation, and - moving the chamber in a second position (Figure 2) remote from this analysis plate in order to place the chamber in a fluid relationship with the absorption material in order to allow this material to absorb the fixing agent. furnishing a system comprising a chamber, for receiving the suspension, which is positioned above the analysis plate and whose base is open and extends opposite a cell depositing zone of the plate and a material for absorbing the fixing agent placed around the chamber and the depositing zone of the plate, - placing the chamber in a first position (Figure 1) in abutment against the analysis plate in order to allow the cells to be deposited on the depositing zone of the plate by means of decantation, and - moving the chamber in a second position (Figure 2) remote from this analysis plate in order to place the chamber in a fluid relationship with the absorption material in order to allow this material to absorb the fixing agent.
Method for preparing a suspension of a hydrochloride of an organic amine, comprising the following steps: (i) initially charging at least one organic solvent in a reaction vessel to form a liquid level, (ii) adding hydrogen chloride, (iii) adding the organic amine, characterized in that the organic amine is added below the liquid level present in the reaction vessel and steps (ii) and (iii) are at least partly carried out simultaneously. (i) initially charging at least one organic solvent in a reaction vessel to form a liquid level, (ii) adding hydrogen chloride, (iii) adding the organic amine,
Device for blinding containers, having a closure which is to be removed for the purpose of withdrawing preparation, characterized by a blinding covering which completely encloses the container, having an axially movable, rotatable lid which is provided with means for gripping the closure and a withdrawal site for an extraction needle, in such a way that the closure is removed from the container and the withdrawal site arrives at a position above the open container by axially moving and rotating the lid.
A lipase which (a) has at least 50% identity to the sequence of amino acids 1-269 of SEQ ID NO: 2; (b) has lipase activity; (c) as compared to the sequence of amino acids 1-269 of SEQ ID NO: 2, comprises N33Q+G163K+T231R+N233R; and wherein the lipase has improved digestion performance as compared to the reference lipase N33Q+T231 R+N233R of SEQ ID No:2. (a) has at least 50% identity to the sequence of amino acids 1-269 of SEQ ID NO: 2; (b) has lipase activity; (c) as compared to the sequence of amino acids 1-269 of SEQ ID NO: 2, comprises N33Q+G163K+T231R+N233R; and
Seat element, comprising - a frame able to support an associable seat and fitted with at least one means of support, such as a foot or a leg, - a seat associable to said frame, - the frame and the seat being made separately from each other and being attachable and detachable from each other by means of a snap coupling element, characterised by the fact that - the frame comprises at least one lateral plate, - the seat comprises at least one tab which in an assembled configuration, hooks onto said lateral plate at least partially, in a shaped coupling, wherein - between the at least one tab and at least one plate said snap coupling element is positioned, flexible in relation to the plate and to the tab so as to block the seat to the frame in an assembled configuration of the seat element. - a frame able to support an associable seat and fitted with at least one means of support, such as a foot or a leg, - a seat associable to said frame, - the frame and the seat being made separately from each other and being attachable and detachable from each other by means of a snap coupling element, - the frame comprises at least one lateral plate, - the seat comprises at least one tab which in an assembled configuration, hooks onto said lateral plate at least partially, in a shaped coupling, wherein - between the at least one tab and at least one plate said snap coupling element is positioned, flexible in relation to the plate and to the tab so as to block the seat to the frame in an assembled configuration of the seat element.
Profile component for a vehicle seat, characterized in that an annealed component section is arranged in a central region of the profile component, wherein in each case one non-annealed component section is arranged at the end sides of the profile component, and in each case one transition region is formed between adjacent component sections (3, 4).
Method for laser powder build-up welding having an oscillating solidification front, in which a laser beam, oscillates, characterized in that the laser beam oscillates at a frequency of 20 Hz to 50 Hz, in particular at 35 Hz, and the amplitude of the oscillation is between 35% and 65%, in particular 50%, of the diameter (d) of the energy beam at the machining location, in particular at the focal point, having a generally linear moving direction which represents the superimposed overall direction of an oscillating or swinging movement, wherein the diameter (d) of the laser beam at the machining location, in particular at the focal point, is 500 μm to 1200 μm, in particular 600 μm to 800 μm.
Method of generating pulsed laser light, comprising the steps of: - providing laser light pulses (2, 3) having a predetermined pulse repetition rate (f rep) with a laser source device, - coupling the laser light pulses into an enhancement cavity with a plurality of cavity mirrors (21.1, 21.2,...) and a predetermined cavity length, and - coherent addition of the laser light pulses in the enhancement cavity so that at least one cavity pulse (1.1, 1.2,...) is formed by linearly superimposing the laser light pulses, characterized in that - the at least one cavity pulse (1.1, 1.2,...) circulating in the enhancement cavity irradiates all of the cavity mirrors (21.1, 21.2,...) under oblique incidence with an angle (α) of incidence of more than 45°. - providing laser light pulses (2, 3) having a predetermined pulse repetition rate (f rep) with a laser source device, - coupling the laser light pulses into an enhancement cavity with a plurality of cavity mirrors (21.1, 21.2,...) and a predetermined cavity length, and - coherent addition of the laser light pulses in the enhancement cavity so that at least one cavity pulse (1.1, 1.2,...) is formed by linearly superimposing the laser light pulses, - the at least one cavity pulse (1.1, 1.2,...) circulating in the enhancement cavity irradiates all of the cavity mirrors (21.1, 21.2,...) under oblique incidence with an angle (α) of incidence of more than 45°.
A polymerizable composition comprising (a) 100 parts by mass of reactive silsesquioxane compound as a polycondensate of an alkoxy silicon compound A of Formula with an alkoxy silicon compound B of Formula in an amount by mole of 0 to 99 times the amount of the alkoxy silicon compound A, and (b) 10 to 2,000 parts by mass of fluorene compound of Formula, and, optionally, (c) a (meth)acrylate compound different from the fluorene compound in an amount of 1 to 200 parts by mass relative to 100 parts by mass of the total amount of the components (a) and (b): R 1 -Si(OR 2) 3 wherein R 1 is a C 1-10 alkyl group having at least one (meth)acryloyloxy group and R 2 is a methyl group or an ethyl group; R 3 -Si(OR 4) 3 wherein R 3 is a C 1-10 alkyl group, a C 7-10 aralkyl group, or a C 6-14 aryl group and R 4 is a methyl group or an ethyl group; where R 5 and R 6 are each independently a hydrogen atom or a methyl group, L 1 and L 2 are each independently a phenylene group optionally having a substituent or a naphthalenediyl group optionally having a substituent, L 3 and L 4 are each independently a C 1-6 alkylene group, and m and n are 0 or a positive integer with m+n satisfying 0 to 40; wherein the composition further comprises (d) a chain transfer agent in an amount of 0.01 to 20 parts by mass relative to 100 parts by mass of the total amount of the components (a) and (b), or if the component (c) is contained, relative to 100 parts by mass of the total amount of the components (a) to (c), the chain transfer agent (d) being selected from the group consisting of a thiol compound, a disulfide compound, and an α-methylstyrene dimer. where R 5 and R 6 are each independently a hydrogen atom or a methyl group, L 1 and L 2 are each independently a phenylene group optionally having a substituent or a naphthalenediyl group optionally having a substituent, L 3 and L 4 are each independently a C 1-6 alkylene group, and m and n are 0 or a positive integer with m+n satisfying 0 to 40; wherein the composition further comprises (d) a chain transfer agent in an amount of 0.01 to 20 parts by mass relative to 100 parts by mass of the total amount of the components (a) and (b), or if the component (c) is contained, relative to 100 parts by mass of the total amount of the components (a) to (c), the chain transfer agent (d) being selected from the group consisting of a thiol compound, a disulfide compound, and an α-methylstyrene dimer.
A method for controlling a wind turbine comprising a wind rotor comprising wind rotor shaft (160, 162, 166), said wind rotor shaft including at least one bolt coupling a flange thereof to a flange of a gearbox portion thereof, a rotary encoder for measuring an azimuth angle of the wind rotor shaft, and at least one impulse generating device comprising at least one proximity sensor, wherein the at least one bolt is rotatable with the wind rotor shaft and the least one proximity sensor is disposed stationary with respect to the wind rotor shaft such that the at least one bolt can move by the at least one proximity sensor; wherein the method comprises: encoding an azimuth angle of the wind rotor shaft by the rotary encoder into a rotation value; generating an impulse when the at least one bolt moves by the at least one proximity sensor of the impulse generating device; and comparing a measured bolt impulse pattern to a previously stored reference pattern to implement a relative supervision of the azimuth angle of the wind rotor. encoding an azimuth angle of the wind rotor shaft by the rotary encoder into a rotation value; generating an impulse when the at least one bolt moves by the at least one proximity sensor of the impulse generating device; and comparing a measured bolt impulse pattern to a previously stored reference pattern to implement a relative supervision of the azimuth angle of the wind rotor.
Device for opening and closing a passage in a wall, comprising: - a frame with a groove arranged therein; - a door element arranged slidably in the frame; - permanent magnets arranged on or close to the upper edge of the door element; - one or more wheels which are mounted on the door element and which run in the groove during sliding of the door element; and - ferromagnetic member, strengthening a magnetic field, arranged directly below the magnets, wherein the magnets are placed with the ferromagnetic member in a non-magnetic housing characterized by the non-magnetic housing being a-U-shaped aluminium profile, said profile being arranged directly onto the upper edge of the door element such that the ferromagnetic member is arranged between the magnets and the upper edge of the door element. - a frame with a groove arranged therein; - a door element arranged slidably in the frame; - permanent magnets arranged on or close to the upper edge of the door element; - one or more wheels which are mounted on the door element and which run in the groove during sliding of the door element; and - ferromagnetic member, strengthening a magnetic field, arranged directly below the magnets, wherein the magnets are placed with the ferromagnetic member in a non-magnetic housing characterized by the non-magnetic housing being a-U-shaped aluminium profile, said profile being arranged directly onto the upper edge of the door element such that the ferromagnetic member is arranged between the magnets and the upper edge of the door element.
A cleaning apparatus for cleaning an elevated surface comprising, in combination: a high pressure cleaner, a gun having a trigger for opening/closing the flow of fluid delivered from the high pressure cleaner, an injector for a detergent provided in the flow path of said fluid, an outer telescopic tube surrounding a flexible hose for the fluid and the detergent, wherein said flexible hose is terminated in a nozzle attached to the distal end of said outer telescopic tube whereby a valve is provided in, or at, said gun, said valve being adapted to regulate the supply of said detergent to said injector. a high pressure cleaner, a gun having a trigger for opening/closing the flow of fluid delivered from the high pressure cleaner, an injector for a detergent provided in the flow path of said fluid, an outer telescopic tube surrounding a flexible hose for the fluid and the detergent, wherein said flexible hose is terminated in a nozzle attached to the distal end of said outer telescopic tube whereby a valve is provided in, or at, said gun, said valve being adapted to regulate the supply of said detergent to said injector.
An overlay for coating a support plate consisting of wood material, wherein the overlay consists of a plurality of layers, and wherein at least one layer (2, 11, 17, 26, 32, 37, 40) of the overlay - is applied as a liquid, - is applied sectionally as regularly or irregularly distributed strips (6, 7, 12, 18, 27) or as a grid, and - contains electrically conductive particles. - is applied as a liquid, - is applied sectionally as regularly or irregularly distributed strips (6, 7, 12, 18, 27) or as a grid, and - contains electrically conductive particles.
An apparatus for calculating an inter-vehicle distance, the apparatus comprising: an information obtainment unit to obtain information about an inter-vehicle distance with a preceding vehicle at a temporal interval; an estimation unit to estimate an inter-vehicle distance with the preceding vehicle to be obtained by the information obtainment unit at a subsequent interval, based on the information obtained by the information obtainment unit; a physical limit determining unit to determine whether a absolute value obtained by subtracting a subsequent inter-vehicle distance estimated by the estimation unit from the inter-vehicle distance obtained by the information obtainment unit at the subsequent interval is greater than or equal to a predetermined inter-vehicle distance change range (Dth); and a correction unit to correct the inter-vehicle distance obtained by the information obtainment unit by determining that an error is present within the inter-vehicle distance obtained by the information obtainment unit at the subsequent interval, when the absolute value is greater than or equal to the predetermined inter-vehicle distance change range. an information obtainment unit to obtain information about an inter-vehicle distance with a preceding vehicle at a temporal interval; an estimation unit to estimate an inter-vehicle distance with the preceding vehicle to be obtained by the information obtainment unit at a subsequent interval, based on the information obtained by the information obtainment unit; a physical limit determining unit to determine whether a absolute value obtained by subtracting a subsequent inter-vehicle distance estimated by the estimation unit from the inter-vehicle distance obtained by the information obtainment unit at the subsequent interval is greater than or equal to a predetermined inter-vehicle distance change range (Dth); and a correction unit to correct the inter-vehicle distance obtained by the information obtainment unit by determining that an error is present within the inter-vehicle distance obtained by the information obtainment unit at the subsequent interval, when the absolute value is greater than or equal to the predetermined inter-vehicle distance change range.