mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for synthesizing a tone of a wind instrument that is generated in response to vibration of a reed contacting a lip during a performance of the wind instrument, said apparatus comprising: a first arithmetic operation section (31, 311) that solves a first motion equation representative of behavior of the reed in an equilibrium state with external force acting on the lip and a second motion equation representative of behavior of the lip in the equilibrium state, to thereby calculate displacement of the lip and displacement of the reed in the equilibrium state; a second arithmetic operation section (31, 312) that solves a motion equation of coupled vibration of the lip and the reed with calculation results of said first arithmetic operation section (31, 311) used as initial values of the displacement of the lip and the displacement of the reed, to thereby calculate the displacement of the reed; and a tone synthesis section (31, 313, 314, 33, 35) that synthesizes a tone on the basis of the displacement calculated by said second arithmetic operation section (31, 312); characterized in that said first motion equation and said second motion equation include a spring constant of the lip that changes in accordance with a position in the lip and intensity of pressing force acting on the lip. a first arithmetic operation section (31, 311) that solves a first motion equation representative of behavior of the reed in an equilibrium state with external force acting on the lip and a second motion equation representative of behavior of the lip in the equilibrium state, to thereby calculate displacement of the lip and displacement of the reed in the equilibrium state; a second arithmetic operation section (31, 312) that solves a motion equation of coupled vibration of the lip and the reed with calculation results of said first arithmetic operation section (31, 311) used as initial values of the displacement of the lip and the displacement of the reed, to thereby calculate the displacement of the reed; and a tone synthesis section (31, 313, 314, 33, 35) that synthesizes a tone on the basis of the displacement calculated by said second arithmetic operation section (31, 312); characterized in that said first motion equation and said second motion equation include a spring constant of the lip that changes in accordance with a position in the lip and intensity of pressing force acting on the lip.
A method of providing a printed label, the method comprising: providing a printed label substrate having disposed thereon a liquid electrostatically printed ink; wherein the liquid electrostatically printed ink comprises a thermoplastic resin comprising a polymer having acidic side groups; applying a UV curable overcoat composition to the printed ink, wherein the UV curable overcoat composition comprises (i) a component selected from UV curable monomers and UV curable oligomers, and (ii) a slip agent; curing the overcoat composition under UV irradiation with an output power of 2500 W or less. providing a printed label substrate having disposed thereon a liquid electrostatically printed ink; wherein the liquid electrostatically printed ink comprises a thermoplastic resin comprising a polymer having acidic side groups; applying a UV curable overcoat composition to the printed ink, wherein the UV curable overcoat composition comprises (i) a component selected from UV curable monomers and UV curable oligomers, and (ii) a slip agent; (i) a component selected from UV curable monomers and UV curable oligomers, and (ii) a slip agent; curing the overcoat composition under UV irradiation with an output power of 2500 W or less.
Method for liquid jet decoating of a surface of a workpiece by way of a compressor unit, which compresses a liquid for generating a liquid jet, and by way of a nozzle, which is connected to the compressor unit and which has an exit opening through which the compressed liquid exits in the form of a liquid jet, and by way of an interrupter unit, which can interrupt or enable a flow of the compressed liquid to the exit opening, characterized by the following method steps: - compressing the liquid by way of the compressor unit, - moving the exit opening towards the surface of the workpiece up to a point at a processing distance (d) therefrom, wherein the processing distance is set in such a way that the liquid jet, without damaging the workpiece itself, detaches from the surface of the workpiece the coating to be removed, - alternately enabling and interrupting the liquid jet from the exit opening by way of the interrupter unit, wherein, at the same time, the nozzle is moved relative to the workpiece in a processing direction, wherein - the processing angle (α) between the liquid jet and the processing direction is 60° to 80°, and - the pulse duration (t p) of the liquid jet is 100 to 1000 μs. - compressing the liquid by way of the compressor unit, - moving the exit opening towards the surface of the workpiece up to a point at a processing distance (d) therefrom, wherein the processing distance is set in such a way that the liquid jet, without damaging the workpiece itself, detaches from the surface of the workpiece the coating to be removed, - alternately enabling and interrupting the liquid jet from the exit opening by way of the interrupter unit, wherein, at the same time, the nozzle is moved relative to the workpiece in a processing direction, wherein - the processing angle (α) between the liquid jet and the processing direction is 60° to 80°, and - the pulse duration (t p) of the liquid jet is 100 to 1000 μs.
An aromatic hydrocarbon resin obtained by reacting an aromatic hydrocarbon represented by the formula and an aldehyde represented by the formula in the presence of an acidic catalyst: wherein R represents an alkyl group having from 1 to 4 carbon atoms; 1 and m each represents a number of 1 to 3; and A represents a number of from 0 to 2, provided that when any of 1 and m is 2 or more, plural groups represented by R may be the same as or different from each other, wherein X represents hydrogen, an alkyl group having from 1 to 10 carbon atoms, an aryl group having from 6 to 10 carbon atoms, a cyclohexyl group, a hydroxyl group, a formyl group or a carbonyl group; p and q each represents a number of from 1 to 3; and B represents a number of from 0 to 2, provided that when any of p and q is 2 or more, plural groups represented by X may be the same as or different from each other.
A volatile material dispenser, comprising: - a frame having a front face and a rear face; - a reservoir/ container containing a volatile material; - a heater being provided within the frame; - a first magnetic element disposed on the frame and adapted to attract second magnetic element(s) associated with said reservoir/container, characterized in that said second magnetic element(s) is/are located within the container and are magnetically attracted to the first magnetic element in the frame, whereby the first and second magnetic elements (126, 144) act as heat sinks to assist in spreading the thermal energy delivered by the heating element to the volatile material in the container. - a frame having a front face and a rear face; - a reservoir/ container containing a volatile material; - a heater being provided within the frame; - a first magnetic element disposed on the frame and adapted to attract second magnetic element(s) associated with said reservoir/container,
Fluidic device (10a, 10b, 10c, 10d, 10e, 10f, 10g, 10h) with at least one fluidic device component with one first fluid intake and/or conductive area comprising a first fluid inlet and a first fluid outlet, at least one second fluid intake and/or conductive area comprising a second fluid inlet and a second fluid outlet, and at least one fluid valve (3, 3a, 3b) provided between the first fluid outlet and the second fluid inlet, which releases a fluid transport way between the first fluid outlet and the second fluid inlet in an open state, wherein the fluid valve comprises a valve seat extending between the first fluid intake and/or conductive area and the second fluid intake and/or conductive area; a top layer is provided on a first opening area of the first fluid intake and/or conductive area adjacent to the valve seat, on a valve seat surface (32, 32b) and on a second opening area of the second fluid intake and/or conductive area adjacent to the valve seat by means of an adhesive layer provided thereon, wherein the adhesive layer forms a valve seal between the valve seat surface (32, 32b) and the top layer, wherein the top layer along with the adhesive layer provided thereon adheres to the valve seat and the adhesive areas of surface areas (14, 24) of the fluidic device component; and the adhesive layer comprises a decreasing adhesive effect under the influence of heat and/or electromagnetic radiation.
A bendable thermoplastic reinforcement of substantially U-shaped cross section, in particular for a profiled seal or profiled molding of a motor vehicle, the reinforcement having a central portion and two arms (5 and 8), each arm comprising over its length a series of limbs which are separated from one another by slots, characterized in that over at least one part of the length of the reinforcement, each limb has laterally an asymmetrical geometry and an area greater than that of each adjacent slot, in that said arms (5 and 8) comprise a series of pairs of said asymmetrical limbs which, within each pair, are formed laterally opposite one another and which each have a free end of minimum width which is offset relative to a transverse plane of this pair located at an equal distance from the start of said slots surrounding each limb, and in that each asymmetrical limb has substantially the shape of a saw-tooth comprising two tooth edges (12 and 13) which each have a straight or curved profile and which are joined at said free end of pointed or rounded shape, such that said at least one part of the reinforcement is substantially in the form of a saw-toothing, the teeth thereof being inclined on the same side.
Use of alkyl or dialkyl semicarbazones of general formula or mixtures thereof in which the following applies to the functional groups, in each case simultaneously or independently: R 1 = branched or linear alkyl or cycloalkyl, R 2 = hydrogen, branched or linear alkyl or cycloalkyl, R 3 = branched or linear alkyl or cycloalkyl, and R 4 = hydrogen, branched or linear alkyl or cycloalkyl, or R 1 = branched or linear alkyl or cycloalkyl, R 2 = hydrogen, branched or linear alkyl or cycloalkyl, and R 3 and R 4 = together forming an alkylene ring, as curing agents for curing epoxy resins having at least one reactive epoxide group or epoxy resin compositions comprising at least one epoxy resin having at least one reactive epoxide group, characterised in that the epoxy resin composition does not comprise any further curing agents, co-curing agents, curing accelerators or other catalysts for curing epoxy resins in addition to the alkyl or dialkyl semicarbazone of general formula or mixtures thereof. R 1 = branched or linear alkyl or cycloalkyl, R 2 = hydrogen, branched or linear alkyl or cycloalkyl, R 3 = branched or linear alkyl or cycloalkyl, and R 4 = hydrogen, branched or linear alkyl or cycloalkyl, R 1 = branched or linear alkyl or cycloalkyl, R 2 = hydrogen, branched or linear alkyl or cycloalkyl, and R 3 and R 4 = together forming an alkylene ring,
A method at a proxy mobile IPv6 mobile access gateway comprising receiving a request (31; 41) from a node; obtaining, based on the received request, an identifier relevant to said node; allocating a first local prefix (P 1) anchored at the proxy mobile IPv6 mobile access gateway; setting a first timer indicating a length of time the first local prefix or an address comprising the first local prefix is valid; setting a second timer indicating a length of time the first local prefix or the address comprising the first local prefix is preferred when the first local prefix or the address is valid and after which the first local prefix or the address is deprecated such that it can no longer be used as a source address in new communications; and sending a first message (33; 43) comprising said identifier, said first local prefix and said first timer to a network element.
An anti-fouling lighting system configured for preventing or reducing biofouling on a fouling surface of an object, that during use is at least temporarily exposed to water, wherein the object is a vessel, by providing an anti-fouling light to said fouling surface, the anti-fouling lighting system comprising: - a lighting module comprising (i) a light source configured to generate said anti-fouling light; - a control system configured to control an intensity of the anti-fouling light as function of one or more of (i) a feedback signal related to a biofouling risk and (ii) a timer for time-based varying the intensity of the anti-fouling light; wherein: - the anti-fouling lighting system is configured to provide said anti-fouling light via an optical medium to said fouling surface, wherein the lighting module further comprises (ii) said optical medium configured to receive at least part of the anti-fouling light, the optical medium comprising an emission surface configured to provide at least part of said anti-fouling light; and - the optical medium is configured to distribute at least part of the antifouling light through the optical medium, the optical medium comprising (iia) a first medium face, and (iib) said emission surface, the emission surface configured to emit at least part of the distributed anti-fouling light in a direction away from the first medium face of the optical medium. - a lighting module comprising (i) a light source configured to generate said anti-fouling light; - a control system configured to control an intensity of the anti-fouling light as function of one or more of (i) a feedback signal related to a biofouling risk and (ii) a timer for time-based varying the intensity of the anti-fouling light; - the anti-fouling lighting system is configured to provide said anti-fouling light via an optical medium to said fouling surface, wherein the lighting module further comprises (ii) said optical medium configured to receive at least part of the anti-fouling light, the optical medium comprising an emission surface configured to provide at least part of said anti-fouling light; and - the optical medium is configured to distribute at least part of the antifouling light through the optical medium, the optical medium comprising (iia) a first medium face, and (iib) said emission surface, the emission surface configured to emit at least part of the distributed anti-fouling light in a direction away from the first medium face of the optical medium.
Device for limiting torque, comprising a nut and a holding element, the holding element comprising a head part in a rear region of the holding element, which head part has a driver profile for coupling the head part to a setting tool for conjoint rotation, the holding element comprising a receiving part in a front region of the holding element, which receiving part has a receptacle which is open toward the front and in which the nut is received for conjoint rotation, and the holding element comprising means for transmitting torque from the head part to the receiving part, which means connect the head part and the receiving part, the means for torque transmission breaking at a torque limit, thus removing the connection between the head part and the receiving part, characterized in that the holding element has at least one holding claw which is arranged on the receiving part and which secures the nut in the receptacle on the front face of the nut.
Method of manufacture of one or more pairs of components in composite material (11, 13; 11', 13') intended to form part of two aerofoils located on both sides of the axis of symmetry of a specified aircraft model and whose shape has a decreasing cross section in the longitudinal direction, the angle between the longitudinal edges of said components, in a planar development, being less than 10°, comprising the following stages: a) Lay-up of layers of composite material arranged with different orientations of their reinforcing fibres on a flat tape lay-up table forming a laminate consisting of all of the components of said pairs (11, 13; 11', 13'), b) Cutting of the flat laminates corresponding to each of the components of said pairs (11, 13; 11', 13'). c) Forming and curing of the components of said pairs (11, 13; 11', 13') characterized in that: the components of each pair are arranged adjacently and the first components (11,11') corresponding to one of said aerofoils and the second components (13, 13') corresponding to the other aerofoil are arranged alternatively, and the components are arranged symmetrically relative to a horizontal axis X-X of the tape lay-up jig. a) Lay-up of layers of composite material arranged with different orientations of their reinforcing fibres on a flat tape lay-up table forming a laminate consisting of all of the components of said pairs (11, 13; 11', 13'), b) Cutting of the flat laminates corresponding to each of the components of said pairs (11, 13; 11', 13'). c) Forming and curing of the components of said pairs (11, 13; 11', 13') the components of each pair are arranged adjacently and the first components (11,11') corresponding to one of said aerofoils and the second components (13, 13') corresponding to the other aerofoil are arranged alternatively, and the components are arranged symmetrically relative to a horizontal axis X-X of the tape lay-up jig.
A wireless display tag (12, 50, 60, 70) adapted to fit within a C-channel of a shelf-edge, the tag comprising an active transceiver (21; 54, 56; 64, 66; 74, 76) coupled to an antenna (20, 68, 72), a backscatter transceiver (28, 52, 62), separate from the active transceiver, coupled to the antenna, the combination of the active transceiver and the backscatter transceiver allowing for transmission of signals of varying power ranges from the wireless display tag to reduce the power consumption of the wireless display tag; and digital logic (26, 61) having a transmitter interface and a receiver interface for coupling to the active transceiver and the backscatter transceiver and adapted to control communications.
An internally rotating gear pump in which a pinion having external teeth and a gear arranged eccentrically to the pinion and having internal teeth meshed with the external teeth of the pinion are housed in a casing having a suction port and a discharge port, the internally rotating gear pump being configured to suck a fluid and discharge the fluid by rotating the pinion and the gear while the internal teeth and the external teeth are meshed with each other, the gear having a disc-shaped base having a front surface facing the pinion, the front surface including a plurality of internal teeth protruding from an outer peripheral portion of the front surface at predetermined angular intervals to form a ring shape, the internally rotating gear pump comprising: a rotating shaft rotatably supported in the casing and rotationally driven by an external actuator; and a gear pin fixedly mounted to the casing, wherein the pinion is a driving gear coupled to the rotating shaft such that the pinion and the rotating shaft are rotationally driven in an integrated manner when the rotating shaft is driven, and the gear is a driven gear caused to rotate around the gear pin by a torque that the internal teeth receive from the external teeth of the pinion and is rotatably supported on the gear pin via a gear bush functioning as a slide bearing. a rotating shaft rotatably supported in the casing and rotationally driven by an external actuator; and a gear pin fixedly mounted to the casing, wherein the pinion is a driving gear coupled to the rotating shaft such that the pinion and the rotating shaft are rotationally driven in an integrated manner when the rotating shaft is driven, and the gear is a driven gear caused to rotate around the gear pin by a torque that the internal teeth receive from the external teeth of the pinion and is rotatably supported on the gear pin via a gear bush functioning as a slide bearing.
A preparation method of a silicate fluorescent material having a chemical formula of: Ln 2 SiO 5:Tb, M; wherein Ln represents at least one of the elements selected from the group consisting ofY, Gd, La and Lu, M represents at least one of the nanoparticles selected from the group consisting of Ag, Au, Os, Ir, Pt, Ru, Rh and Pd; the mole ratio of Tb to Ln is greater than 0 but less than or equal to 0.25. comprising following steps: preparing an aqueous solution containing M ions; immersing a porous glass into the solution containing M ions; immersing the obtained porous glass into a reducing agent solution to obtain a porous glass containing M; providing the porous glass containing M, Ln source compounds, wherein the Ln source compounds is at least one selected from the group consisting of Ln oxide, nitrate, carbonate and oxalate, and Tb source compounds according to the mole ratio of Tb to Ln of greater than 0 but less than or equal to 0.25, and grinding to obtain a mixture powder; and sintering the mixture powder in reducing atmosphere, at a temperature of 1300°C to 1600°C for 1 to 8 hours, and then cooling to room temperature to obtain the silicate fluorescent material having the chemical formula of Ln 2 SiO 5:Tb, M. preparing an aqueous solution containing M ions; immersing a porous glass into the solution containing M ions; immersing the obtained porous glass into a reducing agent solution to obtain a porous glass containing M; providing the porous glass containing M, Ln source compounds, wherein the Ln source compounds is at least one selected from the group consisting of Ln oxide, nitrate, carbonate and oxalate, and Tb source compounds according to the mole ratio of Tb to Ln of greater than 0 but less than or equal to 0.25, and grinding to obtain a mixture powder; and sintering the mixture powder in reducing atmosphere, at a temperature of 1300°C to 1600°C for 1 to 8 hours, and then cooling to room temperature to obtain the silicate fluorescent material having the chemical formula of Ln 2 SiO 5:Tb, M.
A high-strength stainless steel pipe wherein there is provided, as a base material, a stainless steel material which contains on the basis of percent by mass, C from 0.04 to 0.12%, Ni from 0 (including a case of no addition) to 5.0%, Cr from 12.0 to 17.0%, N from 0 (including a case of no addition) to 0.10%, Si from 0.2 to 2.0%, Mn at 2.0% or less, Cu from 0 (including a case of no addition) to 2.0%, P at 0.06% or less, S at 0.006% or less, with residue being Fe and unavoidable impurities; in which a parent phase is constituted with any one of a single phase structure of ferrite phase, a single phase structure of martensite phase and a diploid phase structure of ferrite phase and martensite phase, and in which carbide is uniformly separated at grain boundaries and within grains and a dissolved amount of C is adjusted to be 0.03 % or less; wherein an end of the base material is welded as a joint to form a pipe, the joint having a molten structure resulting from welding; and the separated carbide is dissolved from the parent phase and the joint by heat treatment after pipe formation.