mhurhangee/ep-ind-claims huggingface dataset:
A multidirectional switch provided with a tilt detector for electrically detecting a tilting operation of an operating rod, supported in a casing, a pressure detector for electrically detecting a pressing operation of the operating rod in a direction along an axial center, and a rotation detector for electrically detecting a rotational operation of the operating rod, the multidirectional switch comprising: an urging member for applying an urging force to the operating rod along an urging axial center that is coaxial with the axial center of the operating rod in a neutral orientation in the direction of the tilting operation; characterized in that the multidirectional switch is further comprising a pressure-receiving member tiltable relative to the operation rod and caused to make contact with an inside end part of the operating rod inside the casing by the urging force from the urging member, and a cylindrical part capable of engaging and integrally rotating with the external periphery of an inside end part of the operation rod, the urging member and the pressure-receiving member being arranged inside the cylindrical part, protruding pieces being formed on the internal surface of the cylindrical part; and wherein the pressure-receiving member has a tilt limit during the tilting operation of the operating rod by making contact with the protruding pieces. an urging member for applying an urging force to the operating rod along an urging axial center that is coaxial with the axial center of the operating rod in a neutral orientation in the direction of the tilting operation; characterized in that the multidirectional switch is further comprising a pressure-receiving member tiltable relative to the operation rod and caused to make contact with an inside end part of the operating rod inside the casing by the urging force from the urging member, and a cylindrical part capable of engaging and integrally rotating with the external periphery of an inside end part of the operation rod, the urging member and the pressure-receiving member being arranged inside the cylindrical part, protruding pieces being formed on the internal surface of the cylindrical part; and wherein the pressure-receiving member has a tilt limit during the tilting operation of the operating rod by making contact with the protruding pieces.
A peptoid affinity ligand, selected from the group consisting of: and or and, or and wherein the peptoid affinity ligand has a binding affinity to an immunoglobulin, immunoglobulin fragment or immunoglobulin fusion protein thereof.
A composition comprising finafloxacin at a concentration of 0.4 g/l to 25 g/l and a solubilizer, which is Tris, at a concentration of 0.001 M to 0.1 M, said composition having a pH of 8.0 to 10.0.
Method for detecting soiling of a fire detector, wherein the fire detector comprises a sensor device for detecting a measurement variable and for outputting a measurement signal, wherein the measurement signal includes noise and/or dispersion, wherein the method comprises the following steps: - recording the measurement signal of the sensor device for an evaluation time interval, - performing a time series analysis for the measurement signal in the evaluation time interval, - determining soiling and/or operational readiness of the fire detector on the basis of the time series analysis, wherein the measurement signal has a dominant mean component, a slow trend component and/or a quasi-periodic trend component, wherein the measurement signal is trend-adjusted before or during the time series analysis, wherein the time series analysis is performed for the trend-adjusted measurement signal, wherein the time series analysis comprises and/or forms a Hurst analysis or the time series analysis is based on a detrended fluctuation analysis or a multifractal detrended fluctuation analysis. wherein the fire detector comprises a sensor device for detecting a measurement variable and for outputting a measurement signal, wherein the measurement signal includes noise and/or dispersion, wherein the method comprises the following steps: - recording the measurement signal of the sensor device for an evaluation time interval, - performing a time series analysis for the measurement signal in the evaluation time interval, - determining soiling and/or operational readiness of the fire detector on the basis of the time series analysis, - recording the measurement signal of the sensor device for an evaluation time interval, - performing a time series analysis for the measurement signal in the evaluation time interval, - determining soiling and/or operational readiness of the fire detector on the basis of the time series analysis, wherein the measurement signal has a dominant mean component, a slow trend component and/or a quasi-periodic trend component, wherein the measurement signal is trend-adjusted before or during the time series analysis, wherein the time series analysis is performed for the trend-adjusted measurement signal, wherein the time series analysis comprises and/or forms a Hurst analysis or the time series analysis is based on a detrended fluctuation analysis or a multifractal detrended fluctuation analysis.
A sealing assembly comprising: - a first member that is part of or is attached to a wind turbine nacelle, and - a second member that is part of or is attached to a wind turbine rotor hub wherein - the first member has a plate attached thereto and substantially covering at least one portion of the second member, and - the second member can be rotated relative to the first member, and - the first member and the second member define at least one substantially tortuous way, and wherein - the sealing assembly further comprises a brush type sealing, - the brush type sealing has first and second ends, wherein - the first end of the brush type sealing is attached to one of the first member and the second member and, - the second, end substantially rests on the other of the first member and the second member such that an inner gap formed between said first and second members (10, 20) is sealed. - a first member that is part of or is attached to a wind turbine nacelle, and - a second member that is part of or is attached to a wind turbine rotor hub wherein - the first member has a plate attached thereto and substantially covering at least one portion of the second member, and - the second member can be rotated relative to the first member, and - the first member and the second member define at least one substantially tortuous way, and wherein - the sealing assembly further comprises a brush type sealing, - the brush type sealing has first and second ends, wherein - the first end of the brush type sealing is attached to one of the first member and the second member and, - the second, end substantially rests on the other of the first member and the second member such that an inner gap formed between said first and second members (10, 20) is sealed.
A method of preparing B 18 H 22 from boric acid comprising the steps of: (a) preparation of borate ester from boric acid and a primary, secondary, or tertiary alcohol; (b) reducing the borate ester with NaAlH 4 or NaH to form NaBH 4; (c) preparing R 4 NBH 4 from NaBH 4 and R 4 NX either in situ or after isolation of NaBH 4, wherein R is a hydrocarbon and X is an anion; (d) pyrolysis of solid R 4 NBH 4 at about 185°C to form B 10 H 10 2-; (e) oxidation of B 10 H 10 2- to give B 20 H 18 2-; (f) contacting a solution of B 20 H 18 2- with acidic cation exchange resin; (g) decomposing the resultant acid to give B 18 H 22; (h) extracting the residue with hexanes or other suitable hydrocarbon solvent in which boric acid byproduct is insoluble; (i) repeating steps (g) and (h) until no further B 18 H 22 is produced; (j) contacting the residues with appropriate solvent to dissolve any B 20 H 18 2- containing salts and excluding boric acid byproduct; (k) repeating steps with (f)-(j) at least once; and (l) concentrating the combined hydrocarbon solutions to afford B 18 H 22. (a) preparation of borate ester from boric acid and a primary, secondary, or tertiary alcohol; (b) reducing the borate ester with NaAlH 4 or NaH to form NaBH 4; (c) preparing R 4 NBH 4 from NaBH 4 and R 4 NX either in situ or after isolation of NaBH 4, wherein R is a hydrocarbon and X is an anion; (d) pyrolysis of solid R 4 NBH 4 at about 185°C to form B 10 H 10 2-; (e) oxidation of B 10 H 10 2- to give B 20 H 18 2-; (f) contacting a solution of B 20 H 18 2- with acidic cation exchange resin; (g) decomposing the resultant acid to give B 18 H 22; (h) extracting the residue with hexanes or other suitable hydrocarbon solvent in which boric acid byproduct is insoluble; (i) repeating steps (g) and (h) until no further B 18 H 22 is produced; (j) contacting the residues with appropriate solvent to dissolve any B 20 H 18 2- containing salts and excluding boric acid byproduct; (k) repeating steps with (f)-(j) at least once; and (l) concentrating the combined hydrocarbon solutions to afford B 18 H 22.
An underground distribution system for the distribution of goods in an urban environment, comprising: - at least one micro-tunnel in which containers of goods, the transportation of which is automated, circulate unidirectionally, - a plurality of exchange stations (4; 6) exchanging with the surface, each comprising a shaft allowing containers to be lowered down to the micro-tunnel and raised back up after they have been transported within the micro-tunnel, characterised in that the at least one micro-tunnel forms at least one loop and in that it extends under the foundations of preexisting surface buildings and/or infrastructures at a depth of at least 5 m. - at least one micro-tunnel in which containers of goods, the transportation of which is automated, circulate unidirectionally, - a plurality of exchange stations (4; 6) exchanging with the surface, each comprising a shaft allowing containers to be lowered down to the micro-tunnel and raised back up after they have been transported within the micro-tunnel,
A test element analysis system for the analytical examination of a sample, comprising a measurement device, the measurement device comprising a test element receptacle for receiving at least one test element at least partially, wherein the test element receptacle comprises at least one first part and at least one second part, wherein the first part comprises at least one support surface for placement of the test element, wherein the second part comprises at least one optical detector for detecting at least one detection reaction of at least one test chemical contained in the test element, wherein the second part is movable relative to the first part, wherein the test element receptacle is configured to position the second part in at least one position such that a test element may be inserted into the test element receptacle and to subsequently position the second part in a closed position such that at least one abutment surface of the second part rests on the test element, wherein the test element analysis system further comprises at least one actuator for driving a relative movement of the first part and the second part, wherein the actuator is configured for performing a predetermined sequence of movements, sequentially bringing the second part into at least two positions, wherein the actuator is configured for stopping the movement in one of the at least two positions, respectively, the test element analysis system being characterized in that the actuator is configured to move the second part towards the first part and to decouple as soon as the second part rests on the test element, wherein due to the decoupling of the actuator a contact pressure is defined by a weight of the second part.
A system for suppressing conducted EMI generated by a switch element, comprising a conducted EMI suppression circuit, an inductive load and at least two switch elements, wherein the conducted EMI suppression circuit comprises one inductor and an RC circuit; the inductor is connected to and in series with each one of the at least two switch elements; the inductive load is connected with each of the at least two switch elements by parallel connecting lines which are connected with each other in parallel; the RC circuit comprises one resistor and at least two capacitors; each of the capacitors corresponds to a different one of the switch elements, and the resistor is connected to and in series with each one of the capacitors, each series connection of the inductor with any one of the switch elements is subsequently connected in parallel with a series connection of the resistor with a corresponding capacitor of the RC circuit, whereby the conducted EMI suppression circuit is configured to suppress the conducted EMI generated by each of the at least two switch elements being turned off. the conducted EMI suppression circuit comprises one inductor and an RC circuit; the inductor is connected to and in series with each one of the at least two switch elements; the inductive load is connected with each of the at least two switch elements by parallel connecting lines which are connected with each other in parallel; the RC circuit comprises one resistor and at least two capacitors; each of the capacitors corresponds to a different one of the switch elements, and the resistor is connected to and in series with each one of the capacitors, each series connection of the inductor with any one of the switch elements is subsequently connected in parallel with a series connection of the resistor with a corresponding capacitor of the RC circuit, whereby the conducted EMI suppression circuit is configured to suppress the conducted EMI generated by each of the at least two switch elements being turned off.
A method for receiving a content using a hyper text transfer protocol, HTTP, adaptive streaming, HAS, mechanism by a receiver, the content comprising content components, comprising the steps of: receiving, by the receiver from a transmitter, a media presentation description; and identifying, by the receiver, a service indicating at least one group of a plurality of groups based on the media presentation description, wherein the media presentation description comprises a period element, wherein the period element includes a service element for describing the service, wherein the service element includes identification information for the at least one group of the plurality of groups, wherein each group of the plurality of groups comprises one or more representations providing at least one content component among the content components, and wherein, in case that each group includes a plurality of representations, a representation included in each group has an attribute different from the other representations included in the each group. receiving, by the receiver from a transmitter, a media presentation description; and identifying, by the receiver, a service indicating at least one group of a plurality of groups based on the media presentation description, wherein the media presentation description comprises a period element, wherein the period element includes a service element for describing the service, wherein the service element includes identification information for the at least one group of the plurality of groups, wherein each group of the plurality of groups comprises one or more representations providing at least one content component among the content components, and wherein, in case that each group includes a plurality of representations, a representation included in each group has an attribute different from the other representations included in the each group.
Insertion instrument for a hip joint prothesis for instrumental insertion by means of an impacting instrument having a shaft, at one end of which a holding tool is located, the one end of the impacting instrument being part of the holding tool, characterized in that the insertion instrument is suitable for inserting a socket insert comprising a spherical cap into a hip socket of the hip joint prothesis, the one end of the impacting instrument being spherical, and the holding tool further comprising an impacting head, which is designed as a separate component, for receiving the spherical end of the impacting instrument in an articulated manner, and an insertion aid, which is designed as a separate component, for holding the socket insert on the external geometry of the impacting head, and the impacting head being connected to the spherical end so as to form a ball-and-socket joint, and the insertion aid consisting of a spring lock washer comprising radially projecting holding claws, the holding claws being radially movable owing to the compliance of the spring lock washer, and axially projecting hooks being arranged on the outer end of the holding claws and, when mounted, abutting the outer surface of the socket insert by means of their holding surfaces and at the same time the holding claws resting on the rim of the socket insert by means of their bearing surfaces.
A method of operating an analog front-end, AFE, for a communications device, the method comprising: activating a first frequency synthesizer of the AFE when the communications device operates in a normal operating mode, wherein the first frequency synthesizer is coupled to a transmit, TX, chain and to a receive, RX, chain of the AFE; and activating a second frequency synthesizer of the AFE when the communications device operates in a low-power mode, wherein the second frequency synthesizer utilizes one or more components of the TX chain to generate a local oscillator, LO, signal for processing carrier signals received via the RX chain during the low-power mode. activating a first frequency synthesizer of the AFE when the communications device operates in a normal operating mode, wherein the first frequency synthesizer is coupled to a transmit, TX, chain and to a receive, RX, chain of the AFE; and activating a second frequency synthesizer of the AFE when the communications device operates in a low-power mode, wherein the second frequency synthesizer utilizes one or more components of the TX chain to generate a local oscillator, LO, signal for processing carrier signals received via the RX chain during the low-power mode.
A process comprising: subjecting a reaction medium comprising terephthalic acid and at least one alcohol to esterification in an esterification zone defined within a horizontally elongated substantially empty esterification vessel, wherein said esterification vessel has a length-to-diameter (L:D) ratio less than 10:1, wherein said reaction medium enters said esterification vessel via a fluid inlet and is subjected to esterification to produce a liquid product and a vapor by-product, wherein said liquid product exits said esterification vessel via a liquid outlet, said liquid outlet is horizontally spaced from said fluid inlet by 1.25 D or more, said reaction medium is agitated and flows substantially horizontally through said esterification vessel, and further wherein the vapor by-product flows through said esterification vessel generally above said reaction medium and exits said esterification vessel via a vapor outlet that is horizontally spaced from said fluid inlet by 1.25 D or more and vertically spaced from said liquid outlet by 0.5 D or more, wherein the liquid phase of the reaction medium in the esterification vessel undergoes no mechanical agitation inside the esterification vessel.
A method for manufacturing a light emitting device, the method comprising: a step of forming a region for forming a light emitting element part, a reflector part (22, 22a, 22b) in the region for forming light emitting element part, a slit crossing the region for forming light emitting element part, and V-grooves or perforations, in a metal substrate, a step of filling the slit with an insulating material, a step of forming a light emitting element part in the region for forming light emitting element part, and a step of cutting the metal substrate on which the light emitting element part is formed along the V-grooves or perforations into units each comprising one or more of the light emitting element parts, wherein: a recess for serving as resin reservoir is formed across the slit in a region of the metal substrate other than the region immediately under the region for forming light emitting element part in the step, a plurality of the reflector parts (22, 22a, 22b) are formed, and a part of the reflector parts among a plurality of the reflector parts (22, 22a, 22b) also serve as the recess for serving as resin reservoir, and the recess is filled with a resin in the step. a step of forming a region for forming a light emitting element part, a reflector part (22, 22a, 22b) in the region for forming light emitting element part, a slit crossing the region for forming light emitting element part, and V-grooves or perforations, in a metal substrate, a step of filling the slit with an insulating material, a step of forming a light emitting element part in the region for forming light emitting element part, and a step of cutting the metal substrate on which the light emitting element part is formed along the V-grooves or perforations into units each comprising one or more of the light emitting element parts, wherein: a recess for serving as resin reservoir is formed across the slit in a region of the metal substrate other than the region immediately under the region for forming light emitting element part in the step, a plurality of the reflector parts (22, 22a, 22b) are formed, and a part of the reflector parts among a plurality of the reflector parts (22, 22a, 22b) also serve as the recess for serving as resin reservoir, and the recess is filled with a resin in the step. a recess for serving as resin reservoir is formed across the slit in a region of the metal substrate other than the region immediately under the region for forming light emitting element part in the step, a plurality of the reflector parts (22, 22a, 22b) are formed, and a part of the reflector parts among a plurality of the reflector parts (22, 22a, 22b) also serve as the recess for serving as resin reservoir, and the recess is filled with a resin in the step.
Method for forming a construction panel (1a, 1b) wherein the method comprises a preparation phase and a finishing phase, wherein the preparation phase comprises the following steps: - providing a base plate; - connecting an edge profile with the peripheral edges of the base plate, wherein the edge profile has a base with a first leg extending upwards from the base and is connected to the peripheral edge of the base layer on its first side and wherein a gutter is formed between the base and the first leg on the second side and wherein the edge profile further has a second leg that extends upwards from the base and is at a distance from the first leg, wherein the second leg is fitted with a flange that extends from the second leg to the first leg; - applying a first layer to the base plate; - arranging an intermediate plate on the first layer at a distance from the edge profile; - arranging a heating layer on the intermediate plate, - fixing the heating layer on the intermediate plate; - arranging the construction panel in a construction. wherein the finishing phase comprises the following steps: - applying a second layer to the heating layer and intermediate plate. - providing a base plate; - connecting an edge profile with the peripheral edges of the base plate, wherein the edge profile has a base with a first leg extending upwards from the base and is connected to the peripheral edge of the base layer on its first side and wherein a gutter is formed between the base and the first leg on the second side and wherein the edge profile further has a second leg that extends upwards from the base and is at a distance from the first leg, wherein the second leg is fitted with a flange that extends from the second leg to the first leg; - applying a first layer to the base plate; - arranging an intermediate plate on the first layer at a distance from the edge profile; - arranging a heating layer on the intermediate plate, - fixing the heating layer on the intermediate plate; - arranging the construction panel in a construction. - applying a second layer to the heating layer and intermediate plate.