mhurhangee/ep-ind-claims huggingface dataset:
A sensor comprising: at least one optical fiber; a sensor head comprising an acoustic detector configured to: receive light that is transmitted downstream through the optical fiber from a first light source; and reflect the light upstream through the optical fiber upon incidence of acoustic waves due to vibrations caused by the acoustic waves; and characterized in that the sensor further includes at least one fluorescent material within at least one of said sensor head and said at least one optical fiber, said at least one fluorescent material configured to: receive light from a second light source external to said sensor; and emit visible light in response to the light received from the second light source, and in that said acoustic detector is a diaphragm that vibrates upon incidence of acoustic waves, wherein the vibration causes one or more characteristics of reflected light to be different from the characteristics of received light beam. a sensor head comprising an acoustic detector configured to: receive light that is transmitted downstream through the optical fiber from a first light source; and reflect the light upstream through the optical fiber upon incidence of acoustic waves due to vibrations caused by the acoustic waves; and receive light that is transmitted downstream through the optical fiber from a first light source; and reflect the light upstream through the optical fiber upon incidence of acoustic waves due to vibrations caused by the acoustic waves; and characterized in that the sensor further includes at least one fluorescent material within at least one of said sensor head and said at least one optical fiber, said at least one fluorescent material configured to: receive light from a second light source external to said sensor; and emit visible light in response to the light received from the second light source, receive light from a second light source external to said sensor; and emit visible light in response to the light received from the second light source, and in that said acoustic detector is a diaphragm that vibrates upon incidence of acoustic waves, wherein the vibration causes one or more characteristics of reflected light to be different from the characteristics of received light beam.
Radome measuring system configured to perform a radome measurement comprising: - at least one transmission antenna, configured for emitting electromagnetic waves; and - at least one receiving antenna, configured for receiving electromagnetic waves; and - a measuring device, configured to measure at least one difference between the transmitted and received electromagnetic waves for inferring a feature of a radome positioned between the at least one transmission antenna and the at least one receiving antenna; characterized in that the radome measuring system further comprises a clamp structure, the clamp structure comprising: - a transmitter mount of the clamp configured for mounting at least one transmission antenna and - a receiver mount of the clamp configured for mounting at least one receiver antenna and - base frame wherein the transmitter mount of the clamp and receiver mount of the clamp are attached such that a substantially U-shaped structure of the clamp is created. - at least one transmission antenna, configured for emitting electromagnetic waves; and - at least one receiving antenna, configured for receiving electromagnetic waves; and - a measuring device, configured to measure at least one difference between the transmitted and received electromagnetic waves for inferring a feature of a radome positioned between the at least one transmission antenna and the at least one receiving antenna; characterized in that - a transmitter mount of the clamp configured for mounting at least one transmission antenna and - a receiver mount of the clamp configured for mounting at least one receiver antenna and - base frame wherein the transmitter mount of the clamp and receiver mount of the clamp are attached such that a substantially U-shaped structure of the clamp is created.
A recombinant nucleic acid molecule comprising: (a) a polynucleotide sequence having at least 90% identity to the polynucleotide sequence of SEQ ID NO:1 or SEQ ID NO:2, or (b) a nucleic acid sequence which hybridizes with the nucleic acid sequence SEQ ID NO:1 or SEQ ID NO:2 under stringent conditions, or (c) functionally equivalent fragments of the sequences under (a) or (b), wherein said fragments function as promoters. (a) a polynucleotide sequence having at least 90% identity to the polynucleotide sequence of SEQ ID NO:1 or SEQ ID NO:2, or (b) a nucleic acid sequence which hybridizes with the nucleic acid sequence SEQ ID NO:1 or SEQ ID NO:2 under stringent conditions, or (c) functionally equivalent fragments of the sequences under (a) or (b), wherein said fragments function as promoters.
Use of a corrosion inhibition composition comprising - at least one zinc carboxylate and - calcium gluconate, wherein the mass ratio of the at least one zinc carboxylate and the calcium gluconate is in the range of 1:10 to 1:600, for protection of metals and/or metallic surfaces from corrosion, wherein metallic surfaces comprise surfaces of metals and/or metal alloys, and of any other metal and/or metal alloy containing material. - at least one zinc carboxylate and - calcium gluconate, wherein the mass ratio of the at least one zinc carboxylate and the calcium gluconate is in the range of 1:10 to 1:600, for protection of metals and/or metallic surfaces from corrosion, wherein metallic surfaces comprise surfaces of metals and/or metal alloys, and of any other metal and/or metal alloy containing material.
A scanner for a scanning probe microscope wherein the scanning probe microscope includes a head and the scanner comprises: a scanner body housing an actuator and a sensor, the sensor detecting scanner movement; and wherein the scanner body is configured to be removable from the head by hand and without the use of tools and wherein the scanner has a total volume of less than about 81,93532 cubic centimetres, characterized in that the scanner body has a) a first open end for coupling the scanner to a free end portion of the head of the SPM, the free end portion having an outer surface extending towards a sample, wherein the first open end is a top end of the scanner body and b) a second closed end that supports a probe holder, wherein the second closed end is a bottom end of the scanner body, wherein the body has an inner surface extending between the first and second ends (202, 204), and wherein the outer surface and the inner surface are similarly tapered so as to be mated to one another in order to provide a scanner body with a taper mount to be rigidly coupled to the head. a scanner body housing an actuator and a sensor, the sensor detecting scanner movement; and wherein the scanner body is configured to be removable from the head by hand and without the use of tools and wherein the scanner has a total volume of less than about 81,93532 cubic centimetres, characterized in that the scanner body has a) a first open end for coupling the scanner to a free end portion of the head of the SPM, the free end portion having an outer surface extending towards a sample, wherein the first open end is a top end of the scanner body and b) a second closed end that supports a probe holder, wherein the second closed end is a bottom end of the scanner body, a) a first open end for coupling the scanner to a free end portion of the head of the SPM, the free end portion having an outer surface extending towards a sample, wherein the first open end is a top end of the scanner body and b) a second closed end that supports a probe holder, wherein the second closed end is a bottom end of the scanner body, wherein the body has an inner surface extending between the first and second ends (202, 204), and wherein the outer surface and the inner surface are similarly tapered so as to be mated to one another in order to provide a scanner body with a taper mount to be rigidly coupled to the head.
Method for ascertaining a radio station name from data contents of a programme station data stream transmitted by a programme station together with a radio programme by means of a radio data system, wherein the data contents transmitted are the radio station name and other names at alternating times, wherein multiple data contents in the programme station data stream are identified and at least temporarily stored, wherein each of the multiple data contents is assigned a weight factor, and, after the data contents transmitted in the programme station data stream change, the weight factor of a stored data content is increased in the event of said data content being identified again in the programme station data stream, and the weight factor of a stored data content not identified again in the programme station data stream is decreased, and wherein the weight factors of the multiple data contents are used to ascertain the radio station name from the data contents having the highest weight factor.
A method of performing electron-beam lithography, the method comprising: i) providing an eBeam resist-coated substrate or applying an eBeam resist coating to a substrate; ii) exposing parts of the eBeam resist coating to electron beam radiation to provide an exposed eBeam resist coating; iii) developing the exposed eBeam resist coating to generate an eBeam resist pattern layer, the eBeam resist pattern layer comprising: developer-insoluble coating portions of the eBeam resist coating; and an array of grooves extending through the eBeam resist pattern layer; iv) optionally modifying the substrate, substrate surface, or parts thereof, underlying the eBeam resist pattern layer; v) optionally removing the eBeam resist pattern layer to provide a modified substrate; vi) optionally repeating, one or more times, step iv) and/or steps i)-v), optionally with an alternative resist coating, such as a photoresist instead of the eBeam resist coating, and optionally using alternative radiation during exposure, such as visible or ultraviolet light instead of electron beam radiation, upon the modified substrate; wherein the eBeam resist-coated substrate is a substrate coated with an eBeam resist coating; wherein the eBeam resist coating comprises an optionally dried and/or cured eBeam resist composition; wherein the eBeam resist composition comprises an anti-scattering compound; wherein the anti-scattering compound has a density less than or equal to 1.3 g/cm 3 and a molecular weight greater than or equal to 2000 g/mol. i) providing an eBeam resist-coated substrate or applying an eBeam resist coating to a substrate; ii) exposing parts of the eBeam resist coating to electron beam radiation to provide an exposed eBeam resist coating; iii) developing the exposed eBeam resist coating to generate an eBeam resist pattern layer, the eBeam resist pattern layer comprising: developer-insoluble coating portions of the eBeam resist coating; and an array of grooves extending through the eBeam resist pattern layer; iv) optionally modifying the substrate, substrate surface, or parts thereof, underlying the eBeam resist pattern layer; v) optionally removing the eBeam resist pattern layer to provide a modified substrate; vi) optionally repeating, one or more times, step iv) and/or steps i)-v), optionally with an alternative resist coating, such as a photoresist instead of the eBeam resist coating, and optionally using alternative radiation during exposure, such as visible or ultraviolet light instead of electron beam radiation, upon the modified substrate;
A method in a network node, comprising: determining whether a wireless device is configured to receive signals over both a first communication link (131, 132) and a second communication link during at least partly overlapping time resources; determining whether the wireless device has limited reception capability based at least in part on a comparison of at least one reception capability of the wireless device to a threshold; and upon determining that the wireless device is configured to receive signals over both the first communication link (131, 132) and the second communication link during at least partly overlapping time resources and that the wireless device has limited reception capability, adapting one or more transmission parameters of one or both of the first communication link (131, 132) and the second communication link; wherein adapting one or more transmission parameters of one or both of the first communication link (131, 132) and the second communication link comprises one or more of: adjusting a transport format of the first communication link (131, 132) to enable the wireless device to use fewer resources for receiving signals over the first communication link (131, 132); and limiting a maximum number of hybrid-acknowledgement repeat request processes used for the first communication link (131, 132). determining whether a wireless device is configured to receive signals over both a first communication link (131, 132) and a second communication link during at least partly overlapping time resources; determining whether the wireless device has limited reception capability based at least in part on a comparison of at least one reception capability of the wireless device to a threshold; and upon determining that the wireless device is configured to receive signals over both the first communication link (131, 132) and the second communication link during at least partly overlapping time resources and that the wireless device has limited reception capability, adapting one or more transmission parameters of one or both of the first communication link (131, 132) and the second communication link; wherein adapting one or more transmission parameters of one or both of the first communication link (131, 132) and the second communication link comprises one or more of: adjusting a transport format of the first communication link (131, 132) to enable the wireless device to use fewer resources for receiving signals over the first communication link (131, 132); and limiting a maximum number of hybrid-acknowledgement repeat request processes used for the first communication link (131, 132). adjusting a transport format of the first communication link (131, 132) to enable the wireless device to use fewer resources for receiving signals over the first communication link (131, 132); and limiting a maximum number of hybrid-acknowledgement repeat request processes used for the first communication link (131, 132).
A method for controlling an outlet temperature of an evaporator having a plurality of evaporator tube bundles, characterized in that the method comprises: computing an outlet temperature setpoint for the evaporator based on outlet temperatures of each of the plurality of evaporator tube bundles; and regulating fluid flow through at least one of the evaporator tube bundles to reduce deviation between the outlet temperature of the evaporator and the outlet temperature setpoint for the evaporator. computing an outlet temperature setpoint for the evaporator based on outlet temperatures of each of the plurality of evaporator tube bundles; and regulating fluid flow through at least one of the evaporator tube bundles to reduce deviation between the outlet temperature of the evaporator and the outlet temperature setpoint for the evaporator.
A nanocarbon composite material comprising: fibrous carbon nanohorn aggregates each being formed from of a plurality of single-walled carbon nanohorns connected fibrously in a one-dimensional direction while being radially assembled, spherical single-walled carbon nanohorn aggregates each being formed from a plurality of single-walled carbon nanohorns assembled spherically, a matrix in which the fibrous carbon nanohorn aggregates and the spherical single-walled carbon nanohorn aggregates are dispersed. fibrous carbon nanohorn aggregates each being formed from of a plurality of single-walled carbon nanohorns connected fibrously in a one-dimensional direction while being radially assembled, spherical single-walled carbon nanohorn aggregates each being formed from a plurality of single-walled carbon nanohorns assembled spherically, a matrix in which the fibrous carbon nanohorn aggregates and the spherical single-walled carbon nanohorn aggregates are dispersed.
A marine object able to float on the water surface, comprising a body at least partially defined by a curved surface comprising a housing emerging on said curved surface, said marine object comprising a rigid deployable emission/reception device and comprising an arm, on which means for emitting and/or receiving electromagnetic waves are mounted, said arm being connected to said body by means of a hinge with a degree of rotational freedom about an axis of rotation (xo), the hinge allowing the arm to reversibly pivot between a stowed position, in which the arm is housed in the housing and is flush with the curved surface, and a deployed position, in which the arm extends outside said housing, said marine object being characterised in that said arm comprises a first surface, called external surface, the external surface being curved along the length of the arm, said external surface being flush with said curved surface and following the curve of said curved surface when the arm is in its stowed position, the emission/reception device not deforming between its stowed position and its deployed position, the body locally having, around the arm, the shape of a cylinder, the axis of rotation (xo) being parallel to the longitudinal axis of the cylinder.
Seal system for a gas turbine, comprising at least a stator or a casing, which has a first ceramic coating, which faces a tip of a blade, wherein this first ceramic coating comprises: a first inner ceramic coating and a first outer ceramic coating,wherein the first inner ceramic coating does not consist of a segmented microstructure, wherein the first outer ceramic coating is made of FSZ or YBZO, which has a porosity between 250 - 40%, and a blade, which faces the first ceramic coating of the stator or the casing, wherein on the tip of the blade a second ceramic coating is present, the second ceramic coating comprising: a second inner ceramic coating with a partially segmented microstructure and a minimum thickness of 125μm made of PSZ, and a second outer ceramic coating with a segmented microstructure made of FSZ. comprising at least a stator or a casing, which has a first ceramic coating, which faces a tip of a blade, wherein this first ceramic coating comprises: a first inner ceramic coating and a first outer ceramic coating,wherein the first inner ceramic coating does not consist of a segmented microstructure, wherein the first outer ceramic coating is made of FSZ or YBZO, which has a porosity between 250 - 40%, and a blade, which faces the first ceramic coating of the stator or the casing, wherein on the tip of the blade a second ceramic coating is present, the second ceramic coating comprising: a second inner ceramic coating with a partially segmented microstructure and a minimum thickness of 125μm made of PSZ, and a second outer ceramic coating with a segmented microstructure made of FSZ. a first inner ceramic coating and a first outer ceramic coating,wherein the first inner ceramic coating does not consist of a segmented microstructure, wherein the first outer ceramic coating is made of FSZ or YBZO, which has a porosity between 250 - 40%, and a blade, which faces the first ceramic coating of the stator or the casing, wherein on the tip of the blade a second ceramic coating is present, the second ceramic coating comprising: a second inner ceramic coating with a partially segmented microstructure and a minimum thickness of 125μm made of PSZ, and a second outer ceramic coating with a segmented microstructure made of FSZ. a second inner ceramic coating with a partially segmented microstructure and a minimum thickness of 125μm made of PSZ, and a second outer ceramic coating with a segmented microstructure made of FSZ.
Front end panel assembly for an electric vehicle, the assembly comprising: - a front cover having side edges, the front cover extending in a bended shape such that a first angle α is enclosed between a first portion and a second portion (101") of the front cover; and - a carrier structure comprising a base and a peripheral wall extending from the base, wherein the carrier structure comprises a first part and a second part (102") that enclose a second angle β; wherein the upstanding wall connects to the front cover at or near at least part of the side edges of the front cover, such that a space is formed and enclosed between the front cover and the carrier structure, wherein the first portion of the front cover covers the first part of the carrier structure, and the second portion of the front cover covers the second part of the carrier structure, and further comprising a light module enclosed within the space formed between the first portion of the front cover and the first part of the carrier structure. - a front cover having side edges, the front cover extending in a bended shape such that a first angle α is enclosed between a first portion and a second portion (101") of the front cover; and - a carrier structure comprising a base and a peripheral wall extending from the base, wherein the carrier structure comprises a first part and a second part (102") that enclose a second angle β;
A wafer pharmaceutical dosage form for the release of at least one active pharmaceutical ingredient at a target site in a human or animal, the pharmaceutical dosage form comprising: a soluble matrix forming polymer in the form of hydroxypropyl cellulose; an ester containing derivative of an acrylic polymer in the form of sodium polyacrylate; an anti-collapsing agent in the form of diglycine; and a filler substance in the form of maltodextrin. a soluble matrix forming polymer in the form of hydroxypropyl cellulose; an ester containing derivative of an acrylic polymer in the form of sodium polyacrylate; an anti-collapsing agent in the form of diglycine; and a filler substance in the form of maltodextrin.