mhurhangee/ep-ind-claims huggingface dataset:
A method for performance by a control entity, the method comprising transmitting, towards a network repository function entity, network entity profile template information, wherein said network entity profile template information comprises a network entity profile template including an identifier of said network entity profile template and a profile content of said network entity profile template, said profile content including at least one profile attribute; and the method being characterized by comprising: transmitting, towards a network entity, a network entity profile configuration for use in registering the network entity, wherein said network entity profile configuration comprises said identifier of said network entity profile template. transmitting, towards a network repository function entity, network entity profile template information, wherein said network entity profile template information comprises a network entity profile template including an identifier of said network entity profile template and a profile content of said network entity profile template, said profile content including at least one profile attribute; and the method being characterized by comprising: transmitting, towards a network entity, a network entity profile configuration for use in registering the network entity, wherein said network entity profile configuration comprises said identifier of said network entity profile template. transmitting, towards a network entity, a network entity profile configuration for use in registering the network entity, wherein said network entity profile configuration comprises said identifier of said network entity profile template.
A modified capsid protein comprising a portion of hepatitis E virus open Reading Frame 2 protein, wherein amino acid residue 342 and/or 573 of the HEV ORF2 protein amino acid sequence set forth in SEQ ID NO:1 or the corresponding residue(s) of SEQ ID NO:2, 3, 4, 5, or 6 is replaced with a cysteine, which is derivatized with a 6-carbon spacer pMBA44 and conjugated with a gold nanocluster via a maleimide linker.
A solar panel structure (13; 41) including: - A structural element (11; 29) for a solar panel, comprising at least one dielectric material layer, conductive means (5; 31) which are in contact with said dielectric material layer and electrical connection means for connecting the conductive means (5; 31) to the ground of said structure; - A plurality of photoelectric cells disposed on the dielectric material layer; Characterized in that it further comprises a base assembly comprising a conductive material layer trapped between two stiffening layers, the structural element (11; 29) being disposed on the base assembly, the conductive material layer being connected to the ground of said structure, the conductive means (5; 31) being in contact with one of the stiffening layers, the conductive means (5; 31) being formed by a grid, a coil or a spiral of metal conductors or by a metal coating deposited on the dielectric material. - A structural element (11; 29) for a solar panel, comprising at least one dielectric material layer, conductive means (5; 31) which are in contact with said dielectric material layer and electrical connection means for connecting the conductive means (5; 31) to the ground of said structure; - A plurality of photoelectric cells disposed on the dielectric material layer;
A composition comprising: HFO-1234yf and HFO-1234ze; HFC-32, HFC-125, HFC-134a, and HFC-134; and at least one of HCC-40, HCFC-22, HCFC-124, CFC-115, HCFC-1122, CFC-1113, and 3,3,3-trifluoropropyne. HFO-1234yf and HFO-1234ze; HFC-32, HFC-125, HFC-134a, and HFC-134; and at least one of HCC-40, HCFC-22, HCFC-124, CFC-115, HCFC-1122, CFC-1113, and 3,3,3-trifluoropropyne.
A valve actuator, wherein, the valve actuator is provided with a roller screw nut surrounding a portion of an actuator slide and being in engagement with an external threaded portion arranged on the actuator slide, the roller screw nut being axially fixed relative to the actuator slide; the actuator slide is in rotation-preventing engagement with a portion of an actuator mounting or a valve housing; and the roller screw nut is provided with an externally toothed wheel connected via a first set of transmission elements (5I, 5J) with a first driving motor, characterized in that the valve actuator is provided with a connecting device for a second, portable driving motor, and the connecting device is in engagement with the externally toothed wheel of the roller screw nut via a second set of transmission elements (6C, 6D, 6E). the valve actuator is provided with a roller screw nut surrounding a portion of an actuator slide and being in engagement with an external threaded portion arranged on the actuator slide, the roller screw nut being axially fixed relative to the actuator slide; the actuator slide is in rotation-preventing engagement with a portion of an actuator mounting or a valve housing; and the roller screw nut is provided with an externally toothed wheel connected via a first set of transmission elements (5I, 5J) with a first driving motor, characterized in that the valve actuator is provided with a connecting device for a second, portable driving motor, and the connecting device is in engagement with the externally toothed wheel of the roller screw nut via a second set of transmission elements (6C, 6D, 6E).
A solid composition comprising: (a) from 7.5% to 15%, by weight, of an inorganic salt of peroxymonosulfate, (b) a buffering agent, (c) a disintegrating agent comprising crosslinked polyvinylpyrrolidone; and (d) an effervescent couple including 15% to 50% of an effervescent base and 15% to 50% of an effervescent acid, based on the weight of the solid composition; wherein the solid composition completely dissolves in water at 23 °C. (a) from 7.5% to 15%, by weight, of an inorganic salt of peroxymonosulfate, (b) a buffering agent, (c) a disintegrating agent comprising crosslinked polyvinylpyrrolidone; and (d) an effervescent couple including 15% to 50% of an effervescent base and 15% to 50% of an effervescent acid, based on the weight of the solid composition;
A plate pack for a multi-disc clutch having a pressure plate, which can be axially displaced by an actuation element for pressing a clutch disc having several friction discs between the pressure plate and a counter plate, an intermediate plate, in particular designed as a disc-type plate, for pressing a friction disc of the clutch disc against a first axial side facing the pressure plate and for pressing a friction disc of the clutch disc against a second axial side facing away from the pressure plate and a spring element which is connected to the pressure plate and the intermediate plate for automatically positioning the intermediate plate at a defined axial distance relative to the pressure plate, characterised in that at least one further intermediate plate is provided for pressing a friction disc of the clutch disc against a first axial side facing towards the pressure plate and for pressing a friction disc of the clutch disc against a second axial side facing away from the pressure plate, wherein the further intermediate plate is connected, via a further spring element, to the intermediate plate (12, 30) next in the direction of the pressure plate and the further spring element is provided for automatically positioning the further intermediate plate at a defined axial distance relative to the intermediate plate (12, 30) next in the direction of the pressure plate.
A polymeric multi-layered injection-moulded article comprising an electric circuit, said article comprising: a laminated foil; an injection-moulded part, in which the laminated foil has been embedded by injection-moulding, flush with one surface of the injection-moulded part; wherein said laminated foil comprises: a circuit support layer composed of a thin flexible sheet of polymeric material; one or more electrically conductive circuit traces printed on one side of said support layer; one or more electrically conductive crimping connectors, each crimped to the support layer and a conductive circuit traces; an encapsulation layer composed of a thin flexible sheet of polymeric material, characterized for said support layer, circuit traces, crimping connectors and encapsulation layer have been laminated together in the laminated foil; and wherein the crimping connectors and the encapsulation layer are placed such that the crimping connectors protrude from the outermost layer of the injection-moulded article, wherein the laminated foil is embedded in the injection-moulded part with the encapsulation layer facing the injection-moulded part wherein the laminated foil comprises additionally a removable protective layer element covering the crimping connectors and the support layer in the area where the crimping connectors protrude, such that the laminated foil does not present any conductive element to its exterior. a laminated foil; an injection-moulded part, in which the laminated foil has been embedded by injection-moulding, flush with one surface of the injection-moulded part; wherein said laminated foil comprises: a circuit support layer composed of a thin flexible sheet of polymeric material; one or more electrically conductive circuit traces printed on one side of said support layer; one or more electrically conductive crimping connectors, each crimped to the support layer and a conductive circuit traces; an encapsulation layer composed of a thin flexible sheet of polymeric material, a circuit support layer composed of a thin flexible sheet of polymeric material; one or more electrically conductive circuit traces printed on one side of said support layer; one or more electrically conductive crimping connectors, each crimped to the support layer and a conductive circuit traces; an encapsulation layer composed of a thin flexible sheet of polymeric material, characterized for said support layer, circuit traces, crimping connectors and encapsulation layer have been laminated together in the laminated foil; and wherein the crimping connectors and the encapsulation layer are placed such that the crimping connectors protrude from the outermost layer of the injection-moulded article, wherein the laminated foil is embedded in the injection-moulded part with the encapsulation layer facing the injection-moulded part wherein the laminated foil comprises additionally a removable protective layer element covering the crimping connectors and the support layer in the area where the crimping connectors protrude, such that the laminated foil does not present any conductive element to its exterior.
Arrangement of two housing parts (42a, b) of an induction hob, characterized by a connecting part for mounting on two housing parts (42a, b), wherein - the connecting part has a U-shaped cross section overall, as a channel, as seen in the longitudinal direction, - the connecting part has two segments (12a, b), - the two segments (12a, b) are connected together in a displaceable manner in the longitudinal direction and are secured captively to one another, - the first segment has a front end, - the second segment has a front end, - the segments (12a, b) each have a connecting means (18a, b, 19a, b) at their front ends (14a, b) for connecting to in each case one housing part (42a, b) of the induction hob in a form-fitting manner, - the connecting part is connected to in each case one of the housing parts (42a, b) by way of the connecting means (18a, b, 19a, b) at its outer ends (14a, b). - the connecting part has a U-shaped cross section overall, as a channel, as seen in the longitudinal direction, - the connecting part has two segments (12a, b), - the two segments (12a, b) are connected together in a displaceable manner in the longitudinal direction and are secured captively to one another, - the first segment has a front end, - the second segment has a front end, - the segments (12a, b) each have a connecting means (18a, b, 19a, b) at their front ends (14a, b) for connecting to in each case one housing part (42a, b) of the induction hob in a form-fitting manner, - the connecting part is connected to in each case one of the housing parts (42a, b) by way of the connecting means (18a, b, 19a, b) at its outer ends (14a, b).
A method of aligning vertical flanges of two wind turbine tower segments when assembling a tubular wind turbine tower section for a wind turbine tower, the method comprising: - positioning a first flange of a first wind turbine tower segment and a second flange of a second wind turbine tower segment adjacent one another; - positioning a reaction pin of a flange alignment tool in a mounting aperture of said first flange; - extending a first extension member of said flange alignment tool in a direction along the axis of the reaction pin towards so as to abut said second flange; - extending a second extension member of said flange alignment tool in a direction orthogonal to the axis of the reaction pin towards so as to abut said second flange; - extending said first extension member further to urge said second flange towards said first flange; - extending said second extension member further to urge a second aperture of said second flange towards an axis of a first aperture of said first flange; and - installing and fastening at least one set of fasteners into said first and second apertures of the pair of flanges. - positioning a first flange of a first wind turbine tower segment and a second flange of a second wind turbine tower segment adjacent one another; - positioning a reaction pin of a flange alignment tool in a mounting aperture of said first flange; - extending a first extension member of said flange alignment tool in a direction along the axis of the reaction pin towards so as to abut said second flange; - extending a second extension member of said flange alignment tool in a direction orthogonal to the axis of the reaction pin towards so as to abut said second flange; - extending said first extension member further to urge said second flange towards said first flange; - extending said second extension member further to urge a second aperture of said second flange towards an axis of a first aperture of said first flange; and - installing and fastening at least one set of fasteners into said first and second apertures of the pair of flanges.
An optical structure comprising: a multilayer relief that has a first surface having an uneven shape; and a reflection layer that is formed on the first surface and reflects visible light, wherein: the multilayer relief includes a first resin layer that constitutes the first surface, and a second resin layer that is adjacent to a surface of the first resin layer facing away from the first surface; characterized in that the first resin layer contains a non-radiation curable resin as a main component, the second resin layer contains a radiation curable resin as a main component, and the first resin layer has a thickness which is less than an unevenness difference of the uneven shape. a multilayer relief that has a first surface having an uneven shape; and a reflection layer that is formed on the first surface and reflects visible light, wherein: the multilayer relief includes a first resin layer that constitutes the first surface, and a second resin layer that is adjacent to a surface of the first resin layer facing away from the first surface; characterized in that the first resin layer contains a non-radiation curable resin as a main component, the second resin layer contains a radiation curable resin as a main component, and the first resin layer has a thickness which is less than an unevenness difference of the uneven shape. the multilayer relief includes a first resin layer that constitutes the first surface, and a second resin layer that is adjacent to a surface of the first resin layer facing away from the first surface; characterized in that the first resin layer contains a non-radiation curable resin as a main component, the second resin layer contains a radiation curable resin as a main component, and the first resin layer has a thickness which is less than an unevenness difference of the uneven shape.
A system for generating a burst of ultra-short, high-power laser pulses, comprising: - means (1, 11) for generating laser pulses at a first repetition frequency f1 and a repetition period τ1 equal to the inverse of the first repetition frequency f1; - amplification means comprising an optical amplifying medium (41, 42), a multi-passage regenerative optical cavity, means for injecting said laser pulses into said regenerative optical cavity, and means for extracting said laser pulses from said regenerative optical cavity, characterized in that: - the regenerative optical cavity has such a total length that the duration of a round trip of each pulse in said regenerative optical cavity is comprised between N-1 and N times the repetition period τ1 of the generation means (1, 11) of said laser pulses, where N is an integer higher than or equal to two, - said injection means are adapted to trap a burst of N laser pulses in said regenerative optical cavity, - said extraction means are adapted to extract said burst of N laser pulses from said regenerative optical cavity, and in that - the amplifying medium is arranged inside said regenerative optical cavity, said optical amplifying medium (41, 42) is adapted to amplify said burst of N laser pulses and to form a burst of amplified laser pulses. - means (1, 11) for generating laser pulses at a first repetition frequency f1 and a repetition period τ1 equal to the inverse of the first repetition frequency f1; - amplification means comprising an optical amplifying medium (41, 42), a multi-passage regenerative optical cavity, means for injecting said laser pulses into said regenerative optical cavity, and means for extracting said laser pulses from said regenerative optical cavity, - the regenerative optical cavity has such a total length that the duration of a round trip of each pulse in said regenerative optical cavity is comprised between N-1 and N times the repetition period τ1 of the generation means (1, 11) of said laser pulses, where N is an integer higher than or equal to two, - said injection means are adapted to trap a burst of N laser pulses in said regenerative optical cavity, - said extraction means are adapted to extract said burst of N laser pulses from said regenerative optical cavity, and in that - the amplifying medium is arranged inside said regenerative optical cavity, said optical amplifying medium (41, 42) is adapted to amplify said burst of N laser pulses and to form a burst of amplified laser pulses.
Laminated glass pane having a sensor assembly (S touch), wherein the laminated glass pane has a transparent first glass layer (GS 1) and a transparent second glass layer (GS 2) joined by a transparent combina tion film (F; F 1; F 2), wherein the sensor assembly (S touch) is suitable for detecting the approach of a finger, characterized in, that - an at least semi-transparent hologram is arranged at the location of the sensor assembly, which hologram becomes visible to a viewer upon illumination, - the hologram is arranged between the first glass layer (GS 1) and the second glass layer (GS 2), and - a view of the hologram appears upon transmissive illumination in relation to the viewer by external illumination. - an at least semi-transparent hologram is arranged at the location of the sensor assembly, which hologram becomes visible to a viewer upon illumination, - the hologram is arranged between the first glass layer (GS 1) and the second glass layer (GS 2), and - a view of the hologram appears upon transmissive illumination in relation to the viewer by external illumination.
A cleaning device of a porous plate for nuclear power comprising: a cleaning tank (72, 73) that is capable of storing a cleaning liquid therein and is capable of housing the porous plate in an upright state; a rotation device that is capable of rotating the porous plate within the cleaning tank (72, 73); and an ultrasonic wave oscillation device that irradiates the porous plate within the cleaning tank (72, 73) with ultrasonic waves characterized in that the ultrasonic wave oscillation device includes an ultrasonic transducer that is disposed on an inner wall surface of the cleaning tank (72, 73) to face one of a front part and a back part of the porous plate, and a reflecting plate that is disposed on the inner wall surface of the cleaning tank (72, 73) to face the other of the front part or the back part, and the ultrasonic wave oscillation device is provided to be movable along a vertical direction by a moving device. a cleaning tank (72, 73) that is capable of storing a cleaning liquid therein and is capable of housing the porous plate in an upright state; a rotation device that is capable of rotating the porous plate within the cleaning tank (72, 73); and an ultrasonic wave oscillation device that irradiates the porous plate within the cleaning tank (72, 73) with ultrasonic waves characterized in that the ultrasonic wave oscillation device includes an ultrasonic transducer that is disposed on an inner wall surface of the cleaning tank (72, 73) to face one of a front part and a back part of the porous plate, and a reflecting plate that is disposed on the inner wall surface of the cleaning tank (72, 73) to face the other of the front part or the back part, and the ultrasonic wave oscillation device is provided to be movable along a vertical direction by a moving device.
An auxiliary power unit "APU" generator system for an APU, comprising: a doubly-fed induction generator "DFIG" configured to be operatively connected to the APU to be turned by the APU and to have an output frequency that is a function of an excitation frequency and an APU speed; and a generator control module configured to control the excitation frequency to the DFIG to output a substantially constant frequency with changing APU speed to supply the substantially constant frequency to a load; characterized by further comprising an APU control module configured to control the APU speed to obtain an efficiency of the APU, wherein the efficiency of the APU is an optimum fuel efficiency as a function of one or more environmental conditions, and wherein the one or more environmental conditions include ambient temperature and/or density altitude. a doubly-fed induction generator "DFIG" configured to be operatively connected to the APU to be turned by the APU and to have an output frequency that is a function of an excitation frequency and an APU speed; and a generator control module configured to control the excitation frequency to the DFIG to output a substantially constant frequency with changing APU speed to supply the substantially constant frequency to a load; characterized by further comprising an APU control module configured to control the APU speed to obtain an efficiency of the APU, wherein the efficiency of the APU is an optimum fuel efficiency as a function of one or more environmental conditions, and wherein the one or more environmental conditions include ambient temperature and/or density altitude.