mhurhangee/ep-ind-claims huggingface dataset:
A blade for a wind turbine (1, 10) comprising: a first end (5, 50) and a second end (6, 60), the first end (5, 50) being a free end and the second end (6, 60) being attachable in use to a shaft (4, 40) of a wind turbine (1, 10); a first surface (9, 90) and a second surface; the first surface (9, 90) joining the second surface along a first side edge (7, 70) and a second side edge (8, 80); the first (9, 90) and second surfaces defining an airfoil section; the blade (2, 20, 100) further comprising a layer applied to and/or incorporated in and/or within the blade (2, 20, 100), the layer being arranged to create a plurality of phase changes in radiation incident upon the blade (2, 20, 100) such that radiation reflected from the blade (2, 20, 100) is scattered in a plurality of directions to create destructive interference with the radiation incident upon the blade (2, 20, 100) in the direction of the source of the incident radiation, wherin said layer is: a layer comprising an array of wells applied to one or more of the first surface (9, 90) or the second surface and/or to an inner surface within the blade (2, 20, 100), and comprising a plurality of wells having different depths. a first end (5, 50) and a second end (6, 60), the first end (5, 50) being a free end and the second end (6, 60) being attachable in use to a shaft (4, 40) of a wind turbine (1, 10); a first surface (9, 90) and a second surface; the first surface (9, 90) joining the second surface along a first side edge (7, 70) and a second side edge (8, 80); the first (9, 90) and second surfaces defining an airfoil section; the blade (2, 20, 100) further comprising a layer applied to and/or incorporated in and/or within the blade (2, 20, 100), the layer being arranged to create a plurality of phase changes in radiation incident upon the blade (2, 20, 100) such that radiation reflected from the blade (2, 20, 100) is scattered in a plurality of directions to create destructive interference with the radiation incident upon the blade (2, 20, 100) in the direction of the source of the incident radiation, wherin said layer is: a layer comprising an array of wells applied to one or more of the first surface (9, 90) or the second surface and/or to an inner surface within the blade (2, 20, 100), and comprising a plurality of wells having different depths. a layer comprising an array of wells applied to one or more of the first surface (9, 90) or the second surface and/or to an inner surface within the blade (2, 20, 100), and comprising a plurality of wells having different depths.
X-ray detector having a substrate which has an electrically conductive connection between a read-out contact, which has an electrically conductive connection to a sensor via a soldered connection, in the region of the top side of the substrate and an input of a pre-amplifier in an active layer of an integrated circuit, wherein a. a first electrically conductive connection is provided between the read-out contact and a second electrically conductive connection, b. a surface of a first light protection at the top side of the substrate is larger than a surface of a light-permeable region which is in the substrate and laterally delimited by a second light protection, so that the surface of the first light protection covers the surface of the light-permeable region in a first projection along the surface normal and the light-permeable region is situated in that region which is shaded by the first light protection, c. the first light protection is situated above the read-out contact at the upper surface of the substrate or the first light protection forms a unit with the read-out contact, d. the second electrically conductive connection is provided within a second projection of the surface of the light-permeable region along the surface normal and below the second light protection, e. a third electrically conductive connection between the second electrically conductive connection and the pre-amplifier is provided below the second light protection, so that the input of the pre-amplifier is protected against direct incidence of light. a. a first electrically conductive connection is provided between the read-out contact and a second electrically conductive connection, b. a surface of a first light protection at the top side of the substrate is larger than a surface of a light-permeable region which is in the substrate and laterally delimited by a second light protection, so that the surface of the first light protection covers the surface of the light-permeable region in a first projection along the surface normal and the light-permeable region is situated in that region which is shaded by the first light protection, c. the first light protection is situated above the read-out contact at the upper surface of the substrate or the first light protection forms a unit with the read-out contact, d. the second electrically conductive connection is provided within a second projection of the surface of the light-permeable region along the surface normal and below the second light protection, e. a third electrically conductive connection between the second electrically conductive connection and the pre-amplifier is provided below the second light protection, so that the input of the pre-amplifier is protected against direct incidence of light.
Combination device, which has a hob with at least one cooking module, an extractor device, which is arranged at least partially below the at least one cooking module and which has at least one fan with at least one intake opening, and at least one air inlet opening for the extractor device, which is arranged in the hob, characterised in that the combination device has two supports (103, 104), wherein each support (103, 104) has elements of the power electronics of at least one cooking module of the hob, the two supports (103, 104) each represent a plate and are arranged at a right angle in the combination device with respect to the at least one cooking module and the two supports (103, 104) are arranged in parallel offset with respect to one another.
A method for creating a registered modification in a corrugated board having at least one fluted medium that defines a flute axis and has a flute pitch, the method being characterized in that it comprises: ascertaining the location of a peak of the fluted medium in the corrugated board; determining a distance from the peak in a direction orthogonal to the flute axis for establishing a desired location of the registered modification; and creating the registered modification, wherein the flute pitch is used to establish a location of a second registered modification in combination with the location of the first registered modification. ascertaining the location of a peak of the fluted medium in the corrugated board; determining a distance from the peak in a direction orthogonal to the flute axis for establishing a desired location of the registered modification; and creating the registered modification, wherein the flute pitch is used to establish a location of a second registered modification in combination with the location of the first registered modification.
A method of iteratively estimating a tag state of an RFID tag wherein the tag state includes at least one of a position and a velocity, the method comprising: iteratively determining a measured phase of a tag signal at an RFID receiver; at each phase measurement iteration, determining a plurality of possible actual phases of the tag signal at the current iteration from a prior iteration's estimate of the tag state; producing a channel phase model; and using the channel phase model to produce a current iteration tag state estimate from the plurality of possible actual phases of the tag signal, characterised in that the channel phase model comprises a sum of periodically spaced distribution functions based on a modulo function of a fraction of an RF carrier wavelength. iteratively determining a measured phase of a tag signal at an RFID receiver; at each phase measurement iteration, determining a plurality of possible actual phases of the tag signal at the current iteration from a prior iteration's estimate of the tag state; producing a channel phase model; and using the channel phase model to produce a current iteration tag state estimate from the plurality of possible actual phases of the tag signal,
An arrangement comprising: a first conductive antenna element comprising at least one first slot (30; 31, 32, 33, 34; 35, 36) arranged in the first conductive antenna element; and a second conductive antenna element comprising at least one second slot (90; 91, 92, 93, 94; 31; 32, 33, 34) arranged in the second conductive antenna element; wherein the at least one second slot (90; 91, 92) arranged in the second conductive antenna element is coupled with the at least one first slot (30; 35, 36) arranged in the first conductive antenna element by means of at least one conductor (111, 112; 113, 114, 115, 116); wherein each of the at least one first slot of the first conductive antenna element has at least one associated feed point (51, 52, 53, 54) arranged at the respective first slot, and each of the at least one second slot of the second conductive antenna element has at least one associated feed point arranged at the respective second slot, wherein the feed points are arranged to be fed with radio frequency signals having a selected wavelength or a wavelength within a selected wavelength range having a selected center wavelength; and characterized in that the first conductive antenna element is arranged above or below the second conductive antenna element and at a distance from the second conductive antenna element, wherein the distance is in a range from 0.15 times the selected wavelength or the selected center wavelength to 0.35 times the selected wavelength or the selected center wavelength. a first conductive antenna element comprising at least one first slot (30; 31, 32, 33, 34; 35, 36) arranged in the first conductive antenna element; and a second conductive antenna element comprising at least one second slot (90; 91, 92, 93, 94; 31; 32, 33, 34) arranged in the second conductive antenna element; wherein the at least one second slot (90; 91, 92) arranged in the second conductive antenna element is coupled with the at least one first slot (30; 35, 36) arranged in the first conductive antenna element by means of at least one conductor (111, 112; 113, 114, 115, 116); wherein each of the at least one first slot of the first conductive antenna element has at least one associated feed point (51, 52, 53, 54) arranged at the respective first slot, and each of the at least one second slot of the second conductive antenna element has at least one associated feed point arranged at the respective second slot, wherein the feed points are arranged to be fed with radio frequency signals having a selected wavelength or a wavelength within a selected wavelength range having a selected center wavelength; and characterized in that the first conductive antenna element is arranged above or below the second conductive antenna element and at a distance from the second conductive antenna element, wherein the distance is in a range from 0.15 times the selected wavelength or the selected center wavelength to 0.35 times the selected wavelength or the selected center wavelength.
A compound represented by the Formula wherein is the following Formula (a) n is an integer of 1 to 3; R 1 is C 1 -C 6 alkyl -C -NR 3 R 4; one of R 3 and R 4 is a hydrogen, and the other is hydrogen, C 1 -C 6 alkyl or C 3 -C 7 cycloalkyl, or R 3 and R 4 in combination optionally form, together with the adjacent nitrogen atom, saturated nitrogen-containing heterocycle which is optionally substituted by C 1 -C 6 alkyl, halogen, C 1 -C 6 alkoxy, phenoxy or benzyloxy; R 2 is hydrogen or halogen; Ra and Rb are the same or different and each is hydrogen, C 1 -C 6 alkyl, halogen, C 1 -C 6 alkoxy, trifluoromethyl, hydroxyl, C 2 -C 6 alkanoylamino or cyano X is O or S; Y is CH 2, C(CH 3) 2, O, or S; and Z is CH or N or a pharmaceutically acceptable salt thereof. n is an integer of 1 to 3; R 1 is C 1 -C 6 alkyl -C -NR 3 R 4; one of R 3 and R 4 is a hydrogen, and the other is hydrogen, C 1 -C 6 alkyl or C 3 -C 7 cycloalkyl, or R 3 and R 4 in combination optionally form, together with the adjacent nitrogen atom, saturated nitrogen-containing heterocycle which is optionally substituted by C 1 -C 6 alkyl, halogen, C 1 -C 6 alkoxy, phenoxy or benzyloxy; R 2 is hydrogen or halogen; Ra and Rb are the same or different and each is hydrogen, C 1 -C 6 alkyl, halogen, C 1 -C 6 alkoxy, trifluoromethyl, hydroxyl, C 2 -C 6 alkanoylamino or cyano X is O or S; Y is CH 2, C(CH 3) 2, O, or S; and Z is CH or N or a pharmaceutically acceptable salt thereof.
A proprotor blade assembly operable for beamwise folding relative to a rotor hub assembly, the proprotor blade assembly comprising: a spar having a root section, a main section and a tip section, the spar having a generally oval cross section at radial stations along the main section, the root section forming an integral tang assembly operable for coupling the spar to the rotor hub assembly; and a sheath extending spanwise along a leading edge of the spar; characterised in that the spar has a first edge and a generally oppositely disposed second edge, the first edge having a structural bias relative to the second edge at the radial stations along the main section of the spar; in that the thickness of the first edge of the spar progressively increases relative to the thickness of the second edge of the spar at radial stations along the main section of the spar up to about mid span; and in that the thickness of the first edge of the spar is substantially constant relative to the thickness of the second edge of the spar at radial stations along the main section of the spar beginning at about mid span. a spar having a root section, a main section and a tip section, the spar having a generally oval cross section at radial stations along the main section, the root section forming an integral tang assembly operable for coupling the spar to the rotor hub assembly; and a sheath extending spanwise along a leading edge of the spar; characterised in that the spar has a first edge and a generally oppositely disposed second edge, the first edge having a structural bias relative to the second edge at the radial stations along the main section of the spar; in that the thickness of the first edge of the spar progressively increases relative to the thickness of the second edge of the spar at radial stations along the main section of the spar up to about mid span; and in that the thickness of the first edge of the spar is substantially constant relative to the thickness of the second edge of the spar at radial stations along the main section of the spar beginning at about mid span.
Process for partial condensation, in which a gas stream that is loaded with a substance that is to be condensed is cooled in a cryocondenser by heat exchange with a cooling medium and thereby the substance present in the gas stream is at least partially condensed, wherein the cooling medium to be fed to the cryocondenser is warmed and/or vaporised by heat contact with a heat transfer medium in a cooling medium heat exchanger before said cooling medium is fed to the cryocondenser, wherein, as heat transfer medium, cooling medium at least in part derived from the cryocondenser is used, characterized in that the loaded gas stream in the cryocondenser is additionally brought into thermal contact with the cooling medium derived from the cryocondenser and conducted through the cooling medium heat exchanger.
A packaging for containing a respective product, in particular a food or pharmaceutical product, in particular a product in pieces, bars or sticks, the product being preferably in the form of chewing gum; the packaging comprising respective means for housing the product and having respective means for access to the product; the packaging comprising a plurality of containing bodies aligned longitudinally with each other and which are movable relative to each other between a close position and a spaced-apart position, said plurality of containing bodies being joined together; characterised in that the containing bodies are joined together at opposite longitudinal walls, front and rear, respectively, of adjacent containing bodies.
A device configured for bearing loads in use, the device comprising: a textile main body, and one or more indicator elements on the textile main body, or on a label fixed to the textile main body, for indicating date information, characterised by the indicator elements comprising a plurality of severable portions (36, 38) spaced from the main body or the label on which they are provided and a plurality of date markers (40, 42), each of the severable portions being associated with a date marker (40, 42) such that by cutting one or more of the severable portions a date of use of the device or a date of inspection of the device can be indicated.
A method of manufacturing an array substrate, comprising steps of: forming a display area and a non-display area on a substrate, a circuit bonding area being arranged within the non-display area; forming an alignment film in the display area through a patterning process; coating a first resin layer on a surface of the substrate on which the alignment film has been formed; forming a photoresist layer on a surface of the first resin layer; forming, through a single masking and exposing process and a single development process, a first full coverage area of the photoresist layer and a first full removal area of the photoresist layer, the first full coverage area of the photoresist layer corresponding to a transparent protection layer to be formed and the first full removal area of the photoresist layer corresponding to a circuit bonding area and a pattern of the alignment film; etching a portion of the first resin layer corresponding to the first removal area of the photoresist layer; peeling off the photoresist in the first full coverage area of the photoresist layer, so that a remaining portion of the first resin layer forms the transparent protection layer; and forming, through a rubbing-imprinting process, a plurality of lines having the same orientation on a surface of the alignment film, for an ordered arrangement of liquid crystal molecules, wherein a surface height of the transparent protection layer is lower than or equal to a surface height of the alignment film. forming a display area and a non-display area on a substrate, a circuit bonding area being arranged within the non-display area; forming an alignment film in the display area through a patterning process; coating a first resin layer on a surface of the substrate on which the alignment film has been formed; forming a photoresist layer on a surface of the first resin layer; forming, through a single masking and exposing process and a single development process, a first full coverage area of the photoresist layer and a first full removal area of the photoresist layer, the first full coverage area of the photoresist layer corresponding to a transparent protection layer to be formed and the first full removal area of the photoresist layer corresponding to a circuit bonding area and a pattern of the alignment film; etching a portion of the first resin layer corresponding to the first removal area of the photoresist layer; peeling off the photoresist in the first full coverage area of the photoresist layer, so that a remaining portion of the first resin layer forms the transparent protection layer; and forming, through a rubbing-imprinting process, a plurality of lines having the same orientation on a surface of the alignment film, for an ordered arrangement of liquid crystal molecules, wherein a surface height of the transparent protection layer is lower than or equal to a surface height of the alignment film.
A method of manufacturing a light guiding plate, comprising steps of: forming a protrusion array composed of a plurality of protrusions on a surface of a substrate; and characterized by forming reflective layers on side facets of the protrusions respectively, in such a way that, the farther away from a side of the substrate the protrusion is, the greater the reflectivity of the reflective layer on the protrusion is. forming a protrusion array composed of a plurality of protrusions on a surface of a substrate; and characterized by forming reflective layers on side facets of the protrusions respectively, in such a way that, the farther away from a side of the substrate the protrusion is, the greater the reflectivity of the reflective layer on the protrusion is.
A respiratory treatment device comprising: a housing enclosing a chamber; an inlet configured to receive air into the chamber; a first magnet positioned in proximity to the inlet; an outlet configured to permit air to exit the chamber; a second magnet positioned in proximity to the outlet; a shuttle configured to move relative to the first magnet and the second magnet between a closed position where the flow of air through the inlet is blocked by the shuttle, and an open position where the flow of air through the outlet is blocked by the shuttle; a first one-way inhalation valve configured to permit the flow of air through the chamber into the mouthpiece. a first one-way exhalation valve configured to permit the flow of air from the chamber out of the housing. wherein the shuttle is configured to move from the closed position to the open position when an exhalation pressure at the at the inlet is sufficient to overcome a magnetic attraction force between the shuttle and the first magnet; and, wherein the shuttle is configured to move from the open position to the closed position when an inhalation pressure in the chamber is sufficient to overcome a magnetic attraction force between the shuttle and the second magnet. a housing enclosing a chamber; an inlet configured to receive air into the chamber; a first magnet positioned in proximity to the inlet; an outlet configured to permit air to exit the chamber; a second magnet positioned in proximity to the outlet; a shuttle configured to move relative to the first magnet and the second magnet between a closed position where the flow of air through the inlet is blocked by the shuttle, and an open position where the flow of air through the outlet is blocked by the shuttle; a first one-way inhalation valve configured to permit the flow of air through the chamber into the mouthpiece. a first one-way exhalation valve configured to permit the flow of air from the chamber out of the housing. wherein the shuttle is configured to move from the closed position to the open position when an exhalation pressure at the at the inlet is sufficient to overcome a magnetic attraction force between the shuttle and the first magnet; and, wherein the shuttle is configured to move from the open position to the closed position when an inhalation pressure in the chamber is sufficient to overcome a magnetic attraction force between the shuttle and the second magnet.
A method for producing blanks from pieces of dough (7,12, 30) with an at least substantially triangular and equal-sided basic form from a strip of dough (13, 32), characterised in that over the width of the strip of dough (13, 32) pieces of dough (7, 12, 30) with the basic form are cut to size in a number of lengthwise rows (a, 31) and with base sides (8, 17, 38) which run symmetrically in relation to the number of rows (a, 31) of pieces of dough (7, 12, 30) and respectively parallel to the centre axis (19, 40b) of the strip of dough (13, 32) extending in the longitudinal direction of the strip of dough (13, 32).