mhurhangee/ep-ind-claims huggingface dataset:
A vane structure for a gas turbine engine comprising: a ring (106,108) defined about an axis; an airfoil section with a platform segment (78,80) adjacent to said ring (106,108), the platform segment (78,80) including a multiple of ceramic matrix composite plies that bend apart to define a generally perpendicular orientation which form fillets (74, 76); an insert at least partially over the platform segment (78,80), the platform segment (78,80) being sandwiched between the insert and the ring (106, 108); and an overwrap wound around said ring (106,108) and said insert, wherein said platform segment (78,80) is a T-section, wherein said platform segment (78,80) includes a filler, wherein said filler is a preformed monolithic ceramic member. a ring (106,108) defined about an axis; an airfoil section with a platform segment (78,80) adjacent to said ring (106,108), the platform segment (78,80) including a multiple of ceramic matrix composite plies that bend apart to define a generally perpendicular orientation which form fillets (74, 76); an insert at least partially over the platform segment (78,80), the platform segment (78,80) being sandwiched between the insert and the ring (106, 108); and an overwrap wound around said ring (106,108) and said insert, wherein said platform segment (78,80) is a T-section, wherein said platform segment (78,80) includes a filler, wherein said filler is a preformed monolithic ceramic member.
Flux for flux cored solder in which the flux is filled in the solder, or for flux-coated solder in which the flux coats the solder, the flux comprising: neopentyl glycol and/or dioxane glycol as a solid solvent in an amount of 70 wt% or more and 99.5 wt% or less; and an activator in an amount of 0.5 wt% or more and 30 wt% or less; or comprising: a phenol-based solid solvent in an amount of more than 0 wt% and 30 wt% or less; a solid solvent other than the phenol-based solid solvent in an amount of 70 wt% or more and 99.5 wt% or less; and an activator in an amount of 0 wt% or more and 30 wt% or less, wherein the weight of the flux after being heated from 25 degrees C to 350 degrees C in N 2 atmosphere at a raising rate of 10 degrees C/min is 15 % or less of the weight thereof before the heating. neopentyl glycol and/or dioxane glycol as a solid solvent in an amount of 70 wt% or more and 99.5 wt% or less; and an activator in an amount of 0.5 wt% or more and 30 wt% or less; or comprising: a phenol-based solid solvent in an amount of more than 0 wt% and 30 wt% or less; a solid solvent other than the phenol-based solid solvent in an amount of 70 wt% or more and 99.5 wt% or less; and an activator in an amount of 0 wt% or more and 30 wt% or less, wherein the weight of the flux after being heated from 25 degrees C to 350 degrees C in N 2 atmosphere at a raising rate of 10 degrees C/min is 15 % or less of the weight thereof before the heating. a phenol-based solid solvent in an amount of more than 0 wt% and 30 wt% or less; a solid solvent other than the phenol-based solid solvent in an amount of 70 wt% or more and 99.5 wt% or less; and an activator in an amount of 0 wt% or more and 30 wt% or less,
A power amplifier network comprising: a first path comprising a first power amplifier; a second path comprising a second power amplifier; a common input path to both the first path and the second path, wherein the common input path comprises a common pre-distortion processing circuit; a feedback path from an output of the first power amplifier to the pre-distortion processing circuit; a first power control network for controlling a first signal applied to the first power amplifier; and a second power control network for controlling a second signal applied to the second power amplifier, wherein the first power control network is different from the second power control network. a first path comprising a first power amplifier; a second path comprising a second power amplifier; a common input path to both the first path and the second path, wherein the common input path comprises a common pre-distortion processing circuit; a feedback path from an output of the first power amplifier to the pre-distortion processing circuit; a first power control network for controlling a first signal applied to the first power amplifier; and a second power control network for controlling a second signal applied to the second power amplifier, wherein the first power control network is different from the second power control network.
A cylinder structure for an internal combustion engine comprising a cylinder head having an exhaust valve and a sleeve that slidably guides an exhaust valve rod, the cylinder structure satisfying the following conditions: 12 % ≤ d / a ≤ 27 %, where d is a distance between an inner surface of the cylinder and an exhaust valve member and a is a diameter of the exhaust valve member; 40 % ≤ c / b ≤ 50 %, where c is a length of a non-guided portion of the exhaust valve located below a lower end of the sleeve when the exhaust valve is closed, and b is a diameter of a cylinder bore; and 0.5 % ≤ e / S ≤ 0.8 %, where e is a gap between the exhaust valve rod and the sleeve and S is a diameter of the exhaust valve rod.
Interconnection element for connecting an optical module for an optical unit of a light curtain monitoring a protective field, to another optical module and/or to a control module, said optical module comprising at least one radiation emitting and/or radiation receiving element for transmitting and/or receiving a radiation beam forming said light curtain, and a module body for mounting a radiation transmitter/receiver carrier carrying the at least one transmitting and/or receiving element for transmitting and/or receiving said radiation, wherein said interconnection element is formed to electrically connect the optical module and the other optical module and/or control module to each other and to mechanically fix a distance between the optical module and the other optical module and/or control module.
A method for creating a thermotunneling device, comprising: depositing a metal/semiconductor structure that allows current flow between a hot plate and a cold plate of the thermotunneling device; and interrupting a flow of phonons between the hot plate and the cold plate of the thermotunneling device, wherein the interrupted flow is created by a vacuum nanogap, said vacuum nanogap being formed by passing a current between opposing electrodes (202, 208) located respectively at the hot and cold side of the device, characterized in that the deposited material comprises at least two columns of semiconductor material, a first column comprising a first dopant type of semiconductor material and a second column comprising a second dopant type of semiconductor material. depositing a metal/semiconductor structure that allows current flow between a hot plate and a cold plate of the thermotunneling device; and interrupting a flow of phonons between the hot plate and the cold plate of the thermotunneling device, wherein the interrupted flow is created by a vacuum nanogap, said vacuum nanogap being formed by passing a current between opposing electrodes (202, 208) located respectively at the hot and cold side of the device, characterized in that the deposited material comprises at least two columns of semiconductor material, a first column comprising a first dopant type of semiconductor material and a second column comprising a second dopant type of semiconductor material.
A malate of Compound I, which is methyl (3-(3-( -1-( -N-cyclopropylmorpholine-2-carboxamido)ethyl)-6-methyl-1H-pyrazolo[3,4-b]pyridin-1-yl)n-propyl)carbamate, wherein the malate is a compound formed by compound I and L-malic acid in a molar ratio of 1:1, and represented by the following structural formula:
A detector comprising: a sensor configured to sense a moving object in the electromagnetic spectrum; a coded aperture disposed between a moving object and the sensor; and a digital signal processor configured to receive signals from the sensor, characterized in that the coded aperture is a fixed coded aperture consisting out of a single random mask array, the sensor is a single-pixel sensor, the digital signal processor is configured to solve a sparse inverse problem to detect the moving object using an adaptively learning dictionary comprising only valid data models represented mathematically by: min α ∈ R k × n Φ ∈ C ∑ i = 1 n 1 2 ‖ x i − Φ α i ‖ 2 2 + λ ‖ α i ‖ 1 C ≡ Φ ∈ R m × k: ∀ j = 1,... k, ‖ φ j ‖ 2 < 1 where "Φ" is the dictionary, "x" is the observed data, and "α" is the sparse model identification vector. a sensor configured to sense a moving object in the electromagnetic spectrum; a coded aperture disposed between a moving object and the sensor; and a digital signal processor configured to receive signals from the sensor, characterized in that the coded aperture is a fixed coded aperture consisting out of a single random mask array, the sensor is a single-pixel sensor, the digital signal processor is configured to solve a sparse inverse problem to detect the moving object using an adaptively learning dictionary comprising only valid data models represented mathematically by: min α ∈ R k × n Φ ∈ C ∑ i = 1 n 1 2 ‖ x i − Φ α i ‖ 2 2 + λ ‖ α i ‖ 1 C ≡ Φ ∈ R m × k: ∀ j = 1,... k, ‖ φ j ‖ 2 < 1 where "Φ" is the dictionary, "x" is the observed data, and "α" is the sparse model identification vector.
A cable connector, comprising: an outer conductor engager configured to receive an end of a coaxial cable and to be in electrical communication with an outer conductor of the received coaxial cable a body configured to circumscribe the received coaxial cable: a coupler configured to move the body axially relative to the outer conductor engager such that an inner surface of the body engages the outer conductor engager and a compression ring, wherein at least one of an outer surface of the outer conductor engager and an inner surface of the body is tapered, and wherein the compression ring is configured to urge the outer conductor engager against the outer conductor when the body is moved axially relative to the outer conductor engager by the coupler, wherein the coupler includes a threaded portion configured to be threadedly engaged with an interface port and to be fastened to the interface port by relative rotation, characterized in that the compression ring is disposed rearward of the inner surface along an axial direction, the outer conductor engager being configured to be drawn toward the interface port by the fastening such that a front face surface of the outer conductor engager is configured to engage a face surface of the interface port, and further wherein the forward and rearward directions relative to the connector are such that when the connector is installed on an interface port, a forward end, portion, or direction is proximal to, or toward, the interface port, and a rearward end, portion, or direction is distal, or away, from the interface port. an outer conductor engager configured to receive an end of a coaxial cable and to be in electrical communication with an outer conductor of the received coaxial cable a body configured to circumscribe the received coaxial cable: a coupler configured to move the body axially relative to the outer conductor engager such that an inner surface of the body engages the outer conductor engager and a compression ring, wherein at least one of an outer surface of the outer conductor engager and an inner surface of the body is tapered, and wherein the compression ring is configured to urge the outer conductor engager against the outer conductor when the body is moved axially relative to the outer conductor engager by the coupler, wherein the coupler includes a threaded portion configured to be threadedly engaged with an interface port and to be fastened to the interface port by relative rotation, characterized in that the compression ring is disposed rearward of the inner surface along an axial direction, the outer conductor engager being configured to be drawn toward the interface port by the fastening such that a front face surface of the outer conductor engager is configured to engage a face surface of the interface port, and further wherein the forward and rearward directions relative to the connector are such that when the connector is installed on an interface port, a forward end, portion, or direction is proximal to, or toward, the interface port, and a rearward end, portion, or direction is distal, or away, from the interface port.
A process for the preparation of a gas oil cut comprising the following successive steps: 1) oligomerisation of an olefinic C2-C12 hydrocarbon cut, preferably a C3-C7 cut and still more preferably a C3-C5 cut, 2) separation of the mixture of products obtained in step 1) into three cuts: a light cut containing unreacted olefinic C4 and/or C5 hydrocarbons with a T95 of less than 100°C, preferably less than 50°C, an intermediate cut having a T95 of between 180°C and 240°C, preferably between 200°C and 220°C and a heavy cut corresponding to a T95 of higher than 240°C, preferably higher than 220°C, and 3) oligomerisation of the intermediate cut obtained in the separation step, said intermediate cut being mixed with at least a portion of the light C4-C5 cut issuing from said separation step in proportions such that the ratio by weight between the intermediate cut and the olefinic C4-C5 cut is between 60/40 and 80/20. 1) oligomerisation of an olefinic C2-C12 hydrocarbon cut, preferably a C3-C7 cut and still more preferably a C3-C5 cut, 2) separation of the mixture of products obtained in step 1) into three cuts: a light cut containing unreacted olefinic C4 and/or C5 hydrocarbons with a T95 of less than 100°C, preferably less than 50°C, an intermediate cut having a T95 of between 180°C and 240°C, preferably between 200°C and 220°C and a heavy cut corresponding to a T95 of higher than 240°C, preferably higher than 220°C, and 3) oligomerisation of the intermediate cut obtained in the separation step, said intermediate cut being mixed with at least a portion of the light C4-C5 cut issuing from said separation step in proportions such that the ratio by weight between the intermediate cut and the olefinic C4-C5 cut is between 60/40 and 80/20.
A corneal imaging device provided with an optical system for photographing a corneal portion of an eye, the optical system including an illumination optical system configured to irradiate illumination light toward a cornea (Ec) and a light receiving optical system placed in a position inclined with respect to an optical axis of the illumination optical system configured to receive reflection light from the cornea by a photodetector, an objective lens, wherein the illumination optical system or the light receiving optical system includes light-limiting means provided in an optical path of the optical system for photographing the corneal portion of the eye, the illumination optical system and the light receiving optical system are arranged symmetrically with respect to a central axis, the light-limiting means is configured to: allow light having passed through a central part of the objective lens provided in the light receiving optical system to pass through toward the photodetector; characterized in that the light-limiting means is configured to limit light asymmetrically with respect to an optical axis of the illumination optical system or the light receiving optical system, is placed in a position away from a condensing point of the light and is further configured to either allow a light part of the light having passed through the peripheral part of the objective lens on a side close to the central axis to pass through and limit a light part of the light having passed through the peripheral part of the objective lens on an opposite side to the central axis side, or allow a light part of the light having passed through the peripheral part of the objective lens on an opposite side to a side close to the central axis to pass through and limit a light part of the light having passed through the peripheral part of the objective lens on the central axis side.
A connector configured to hold a contact module, the connector comprising: a housing having an interior surface defining a cavity that extends between first and second ends of the housing, the cavity being configured to receive and hold the contact module therein; a spring tab located in the cavity and oriented to project from the interior surface toward the first end of the housing, the spring tab being integrally formed with the housing; and a ridge portion (221, 222, 223, 224) located in the cavity and oriented to project from the interior surface, the contact module being retained between the ridge portion and the spring tab; characterized in that the spring tab includes first and second spring tabs extending from a common surface in a common direction, the spring tabs engaging the contact module held within the housing; wherein the ridge portion includes first and second pairs of ridge portions aligned with each other along a common axis, the first pair of ridge portions (221, 222) being separated by a first gap, the first spring tab having a distal tip that engages the contact module and faces the first gap, the second pair of ridge portions (223, 224) being separated by a second gap, the second spring tab having a distal tip that engages the contact module and faces the second gap; and wherein one of the first pair of ridge portions is joined to an adjacent one of the second pair of ridge portions by a platform extending between the first and second ends of the housing. a housing having an interior surface defining a cavity that extends between first and second ends of the housing, the cavity being configured to receive and hold the contact module therein; a spring tab located in the cavity and oriented to project from the interior surface toward the first end of the housing, the spring tab being integrally formed with the housing; and a ridge portion (221, 222, 223, 224) located in the cavity and oriented to project from the interior surface, the contact module being retained between the ridge portion and the spring tab; characterized in that the spring tab includes first and second spring tabs extending from a common surface in a common direction, the spring tabs engaging the contact module held within the housing; wherein the ridge portion includes first and second pairs of ridge portions aligned with each other along a common axis, the first pair of ridge portions (221, 222) being separated by a first gap, the first spring tab having a distal tip that engages the contact module and faces the first gap, the second pair of ridge portions (223, 224) being separated by a second gap, the second spring tab having a distal tip that engages the contact module and faces the second gap; and wherein one of the first pair of ridge portions is joined to an adjacent one of the second pair of ridge portions by a platform extending between the first and second ends of the housing.
A computer implemented method of previewing a compiled document, comprising: transmitting document content from a client device to a compile server at determined intervals; and compiling a document from the document content at the compile server; the method characterized by: generating and storing hash values associated with each page of the compiled document; comparing the generated hash values with previously stored hash values; producing page previews for individual pages of the compiled document; and providing the page previews to the client device for those pages associated with a generated hash value that does not match a previously stored hash value. transmitting document content from a client device to a compile server at determined intervals; and compiling a document from the document content at the compile server; the method characterized by: generating and storing hash values associated with each page of the compiled document; comparing the generated hash values with previously stored hash values; producing page previews for individual pages of the compiled document; and providing the page previews to the client device for those pages associated with a generated hash value that does not match a previously stored hash value. generating and storing hash values associated with each page of the compiled document; comparing the generated hash values with previously stored hash values; producing page previews for individual pages of the compiled document; and providing the page previews to the client device for those pages associated with a generated hash value that does not match a previously stored hash value.
A compound of formula (!s), or a salt, solvate, stereoisomer, tautomer, or isotopically labelled derivative thereof, or any mixtures thereof: wherein in (Is): R 1 is optionally substituted phenyl; each occurrence of R 2 is independently selected from the group consisting of H and C 1 -C 6 alkyl, preferably selected from H or methyl; R 3 is selected from the group consisting of -N(R 2)C(=O)OR 6, OH, -OR 6, -NH 2, -NHR 6, -NR 6 R 6, -OC(=O)OR 6, -OC(=O)N(R 2)R 6, -NR 7 C(=O)N(R 6)(R 7), -N(R 2)C(=O)R 6, -NR 2 S(=O) 1-2 R 6, - N(R 2)C(=O)(CH 2) 1-2 R 6, NR 2 S(=O) 2 N(R 6)(R 7), and -NR 2 C(=O)C(=O)N(R 6)(R 7); R 4 is H; R 5a is selected from the group consisting of H and halo; R 5b is H; R 5c is H; each occurrence of R 6 is independently selected from the group consisting of optionally substituted C 1 -C 6 alkyl, optionally substituted C 3 -C 8 cycloalkyl, optionally substituted phenyl, and optionally substituted hetereoaryl; each occurrence of R 7 is independently selected from the group consisting of H and optionally substituted C 1 -C 6 alkyl; or, if R 6 and R 7 are bound to the same N atom, R 6 and R 7 optionally combine with the N atom to which both are bound to form optionally substituted 3-7 membered heterocyclyl; and R 8 is selected from the group consisting of H and C 1 -C 6 alkyl. R 1 is optionally substituted phenyl; each occurrence of R 2 is independently selected from the group consisting of H and C 1 -C 6 alkyl, preferably selected from H or methyl; R 3 is selected from the group consisting of -N(R 2)C(=O)OR 6, OH, -OR 6, -NH 2, -NHR 6, -NR 6 R 6, -OC(=O)OR 6, -OC(=O)N(R 2)R 6, -NR 7 C(=O)N(R 6)(R 7), -N(R 2)C(=O)R 6, -NR 2 S(=O) 1-2 R 6, - N(R 2)C(=O)(CH 2) 1-2 R 6, NR 2 S(=O) 2 N(R 6)(R 7), and -NR 2 C(=O)C(=O)N(R 6)(R 7); R 4 is H; R 5a is selected from the group consisting of H and halo; R 5b is H; R 5c is H; each occurrence of R 6 is independently selected from the group consisting of optionally substituted C 1 -C 6 alkyl, optionally substituted C 3 -C 8 cycloalkyl, optionally substituted phenyl, and optionally substituted hetereoaryl; each occurrence of R 7 is independently selected from the group consisting of H and optionally substituted C 1 -C 6 alkyl; or, if R 6 and R 7 are bound to the same N atom, R 6 and R 7 optionally combine with the N atom to which both are bound to form optionally substituted 3-7 membered heterocyclyl; and R 8 is selected from the group consisting of H and C 1 -C 6 alkyl.