mhurhangee/ep-ind-claims huggingface dataset:
A heat transfer fluid additive composition comprising: greater than or equal to 15 wt% of an aliphatic carboxylate, based on the total weight of the composition; an azole compound; a base; and water, wherein the base is present in an amount sufficient to obtain a pH of 7 to 10.5 when the heat transfer additive composition is diluted by 50 volume % with water; wherein said composition is free of silicate and amines; and wherein the aliphatic carboxylate is selected from 2-ethyl hexanoic acid, hexanoic acid, heptanoic acid, octanoic acid, neodecanoic acid, decanoic acid, nonanoic acid, isoheptanoic acid, dodecanoic acid, and a combination thereof. greater than or equal to 15 wt% of an aliphatic carboxylate, based on the total weight of the composition; an azole compound; a base; and water, wherein the base is present in an amount sufficient to obtain a pH of 7 to 10.5 when the heat transfer additive composition is diluted by 50 volume % with water; wherein said composition is free of silicate and amines; and wherein the aliphatic carboxylate is selected from 2-ethyl hexanoic acid, hexanoic acid, heptanoic acid, octanoic acid, neodecanoic acid, decanoic acid, nonanoic acid, isoheptanoic acid, dodecanoic acid, and a combination thereof.
A self-aligning structural attachment arranged for use with a crown integration panel, the self-aligning structural attachment comprising: a main body having a proximal end and a distal end, wherein the main body is attachable to (i) a CIP of a support system and (ii) a clevis on an airframe of an aircraft; a first attachment fitting disposed on the proximal end, wherein the first attachment fitting is a slide-and-swivel attachment fitting; a second attachment fitting disposed on the distal end, wherein the second attachment fitting is a slide attachment fitting; and a pivoting hinge disposed between the first attachment fitting and the second attachment fitting. a main body having a proximal end and a distal end, wherein the main body is attachable to (i) a CIP of a support system and (ii) a clevis on an airframe of an aircraft; a first attachment fitting disposed on the proximal end, wherein the first attachment fitting is a slide-and-swivel attachment fitting; a second attachment fitting disposed on the distal end, wherein the second attachment fitting is a slide attachment fitting; and a pivoting hinge disposed between the first attachment fitting and the second attachment fitting.
An intake-air cooling device (200;500;800) disposed on a rear-stage side of a pre-filter disposed on an intake-air inlet side of an intake-air duct for guiding intake air taken in from an intake-air inlet to a compressor, for cooling the intake air by spraying water to the intake air, the intake-air cooling device (200;500;800) comprising: a plurality of nozzles (202;502;802) configured to spray the water to the intake air; a plurality of water conduit pipes (204;504;804) each including a nozzle arrangement part (203;503;803) on which the plurality of nozzles (202;502;802) is disposed in an axial direction of the water conduit pipes (204;504;804); and a plurality of supply pumps (P1,P2,P3) provided for the respective water conduit pipes (204;504;804) and configured to supply the water to corresponding one of the plurality of water conduit pipes (204;504;804), wherein each of the nozzle arrangement parts (203;503;803) of the plurality of water conduit pipes (204;504;804) is an endless member having an annular structure of a different perimeter, wherein the nozzle arrangement parts (203;503;803) of the plurality of water conduit pipes (204;504;804) are arranged concentrically or eccentrically, and wherein the plurality of nozzles (202;502;802) is arranged to have a distribution in which a density increases from a portion of the water conduit pipes (204;504;804) connected to the supply pumps (P1,P2,P3) toward a portion opposite to the portion. a plurality of nozzles (202;502;802) configured to spray the water to the intake air; a plurality of water conduit pipes (204;504;804) each including a nozzle arrangement part (203;503;803) on which the plurality of nozzles (202;502;802) is disposed in an axial direction of the water conduit pipes (204;504;804); and a plurality of supply pumps (P1,P2,P3) provided for the respective water conduit pipes (204;504;804) and configured to supply the water to corresponding one of the plurality of water conduit pipes (204;504;804), wherein each of the nozzle arrangement parts (203;503;803) of the plurality of water conduit pipes (204;504;804) is an endless member having an annular structure of a different perimeter, wherein the nozzle arrangement parts (203;503;803) of the plurality of water conduit pipes (204;504;804) are arranged concentrically or eccentrically, and wherein the plurality of nozzles (202;502;802) is arranged to have a distribution in which a density increases from a portion of the water conduit pipes (204;504;804) connected to the supply pumps (P1,P2,P3) toward a portion opposite to the portion.
An isolated antibody that binds human Notch3 comprising (i) an immunoglobulin heavy chain variable region comprising a CDR H1 comprising the amino acid sequence of SEQ ID NO: 3, a CDR H2 comprising the amino acid sequence of SEQ ID NO: 4, and a CDR H3 comprising the amino acid sequence of SEQ ID NO: 5; and (ii) an immunoglobulin light chain variable region comprising a CDR L1 comprising the amino acid sequence of SEQ ID NO: 7 or SEQ ID NO: 21, a CDR L2 comprising the amino acid sequence of SEQ ID NO: 8 or SEQ ID NO: 22, and a CDR L3 comprising the amino acid sequence of SEQ ID NO: 9. (i) an immunoglobulin heavy chain variable region comprising a CDR H1 comprising the amino acid sequence of SEQ ID NO: 3, a CDR H2 comprising the amino acid sequence of SEQ ID NO: 4, and a CDR H3 comprising the amino acid sequence of SEQ ID NO: 5; and (ii) an immunoglobulin light chain variable region comprising a CDR L1 comprising the amino acid sequence of SEQ ID NO: 7 or SEQ ID NO: 21, a CDR L2 comprising the amino acid sequence of SEQ ID NO: 8 or SEQ ID NO: 22, and a CDR L3 comprising the amino acid sequence of SEQ ID NO: 9.
A lighting element with suspension system, comprising: - a lighting element to be suspended, comprising two receptacles in the form of grooves which extend in parallel at a top side and the openings of which are directed towards each other and which are designed to engage a suspension system; - at least one suspension system comprising two substantially identical angle elements, each comprising a sheet which is bent at a right angle and has a bending edge dividing the angle element into two segments (12, 13), wherein one segment each of the angle elements is provided with a hole and the bending edge is provided on a part of its length with a slot extending from one end of the bending edge, and wherein the angle elements can be pushed into each other by means of the slots so as to rotate 180 degrees in relation to each other in such a way that the two holes coincide and together form a continuous opening, and the respective other hole-free segments of the angle elements together form a base surface which is designed to engage with opposite edges in the grooves of the lighting element to be suspended. - a lighting element to be suspended, comprising two receptacles in the form of grooves which extend in parallel at a top side and the openings of which are directed towards each other and which are designed to engage a suspension system; - at least one suspension system comprising two substantially identical angle elements, each comprising a sheet which is bent at a right angle and has a bending edge dividing the angle element into two segments (12, 13),
A test process of an integrated circuit (CIC1, CIC2), comprising a step consisting of: - during the execution by the integrated circuit of a multiplication operation of two binary words x (a) and y (a, m) comprising a plurality of basic multiplication steps of components xi (ai) of the word x by components yj (aj, mj) of the word y, collecting a set of points (Wk,i,j) of a physical property representative of switchings of binary data by the integrated circuit, characterized in that it comprises the steps consisting of: - dividing the set of points of the physical property into a plurality of lateral point sub-sets (Ci,j), each corresponding to a basic multiplication operation of a part xi of rank i of the word x by a part yj of rank j of the word y, - forming at least one general hypothesis about a value of x and/or a value of y, - for each sub-set of lateral points (Ci,j), forming a particular hypothesis about a value of an xi and/or of an yj corresponding to the lateral point sub-set and linked to the general hypothesis, - for each lateral point sub-set (Ci,j), calculating an estimation (HWi,j) of the value of the physical property that is a function of the particular hypothesis, and attributing this estimation to the point sub-set (Ci,j) and to the points (Wk,i,j) of the point sub-set (Ci,j), and - applying to the lateral point sub-sets (Ci,j) a step of statistical transversal horizontal processing by using the estimations (HWi,j) of the value of the physical property that is associated with them, to determine whether the general hypothesis is correct. - during the execution by the integrated circuit of a multiplication operation of two binary words x (a) and y (a, m) comprising a plurality of basic multiplication steps of components xi (ai) of the word x by components yj (aj, mj) of the word y, collecting a set of points (Wk,i,j) of a physical property representative of switchings of binary data by the integrated circuit, characterized in that it comprises the steps consisting of: - dividing the set of points of the physical property into a plurality of lateral point sub-sets (Ci,j), each corresponding to a basic multiplication operation of a part xi of rank i of the word x by a part yj of rank j of the word y, - forming at least one general hypothesis about a value of x and/or a value of y, - for each sub-set of lateral points (Ci,j), forming a particular hypothesis about a value of an xi and/or of an yj corresponding to the lateral point sub-set and linked to the general hypothesis, - for each lateral point sub-set (Ci,j), calculating an estimation (HWi,j) of the value of the physical property that is a function of the particular hypothesis, and attributing this estimation to the point sub-set (Ci,j) and to the points (Wk,i,j) of the point sub-set (Ci,j), and - applying to the lateral point sub-sets (Ci,j) a step of statistical transversal horizontal processing by using the estimations (HWi,j) of the value of the physical property that is associated with them, to determine whether the general hypothesis is correct.
An aerogel blanket comprising: a blanket base; aerogel physically coupled on the surface of the blanket base; and aerogel not physically coupled to the blanket base; wherein the aerogel blanket has the number of aerogel particles separated from the aerogel blanket, as measured in the description, ranging from 480,280 to 3,178,322 per m 3 (13,600 to 90,000 per ft 3), when vibrating the aerogel blanket at a frequency of 1 Hz to 30 Hz for 2 hours to 10 hours. a blanket base; aerogel physically coupled on the surface of the blanket base; and aerogel not physically coupled to the blanket base; wherein the aerogel blanket has the number of aerogel particles separated from the aerogel blanket, as measured in the description, ranging from 480,280 to 3,178,322 per m 3 (13,600 to 90,000 per ft 3), when vibrating the aerogel blanket at a frequency of 1 Hz to 30 Hz for 2 hours to 10 hours.
A method, comprising: moving a first substrate in a direction, the first substrate comprising a first surface having a first portion and an adjacent second portion opposite a second surface having a first portion and an adjacent second portion; applying adhesive to the first portion of the first surface; mating a second substrate with the first portion of the first surface; applying adhesive to the first portion of the second surface; folding the first substrate about a first fold line to couple the first portion of the second surface to the second portion of the second surface; characterised in that the method further comprises: applying adhesive to a second half of the second portion of the first surface; and folding the first substrate and the second substrate about a second fold line to couple the first half of the second portion of the first surface and the adjacent second half of the second portion of the first surface and to position the first substrate between the second substrate. moving a first substrate in a direction, the first substrate comprising a first surface having a first portion and an adjacent second portion opposite a second surface having a first portion and an adjacent second portion; applying adhesive to the first portion of the first surface; mating a second substrate with the first portion of the first surface; applying adhesive to the first portion of the second surface; folding the first substrate about a first fold line to couple the first portion of the second surface to the second portion of the second surface; characterised in that the method further comprises: applying adhesive to a second half of the second portion of the first surface; and folding the first substrate and the second substrate about a second fold line to couple the first half of the second portion of the first surface and the adjacent second half of the second portion of the first surface and to position the first substrate between the second substrate. applying adhesive to a second half of the second portion of the first surface; and folding the first substrate and the second substrate about a second fold line to couple the first half of the second portion of the first surface and the adjacent second half of the second portion of the first surface and to position the first substrate between the second substrate.
A method comprising: pre-treating a metal substrate such that a surface of the metal substrate is de-oxidized; immersing the metal substrate in a coating solution to produce a chromium based coating on the metal substrate, wherein the coating solution comprises a trivalent chromium compound and a fluoride compound, but does not contain hexavalent chromium; removing the coated metal substrate from the coating solution; and curing the chromium based coating in a controlled environment containing a gaseous atmosphere to produce a hexavalent chromium enriched corrosion resistant coating on the metal substrate, wherein the relative humidity is controlled within the controlled environment and wherein the gaseous atmosphere has a relative humidity of fifty to ninety percent. pre-treating a metal substrate such that a surface of the metal substrate is de-oxidized; immersing the metal substrate in a coating solution to produce a chromium based coating on the metal substrate, wherein the coating solution comprises a trivalent chromium compound and a fluoride compound, but does not contain hexavalent chromium; removing the coated metal substrate from the coating solution; and curing the chromium based coating in a controlled environment containing a gaseous atmosphere to produce a hexavalent chromium enriched corrosion resistant coating on the metal substrate, wherein the relative humidity is controlled within the controlled environment and wherein the gaseous atmosphere has a relative humidity of fifty to ninety percent.
A method implemented in a Multicast Coordination Entity, MCE, for performing downlink power control for a multicast or broadcast service which is collectively provided from a number, N≥2, of radio base stations, BS i, i=1,..., N, to a number, M≥2, of terminal devices, UE j, j=1,..., M, the method comprising: collecting path-loss attenuations, c ji, i=1,..., N; j=1,..., m, wherein m≤M, between the radio base stations, BS i, i=1,..., N, and all or a subset of the terminal devices, UE j, j=1,..., m; calculating transmission powers, P T i mbsfn, i=1,..., N, for the radio base stations, BS i, i=1,..., N, based on the collected path-loss attenuations, c ji, i=1,..., N; j=1,..., m, such that a sum of the transmission powers, ∑ i = 1 N P T i mbsfn, is minimized under a set of constraints on reception powers at said all or said subset of the terminal devices, UE j, j=1,..., 1 m; and notifying each of the radio base stations, BS i, i=1,..., N, of a corresponding one of the calculated transmission powers, P T i mbsfn, i=1,..., N. collecting path-loss attenuations, c ji, i=1,..., N; j=1,..., m, wherein m≤M, between the radio base stations, BS i, i=1,..., N, and all or a subset of the terminal devices, UE j, j=1,..., m; calculating transmission powers, P T i mbsfn, i=1,..., N, for the radio base stations, BS i, i=1,..., N, based on the collected path-loss attenuations, c ji, i=1,..., N; j=1,..., m, such that a sum of the transmission powers, ∑ i = 1 N P T i mbsfn, is minimized under a set of constraints on reception powers at said all or said subset of the terminal devices, UE j, j=1,..., 1 m; and notifying each of the radio base stations, BS i, i=1,..., N, of a corresponding one of the calculated transmission powers, P T i mbsfn, i=1,..., N.
Method for image processing in X-ray imaging of an object, comprising receiving a first image of the object of a first X-ray image modality; receiving a second image of the object of a second X-ray image modality, wherein the second image modality is different from the first image modality; and combining the first image and the second image to obtain a combined image of the object; wherein the combination of first image and second image is a frequency dependent combination, depending on the spatial frequency of the first image and second image, wherein the method is characterized by: filtering the first image with a first frequency-filter element; filtering the second image with a second frequency-filter element; wherein the first filter element and the second filter element are, in particular, adapted as complementary filter elements; and combining the filtered first image and the filtered second image, to obtain a combined image of the object; wherein the first filter element and the second filter element are adapted to comprise a filter shape dependent on the noise power spectra of the first image and the second image. filtering the first image with a first frequency-filter element; filtering the second image with a second frequency-filter element; wherein the first filter element and the second filter element are, in particular, adapted as complementary filter elements; and combining the filtered first image and the filtered second image, to obtain a combined image of the object; wherein the first filter element and the second filter element are adapted to comprise a filter shape dependent on the noise power spectra of the first image and the second image.
Process for obtaining an intermetallic compound for reduction of friction on metal surfaces comprising producing an additive comprising pulverised nanometric substantially-spherical particles of iron nitrides and carbonitrides, having hexagonal crystalline structure, for addition to a base lubricating oil, which process comprises a first stage consisting of a reduction reaction of iron oxide in the presence of hydrogen and a second stage consisting of a nitridation/carbonitridation reaction, wherein the particles obtained possess a diameter of up to 500 nm.
Formulation for the stripping by dissolution of photoresists, comprising as a principal solvent, two ether and/or polyether solvents, and an acid, wherein the principal solvent goes into the formulation in proportions between 75% and 99.99% by mass in relation to the weight of the formulation, wherein the quantity of water added to the formulation is less than 1% by mass in relation to the total weight of the formulation and wherein the fraction of non-ether solvent is less than 10% by mass of the total weight of the solvents.
An endoscope valve (122, 300, 400) comprising: a cylinder that has a groove on a lateral surface of the cylinder; a cylinder liner (170, 200, 370) that has a cylindrical shape and is inserted into an inner circumference of the cylinder; a piston that is inserted into an inner circumference of the cylinder liner (170, 200, 370); a sleeve (180, 380, 480) that has a sleeve rib (181, 381, 481) and a sleeve skirt (187, 387, 487), the sleeve rib (181, 381, 481) covering at least part of an open end of the cylinder, the sleeve skirt (187, 387, 487) covering at least part of a circumferential surface of the open end; and the cylinder liner (170, 200, 370) having a rib (201, 372) that projects from a circumference of the cylinder liner (170, 200, 370) radially in an outer direction; characterized in that the sleeve (180, 380, 480) has a pin (182, 382, 482), the pin (182, 382, 482) projecting from the sleeve skirt (187, 387, 487) towards the circumferential surface to engage with the groove; the sleeve rib (181, 381, 481) holds the rib (201, 372) on the open end in the case that the pin (182, 382, 482) engages the groove; and an elastic body is provided between the sleeve rib (181, 381, 481) and the rib (201, 372), and a holder is provided on a lateral surface of the cylinder liner (170, 200, 370) and engages the sleeve rib (181, 381, 481), and the elastic body biases the sleeve rib (181, 381, 481) in a direction that is opposite to the open end so as to engage the sleeve rib (181, 381, 481) with the holder. a cylinder that has a groove on a lateral surface of the cylinder; a cylinder liner (170, 200, 370) that has a cylindrical shape and is inserted into an inner circumference of the cylinder; a piston that is inserted into an inner circumference of the cylinder liner (170, 200, 370); a sleeve (180, 380, 480) that has a sleeve rib (181, 381, 481) and a sleeve skirt (187, 387, 487), the sleeve rib (181, 381, 481) covering at least part of an open end of the cylinder, the sleeve skirt (187, 387, 487) covering at least part of a circumferential surface of the open end; and the cylinder liner (170, 200, 370) having a rib (201, 372) that projects from a circumference of the cylinder liner (170, 200, 370) radially in an outer direction; characterized in that the sleeve (180, 380, 480) has a pin (182, 382, 482), the pin (182, 382, 482) projecting from the sleeve skirt (187, 387, 487) towards the circumferential surface to engage with the groove; the sleeve rib (181, 381, 481) holds the rib (201, 372) on the open end in the case that the pin (182, 382, 482) engages the groove; and an elastic body is provided between the sleeve rib (181, 381, 481) and the rib (201, 372), and a holder is provided on a lateral surface of the cylinder liner (170, 200, 370) and engages the sleeve rib (181, 381, 481), and the elastic body biases the sleeve rib (181, 381, 481) in a direction that is opposite to the open end so as to engage the sleeve rib (181, 381, 481) with the holder.
A composition for powder coating material characterized by comprising a fluororesin having a fluorine content of at least 10 mass% and a plasticizer having a melting point, measured in accordance with the method described in the description under the heading (Melting point), of from 60 to 200°C and having a cyclic hydrocarbon group in the molecule, wherein the content of the plasticizer is from 0.1 to 40 parts by mass, to 100 parts by mass of the resin component contained in the composition for powder coating material.