mhurhangee/ep-ind-claims huggingface dataset:
A rotor blade clamp for assisting with mounting and/or dismounting of a rotor blade on a rotor hub of a wind turbine, the rotor blade clamp comprising: a first clamping part having a first inner face contoured to accommodate a shape of the rotor blade at a designated clamping location on the rotor blade; a second clamping part opposed to the first clamping part, the second clamping part having a second inner face opposed to the first inner face and contoured to accommodate the shape of the rotor blade at the designated clamping location on the rotor blade; a spring-loaded hinge connecting the first clamping part to the second clamping part, the spring-loaded hinge comprising at least one spring that biases the clamping parts apart to an opened clamp configuration; a reeving mechanism comprising a first reeving portion on the first clamping part and a second reeving portion on the second clamping part, the first and second reeving portions adapted to receive a line therebetween, whereby pulling a free portion of the line reeved through the reeving portions draws the clamping parts together to a closed clamp configuration against the bias of the at least one spring; characterized in that the first reeving portion comprises a first block of pulley elements and the second reeving portion comprises a second block of pulley elements. a first clamping part having a first inner face contoured to accommodate a shape of the rotor blade at a designated clamping location on the rotor blade; a second clamping part opposed to the first clamping part, the second clamping part having a second inner face opposed to the first inner face and contoured to accommodate the shape of the rotor blade at the designated clamping location on the rotor blade; a spring-loaded hinge connecting the first clamping part to the second clamping part, the spring-loaded hinge comprising at least one spring that biases the clamping parts apart to an opened clamp configuration; a reeving mechanism comprising a first reeving portion on the first clamping part and a second reeving portion on the second clamping part, the first and second reeving portions adapted to receive a line therebetween, whereby pulling a free portion of the line reeved through the reeving portions draws the clamping parts together to a closed clamp configuration against the bias of the at least one spring;
A method at a computing device for logging events between at least one publisher and at least one subscriber, the computing device comprising a data object manager as a publisher for the logging events to a logging service as a subscriber to the logging events, the method comprising: creating a memory allocation of a pool of data objects for the data object manager; mapping the memory allocation to a virtual memory of the data object manager and to a virtual memory of the logging service; receiving, from the at least one publisher, a publication notice including a handle and a first timestamp; acquiring a second timestamp prior to issuing a notification to the at least one subscriber; and generating and publishing a log event with the first timestamp, the second timestamp, and the handle. creating a memory allocation of a pool of data objects for the data object manager; mapping the memory allocation to a virtual memory of the data object manager and to a virtual memory of the logging service; receiving, from the at least one publisher, a publication notice including a handle and a first timestamp; acquiring a second timestamp prior to issuing a notification to the at least one subscriber; and generating and publishing a log event with the first timestamp, the second timestamp, and the handle.
An aqueous composition comprising ripasudil, or a salt thereof, or a solvate of the compound or the salt thereof, and benzalkonium chloride, wherein the content of the benzalkonium chloride in the aqueous composition is 0.0001 to 0.01 w/v% based on the total volume of the aqueous composition.
A photovoltaic device 100 comprising an absorber layer 160 disposed over a buffer layer 150, wherein: the absorber layer 160 has a first surface 162 and a second surface 164; the absorber layer 160 comprises cadmium and tellurium; the absorber layer 160 is doped with a group V dopant; and the buffer layer 150 comprises a layer of MnO x; the buffer layer 150 has a first surface 152 and a second surface 154 adjacent to the absorber layer 160; the buffer layer 150 comprises a base layer 210 disposed at the first surface 152 of the buffer layer 150, and an interface layer 220 that is disposed at the second surface 154 of the buffer layer 150; the layer of MnO x is within 200 nm of the first surface of the absorber layer 160; the base layer 210 of the buffer layer 150 comprises tin oxide; and the interface layer 220 of the buffer layer 150 is composed of a different material than the base layer 210 of the buffer layer 150. the absorber layer 160 has a first surface 162 and a second surface 164; the absorber layer 160 comprises cadmium and tellurium; the absorber layer 160 is doped with a group V dopant; and the buffer layer 150 comprises a layer of MnO x; the buffer layer 150 has a first surface 152 and a second surface 154 adjacent to the absorber layer 160; the buffer layer 150 comprises a base layer 210 disposed at the first surface 152 of the buffer layer 150, and an interface layer 220 that is disposed at the second surface 154 of the buffer layer 150; the layer of MnO x is within 200 nm of the first surface of the absorber layer 160; the base layer 210 of the buffer layer 150 comprises tin oxide; and the interface layer 220 of the buffer layer 150 is composed of a different material than the base layer 210 of the buffer layer 150.
A linear low-density polyethylene (LLDPE) grafted with maleic anhydride (MAH-g-LLDPE), wherein the MAH-g-LLDPE has a melt index of 250 to 800 g/10 minutes and comprises 0.01 to 3 weight percent of maleic anhydride, based on the total weight of the MAH-g-LLDPE.
Device for machining a stack with plate-shaped components (S1; S2), with a separation device, using which a plate-shaped component (S1; S2) can be removed from the stack, wherein the separation device is designed as a separating transverse, which is moveably mounted on a multi-axis handling device in at least two directions (x, z) and comprises a plurality of separation means (104; 109), with a lifting device for lifting the stack and with a control device for controlling the separation device and the lifting device, wherein the plurality of the separation means (104; 109) comprise at least one first separation means and at least one second separation means, which are different to each other, characterized in that the control device, which controls at least one first separation means if a first above-lying plate-shaped component in the stack with a predetermined first characteristic is to be separated, and which controls at least one second separation means if a first above-lying plate-shaped component in the stack with a predetermined second characteristic is to be separated, wherein the predetermined second characteristic is different from the predetermined first characteristic.
A color conversion device for converting sRGB image data to AdobeRGB image data comprising: a color data input unit configured to obtain linear RGB input color data in an sRGB color gamut; a color mapping unit configured to generate, from the linear RGB input color data, colorimetrically converted color data in an AdobeRGB color gamut using a chromaticity preservation mapping; a color mixing unit configured to generate mixed color data by mixing the generated colorimetrically converted color data and the obtained linear RGB input color data; and an output unit configured to output the mixed color data generated by said color mixing unit, to an external device, wherein said color mixing unit is configured to set a mixing ratio of the colorimetrically converted color data from among the linear RGB input color data and the colorimetrically converted color data, to be higher for linear RGB input color data representing human skin color, and set a mixing ratio of the linear RGB input color data from among the linear RGB input color data and the colorimetrically converted color data, to be higher for linear RGB color data representing a color at a boundary and in a vicinity of the color gamut. a color data input unit configured to obtain linear RGB input color data in an sRGB color gamut; a color mapping unit configured to generate, from the linear RGB input color data, colorimetrically converted color data in an AdobeRGB color gamut using a chromaticity preservation mapping; a color mixing unit configured to generate mixed color data by mixing the generated colorimetrically converted color data and the obtained linear RGB input color data; and an output unit configured to output the mixed color data generated by said color mixing unit, to an external device, wherein said color mixing unit is configured to set a mixing ratio of the colorimetrically converted color data from among the linear RGB input color data and the colorimetrically converted color data, to be higher for linear RGB input color data representing human skin color, and set a mixing ratio of the linear RGB input color data from among the linear RGB input color data and the colorimetrically converted color data, to be higher for linear RGB color data representing a color at a boundary and in a vicinity of the color gamut.
An energy storage device casing (10, 30, 40, 70) for an energy storage device, comprising: a) a rigidified molded structural shell (12, 32, 50, 72) defining a void area (18, 38) suitable for containing an energy storage device, said structural shell having an outer surface and an inner surface; and b) an inner lining (14, 34, 48, 82) impervious to oxygen and humidity, characterized in that said inner lining includes a laminate comprising a layer of synthetic material and a layer of metallic material joined onto said inner surface of said rigidified molded structural shell. a) a rigidified molded structural shell (12, 32, 50, 72) defining a void area (18, 38) suitable for containing an energy storage device, said structural shell having an outer surface and an inner surface; and b) an inner lining (14, 34, 48, 82) impervious to oxygen and humidity, characterized in that said inner lining includes a laminate comprising a layer of synthetic material and a layer of metallic material joined onto said inner surface of said rigidified molded structural shell.
A liquid-distributing layer for incontinence products with a first flat knit layer, with a second flat knit layer having a pattern of openings and with spacer threads connecting the first knit layer and the second knit layer to one another, wherein the total thickness amounts to more than 3 mm and less than 6 mm, and wherein the openings are arranged in a diamond pattern, characterized in that the density per unit of area amounts to less than 300 g/m 2, wherein the spacer threads have a fineness between 80 dtex and 130 dtex and are arranged in a density between 65 and 110 per square centimeter (/cm 2).
A method for producing purified methionine from crude methionine, the method comprising the steps of: obtaining a crude methionine wet cake washed with water; adjusting the pH of the wet cake; and drying the wet cake after pH adjustment, wherein the pH of the wet cake after pH adjustment is 5.2 or more and 6.1 or less. obtaining a crude methionine wet cake washed with water; adjusting the pH of the wet cake; and drying the wet cake after pH adjustment, wherein the pH of the wet cake after pH adjustment is 5.2 or more and 6.1 or less.
A light receiving or light emitting device comprising: a plurality of particulate semiconductor elements (3, 3A, 3B) that have a light-to-electricity transducing function or an electricity-to-light transducing function incorporated lined up in at least two rows, each of said semiconductor elements having a pair of electrodes (15, 16) that are disposed in spot form on opposite end parts of the element with the center thereof interposed; a pair of conductive wire members (4a, 4b; 31a, 31b) that connect the plurality of semiconductor elements in each row; and a transparent covering material (22, 33) that covers all of the semiconductor elements and conductive wire members (4a, 4b; 31a, 31b) in embedded form, characterised in that the transparent covering material (22, 33) is non-flexible and of a hard synthetic resin, the pair of conductive wire members connect the plurality of semiconductor elements in each row in parallel, wherein a plurality of semiconductor elements are arranged in a plurality of rows on a same plane and the device is constructed in the form of a non-flexible and hard panel, and a respective conductive wire member of the pair of conductive wire members in each row is connected in series to a respective conductive wire member of the pair of conductive wire members in one or more rows adjacent to the row only by conductive wire members. a plurality of particulate semiconductor elements (3, 3A, 3B) that have a light-to-electricity transducing function or an electricity-to-light transducing function incorporated lined up in at least two rows, each of said semiconductor elements having a pair of electrodes (15, 16) that are disposed in spot form on opposite end parts of the element with the center thereof interposed; a pair of conductive wire members (4a, 4b; 31a, 31b) that connect the plurality of semiconductor elements in each row; and a transparent covering material (22, 33) that covers all of the semiconductor elements and conductive wire members (4a, 4b; 31a, 31b) in embedded form, characterised in that the transparent covering material (22, 33) is non-flexible and of a hard synthetic resin, the pair of conductive wire members connect the plurality of semiconductor elements in each row in parallel, wherein a plurality of semiconductor elements are arranged in a plurality of rows on a same plane and the device is constructed in the form of a non-flexible and hard panel, and a respective conductive wire member of the pair of conductive wire members in each row is connected in series to a respective conductive wire member of the pair of conductive wire members in one or more rows adjacent to the row only by conductive wire members.
A cell comprising a polynucleotide vector encoding a bipartite molecule comprising an activation domain that binds to one or more cell surface molecules and an antigen recognition domain that binds to EphA2 and/or CD19, wherein the activation domain is a single chain variable fragment (scFv) that recognizes CD3 and wherein the cell is a T cell or NK cell.
A method for discontinuous data reception by a user equipment, UE (135, 330), in which multiple cells are aggregated, in a wireless communication system, the method comprising: receiving scheduling information on a first cell; receiving (705, 805) first data on a second cell based on the scheduling information; determining (710, 810) whether the first data is successfully decoded; starting (720, 820) a retransmission timer if the first data is not successfully decoded; and monitoring (740, 840) physical downlink control channels, PDCCHs, of the first cell and the second cell for retransmission scheduling of the first data in an active time based on the retransmission timer characterized in that: monitoring (740, 840) PDCCHs of the first cell and the second cell comprises monitoring PDCCHs of all cells in an active time including the first cell and the second cell. receiving scheduling information on a first cell; receiving (705, 805) first data on a second cell based on the scheduling information; determining (710, 810) whether the first data is successfully decoded; starting (720, 820) a retransmission timer if the first data is not successfully decoded; and monitoring (740, 840) physical downlink control channels, PDCCHs, of the first cell and the second cell for retransmission scheduling of the first data in an active time based on the retransmission timer characterized in that: monitoring (740, 840) PDCCHs of the first cell and the second cell comprises monitoring PDCCHs of all cells in an active time including the first cell and the second cell.
A driving force transmission device comprising: a clutch capable of being switched between a transmission of a rotational force and an interruption of the transmission of the rotational force; an output shaft outputting the rotational force of the clutch; a bearing supporting an end portion of the output shaft with grease; and an annular shim disposed around the end portion of the output shaft between the clutch and the bearing, characterized in that the shim has a through hole through which the end portion of the output shaft is inserted, the through hole has the same shape as a cross section of the end portion of the output shaft, and a circumferential edge of the through hole comes into tightly contact with an outer circumferential face of the end portion of the output shaft, the end portion of the output shaft has a flat face parallel to an axial direction of the output shaft, the shim has a protruding piece protruding inwardly from a portion of the circumferential edge of the through hole, the portion corresponding to the flat face, and when the end portion of the output shaft is inserted through the through hole, the protruding piece is folded along the flat face so as to come frictionally contact with the flat face. a clutch capable of being switched between a transmission of a rotational force and an interruption of the transmission of the rotational force; an output shaft outputting the rotational force of the clutch; a bearing supporting an end portion of the output shaft with grease; and an annular shim disposed around the end portion of the output shaft between the clutch and the bearing, characterized in that the shim has a through hole through which the end portion of the output shaft is inserted, the through hole has the same shape as a cross section of the end portion of the output shaft, and a circumferential edge of the through hole comes into tightly contact with an outer circumferential face of the end portion of the output shaft, the end portion of the output shaft has a flat face parallel to an axial direction of the output shaft, the shim has a protruding piece protruding inwardly from a portion of the circumferential edge of the through hole, the portion corresponding to the flat face, and when the end portion of the output shaft is inserted through the through hole, the protruding piece is folded along the flat face so as to come frictionally contact with the flat face.
A method for fabricating a desired object, comprising: (a) passing a recoater arm comprising a continuous feed recoater blade over a powder bed to provide a layer of powder over the powder bed; (b) irradiating at least part of the layer of powder in the powder bed to form a fused region of an object; and (c) repeating steps (a) and (b) until the desired object is formed in the powder bed; and (d) feeding from a blade feed unit to the recoater arm, a new blade portion of the continuous feed recoater blade along at least a portion of a length of the recoater arm for replacing a blade portion of the continuous feed recoater blade with the new blade portion; wherein the method for fabricating the desired object further comprises detecting whether the blade portion is damaged, via a camera attached to the recoater arm. (a) passing a recoater arm comprising a continuous feed recoater blade over a powder bed to provide a layer of powder over the powder bed; (b) irradiating at least part of the layer of powder in the powder bed to form a fused region of an object; and (c) repeating steps (a) and (b) until the desired object is formed in the powder bed; and (d) feeding from a blade feed unit to the recoater arm, a new blade portion of the continuous feed recoater blade along at least a portion of a length of the recoater arm for replacing a blade portion of the continuous feed recoater blade with the new blade portion;
A method for simulating a rubber material comprising a step of setting a rubber material model modeled on a rubber material including a matrix rubber, silica, and an interface bonding agent to bond them with numerically analyzable elements; a step of calculating deformation by setting conditions in said rubber material model; and a step of acquiring needed physical quantity from said deformation calculation; wherein said rubber material model comprises a matrix model modeled on the matrix rubber, a plurality of silica models modeled on said silica arranged in said matrix model, and an interface model surrounding annularly each of said silica models and having a harder physical property than said matrix model; and said rubber material model comprises a coupled body formed by coupling a plurality of said silica models via said interface model, wherein said step of setting the rubber material model comprises a parameter determination process to determine a parameter of physicality in said interface model; and the parameter determination process comprises a process of preparing at least a first unvulcanized rubber composition having the same compound as said rubber material model of an analysis object, and a second unvulcanized rubber composition having a compound excluding the interface bonding agent from the first unvulcanized rubber composition; a process of obtaining first and second residues to obtain the first and second residues after removing the matrix rubber from the first and second unvulcanized rubber compositions, respectively, by immersing the first and second unvulcanized rubber composition into a solvent; a process of estimating a difference T2 - T1 on the basis of these two peak temperatures by measuring at least a peak temperature T2 of tan δ of said second residue and a peak temperature T1 of tan δ of said first residue and estimate; a process of preparing a basic vulcanized rubber material having a compound excluding silica from said first unvulcanized rubber composition, and different kinds of vulcanized rubber materials having a difference only in crosslink density from the basic vulcanized rubber material; a process of obtaining a relation between said peak temperature of tan δ of the vulcanized rubber material and the crosslink density by measuring each of the peak temperature of tan δ of said vulcanized rubber materials; a process of specifying crosslink density of the vulcanized rubber material having a peak temperature of tan δ is equivalent to a temperature obtained by adding said difference T2 - T1 into a peak temperature T3 of tan δ of said basic vulcanized rubber material from said relation; and a process of defining said parameter of said interface model on the basis of the physicality of the vulcanized rubber material of said identified crosslink density.
Assembly comprising a flexible hose for the passage of a medium, and a control unit for outputting electric power, wherein the hose has an inlet, an outlet and a hose wall, into which a heating wire (27, 28) routed along an axial direction of the hose is embedded, wherein the control unit is configured to output electric power to the heating wire (27, 28) in order to heat an outer surface of the hose and/or a medium conveyed through the hose, characterized in that the assembly is furthermore designed to determine a power value taking into account a length of the hose and to output a corresponding power to the heating wire (27, 28).