mhurhangee/patent-ind-claim-en huggingface dataset:
Workpiece drive for rotating a circular workpiece in a descaling device , wherein the workpiece drive has a support , characterized in that the workpiece drive has at least three support roller modules , that each of the support roller modules has a bearing and a support roller for the circular workpiece , wherein the support roller has a longitudinal axis , a lateral surface and a radius between the longitudinal axis and the lateral surface and the radius decreases in a longitudinal direction along the longitudinal axis , and wherein the bearing supports the support roller rotatably about the longitudinal axis , that each of the support roller modules comprises a drive and the drive is designed to rotate the support roller about the longitudinal axis , and that the bearings are arranged on the support in such a way that the longitudinal axes have a point of intersection , so that the longitudinal directions are directed towards the point of intersection and so that the lateral surfaces for a workpiece placed on the support rollers form a conical receptacle with a receptacle axis , wherein the receptacle axis is oriented substantially parallel to the earth gravity field vector (g). wherein the workpiece drive has a support , characterized in that the workpiece drive has at least three support roller modules , that each of the support roller modules has a bearing and a support roller for the circular workpiece , wherein the support roller has a longitudinal axis , a lateral surface and a radius between the longitudinal axis and the lateral surface and the radius decreases in a longitudinal direction along the longitudinal axis , and wherein the bearing supports the support roller rotatably about the longitudinal axis , that each of the support roller modules comprises a drive and the drive is designed to rotate the support roller about the longitudinal axis , and that the bearings are arranged on the support in such a way that the longitudinal axes have a point of intersection , so that the longitudinal directions are directed towards the point of intersection and so that the lateral surfaces for a workpiece placed on the support rollers form a conical receptacle with a receptacle axis , wherein the receptacle axis is oriented substantially parallel to the earth gravity field vector (g).
A synthetic optical image system, comprising an array of focusing elements, and an image system including an array of microstructured icon elements designed to collectively form an image, wherein the array of focusing elements and the image system cooperate to form a synthetic optical image, wherein the array of microstructured icon elements is incorporated into an icon layer, wherein the microstructured icon elements are holographic surface relief patterns , and/or diffractive relief patterns , and wherein the icon layer is laminated with laminating adhesive to a coating material layer , wherein the laminating adhesive is in contact with the microstructured icon elements, wherein the microstructured icon elements are unfilled or not completely filled.
A structural member comprising: a core portion that defines at least one anchor point , the core portion having at least one surface , a fibre tow arranged in a closed loop on the surface of the core portion , the loop defining a boundary of a space which contains the at least one anchor point, and a protective shell formed from a woven fibre sheet material which covers the fibre tow, and in which the core portion , fibre tow and the protective shell are impregnated and bound together by a cured resin., characterised in that the structural member further includes, between the or each surface and the associated loop , an inner shell of woven material which includes a groove on the side facing away from the core portion that receives the loop and provides a guide for the loop during assembly. a core portion that defines at least one anchor point , the core portion having at least one surface , a fibre tow arranged in a closed loop on the surface of the core portion , the loop defining a boundary of a space which contains the at least one anchor point, and a protective shell formed from a woven fibre sheet material which covers the fibre tow, and in which the core portion , fibre tow and the protective shell are impregnated and bound together by a cured resin., characterised in that the structural member further includes, between the or each surface and the associated loop , an inner shell of woven material which includes a groove on the side facing away from the core portion that receives the loop and provides a guide for the loop during assembly.
A monoamine material for an organic electroluminescence (EL) device, represented by the following General Formula : where X 1 is one selected from O, S, R 9 -C-R 10 , or N-R 11 , R 1 to R 11 are each independently alkyl having 10 or less carbon atoms, aryl having 6 to 30 carbon atoms for forming a ring, alkyloxy, alkylthio, trialkylsilyl, aryloxy, arylthio, triarylsilyl, alkyldiarylsilyl, dialkylarylsilyl, cyclopropyl, cyclobutyl, cyclopentyl, cyclohexyl, 4-methylcyclohexyl, 1-adamantyl, 2-adamantyl, 1-norbornyl, 2-norbornyl, or heteroaryl having 2 to 30 carbon atoms for forming a ring, n is an integer of 0 to 4, m is an integer of 0 to 3, o is an integer of 0 to 2, and a plurality of adjacent R 1 to R 11 can be combined to form a saturated or unsaturated 5- to 7- membered ring.
A data access method, wherein the data access method is applied to a storage system, the storage system comprises a first controller , the storage system further comprises at least one shared cache apparatus , wherein the first controller is connected to each of the at least one shared cache apparatus by using an internal bus, the method is applied to the first controller , and the method comprises: Receiving (S201) a destination address sent by each shared cache apparatus , wherein the destination address is used to indicate an address at which data is to be written into the shared cache apparatus ; Receiving (S202) information carrying the data; and Sending (S203) the destination address and the data to the shared cache apparatus that sends the destination address, so that each shared cache apparatus stores the data in storage space to which the destination address points; characterized in that the internal bus is one of the following internal buses: a quick path interconnect bus, an ultra path interconnect bus, a hyper transport bus, and a global memory interconnect bus. Receiving (S201) a destination address sent by each shared cache apparatus , wherein the destination address is used to indicate an address at which data is to be written into the shared cache apparatus ; Receiving (S202) information carrying the data; and Sending (S203) the destination address and the data to the shared cache apparatus that sends the destination address, so that each shared cache apparatus stores the data in storage space to which the destination address points; characterized in that the internal bus is one of the following internal buses: a quick path interconnect bus, an ultra path interconnect bus, a hyper transport bus, and a global memory interconnect bus.
A computer-implemented, interactive method for creating a graphical representation of a codebase, comprising: generating a graphical representation of a first portion of the codebase; determining that one or more pre-defined boundary condition exists, comprising determining that there is insufficient memory to generate a graphical representation of the codebase, determining that data from a source external to the codebase is required to complete the generation of the graphical representation, or determining that an amount of time to complete a portion of a generation is over a predetermined amount; pausing the generation of the graphical representation of the first portion of the codebase upon encountering the one or more boundary condition; prompting a user for input relating to solutions to the one or more boundary condition, comprising prompting the user with a plurality of options for each of the one or more boundary condition, said plurality of options constraining the input; receiving user input concerning one or more respective solutions to the one or more boundary condition, wherein the user may selectively provide inputs for any number of the one or more boundary condition; and based on said user input, generating a graphical representation of a second portion of said codebase having a solution to a respective boundary condition. generating a graphical representation of a first portion of the codebase; determining that one or more pre-defined boundary condition exists, comprising determining that there is insufficient memory to generate a graphical representation of the codebase, determining that data from a source external to the codebase is required to complete the generation of the graphical representation, or determining that an amount of time to complete a portion of a generation is over a predetermined amount; pausing the generation of the graphical representation of the first portion of the codebase upon encountering the one or more boundary condition; prompting a user for input relating to solutions to the one or more boundary condition, comprising prompting the user with a plurality of options for each of the one or more boundary condition, said plurality of options constraining the input; receiving user input concerning one or more respective solutions to the one or more boundary condition, wherein the user may selectively provide inputs for any number of the one or more boundary condition; and based on said user input, generating a graphical representation of a second portion of said codebase having a solution to a respective boundary condition.
A method of determining in a sample a total amount of 25-hydroxy vitamin D 2 and 25-hydroxy vitamin D 3 , the method comprising: (a) providing in combination in an assay medium: (i) a sample suspected of containing 25-hydroxy vitamin D 2 and 25-hydroxy vitamin D 3 , (ii) reagents for conducting an assay for 25-hydroxy vitamin D 2 and 25-hydroxy vitamin D 3 wherein the reagents comprise an assay antibody capable of binding to 25-hydroxy vitamin D 2 and 25-hydroxy vitamin D 3 to form complexes and a member of a signal producing system that produces a signal in relation to the amount of 25-hydroxy vitamin D 2 and 25-hydroxy vitamin D 3 complexes, and (iii) a non-assay antibody that has a greater binding affinity for 25-hydroxy vitamin D 2 , wherein an amount of the non-assay antibody is sufficient to achieve an adjustment of the contribution of 25-hydroxy vitamin D 2 to the amount of signal, wherein the amount of the non-assay antibody is 10 μg/mL to 75 μg/mL; (b) incubating the assay medium under conditions for forming the complexes, (c) determining the amount of signal from the complexes, and relating the amount of signal to the total amount of 25-hydroxy vitamin D 2 and 25-hydroxy vitamin D 3 in the sample. (a) providing in combination in an assay medium: (i) a sample suspected of containing 25-hydroxy vitamin D 2 and 25-hydroxy vitamin D 3 , (ii) reagents for conducting an assay for 25-hydroxy vitamin D 2 and 25-hydroxy vitamin D 3 wherein the reagents comprise an assay antibody capable of binding to 25-hydroxy vitamin D 2 and 25-hydroxy vitamin D 3 to form complexes and a member of a signal producing system that produces a signal in relation to the amount of 25-hydroxy vitamin D 2 and 25-hydroxy vitamin D 3 complexes, and (iii) a non-assay antibody that has a greater binding affinity for 25-hydroxy vitamin D 2 , wherein an amount of the non-assay antibody is sufficient to achieve an adjustment of the contribution of 25-hydroxy vitamin D 2 to the amount of signal, wherein the amount of the non-assay antibody is 10 μg/mL to 75 μg/mL; (i) a sample suspected of containing 25-hydroxy vitamin D 2 and 25-hydroxy vitamin D 3 , (ii) reagents for conducting an assay for 25-hydroxy vitamin D 2 and 25-hydroxy vitamin D 3 wherein the reagents comprise an assay antibody capable of binding to 25-hydroxy vitamin D 2 and 25-hydroxy vitamin D 3 to form complexes and a member of a signal producing system that produces a signal in relation to the amount of 25-hydroxy vitamin D 2 and 25-hydroxy vitamin D 3 complexes, and (iii) a non-assay antibody that has a greater binding affinity for 25-hydroxy vitamin D 2 , wherein an amount of the non-assay antibody is sufficient to achieve an adjustment of the contribution of 25-hydroxy vitamin D 2 to the amount of signal, wherein the amount of the non-assay antibody is 10 μg/mL to 75 μg/mL; (b) incubating the assay medium under conditions for forming the complexes, (c) determining the amount of signal from the complexes, and relating the amount of signal to the total amount of 25-hydroxy vitamin D 2 and 25-hydroxy vitamin D 3 in the sample.
An apparatus, comprising: means for determining a set of non-preferred transmission resources for a second apparatus; means for determining a set of inapplicable transmission resources for the second apparatus, wherein the set of inapplicable transmission resources comprises transmission resources which the second apparatus would not use regardless of whether indicated as non-preferred transmission resources to the second apparatus; means for determining a reduced set of non-preferred transmission resources based on excluding at least one of the set of inapplicable transmission resources from the set of non-preferred transmission resources; and means for transmitting an indication of the reduced set of non-preferred transmission resources to the second apparatus. means for determining a set of non-preferred transmission resources for a second apparatus; means for determining a set of inapplicable transmission resources for the second apparatus, wherein the set of inapplicable transmission resources comprises transmission resources which the second apparatus would not use regardless of whether indicated as non-preferred transmission resources to the second apparatus; means for determining a reduced set of non-preferred transmission resources based on excluding at least one of the set of inapplicable transmission resources from the set of non-preferred transmission resources; and means for transmitting an indication of the reduced set of non-preferred transmission resources to the second apparatus.
A kit of parts for a plurality of wind turbine blades, comprising a plurality of wind turbine blades or a plurality of wind turbine blade portions each having: a plurality of composite plies , each ply having a position within the respective wind turbine blade or the respective wind turbine blade portion and a fibre orientation angle (α1, α2, β1, γ1, γ2) relative to a pitch axis (P) of the respective wind turbine blade or the respective wind turbine blade portion, wherein each of the wind turbine blades or each of the wind turbine blade portions have substantially the same size and outer geometrical shape and corresponding pitch axes, and wherein at least one ply of each of the respective wind turbine blades or the respective wind turbine blade portions corresponds, which corresponding plies have the same position within the respective wind turbine blades or wind turbine blade portions and have different fibre orientation angles such that the wind turbine blades or wind turbine blade portions have different bend-to-twist couplings. a plurality of composite plies , each ply having a position within the respective wind turbine blade or the respective wind turbine blade portion and a fibre orientation angle (α1, α2, β1, γ1, γ2) relative to a pitch axis (P) of the respective wind turbine blade or the respective wind turbine blade portion, wherein each of the wind turbine blades or each of the wind turbine blade portions have substantially the same size and outer geometrical shape and corresponding pitch axes, and wherein at least one ply of each of the respective wind turbine blades or the respective wind turbine blade portions corresponds, which corresponding plies have the same position within the respective wind turbine blades or wind turbine blade portions and have different fibre orientation angles such that the wind turbine blades or wind turbine blade portions have different bend-to-twist couplings.
A method for producing a carbon-fiber-precursor acrylic fiber bundle, comprising: opening a carbon-fiber-precursor acrylic fiber bundle using a fiber-opening device by jet-spraying fluid from a fluid jet-spray nozzle; and introducing the carbon-fiber-precursor acrylic fiber bundle into a steam box for heating, wherein a gas is used as the fluid jet-sprayed from the fluid jet-spray nozzle, and the flow rate of the gas is set to be at least 7 NL/min but no greater than 16 NL/min per 1000 dtex and the flow speed of the gas is set to be at least 130 m/sec but no faster than 350 m/sec so that the fluid penetrates through the carbon-fiber-precursor acrylic bundle, and wherein by using a width control device the width of the carbon-fiber-precursor acrylic fiber bundle shortly after the bundle passes through the width control device is set between 65% and 110% of the width of the fiber bundle shortly before the bundle enters a supply roll and then the carbon-fiber-precursor acrylic fiber bundle enters the steam box, and wherein the width control device is positioned after the fiber opening device. opening a carbon-fiber-precursor acrylic fiber bundle using a fiber-opening device by jet-spraying fluid from a fluid jet-spray nozzle; and introducing the carbon-fiber-precursor acrylic fiber bundle into a steam box for heating, wherein a gas is used as the fluid jet-sprayed from the fluid jet-spray nozzle, and the flow rate of the gas is set to be at least 7 NL/min but no greater than 16 NL/min per 1000 dtex and the flow speed of the gas is set to be at least 130 m/sec but no faster than 350 m/sec so that the fluid penetrates through the carbon-fiber-precursor acrylic bundle, and wherein by using a width control device the width of the carbon-fiber-precursor acrylic fiber bundle shortly after the bundle passes through the width control device is set between 65% and 110% of the width of the fiber bundle shortly before the bundle enters a supply roll and then the carbon-fiber-precursor acrylic fiber bundle enters the steam box, and wherein the width control device is positioned after the fiber opening device.
Method for measuring ability of a material to absorb liquid, wherein a liquid is brought into contact with a surface of a test specimen (P) of the material, and wherein the amount of liquid that has been absorbed in the test specimen is calculated, wherein - a certain first amount of liquid is supplied to a liquid chamber unit, which on one side is limited by said surface, such that an amount of liquid which is absorbed by the test specimen leaves the liquid chamber unit, and - a representation comprising an indication of the reduction of the amount of liquid in the liquid chamber unit is produced, characterized in that said representation is an indication of a liquid level change in the liquid chamber unit, and that the liquid level is sensed in a sensor chamber being connected to said liquid chamber unit. - a certain first amount of liquid is supplied to a liquid chamber unit, which on one side is limited by said surface, such that an amount of liquid which is absorbed by the test specimen leaves the liquid chamber unit, and - a representation comprising an indication of the reduction of the amount of liquid in the liquid chamber unit is produced, characterized in
A vacuum cleaner filter bag comprising an interior-enclosing wall of an air-permeable material as well as an inlet opening made in the wall, characterised in that the air-permeable material comprises at least one layer of a non-woven fabric which comprises fibrous and/or dust-like, recycled, textile material and/or cotton linters, wherein the specific volume of the layer of the non-woven fabric is 20 to 500 cm 3 /g.
A near-eye display system comprising: a light source ; a first polarizing beam splitting surface disposed downstream of the light source along an optical path of the near-eye display system, the first polarizing beam splitting surface being configured to receive light from the light source; a mirror disposed downstream of the first polarizing beam splitting surface along the optical path, the mirror being configured to reflect light passed by the first polarizing beam splitting surface back toward the first polarizing beam splitting surface; a quarter wave plate positioned between the first polarizing beam splitting surface and the mirror along the optical path; a second polarizing beam splitting surface disposed downstream of the first polarizing beam splitting surface and the mirror along the optical path, the second polarizing beam splitting surface being positioned at an angle relative to the first polarizing beam splitting surface; a microdisplay disposed downstream of the second polarizing beam splitting surface along the optical path, the microdisplay being configured to produce an image from light received from the second polarizing beam splitting surface; and a total internal reflection surface configured to reflect light reflected by the first polarizing beam splitting surface to the second polarizing beam splitting surface. a light source ; a first polarizing beam splitting surface disposed downstream of the light source along an optical path of the near-eye display system, the first polarizing beam splitting surface being configured to receive light from the light source; a mirror disposed downstream of the first polarizing beam splitting surface along the optical path, the mirror being configured to reflect light passed by the first polarizing beam splitting surface back toward the first polarizing beam splitting surface; a quarter wave plate positioned between the first polarizing beam splitting surface and the mirror along the optical path; a second polarizing beam splitting surface disposed downstream of the first polarizing beam splitting surface and the mirror along the optical path, the second polarizing beam splitting surface being positioned at an angle relative to the first polarizing beam splitting surface; a microdisplay disposed downstream of the second polarizing beam splitting surface along the optical path, the microdisplay being configured to produce an image from light received from the second polarizing beam splitting surface; and a total internal reflection surface configured to reflect light reflected by the first polarizing beam splitting surface to the second polarizing beam splitting surface.