mhurhangee/ep-ind-claims huggingface dataset:
A method of producing measurement data for a message object sent from a client to invoke an operation on a server in a distributed computing environment, wherein the message object is passed over multiple computing components (10, 15, 20, 25, 30) in the sense of a messaging chain, wherein the method comprises the following steps: upon receipt of the message object at a measurement point, M, of a computing component being a broker, a broker stub or a component managing the server operation invocation: a. extracting existing measurement data from the message object, wherein the existing measurement data originates from a preceding computing component within the messaging chain; b. producing measurement data by performing at least one calculation on the extracted existing measurement data; and c. inserting the produced measurement data into the message object. a. extracting existing measurement data from the message object, wherein the existing measurement data originates from a preceding computing component within the messaging chain; b. producing measurement data by performing at least one calculation on the extracted existing measurement data; and c. inserting the produced measurement data into the message object.
A method for transmitting Rank Indication, RI, information in a mobile communication system, characterized by, comprising: when the RI information and a Sounding Reference Signal, SRS, are transmitted in a same sub-frame, loading the SRS in a last symbol of the sub-frame; transmitting the RI information and the SRS; wherein transmitting the RI information and the SRS specifically is: transmitting the SRS in the last symbol; transmitting the RI information in other symbols except for the last symbol. when the RI information and a Sounding Reference Signal, SRS, are transmitted in a same sub-frame, loading the SRS in a last symbol of the sub-frame; transmitting the RI information and the SRS; wherein transmitting the RI information and the SRS specifically is: transmitting the SRS in the last symbol; transmitting the RI information in other symbols except for the last symbol. transmitting the SRS in the last symbol; transmitting the RI information in other symbols except for the last symbol.
A method for selectively cleaning a surface of a turbine engine component, comprising: applying a cleaning cycle to the surface of the turbine engine component, the cleaning cycle comprising sequentially contacting the surface of the turbine engine component with an alkaline composition, a first acid composition; a first alkali metal permanganate composition; and a second acid composition; selectively contacting a first portion of the surface of the turbine engine component with a second alkali metal permanganate composition; and selectively contacting the first portion of the surface of the turbine engine component with a cleaning composition having a viscosity of at least 10 4 poise, the cleaning composition comprising a third acid composition, an active compound, and a thickening agent; wherein the steps and are effected such a remaining second portion of the surface of the turbine engine component is substantially free of contact with the second alkali metal permanganate composition and the cleaning composition. applying a cleaning cycle to the surface of the turbine engine component, the cleaning cycle comprising sequentially contacting the surface of the turbine engine component with an alkaline composition, a first acid composition; a first alkali metal permanganate composition; and a second acid composition; selectively contacting a first portion of the surface of the turbine engine component with a second alkali metal permanganate composition; and selectively contacting the first portion of the surface of the turbine engine component with a cleaning composition having a viscosity of at least 10 4 poise, the cleaning composition comprising a third acid composition, an active compound, and a thickening agent;
A front image generation device for heavy equipment, configured to generate a composite front image by using two or more cameras, the front image generation device comprising: an upper camera disposed on a wheel loader and configured to generate a first front image; a lower camera disposed on the wheel loader and configured to generate a second front image; and an image processor configured to generate a composite front image by compositing the first front image and the second front image, wherein the image processor is configured to set different weights to the first front image and the second front image, depending on the position of a bucket of the wheel loader, characterized in that: the image processor is configured to set the weight of the first front image to a higher weight than the weight of the second front image when the bucket is located at the bottom, and the image processor is configured to set the weight of the second front image to a higher weight than the weight of the first front image when the bucket is located at the top, wherein the image processor is configured to set relatively lower transparency for one front image having a relatively high weight among the first front image and the second front image. an upper camera disposed on a wheel loader and configured to generate a first front image; a lower camera disposed on the wheel loader and configured to generate a second front image; and an image processor configured to generate a composite front image by compositing the first front image and the second front image, wherein the image processor is configured to set different weights to the first front image and the second front image, depending on the position of a bucket of the wheel loader, characterized in that: the image processor is configured to set the weight of the first front image to a higher weight than the weight of the second front image when the bucket is located at the bottom, and the image processor is configured to set the weight of the second front image to a higher weight than the weight of the first front image when the bucket is located at the top, wherein the image processor is configured to set relatively lower transparency for one front image having a relatively high weight among the first front image and the second front image. the image processor is configured to set the weight of the first front image to a higher weight than the weight of the second front image when the bucket is located at the bottom, and the image processor is configured to set the weight of the second front image to a higher weight than the weight of the first front image when the bucket is located at the top, wherein the image processor is configured to set relatively lower transparency for one front image having a relatively high weight among the first front image and the second front image.
A helmet manufacturing method, comprising the steps of a) producing a shell and a protector (30, 50, 60), the shell having a head-protecting portion and two opposing cheek-protecting portions, the two cheek-protecting portions extending downward, integrally from left and right ends of the head-protecting portion, respectively, the protector (30, 50, 60) having a jaw-protecting portion (34, 54, 62) and a neck-protecting portion (36, 56, 64), the neck-protecting portion (36, 56, 64) extending backward, integrally from a back end of the jaw-protecting portion (34, 54, 62); b) putting the shell and the protector (30, 50, 60) in a die such that bottom edges of the cheek-protecting portions of the shell connect to a top edge of the neck-protecting portion (36, 56, 64) of the protector (30, 50, 60); c) introducing a foam material into the die, apply heat and pressure to the foam material such that the foam material expands and binds to an inner side of the shell and an inner side of the protector (30, 50, 60); and d) removing, upon completion of a foaming process, the die, so as to obtain a helmet finished product. a) producing a shell and a protector (30, 50, 60), the shell having a head-protecting portion and two opposing cheek-protecting portions, the two cheek-protecting portions extending downward, integrally from left and right ends of the head-protecting portion, respectively, the protector (30, 50, 60) having a jaw-protecting portion (34, 54, 62) and a neck-protecting portion (36, 56, 64), the neck-protecting portion (36, 56, 64) extending backward, integrally from a back end of the jaw-protecting portion (34, 54, 62); b) putting the shell and the protector (30, 50, 60) in a die such that bottom edges of the cheek-protecting portions of the shell connect to a top edge of the neck-protecting portion (36, 56, 64) of the protector (30, 50, 60); c) introducing a foam material into the die, apply heat and pressure to the foam material such that the foam material expands and binds to an inner side of the shell and an inner side of the protector (30, 50, 60); and d) removing, upon completion of a foaming process, the die, so as to obtain a helmet finished product.
A pneumatic tire comprising a tread portion, at least two circumferentially and continuously extending longitudinal grooves being provided with the tread portion, at least one land portion divided between the longitudinal grooves, a plurality of lateral grooves being provided with the land portion, said each lateral grooves having one end communicating with one of the longitudinal grooves and the other end extending toward a tire equator, said longitudinal groove having a groove wall to which said lateral grooves are connected, in each section between lateral grooves adjacent to a circumferential direction of the tire, said groove wall having at least one protruded portion and a dent portion being formed the nearest side of the tire equator (c), the protruded portion inclined with respect to the circumferential direction of the tire so as to gradually reduce a width (W1b) of the longitudinal groove toward at least one lateral groove, and in a cross section of the groove wall, the protruded portion comprising a main surface which extends radially outside from the groove bottom of the longitudinal groove and a slant surface extending from a radially outer edge of the main surface to a ground contact surface of the land portion and having an inclined angle larger than that of the main surface, wherein the slant surface of the protruded portion has a wi dth in the axial direction of the ti re, and the width of the slant surface of protruded portion gradually increases toward at least one lateral groove, characterized in that in a cross section of the groove wall, the dent portion comprises a main surface which extends radially outside from the groove bottom of the longitudinal groove and a slant surface which extends from a radially outer edge of the main surface to the ground contact surface of the land portion, wherein the slant surface of the dent portion has an inclined angle larger than that of the main surface of the dent portion, and the main surface of the dent portion extends in the circumferential direction of the tire. a main surface which extends radially outside from the groove bottom of the longitudinal groove and a slant surface extending from a radially outer edge of the main surface to a ground contact surface of the land portion and having an inclined angle larger than that of the main surface, a main surface which extends radially outside from the groove bottom of the longitudinal groove and a slant surface which extends from a radially outer edge of the main surface to the ground contact surface of the land portion,
A broad band coaxial load includes a conductive rod being held coaxially within a coaxial support, the coaxial support comprising a body including a round hole with three axial sections (210, 220, 230), characterised in that a first section starting from a first side of the coaxial support comprises a funnel starting from a first diameter with decreasing diameter in a direction into the coaxial support to a second diameter matching to the diameter of the conductive rod, a second section comprising a plurality of radially oriented contact springs, having a diameter matching to the diameter of the conductive rod, and a third section comprising a cylindrical hole with a diameter matching to the diameter of the conductive rod. the coaxial support comprising a body including a round hole with three axial sections (210, 220, 230), characterised in that a first section starting from a first side of the coaxial support comprises a funnel starting from a first diameter with decreasing diameter in a direction into the coaxial support to a second diameter matching to the diameter of the conductive rod, a second section comprising a plurality of radially oriented contact springs, having a diameter matching to the diameter of the conductive rod, and a third section comprising a cylindrical hole with a diameter matching to the diameter of the conductive rod.
Mass-transfer column having at least one transfer tray via which liquid is directed in an essentially horizontal direction and through which gas is directed in a vertical direction via flue-neck caps, wherein the transfer tray is designed in the form of a reverse-flow tray and has a separating weir, by means of which liquid flowing via the transfer tray has its direction of flow changed through at least 90°, in particular through approximately 180°, and at least one directing weir for guiding the liquid flow, characterized in that the transfer tray has at least one braking weir for reducing the flow speed, wherein the transfer tray is divided up into sections by the separating weir, directing weir/s and/or braking weir/s, wherein a section, on each side, has at least one separating weir, directing weir, braking weir or the wall of the mass-transfer column, which delimit the section in full, and wherein directing and braking weirs are fastened above the transfer tray such that liquid can flow beneath them and/or they have through-passages (8, 9) for the liquid in the form of apertures (8, 9).
A container with a side wall of plastic which encloses a container volume, wherein horizontally oriented grooves (7, 8) spaced vertically apart from one another are formed in the side wall, wherein the grooves (7, 8) comprise first grooves for stiffening the side wall, which first grooves have a first groove depth and are configured such that a projection protruding into the enclosed container volume is formed in the inner surface of the side wall, wherein the grooves (7, 8) moreover comprise second grooves which have a second groove depth, wherein the first groove depth is greater than the second groove depth, and wherein the first and second grooves (7, 8) are arranged such that at least one second groove is in each case arranged in the vertical direction between two first grooves, characterized in that the side wall and the horizontally oriented grooves (7, 8) of the side wall are designed, in terms of material and thickness, such that the side wall and the horizontally oriented grooves (7, 8) are not deformed at a negative pressure in the enclosed container volume, even when the negative pressure causes a pressure of 1013.25 hPa (1 atm) to act on the side wall and the horizontally oriented grooves (7, 8), and the subvolumes enclosed by two horizontal planes (9, 10), which are defined by two adjacent grooves (7, 8), and the side wall are in each case identical.
A compound of the formula: or a pharmaceutically acceptable salt thereof, wherein Y 2 is selected from N and C-R y2; Z 2 is selected from N and C-R z2; Z 4 is selected from N and C-R z4; R † is independently selected from hydrogen and C 1-6 aliphatic optionally substituted with -OR, - C N 2, or -C OR; R y1, R y2, R z2, R z1 and R z4 are independently selected from hydrogen, halogen, -CN, -OR, - C OR, and C 1-6 aliphatic optionally substituted with halogen, -CN, -OR, -N 2, -C OR, or -C N 2; and each R is independently selected from hydrogen and C 1-6 aliphatic, or two instances of R, together with the atom to which they are attached, form a 3- to 6-membered saturated or partially unsaturated heterocyclic ring, for use in the treatment or prevention of axonal degeneration. or a pharmaceutically acceptable salt thereof, wherein Y 2 is selected from N and C-R y2; Z 2 is selected from N and C-R z2; Z 4 is selected from N and C-R z4; R † is independently selected from hydrogen and C 1-6 aliphatic optionally substituted with -OR, - C N 2, or -C OR; R y1, R y2, R z2, R z1 and R z4 are independently selected from hydrogen, halogen, -CN, -OR, - C OR, and C 1-6 aliphatic optionally substituted with halogen, -CN, -OR, -N 2, -C OR, or -C N 2; and each R is independently selected from hydrogen and C 1-6 aliphatic, or two instances of R, together with the atom to which they are attached, form a 3- to 6-membered saturated or partially unsaturated heterocyclic ring, for use in the treatment or prevention of axonal degeneration.
Grating, in particular for use as shelves for pallet racks or heavy-duty racks, having two longitudinal sides (2a, 2b) and cross members (3a, 3b, 3c, 3d, 3e, 3f, 3g, 3h, 3i, 3j) arranged between the longitudinal sides (2a, 2b), wherein the longitudinal sides (2a, 2b) have a cross section in the shape of a profile (Z1-Z3; L1, L2), wherein the profile comprises at least a first leg (Z1; L1) and a second leg (Z3; L2), which is substantially orthogonal to said first leg (Z1; L1), wherein at least two of the cross members have a cross section in the shape of a U or V profile, the open end of which is oriented towards the underside of the grating, wherein each of these cross members has at least two punched recesses (4a, 4b) at each end (E1, E2), in each of which the first leg (Z1; L1) of the profile (Z1-Z3; L1: L2) is arranged and firmly connected to by means of a connection method, characterized in that the first leg (Z1; L1) of the profile (Z1-Z3; L1; L2) is inserted or pressed into each of the punched recesses, thereby vertical fixation of the profile with the cross member is achieved, and that the first leg (Z1; L1) of the profile (Z1-Z3; L1; L2) has at least one deformation (V1; V2), which is configured as an impression, thereby horizontal fixation of the plug-in or press-fit connection of the cross member with the profile is achieved.
Machine tool for machining a workpiece, with - a machine table for clamping the workpiece, - a working spindle for receiving a tool for machining the workpiece, - a work space substantially delimited by the machine table and by at least a first covering, and - a tool changer which is arranged outside the work space and which is configured for changing the tool received in the working spindle, wherein the machine tool is further configured such that during a tool change - the first covering is moved, thereby extending the work space of the machine tool by a tool change area and exposing an access area, and - the working spindle is positioned in the tool change area in such a way that the tool changer can change the tool received in the working spindle within the tool change area, characterized in that the tool changer can be moved through the access area into the tool change area. - a machine table for clamping the workpiece, - a working spindle for receiving a tool for machining the workpiece, - a work space substantially delimited by the machine table and by at least a first covering, and - a tool changer which is arranged outside the work space and which is configured for changing the tool received in the working spindle, wherein the machine tool is further configured such that during a tool change - the first covering is moved, thereby extending the work space of the machine tool by a tool change area and exposing an access area, and - the working spindle is positioned in the tool change area in such a way that the tool changer can change the tool received in the working spindle within the tool change area, - the first covering is moved, thereby extending the work space of the machine tool by a tool change area and exposing an access area, and - the working spindle is positioned in the tool change area in such a way that the tool changer can change the tool received in the working spindle within the tool change area,
A sensor array for detecting androstenone and skatole in a live animal, a sample from the live animal, an animal carcass, a sample from the animal carcass, a meat product or a sample from the meat product, the sensor array comprising: (a) a sensor for androstenone comprising NADH or NADPH; an enzyme that metabolises androstenone in the presence of NADH or NADPH; and means for detecting a change in the concentration of NADH or NADPH, the means comprising at least one electrode or an optical device; and (b) a sensor for detecting skatole comprising at least one electrode; characterised in that the sensor array is situated in or on a probe that can be contacted with the live animal, a sample from the live animal, the animal carcass, a sample from the animal carcass, the meat product or a sample from the meat product; and the sensor array allows for simultaneous or parallel detection of both skatole and androstenone levels by detecting a change in the level of NADH or NADPH caused by metabolism of the androstenone using the at least one electrode or the optical device of sensor (a) and detecting skatole using the electrode of the sensor (b). (a) a sensor for androstenone comprising NADH or NADPH; an enzyme that metabolises androstenone in the presence of NADH or NADPH; and means for detecting a change in the concentration of NADH or NADPH, the means comprising at least one electrode or an optical device; and (b) a sensor for detecting skatole comprising at least one electrode;
Method for producing a radiation-emitting organic electronic device having a first and a second electrode layer and an emitter layer, comprising the following steps: A) providing a phosphorescent emitter having an anisotropic molecular structure and a matrix material, B) applying the first electrode layer to a substrate, C) applying the emitter layer under thermodynamic control, wherein the phosphorescent emitter and the matrix material are evaporated in vacuum and deposited on the first electrode layer, so that an anisotropic alignment of the molecules of the phosphorescent emitter takes place, and wherein the thermodynamic control takes place by bringing the deposited emitter layer to a temperature between 30 °C and 100 °C, which is elevated with respect to room temperature, after and/or during the deposition step and before depositing a further layer, or by maintaining it at such a temperature D) applying the second electrode layer to the emitter layer. A) providing a phosphorescent emitter having an anisotropic molecular structure and a matrix material, B) applying the first electrode layer to a substrate, C) applying the emitter layer under thermodynamic control, wherein the phosphorescent emitter and the matrix material are evaporated in vacuum and deposited on the first electrode layer, so that an anisotropic alignment of the molecules of the phosphorescent emitter takes place, and wherein the thermodynamic control takes place by bringing the deposited emitter layer to a temperature between 30 °C and 100 °C, which is elevated with respect to room temperature, after and/or during the deposition step and before depositing a further layer, or by maintaining it at such a temperature D) applying the second electrode layer to the emitter layer.