mhurhangee/ep-ind-claims huggingface dataset:
Imaging optics (16; 31; 37) for lithographic projection exposure for guiding a bundle of imaging light with a wavelength shorter than 193 nm by means of a plurality of mirrors (M1 to M6) for beam-splitter-free imaging of a reflective object in an object field in an object plane into an image field in an image plane, an object field point having a chief ray angle (α) which is smaller than 3°, with at least one of the mirrors (M1 to M6) being designed as a near-field mirror characterized in that the first mirror being part of a first obscured mirror group (M1, M2) with a through-opening for coupling in illumination light.
Method for exhaust gas examination with Diesel engines during rapid load changes, comprising the determination of the turbidity and/or absorption, wherein the relative change in the exhaust gas flow is monitored, characterised in that the exhaust gas is conducted over a heated temperature sensor, and the temperature change of which is drawn on as a measure for the relative change in the exhaust gas throughflow in order to determine the rapid load changes.
A patch comprising a backing layer and an adhesive agent layer, wherein the adhesive agent layer is non-aqueous, the adhesive agent layer contains nonylic acid vanillylamide and aluminum hydroxide, a content of nonylic acid vanillylamide in the adhesive agent layer is 0.01 to 0.025% by mass based on a total mass of the adhesive agent layer, a content of aluminum hydroxide in the adhesive agent layer is 0.55 to 1.5% by mass based on the total mass of the adhesive agent layer, and a mass ratio of the content of nonylic acid vanillylamide to the content of aluminum hydroxide ((content of nonylic acid vanillylamide): (content of aluminum hydroxide)) in the adhesive agent layer is 1:27 to 1:150. the adhesive agent layer is non-aqueous, the adhesive agent layer contains nonylic acid vanillylamide and aluminum hydroxide, a content of nonylic acid vanillylamide in the adhesive agent layer is 0.01 to 0.025% by mass based on a total mass of the adhesive agent layer, a content of aluminum hydroxide in the adhesive agent layer is 0.55 to 1.5% by mass based on the total mass of the adhesive agent layer, and a mass ratio of the content of nonylic acid vanillylamide to the content of aluminum hydroxide ((content of nonylic acid vanillylamide): (content of aluminum hydroxide)) in the adhesive agent layer is 1:27 to 1:150.
A composition for use in prevention and treatment of a metabolic disease selected from a group consisting of obesity, hyperlipidemia and hypercholesterolemia, comprising a panduratin derivative represented by Chemical Formula 1, 2 or 3 or salts thereof as an active ingredient.
A computer-implemented method comprising: obtaining a mesh model of at least a portion of a three dimensional model of a part to be manufactured using a computer-controlled manufacturing system; collecting vertex points from the mesh model to be an initial set of probing points in a three dimensional space of a working coordinate system of the computer-controlled manufacturing system; filtering out points from the initial set of probing points based on a spread of the probing points in the initial set across a surface of the mesh model of the at least a portion of the three dimensional model of the part, the filtering to produce a final set of probing points in the three dimensional space of the working coordinate system of the computer-controlled manufacturing system; and providing the final set of probing points for use in alignment or surface inspection of the part by the computer-controlled manufacturing system. obtaining a mesh model of at least a portion of a three dimensional model of a part to be manufactured using a computer-controlled manufacturing system; collecting vertex points from the mesh model to be an initial set of probing points in a three dimensional space of a working coordinate system of the computer-controlled manufacturing system; filtering out points from the initial set of probing points based on a spread of the probing points in the initial set across a surface of the mesh model of the at least a portion of the three dimensional model of the part, the filtering to produce a final set of probing points in the three dimensional space of the working coordinate system of the computer-controlled manufacturing system; and providing the final set of probing points for use in alignment or surface inspection of the part by the computer-controlled manufacturing system.
An inter-layer prediction method comprising: receiving information indicating a prediction mode of a current block, wherein the prediction mode is a merge mode; receiving index information indicating a candidate from a merge candidate list; deriving inter-layer motion information from a reference layer; and constructing the merge candidate list, wherein the merge candidate list includes spatial candidates representing motion information of neighboring blocks (A 0, A 1, B 0, B 1, B2) of the current block and an inter-layer candidate representing the inter-layer motion information; and when the candidate indicated by the index information is the inter-layer candidate, predicting the current block in a current layer using the inter-layer motion information represented by the inter-layer candidate selected from the merge candidate list based on the index information, wherein the inter-layer motion information includes an inter-layer motion vector derived from the reference layer, and wherein the inter-layer motion vector is derived by scaling a motion vector of the reference layer on the basis of a resolution ratio of the reference layer and the current layer. receiving information indicating a prediction mode of a current block, wherein the prediction mode is a merge mode; receiving index information indicating a candidate from a merge candidate list; deriving inter-layer motion information from a reference layer; and constructing the merge candidate list, wherein the merge candidate list includes spatial candidates representing motion information of neighboring blocks (A 0, A 1, B 0, B 1, B2) of the current block and an inter-layer candidate representing the inter-layer motion information; and when the candidate indicated by the index information is the inter-layer candidate, predicting the current block in a current layer using the inter-layer motion information represented by the inter-layer candidate selected from the merge candidate list based on the index information, wherein the inter-layer motion information includes an inter-layer motion vector derived from the reference layer, and wherein the inter-layer motion vector is derived by scaling a motion vector of the reference layer on the basis of a resolution ratio of the reference layer and the current layer.
A lead-acid battery comprising: a positive electrode plate; a negative electrode plate; a separator interposed between the positive electrode plate and the negative electrode plate; and an electrolyte solution, wherein the separator includes a rib on at least the negative electrode plate side, the negative electrode plate includes a negative electrode material, the negative electrode material contains carbon particles, the carbon particles include first carbon particles having a particle size of less than 32 μm, wherein the first carbon particles are particles passing through a sieve having a nominal opening of 32 μm, as specified in JIS Z 8801-1: 2006, when wet sieving carbon particles in accordance with JIS Z8815: 1994, the first carbon particles include second carbon particles having a particle size smaller than an average pore size d2 of the separator, wherein the average pore size d2 of the separator is obtained by mercury porosimetry, and a content of the first carbon particles in the negative electrode material is 0.2% by mass or more and 2% by mass or less. a positive electrode plate; a negative electrode plate; a separator interposed between the positive electrode plate and the negative electrode plate; and an electrolyte solution, wherein the separator includes a rib on at least the negative electrode plate side, the negative electrode plate includes a negative electrode material, the negative electrode material contains carbon particles, the carbon particles include first carbon particles having a particle size of less than 32 μm, wherein the first carbon particles are particles passing through a sieve having a nominal opening of 32 μm, as specified in JIS Z 8801-1: 2006, when wet sieving carbon particles in accordance with JIS Z8815: 1994, the first carbon particles include second carbon particles having a particle size smaller than an average pore size d2 of the separator, wherein the average pore size d2 of the separator is obtained by mercury porosimetry, and a content of the first carbon particles in the negative electrode material is 0.2% by mass or more and 2% by mass or less.
An apparatus (1700, 2700, 3700, 4700), comprising: - a housing (1741, 2741, 3741, 4741) configured to be removably coupled to a reaction chamber (1732, 2732, 3742, 4742), the housing defining a reagent volume (1742, 2742, 3742, 4742) configured to receive a reagent container (1780, 2780, 3780, 4780), the housing including a puncturer (1792, 2792, 3792, 4792) defining a transfer pathway (1793, 4793) in fluid communication with the reagent volume, the housing including a delivery portion (1770, 2770, 3770, 4770) defining a delivery pathway (1771, 2771, 3771, 4771) between the transfer pathway and the reaction chamber when the housing is coupled to the reaction chamber; and - an actuator (1750, 2750, 3750, 4750) having a plunger portion (1754, 2754, 3754, 4754) disposed within the reagent volume, an engagement portion (1752, 2752, 3752, 4752) of the actuator configured to be manipulated to move the plunger portion within the reagent volume to deform the reagent container, the puncturer configured to pierce a frangible portion (1788, 2788, 3788, 4788) of the reagent container to convey a reagent from the reagent container into the reaction chamber via the transfer pathway and the delivery pathway, characterized in that - the puncturer and the housing are monolithically constructed. - a housing (1741, 2741, 3741, 4741) configured to be removably coupled to a reaction chamber (1732, 2732, 3742, 4742), the housing defining a reagent volume (1742, 2742, 3742, 4742) configured to receive a reagent container (1780, 2780, 3780, 4780), the housing including a puncturer (1792, 2792, 3792, 4792) defining a transfer pathway (1793, 4793) in fluid communication with the reagent volume, the housing including a delivery portion (1770, 2770, 3770, 4770) defining a delivery pathway (1771, 2771, 3771, 4771) between the transfer pathway and the reaction chamber when the housing is coupled to the reaction chamber; and - an actuator (1750, 2750, 3750, 4750) having a plunger portion (1754, 2754, 3754, 4754) disposed within the reagent volume, an engagement portion (1752, 2752, 3752, 4752) of the actuator configured to be manipulated to move the plunger portion within the reagent volume to deform the reagent container, the puncturer configured to pierce a frangible portion (1788, 2788, 3788, 4788) of the reagent container to convey a reagent from the reagent container into the reaction chamber via the transfer pathway and the delivery pathway, - the puncturer and the housing are monolithically constructed.
A method by a server for establishing a wireless communication relationship between a first device and a second device using at least a portion of licensed radio spectrum, the method comprising: a) receiving a first validation request from the first device; b) transmitting a first validation response (220, 220a) to one of the first and second devices if the first device holds a valid subscription to the portion of licensed radio spectrum; c) receiving a second validation request from the second device; and d) transmitting a second validation response (235, 235a) to the other of the first and second devices if the second device holds a valid subscription to the portion of licensed radio spectrum; and e) levying charges against accounts associated with the first and second devices upon receipt of the first and second validation requests, respectively; wherein the first and second validation responses (220, 220a, 235, 235a) enable each of the first and second devices to exchange proof of validation messages (240, 242) before entering into the wireless communication relationship using the portion of licensed radio spectrum. a) receiving a first validation request from the first device; b) transmitting a first validation response (220, 220a) to one of the first and second devices if the first device holds a valid subscription to the portion of licensed radio spectrum; c) receiving a second validation request from the second device; and d) transmitting a second validation response (235, 235a) to the other of the first and second devices if the second device holds a valid subscription to the portion of licensed radio spectrum; and e) levying charges against accounts associated with the first and second devices upon receipt of the first and second validation requests, respectively;
System comprising a submarine, a console, at least three fixing bolts and a transport container, wherein the console can be connected to the submarine, wherein the transport container can be connected to the console, wherein the console can be connected to the submarine via at least three fixing bolts, wherein the submarine has at least three bushes for receiving the fixing bolts, wherein the fixing bolts have a double eccentric, wherein the double eccentric enables a translational movement of the fixing bolt parallel to the surface of the submarine.
A hierarchical network registration method, wherein the method is applied to a hierarchical network formed by a terrestrial network and at least one layer of an air network, and the method comprises: obtaining, by a radio network node, a registration result of an air network node, wherein the radio network node is located in the terrestrial network; the air network node is located in the air network, and covers the radio network node; and the registration result comprises attribute information and beam information of the air network node; and broadcasting, by the radio network node, the registration result to a mobile user covered by the radio network node; wherein the obtaining, by a radio network node, a registration result of an air network node comprises: initiating, by the radio network node, a registration request to the air network node; and receiving, by the radio network node, a registration response message from the air network node, to obtain the registration result. obtaining, by a radio network node, a registration result of an air network node, wherein the radio network node is located in the terrestrial network; the air network node is located in the air network, and covers the radio network node; and the registration result comprises attribute information and beam information of the air network node; and broadcasting, by the radio network node, the registration result to a mobile user covered by the radio network node; wherein the obtaining, by a radio network node, a registration result of an air network node comprises: initiating, by the radio network node, a registration request to the air network node; and receiving, by the radio network node, a registration response message from the air network node, to obtain the registration result. initiating, by the radio network node, a registration request to the air network node; and receiving, by the radio network node, a registration response message from the air network node, to obtain the registration result.
A method for measuring a high accuracy height map of a test surface using a multi sensor optical profiler, wherein the multi sensor optical profiler comprises a pre-map sensor and a high resolution sensor, wherein the high resolution sensor has a higher height resolution than the pre-map sensor, and wherein the pre-map sensor has a relatively long working distance and/or large field of view, the method comprising: measuring a distance between the test surface and the pre-map sensor with the pre-map sensor to obtain a coarse height map of the test surface; storing the coarse height map in a memory; and measuring a distance between the test surface and the high resolution sensor with the high resolution sensor to obtain a high accuracy height map of the test surface, characterized in that the method further comprises: subdividing the coarse height map into sections as appropriate for the field of view (43, 45, 47) of the high resolution sensor, wherein the sections have X, Y and Z positions of the coarse height map; calculating the corresponding X, Y and Z positions for the high resolution sensor with respect to the test surface, such that a focal range of the high resolution sensor is at the X, Y and Z positions of the coarse height map; calculating a trajectory in the X, Y and Z-directions for the high resolution sensor with respect to the test surface using the calculated X, Y and Z-positions; moving the high resolution sensor in the calculated X, Y and Z-directions with respect to the test surface according to the trajectory; and measuring the high accuracy height map with the high resolution sensor by scanning the test surface through the focal range of the high resolution sensor. measuring a distance between the test surface and the pre-map sensor with the pre-map sensor to obtain a coarse height map of the test surface; storing the coarse height map in a memory; and measuring a distance between the test surface and the high resolution sensor with the high resolution sensor to obtain a high accuracy height map of the test surface, subdividing the coarse height map into sections as appropriate for the field of view (43, 45, 47) of the high resolution sensor, wherein the sections have X, Y and Z positions of the coarse height map; calculating the corresponding X, Y and Z positions for the high resolution sensor with respect to the test surface, such that a focal range of the high resolution sensor is at the X, Y and Z positions of the coarse height map; calculating a trajectory in the X, Y and Z-directions for the high resolution sensor with respect to the test surface using the calculated X, Y and Z-positions; moving the high resolution sensor in the calculated X, Y and Z-directions with respect to the test surface according to the trajectory; and measuring the high accuracy height map with the high resolution sensor by scanning the test surface through the focal range of the high resolution sensor.
A device for detecting substances present in biological or chemical samples, which, given reactions taking place in parallel with at least one reagent, generate a spectrum or signal that is optically detectable and distinguishable for the respective substance, having: - a sample carrier, containing at least one container, for receiving samples, characterized in that - at least a part of the container is designed for receiving at least two respective reagents, - a camera which is designed to monitor the volume of the samples in a first step, and which is designed to detect, in one step, the spectra or signals obtained by the reactions with the respective substance, in at least one container occupied by at least two reagents, said detection occurring in a second step, and - an evaluation device which evaluates the samples by analyzing the spectra or signals of at least one container occupied by at least two reagents, wherein, to monitor the volume of the samples, the camera is rotated or pivoted away from the container or containers by substantially 90 degrees in the direction of a boundary line between the sample to be arranged in the container or containers and a first fluid, said first fluid being arranged in a pipette, or in the direction of a first segment of a first pipette and a second segment of a second pipette, which are imaged together in an image recorded by the camera. - a sample carrier, containing at least one container, for receiving samples, characterized in that - at least a part of the container is designed for receiving at least two respective reagents, - a camera which is designed to monitor the volume of the samples in a first step, and which is designed to detect, in one step, the spectra or signals obtained by the reactions with the respective substance, in at least one container occupied by at least two reagents, said detection occurring in a second step, and - an evaluation device which evaluates the samples by analyzing the spectra or signals of at least one container occupied by at least two reagents,
A gas turbine engine comprising: first and second shaft members (40, 70), wherein the first and second shaft members (40, 70) respectively include first and second flanges (84, 86), and the first flange includes a first thread configured to cooperate with a tool during disassembly of the first and second shaft members (40, 70); characterised in that: the first and second shaft members (40, 70) are in an interference fit relationship with one another at an interface, the first and second flanges (84, 86) are arranged adjacent to the interface and the second flange includes a second thread configured to cooperate with a tool during disassembly of the first and second shaft members (40, 70). first and second shaft members (40, 70), wherein the first and second shaft members (40, 70) respectively include first and second flanges (84, 86), and the first flange includes a first thread configured to cooperate with a tool during disassembly of the first and second shaft members (40, 70); characterised in that: the first and second shaft members (40, 70) are in an interference fit relationship with one another at an interface, the first and second flanges (84, 86) are arranged adjacent to the interface and the second flange includes a second thread configured to cooperate with a tool during disassembly of the first and second shaft members (40, 70).
Slaughtering device for small animals with several different stations, wherein the slaughtering device has a stationary support and a rotatingly mounted, carrousel-like frame as well as several suspension elements for suspending the animal to be slaughtered at the frame, wherein a direct suspension of the animals at the frame is provided at a hanging station, and the animals are conveyed from station to station by means of a rotating movement of the frame relatively to the stationary part of the slaughtering device, and a stunning station is provided with a basin that can be adjusted in vertical direction and forms, along with a suspension element and a power source, a power circuit for stunning the animal to be slaughtered, wherein the electricity in this stunning circuit flows when a suitable vertical position of the basin has been reached where the head of the animal to be slaughtered is immersed in the water in the basin, characterized in that a guide is provided for the vertical movement of the basin, the movement of the basin not being coupled with other movements, and before the stunning process the basin is movable in vertical direction as long as the head of the suspended animal is immersed in the liquid.