mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication, comprising: receiving, by a first wireless communication device from a second wireless communication device, a transmission configuration indicating a first beam resource and a second, different beam resource allocated to the first wireless communication device by the second wireless communication device, the first beam resource including a first beam direction, and the second beam resource including a second, different beam direction; configuring, by the first wireless communication device, a first transmission time interval based on a time resource of the allocated first beam resource; configuring, by the first wireless communication device, a second transmission time interval to at least partially overlap with the first transmission time interval based on a time resource of the allocated second beam resource, the first transmission time interval and the second transmission time interval each including one or more symbols; transmitting, by the first wireless communication device to the second wireless communication device, a first uplink control signal based on the allocated first beam resource using the first beam direction during the first transmission time interval; and transmitting, by the first wireless communication device, a second uplink control signal based on the allocated second beam resource using the second beam direction during the second transmission time interval, with the same encoded control information represented in the first uplink control signal. receiving, by a first wireless communication device from a second wireless communication device, a transmission configuration indicating a first beam resource and a second, different beam resource allocated to the first wireless communication device by the second wireless communication device, the first beam resource including a first beam direction, and the second beam resource including a second, different beam direction; configuring, by the first wireless communication device, a first transmission time interval based on a time resource of the allocated first beam resource; configuring, by the first wireless communication device, a second transmission time interval to at least partially overlap with the first transmission time interval based on a time resource of the allocated second beam resource, the first transmission time interval and the second transmission time interval each including one or more symbols; transmitting, by the first wireless communication device to the second wireless communication device, a first uplink control signal based on the allocated first beam resource using the first beam direction during the first transmission time interval; and transmitting, by the first wireless communication device, a second uplink control signal based on the allocated second beam resource using the second beam direction during the second transmission time interval, with the same encoded control information represented in the first uplink control signal.
A method of conjugating a water soluble polymer to an oxidized carbohydrate moiety of a therapeutic protein comprising contacting the oxidized carbohydrate moiety with an activated water soluble polymer under conditions that allow conjugation; said water soluble polymer containing an active aminooxy group and is selected from the group consisting of polyethylene glycol, branched PEG, PolyPEG® (Warwick Effect Polymers; Coventry, UK), polysialic acid, polysaccharides, pullulan, chitosan, hyaluronic acid, chondroitin sulfate, dermatan sulfate, dextran, carboxymethyl-dextran, polyalkylene oxide, polyalkylene glycol, polypropylene glycol, polyoxazoline, polyacryloylmorpholine, polyvinyl alcohol, polycarboxylate, polyvinylpyrrolidone, polyphosphazene, polyoxazoline, polyethylene-co-maleic acid anhydride, polystyrene-co-maleic acid anhydride, and po|y(1-hydroxymethylethylene hydroxymethylformal); and said carbohydrate moiety oxidized by incubation with a buffer comprising an oxidizing agent selected from the group consisting of sodium periodate (NaIO 4), lead tetraacetate (Pb(OAc) 4) and potassium perruthenate (KRuO 4); wherein an oxime linkage is formed between the oxidized carbohydrate moiety and the active aminooxy group on the water soluble polymer; and wherein said oxime linkage formation is catalyzed by the nucleophilic catalyst m-toluidine.
A computer implemented method of determining the position and orientation, relative to a vehicle reference frame, of one or more cameras (101, 102, 103, 104) in a camera imaging system located within a vehicle, the method including: a) receiving, from a depth imaging device, data indicative of a three dimensional image of a scene including the one or more cameras (101, 102, 103, 104) located in the scene, the scene including an interior of a cabin or a cockpit of the vehicle; b) calibrating the three dimensional image with the vehicle reference frame relative to the scene, the reference frame including a reference position and a reference orientation relative to the vehicle in the vehicle frame of reference; c) determining a three dimensional position of each of the one or more cameras (101, 102, 103, 104) within the three dimensional image in the vehicle reference frame by determination of the geometric appearance of the one or more cameras in the three dimensional image; d) determining an orientation of each of the one or more cameras (101, 102, 103, 104) in at least one dimension in the vehicle reference frame; and e) combining the position and orientation of each of the one or more cameras (101, 102, 103, 104) to determine a camera pose for each of the one or more cameras in the vehicle reference frame. a) receiving, from a depth imaging device, data indicative of a three dimensional image of a scene including the one or more cameras (101, 102, 103, 104) located in the scene, the scene including an interior of a cabin or a cockpit of the vehicle; b) calibrating the three dimensional image with the vehicle reference frame relative to the scene, the reference frame including a reference position and a reference orientation relative to the vehicle in the vehicle frame of reference; c) determining a three dimensional position of each of the one or more cameras (101, 102, 103, 104) within the three dimensional image in the vehicle reference frame by determination of the geometric appearance of the one or more cameras in the three dimensional image; d) determining an orientation of each of the one or more cameras (101, 102, 103, 104) in at least one dimension in the vehicle reference frame; and e) combining the position and orientation of each of the one or more cameras (101, 102, 103, 104) to determine a camera pose for each of the one or more cameras in the vehicle reference frame.
A valve for use in a vapour compression system, the valve comprising: - a first inlet arranged to be connected to a gaseous outlet of a receiver, - a second inlet arranged to be connected to an outlet of an evaporator, - a first outlet arranged to be connected to an inlet of a compressor unit, - a non-return valve arrangement arranged to allow a fluid flow from the second inlet towards the first outlet, but to prevent a fluid flow from the first outlet towards the second inlet, and - a control valve mechanism arranged to control a fluid flow from the first inlet towards the first outlet, characterized in that the control valve mechanism comprises a movable valve element being arranged movably with respect to an opening interconnecting the first inlet and the first outlet, the position of the movable valve element relative to the opening determining an opening degree of the opening, and thereby a fluid flow from the first inlet towards the first outlet, and in that the valve element is configured to move in a passive manner in response to a pressure difference between a pressure prevailing at the first inlet and a pressure prevailing at the second inlet. - a first inlet arranged to be connected to a gaseous outlet of a receiver, - a second inlet arranged to be connected to an outlet of an evaporator, - a first outlet arranged to be connected to an inlet of a compressor unit, - a non-return valve arrangement arranged to allow a fluid flow from the second inlet towards the first outlet, but to prevent a fluid flow from the first outlet towards the second inlet, and - a control valve mechanism arranged to control a fluid flow from the first inlet towards the first outlet, characterized in that the control valve mechanism comprises a movable valve element being arranged movably with respect to an opening interconnecting the first inlet and the first outlet, the position of the movable valve element relative to the opening determining an opening degree of the opening, and thereby a fluid flow from the first inlet towards the first outlet, and in that the valve element is configured to move in a passive manner in response to a pressure difference between a pressure prevailing at the first inlet and a pressure prevailing at the second inlet.
A bogie, comprising a frame and a swing bolster, and further comprising: a pin shaft, wherein the pin shaft is provided on the frame and the swing bolster in a penetration manner, such that the swing bolster is rotationally provided with respect to the frame; wherein the swing bolster comprises a swing bolster main body; a bottom end of the swing bolster main body can be used for connecting to a vehicle body; the pin shaft is provided on a top end of the swing bolster main body in a penetration manner, so as to connect the frame and the swing bolster, characterised in that two oppositely arranged clamping parts are provided at a top end of the swing bolster main body, the frame is provided with a mounting part, the mounting part is clamped between the two clamping parts, and the pin shaft is provided on the two clamping parts and the mounting part in a penetration manner; whereby the bogie also comprises: an antithrust gasket, wherein the antithrust gasket is positioned in a gap between the mounting part and each of the two clamping parts, and the antithrust gasket is provided around the pin shaft; a first sealing ring, wherein at least a part of the first sealing ring is positioned in the gap between the mounting part and the each of the two clamping parts, and the first sealing ring is provided around the antithrust gasket. a pin shaft, wherein the pin shaft is provided on the frame and the swing bolster in a penetration manner, such that the swing bolster is rotationally provided with respect to the frame; wherein the swing bolster comprises a swing bolster main body; a bottom end of the swing bolster main body can be used for connecting to a vehicle body; the pin shaft is provided on a top end of the swing bolster main body in a penetration manner, so as to connect the frame and the swing bolster, characterised in that two oppositely arranged clamping parts are provided at a top end of the swing bolster main body, the frame is provided with a mounting part, the mounting part is clamped between the two clamping parts, and the pin shaft is provided on the two clamping parts and the mounting part in a penetration manner; whereby the bogie also comprises: an antithrust gasket, wherein the antithrust gasket is positioned in a gap between the mounting part and each of the two clamping parts, and the antithrust gasket is provided around the pin shaft; a first sealing ring, wherein at least a part of the first sealing ring is positioned in the gap between the mounting part and the each of the two clamping parts, and the first sealing ring is provided around the antithrust gasket. an antithrust gasket, wherein the antithrust gasket is positioned in a gap between the mounting part and each of the two clamping parts, and the antithrust gasket is provided around the pin shaft; a first sealing ring, wherein at least a part of the first sealing ring is positioned in the gap between the mounting part and the each of the two clamping parts, and the first sealing ring is provided around the antithrust gasket.
A method of inspecting containers comprising the steps of: - Providing unfilled containers; - Introduction of a powdery substance into an interior of the containers; - Inspection and in particular optical inspection of the container by an inspection device, wherein the inspection device inspects a wall of the containers to determine whether powdery substance is adhering to these walls. - Providing unfilled containers; - Introduction of a powdery substance into an interior of the containers; - Inspection and in particular optical inspection of the container by an inspection device, wherein
A manufacturing method for an integrated impeller having a first shroud forming a bottom portion thereof, a second shroud forming a lid portion thereof, a hub formed at a center of the first shroud, and blades that section flow paths which are formed between the first shroud and the second shroud and through which fluid flows, the method comprising the steps of: forming a flow path on an inner circumferential side of the impeller; and forming a flow path on an outer circumferential side of the impeller, wherein the step of forming a flow path on an inner circumferential side of the impeller includes the step of: forming a recessed part in the hub at a portion corresponding to the entrance of the flow path of the hub; and inserting a curved electrode whose shape conforms with the shape of the flow path and finishing the flow path on the inner circumferential side by electric discharge machining, and wherein the step of forming the flow path on the outer circumferential side of the impeller includes the steps of: while rotating a linear electrode having a tip-end part and a base-end part about a longitudinal direction axis thereof, applying electric discharge machining to the first shroud; applying electric discharge machining to the second shroud; and applying electric discharge machining to the blade. forming a flow path on an inner circumferential side of the impeller; and forming a flow path on an outer circumferential side of the impeller, wherein the step of forming a flow path on an inner circumferential side of the impeller includes the step of: forming a recessed part in the hub at a portion corresponding to the entrance of the flow path of the hub; and inserting a curved electrode whose shape conforms with the shape of the flow path and finishing the flow path on the inner circumferential side by electric discharge machining, and wherein the step of forming the flow path on the outer circumferential side of the impeller includes the steps of: while rotating a linear electrode having a tip-end part and a base-end part about a longitudinal direction axis thereof, applying electric discharge machining to the first shroud; applying electric discharge machining to the second shroud; and applying electric discharge machining to the blade. forming a recessed part in the hub at a portion corresponding to the entrance of the flow path of the hub; and inserting a curved electrode whose shape conforms with the shape of the flow path and finishing the flow path on the inner circumferential side by electric discharge machining, and wherein the step of forming the flow path on the outer circumferential side of the impeller includes the steps of: while rotating a linear electrode having a tip-end part and a base-end part about a longitudinal direction axis thereof, applying electric discharge machining to the first shroud; applying electric discharge machining to the second shroud; and applying electric discharge machining to the blade.
A speaker system comprising: an acoustic assembly comprising: an acoustic enclosure; and an electro-acoustic transducer coupled to the acoustic enclosure; and a deflector assembly comprising: an acoustic deflector that defines at least a portion of an electronics compartment; and electronics, for powering the electro-acoustic transducer, mounted within the electronics compartment, wherein the deflector assembly is configured to provide convective cooling of the electronics via a stack effect air flow through the electronics compartment, wherein the acoustic deflector comprises an acoustically reflective body having a substantially conical outer surface that is configured to be disposed adjacent an acoustically radiating surface of the electro-acoustic transducer, wherein the acoustically reflective body has a truncated conical shape comprising a top surface that is configured to be centered with respect to a motion axis of the electro-acoustic transducer, characterised in that the substantially reflective body has an opening in the top surface that extends into the electronics compartment enabling air heated by the electronics to be exhausted out of electronics compartment. an acoustic assembly comprising: an acoustic enclosure; and an electro-acoustic transducer coupled to the acoustic enclosure; and an acoustic enclosure; and an electro-acoustic transducer coupled to the acoustic enclosure; and a deflector assembly comprising: an acoustic deflector that defines at least a portion of an electronics compartment; and electronics, for powering the electro-acoustic transducer, mounted within the electronics compartment, an acoustic deflector that defines at least a portion of an electronics compartment; and electronics, for powering the electro-acoustic transducer, mounted within the electronics compartment, wherein the deflector assembly is configured to provide convective cooling of the electronics via a stack effect air flow through the electronics compartment, wherein the acoustic deflector comprises an acoustically reflective body having a substantially conical outer surface that is configured to be disposed adjacent an acoustically radiating surface of the electro-acoustic transducer, wherein the acoustically reflective body has a truncated conical shape comprising a top surface that is configured to be centered with respect to a motion axis of the electro-acoustic transducer, characterised in that the substantially reflective body has an opening in the top surface that extends into the electronics compartment enabling air heated by the electronics to be exhausted out of electronics compartment.
Metallic steel material including at least iron, carbon, chromium, molybdenum and vanadium, wherein the material has a bainitic microstructure, and wherein carbidic phases that are at least partly formed by molybdenum, vanadium and/or chromium in the form of carbide have also been provided, wherein the carbidic phases at least partly have a diameter within a range of not more than 200 mm, wherein the material includes: - carbon in a content of not less than 0.25% by weight to not more than 0.4% by weight; - chromium in a content of not less than 0.3% by weight to not more than 0.6% by weight; - molybdenum in a content of not less than 1.5% by weight to not more than 3.2% by weight; - vanadium in a content of not less than 0.2% by weight to not more than 0.6% by weight; - silicon in a content of not less than 0% by weight to not more than 0.35% by weight; and - manganese in a content of not less than 0% by weight to not more than 0.35% by weight, wherein the aforementioned constituents together are present in a content of less than 100% by weight, and wherein the further constituents are divided between iron, with or without phosphorus and with or without nitrogen. - carbon in a content of not less than 0.25% by weight to not more than 0.4% by weight; - chromium in a content of not less than 0.3% by weight to not more than 0.6% by weight; - molybdenum in a content of not less than 1.5% by weight to not more than 3.2% by weight; - vanadium in a content of not less than 0.2% by weight to not more than 0.6% by weight; - silicon in a content of not less than 0% by weight to not more than 0.35% by weight; and - manganese in a content of not less than 0% by weight to not more than 0.35% by weight,
Laboratory cabinet, for example a cooling cabinet, warming cabinet, drying cabinet or an incubation cabinet, with at least one outer door with a housing comprising an outer door locking device and having at least one inner chamber that can be closed with an inner door that has an inner door locking device, wherein the inner door locking device is a mechanical lock and in that the laboratory cabinet comprises first means that can be operated to unlock the inner door locking device when the outer door is closed and which are implemented such that, when the outer door is opened, the inner door also opens, characterized in that the first means are implemented as an electromagnet (36, 39a, 35a) that is arranged on the outer door and on the inner door and which interacts, when in an activated state, with the other magnetisable element of the outer door and the inner door or with a different element arranged on the magnetisable element of the outer door and the inner door and the holding force of which is greater than the locking force of the mechanical lock.
Use of a topological polyolefin-based copolymer as an emulsifier in the preparation of a stable water-in-oil high internal phase emulsion, wherein the copolymer is obtained by copolymerizing one or more C 2 -C 12 olefins and one or more functional monomers optionally in the presence of a catalyst, and optionally subjecting to a post-reaction, wherein the copolymer has a number average molecular weight of 300-1,000,000 g/mol, and a molecular weight distribution of 1-20; the functional monomers are selected from the group consisting of (meth)acrylates and derivatives thereof, (meth)acrylamides and derivatives thereof, and undecenoates and derivatives thereof; and the ratio of the olefins and the functional monomers is 10-5000:1.
A method for driving an image pickup apparatus that includes an image pickup element having a plurality of color pixels, each having a color filter of one of red, green, and blue, and a white pixel; and an output signal processor, the method comprising: outputting, from the image pickup element to the output signal processor, signals output by the plurality of color pixels and a signal output by the white pixel; and generating, by the output signal processor, image data using the signals output by the plurality of color pixels contained in n frames, where n is an integer greater than or equal to two, characterized in that the generating step further uses the signal or signals of the white pixel contained in m frames, where m is an integer greater than 1 and smaller than n, wherein the n frames and m frames are temporally successive frames, and wherein the output signal processor generates image data using a signal obtained by averaging the signals output by the plurality of color pixels contained in the n frames and a signal obtained by averaging signals of the white pixel contained in the m frames. outputting, from the image pickup element to the output signal processor, signals output by the plurality of color pixels and a signal output by the white pixel; and generating, by the output signal processor, image data using the signals output by the plurality of color pixels contained in n frames, where n is an integer greater than or equal to two, characterized in that the generating step further uses the signal or signals of the white pixel contained in m frames, where m is an integer greater than 1 and smaller than n, wherein the n frames and m frames are temporally successive frames, and wherein the output signal processor generates image data using a signal obtained by averaging the signals output by the plurality of color pixels contained in the n frames and a signal obtained by averaging signals of the white pixel contained in the m frames.