mhurhangee/ep-ind-claims huggingface dataset:
A wireless charging system for electric vehicles, the charging system comprising: an AC-to-DC converter connectable to an electric AC grid; a DC-to-AC converter interconnected with the AC-to-DC converter; a first inductive coil interconnected with the DC-to-AC converter and for inductively coupling to a second inductive coil for power transfer via an air gap; a first housing, in which the AC-to-DC converter and a DC link with a DC link capacitor, which is interconnected between the AC-to-DC converter and the DC-to-AC converter,is arranged; a second housing, in which the DC-to-AC converter and the first inductive coil are arranged; a cable for interconnecting the AC-to-DC converter and the DC-to-AC converter outside of the first housing and second housing; a first controller inside the first housing for controlling the AC-to-DC converter, wherein the first controller is adapted to control a DC link voltage of the DC link to a variable setpoint voltage; a second controller inside the second housing for controlling the DC-to-AC converter; wherein the first controller and the second controller are communicatively interconnected with a signal line that is provided in the cable; wherein the first controller receives a power demand of the second controller via the signal line and determines the variable setpoint voltage from the power demand. an AC-to-DC converter connectable to an electric AC grid; a DC-to-AC converter interconnected with the AC-to-DC converter; a first inductive coil interconnected with the DC-to-AC converter and for inductively coupling to a second inductive coil for power transfer via an air gap; a first housing, in which the AC-to-DC converter and a DC link with a DC link capacitor, which is interconnected between the AC-to-DC converter and the DC-to-AC converter,is arranged; a second housing, in which the DC-to-AC converter and the first inductive coil are arranged; a cable for interconnecting the AC-to-DC converter and the DC-to-AC converter outside of the first housing and second housing; a first controller inside the first housing for controlling the AC-to-DC converter, wherein the first controller is adapted to control a DC link voltage of the DC link to a variable setpoint voltage; a second controller inside the second housing for controlling the DC-to-AC converter; wherein the first controller and the second controller are communicatively interconnected with a signal line that is provided in the cable; wherein the first controller receives a power demand of the second controller via the signal line and determines the variable setpoint voltage from the power demand.
Light-emitting device for emitting a radiation in a spectral range, the device successively comprising: - a substrate comprising a metal layer capable of reflecting the radiation; - a first layer of a III/N type alloy, p-type doped, and comprising a first surface, facing the metal layer, the first surface being provided with cavities; - a light-emitting layer of a III/N-type alloy, capable of generating the radiation; - a second layer of a III/N-type alloy, n-type doped, having the radiation coming out therethrough; the device being characterized in that a filling material, non-metallic and transparent in the spectral range, is arranged within the cavities. - a substrate comprising a metal layer capable of reflecting the radiation; - a first layer of a III/N type alloy, p-type doped, and comprising a first surface, facing the metal layer, the first surface being provided with cavities; - a light-emitting layer of a III/N-type alloy, capable of generating the radiation; - a second layer of a III/N-type alloy, n-type doped, having the radiation coming out therethrough;
A method for communication between a first network element and a second network element, wherein the first network element generates data and the second network elements uses the data generated by the first network element, the method comprising: receiving, by the first network element, a request message of the second network element, wherein the request message comprises one or more to-be-collected data types and one or more sizes of one or more requested buffer queues, the one or more data types comprise a first type, the sizes of the one or more requested buffer queues comprise a size of a requested first buffer queue, and the first buffer queue corresponds to the first type; determining, by the first network element, an actual size of the first buffer queue based on at least one of the sizes of the one or more requested buffer queues, wherein the actual size of the first buffer queue is less than or equal to the size of the requested first buffer queue; and sending, by the first network element, a response message for the request message to the second network element, wherein the response message comprises an identifier of the first buffer queue and the actual size of the first buffer queue. receiving, by the first network element, a request message of the second network element, wherein the request message comprises one or more to-be-collected data types and one or more sizes of one or more requested buffer queues, the one or more data types comprise a first type, the sizes of the one or more requested buffer queues comprise a size of a requested first buffer queue, and the first buffer queue corresponds to the first type; determining, by the first network element, an actual size of the first buffer queue based on at least one of the sizes of the one or more requested buffer queues, wherein the actual size of the first buffer queue is less than or equal to the size of the requested first buffer queue; and sending, by the first network element, a response message for the request message to the second network element, wherein the response message comprises an identifier of the first buffer queue and the actual size of the first buffer queue.
A system comprising: a compressor including a compression mechanism and a motor; a first heat exchanger receiving compressed working fluid from said compressor; an expansion device disposed downstream of said first heat exchanger; a first working fluid flow path fluidly connecting said first heat exchanger and said expansion device; a second working fluid flow path disposed downstream of said first heat exchanger, characterized by the second working fluid flow path fluidly connecting said first heat exchanger with a first inlet of said compressor and providing compressed working fluid through said first inlet to said compression mechanism and to said motor, said first inlet being fluidly isolated from a compression chamber of said compressor; and a pump disposed between said first heat exchanger and said expansion device. a compressor including a compression mechanism and a motor; a first heat exchanger receiving compressed working fluid from said compressor; an expansion device disposed downstream of said first heat exchanger; a first working fluid flow path fluidly connecting said first heat exchanger and said expansion device; a second working fluid flow path disposed downstream of said first heat exchanger, characterized by the second working fluid flow path fluidly connecting said first heat exchanger with a first inlet of said compressor and providing compressed working fluid through said first inlet to said compression mechanism and to said motor, said first inlet being fluidly isolated from a compression chamber of said compressor; and a pump disposed between said first heat exchanger and said expansion device.
Koehler integrator device (10, 120), comprising - a collimating lens being arranged for collimating a light field created by a light source device, - a pair of planar first and second micro-lens arrays (12, 13), being arranged for relaying portions of the collimated light field along separate imaging channels, wherein all micro-lenses of the first and second micro-lens arrays (12, 13) have an equal micro-lens focal length and pitch and the micro-lens arrays (12, 13) are arranged with a mutual distance equal to the micro-lens focal length, and - a collecting Fourier lens having a Fourier lens diameter and a Fourier lens focal length defining a Fourier lens front focal plane and a Fourier lens back focal plane, wherein the Fourier lens is arranged for superimposing light from all imaging channels in the Fourier lens front focal plane and wherein the second micro-lens array is arranged in the Fourier lens back focal plane, characterized in that - a beam sizing optic is arranged between the collimating lens and the first micro-lens array is arranged for contracting a diameter of the collimated light field and comprises a first beam de-expander lens having a first beam de-expander lens focal length and a second beam de-expander lens having a second beam de-expander lens focal length, which is smaller than the first beam de-expander lens focal length, and - a third micro-lens array being arranged in the Fourier lens front focal plane for creating a wavelength independent array of illumination spots. - a collimating lens being arranged for collimating a light field created by a light source device, - a pair of planar first and second micro-lens arrays (12, 13), being arranged for relaying portions of the collimated light field along separate imaging channels, wherein all micro-lenses of the first and second micro-lens arrays (12, 13) have an equal micro-lens focal length and pitch and the micro-lens arrays (12, 13) are arranged with a mutual distance equal to the micro-lens focal length, and - a collecting Fourier lens having a Fourier lens diameter and a Fourier lens focal length defining a Fourier lens front focal plane and a Fourier lens back focal plane, wherein the Fourier lens is arranged for superimposing light from all imaging channels in the Fourier lens front focal plane and wherein the second micro-lens array is arranged in the Fourier lens back focal plane, - a beam sizing optic is arranged between the collimating lens and the first micro-lens array is arranged for contracting a diameter of the collimated light field and comprises a first beam de-expander lens having a first beam de-expander lens focal length and a second beam de-expander lens having a second beam de-expander lens focal length, which is smaller than the first beam de-expander lens focal length, and - a third micro-lens array being arranged in the Fourier lens front focal plane for creating a wavelength independent array of illumination spots.
A glove structure comprising a glove and at least one protective element (12, 14, 16, 16A, 16B, 18, 18A, 18B, 18C) suitable for being applied on the dorsal portion of at least one phalanx area of at least one finger portion (I, II, III, IV, V) of the glove, said at least one protective element (12, 14, 16, 16A, 16B, 18, 18A, 18B, 18C) being made of rigid material and being shaped so as to cover the dorsal portion and the side portions and to leave uncovered the palmar portion of said at least one phalanx area, said at least one protective element (12, 14, 16, 16A, 16B, 18, 18A, 18B, 18C) being adapted to transmit along a path surrounding said at least one phalanx area compression forces acting on said at least one phalanx area; the glove structure being characterized in that it comprises at least one patch (21A, 21B, 21C) made of microfiber material; said at least one patch (21A, 21B, 21C) being fixed on the at least one phalanx area of the at least one finger portion (I, II, III, IV, V) of the glove; said at least one protective element (12, 14, 16, 16A, 16B, 18, 18A, 18B, 18C) being applied to the glove so as to be matched with said at least one patch (21A, 21B, 21C).
A rehabilitation device with at least one position sensor (1, 2), which has - a mount, - a force measuring device fixedly connected with the mount; - a winding device (6, 16) fixedly connected with the mount with a drive having an electric motor, the winding device (6, 16) being set up to unwind and wind a rope and to determine an unwinding length of the unwound rope, and - a guiding device fixedly connected with the mount, which has a centering device for guiding through the rope in a defined, in particular directionally fixed manner, a gimbal-mounted outlet device for guiding through the rope in a directionally variable manner, and a location sensor for determining an angular position of the outlet device; wherein the position sensor (1, 2) is set up to determine the position of a predetermined point of the rope relative to the mount based on the ascertained angular position and unwinding length, and wherein the electric motor is set up to act on the rope with an adjustable tensile force that is set based upon a force that acts via the rope on the mount and determined by the force measuring device. - a mount, - a force measuring device fixedly connected with the mount; - a winding device (6, 16) fixedly connected with the mount with a drive having an electric motor, the winding device (6, 16) being set up to unwind and wind a rope and to determine an unwinding length of the unwound rope, and - a guiding device fixedly connected with the mount, which has a centering device for guiding through the rope in a defined, in particular directionally fixed manner, a gimbal-mounted outlet device for guiding through the rope in a directionally variable manner, and a location sensor for determining an angular position of the outlet device;
A method for wireless communications, comprising: identifying, at a first user equipment, UE, a packet for sidelink transmission from the first UE to a second UE; scheduling, at the first UE, the packet for sidelink transmission between the first UE and the second UE during a time period reserved for an uplink communication between a third UE and a base station; receiving, at the first UE, a suspend message from the base station; suspending, at the first UE, communication with the second UE based on receiving the suspend message from the base station. identifying, at a first user equipment, UE, a packet for sidelink transmission from the first UE to a second UE; scheduling, at the first UE, the packet for sidelink transmission between the first UE and the second UE during a time period reserved for an uplink communication between a third UE and a base station; receiving, at the first UE, a suspend message from the base station; suspending, at the first UE, communication with the second UE based on receiving the suspend message from the base station.
A piston for a cylinder of a combustion engine, said piston comprising: a piston crown comprising a piston bowl formed by an upwardly facing cavity; the piston bowl including a floor section with a central apex, an inner section extending downwardly from said apex, and a side section, said side section connecting said inner section with an upper surface of said piston crown, wherein said side section is formed with mutually spaced apart ridges protruding towards said apex, and wherein said side section having a plurality of recesses at an upper end of said side section connecting said side section with said upper surface of said piston crown, characterized in that the plurality of recesses is formed in the interference between the side section and the upper surface, said side section further comprises an impingement area of the flame formed by the fuel spray, wherein each of said plurality of recesses are located above said impingement area and wherein the impingement area is arranged between the ridges in the circumferential direction thereof.
A microfluidic device (100, 200) comprising an upper and lower substrate and a lateral plane positioned between the upper and lower substrate, the lower substrate comprising an electrode array configured to move a partition along the lateral plane, wherein the lateral plane includes a plurality of zones comprising, from a proximate to a distal end, (a) a preparation zone comprising (i) a sample loading zone (204. 210), (ii) a water reservoir (206, 212) and one or more reagent reservoirs each in communication with the sample loading zone; and (iii) a partition generation zone; (b) an amplification zone (202, 220) in thermal communication with one or more heating elements configured to subject the amplification zone to a thermal protocol for polymerase chain reaction amplification, and (c) a melt curve zone (203, 221) in thermal communication with one or more additional heating elements configured to subject the melt curve zone to a thermal gradient to generate a melting profile of an amplification product. (a) a preparation zone comprising (i) a sample loading zone (204. 210), (ii) a water reservoir (206, 212) and one or more reagent reservoirs each in communication with the sample loading zone; and (iii) a partition generation zone; (b) an amplification zone (202, 220) in thermal communication with one or more heating elements configured to subject the amplification zone to a thermal protocol for polymerase chain reaction amplification, and (c) a melt curve zone (203, 221) in thermal communication with one or more additional heating elements configured to subject the melt curve zone to a thermal gradient to generate a melting profile of an amplification product.
An information processing apparatus comprising: a two-dimensional image acquisition unit configured to acquire a two-dimensional image of an object in a first coordinate system; a region of interest acquisition unit configured to acquire information on a region of interest in a second coordinate system different from the first coordinate system in a further image; an error acquisition unit configured to acquire, in accordance with the information on the region of interest in the second coordinate system, information on an error range taking into consideration an error caused by coordinate projection from the second coordinate system to the first coordinate system with respect to a corresponding region in the first coordinate system in correspondence to the region of interest in the second coordinate system; and a display control unit configured to cause a display unit to display the information on the error range by overlaying the error range on the two-dimensional image. a two-dimensional image acquisition unit configured to acquire a two-dimensional image of an object in a first coordinate system; a region of interest acquisition unit configured to acquire information on a region of interest in a second coordinate system different from the first coordinate system in a further image; an error acquisition unit configured to acquire, in accordance with the information on the region of interest in the second coordinate system, information on an error range taking into consideration an error caused by coordinate projection from the second coordinate system to the first coordinate system with respect to a corresponding region in the first coordinate system in correspondence to the region of interest in the second coordinate system; and a display control unit configured to cause a display unit to display the information on the error range by overlaying the error range on the two-dimensional image.
A pharmaceutical composition for use in a method of treating ocular rosacea, wherein the composition comprises a therapeutically effective amount of -(+)-7-(1H-Imidazol-4-ylmethyl)-5,6,7,8-tetrahydro-quinoline, or the individual tautomers thereof, or a pharmaceutically acceptable salt thereof.
A composition comprising an effective amount of bumetanide for use in the treatment of a neurodegenerative disease with Parkinsonian syndromes in a subject in need thereof.
Method of detecting ink leakage during a printing operation in an inkjet printing machine including a workflow system on a computer for controlling the print job, an ink supply unit for the printing machine including an ink reservoir with a filling level sensor and a control unit with a software for actuating the ink supply unit, wherein the print heads are capable of generating ink drops of different sizes, the method comprising the steps of • based on the pre-print department's printing data, calculating an amount of ink that has theoretically been consumed by adding up the drop volumes for every printed page of the current printing operation by means of the workflow system • sending the amount of ink that has theoretically been consumed to the software for actuating the ink supply by means of the workflow system • determining an amount of ink that has actually been consumed by analyzing the filling level sensor of the ink reservoir • comparing the amount of ink that has theoretically been consumed to the determined amount of ink that has actually been consumed, • displaying a leakage alert if the amount of ink that has actually been consumed is greater than the amount of ink that has theoretically been consumed. • based on the pre-print department's printing data, calculating an amount of ink that has theoretically been consumed by adding up the drop volumes for every printed page of the current printing operation by means of the workflow system • sending the amount of ink that has theoretically been consumed to the software for actuating the ink supply by means of the workflow system • determining an amount of ink that has actually been consumed by analyzing the filling level sensor of the ink reservoir • comparing the amount of ink that has theoretically been consumed to the determined amount of ink that has actually been consumed, • displaying a leakage alert if the amount of ink that has actually been consumed is greater than the amount of ink that has theoretically been consumed.
A computer program product comprising computer program instructions for identifying and/or quantifying, and presenting one or more materials represented by data produced by a multi-energy CT system using three or more energy bands, the instructions comprising: a) receiving, directly or indirectly, an image data set from a multi-energy CT imaging apparatus and storing said image data set on a data storage medium; b) defining excluded material combinations in the image data set pre-determined to be disallowed; c) calculating, for each of a plurality of reconstructed voxels contained within the image data set, a sparse solution for a maximum number of material combinations using, for each of said material combinations as a sub-problem, a least squares, 2-norm, minimisation subject to a 0-norm constraint inequality for enforcing a maximum number of materials per voxel by combinatorial search over the not excluded material combinations during the least squares minimisation using a processor; d) applying rejection criteria to the sparse solutions of c) while performing the combinatorial search to identify one or more materials, wherein the step of applying rejection criteria to the sparse solutions includes the step of setting acceptable solution ranges for each material, and rejecting any sub-problem with a solution outside these ranges; and e) presenting the materials identified in d) via an interface. a) receiving, directly or indirectly, an image data set from a multi-energy CT imaging apparatus and storing said image data set on a data storage medium; b) defining excluded material combinations in the image data set pre-determined to be disallowed; c) calculating, for each of a plurality of reconstructed voxels contained within the image data set, a sparse solution for a maximum number of material combinations using, for each of said material combinations as a sub-problem, a least squares, 2-norm, minimisation subject to a 0-norm constraint inequality for enforcing a maximum number of materials per voxel by combinatorial search over the not excluded material combinations during the least squares minimisation using a processor; d) applying rejection criteria to the sparse solutions of c) while performing the combinatorial search to identify one or more materials, wherein the step of applying rejection criteria to the sparse solutions includes the step of setting acceptable solution ranges for each material, and rejecting any sub-problem with a solution outside these ranges; and e) presenting the materials identified in d) via an interface.