mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine combustor for combusting a gasified fuel including hydrogen as its component, comprising a plurality of multi-coaxial-injection-hole burners, each of which burners includes a plurality of fuel nozzles and an air plate including a plurality of air-apertures for the respective fuel nozzles, wherein in each of the multi-coaxial-injection-hole burners, a first part of the fuel nozzles arranged circumferentially and a first part of the air-apertures arranged circumferentially are arranged coaxially so that the fuel nozzles of the first part are for the respective air-apertures of the first part to form a first part of the multi-coaxial-injection-hole burner, a second part of the fuel nozzles arranged circumferentially and a second part of the air-apertures arranged circumferentially are arranged coaxially so that the fuel nozzles of the second part are for the respective air-apertures of the second part to form a second part of the multi-coaxial-injection-hole burner surrounding coaxially the first part of the multi-coaxial-injection-hole burner, a cross-sectional area of each of the air-apertures in the first part of the multi-coaxial-injection-hole burner is smaller than a cross-sectional area of each of the air-apertures in the second part of the multi-coaxial-injection-hole burner, so that the first part of the multi-coaxial-injection-hole burner keeps a flame of the gas turbine combustor and the second part of the multi-coaxial-injection-hole burner performs low NOx combustion, and the plurality of air-apertures are respectively arranged in the circumferential direction in the air plate and form a row of the air-apertures, characterized in that the plurality of air-apertures have a same diameter in unit of row, wherein when the diameter of each of the air-apertures in the first part of the multi-coaxial-injection-hole burner is D 1, a total number of the air-apertures in the first part of the multi-coaxial-injection-hole burner is N 1, the diameter of each of the air-apertures in the second part of the multi-coaxial-injection-hole burner is D 2, a total number of the air-apertures in the second part of the multi-coaxial-injection-hole burner is N 2, and a base of natural logarithm is e, the following formula D 1 D 2 = N 2 N 1 π 2 2 ⁢ e 1 + N 2 N 1 2 is satisfied.
A positioning method for a receiving device, comprising: transmitting, by a transmitting device, a pilot signal to an electromagnetic reflecting surface; transmitting, by the transmitting device, control information to an electromagnetic reflecting surface control unit, wherein the control information comprises temporal information and control direction information, the control information is used for instructing the electromagnetic reflecting surface control unit to orient, in target time periods, reflected beams formed by target pilot signals on the electromagnetic reflecting surface towards preset directions, the preset directions are directions indicated by multiple pieces of preset direction information corresponding to respective ones of the target time periods, the preset directions point to a target area, the temporal information comprises the target time periods, the control direction information comprises the preset direction information, and the pilot signal transmitted by the transmitting device comprises the target pilot signals; and determining, by the transmitting device or the receiving device, signal measurement results corresponding to the preset directions, and positioning, by the transmitting device or the receiving device, the receiving device according to the preset directions and the signal measurement results, wherein the signal measurement results are the ones obtained by measuring, by the receiving device located in the target area, the received target pilot signals reflected in the preset directions. transmitting, by a transmitting device, a pilot signal to an electromagnetic reflecting surface; transmitting, by the transmitting device, control information to an electromagnetic reflecting surface control unit, wherein the control information comprises temporal information and control direction information, the control information is used for instructing the electromagnetic reflecting surface control unit to orient, in target time periods, reflected beams formed by target pilot signals on the electromagnetic reflecting surface towards preset directions, the preset directions are directions indicated by multiple pieces of preset direction information corresponding to respective ones of the target time periods, the preset directions point to a target area, the temporal information comprises the target time periods, the control direction information comprises the preset direction information, and the pilot signal transmitted by the transmitting device comprises the target pilot signals; and determining, by the transmitting device or the receiving device, signal measurement results corresponding to the preset directions, and positioning, by the transmitting device or the receiving device, the receiving device according to the preset directions and the signal measurement results, wherein the signal measurement results are the ones obtained by measuring, by the receiving device located in the target area, the received target pilot signals reflected in the preset directions.
A switch device having a substrate (10a, 10b, 10c) that is formed of an insulating material; a plurality of fixed conductors (11a, 11b, 12a, 12b) that are fixed to the substrate; a plurality of fixed contacts (13a, 13b, 15a, 14a, 14b, 16a) that are integrated with the substrate and constitute a sliding part (17a, 17b, 17c); a switching movable part that supports a plurality of movable contacts (24, 25, 26) that slide against the sliding parts, respectively; and an operation conductor plate that is operated by an operating body, wherein a fulcrum conductor plate (21, 22) and an independent conductor plate separated from the fulcrum conductor plate are fixed to a movable insulator in the switching movable part, and the movable contacts are respectively provided at the fulcrum conductor plate and the independent conductor plate, wherein the switching movable part is rockably supported with abutment parts between the fulcrum conductor plate and some of the fixed conductors as first fulcrums, a base of the operation conductor plate is rockably supported with abutment parts with the other of the fixed conductors as second fulcrums, the first fulcrums and the second fulcrums are arranged at mutually separated positions, a tip of the operation conductor plate is located on the first fulcrum side, and the tip side is enabled to be pressed and operated by the operating body, characterized in that a plurality of extension coil springs (41,42) extending in a direction in which the first fulcrums and the second fulcrums face each other are provided, and in that one end of each of the extension coil springs is latched to the tip side of the operation conductor plate, and the other end of the extension coil spring is latched to the independent conductor plate, wherein when the operation conductor plate is rocked by the operating body, with the rocking operation, the switching movable part performs a snap action due to the biasing forces of the plurality of extension coil springs and the movable contacts slides against the sliding parts, and wherein the operation conductor plate and the independent conductor plate are electrically connected to each other via the plurality of extension coil springs.
A method for improving quality of a Scanning Synthetic Aperture Radar, ScanSAR, image, comprising: performing range compression and Range Cell Migration Correction, RCMC, on each sub-swath of ScanSAR data; performing sub-aperture segmentation on the ScanSAR data subjected to the range compression and the RCMC; performing aperture interpolation on each sub-aperture data; and performing azimuth compression on the sub-aperture data subjected to the aperture interpolation, wherein the step of performing aperture interpolation on each sub-aperture data comprises: removing an azimuth chirp of each sub-aperture; filling data gaps between sub-aperture data using a Linear Prediction Model based Aperture Interpolation Technique, LPM-AIT; and recovering a sub-aperture signal format corresponding to a standard ScanSAR mode, characterized in that the step of performing sub-aperture segmentation on the data subjected to the range compression and the RCMC comprises: performing sub-aperture segmentation on the ScanSAR data subjected to the range compression and the RCMC in such a way that one burst is overlapped for adjacent sub-apertures, wherein each sub-aperture comprises two bursts and one data gap. performing range compression and Range Cell Migration Correction, RCMC, on each sub-swath of ScanSAR data; performing sub-aperture segmentation on the ScanSAR data subjected to the range compression and the RCMC; performing aperture interpolation on each sub-aperture data; and performing azimuth compression on the sub-aperture data subjected to the aperture interpolation, wherein the step of performing aperture interpolation on each sub-aperture data comprises: removing an azimuth chirp of each sub-aperture; filling data gaps between sub-aperture data using a Linear Prediction Model based Aperture Interpolation Technique, LPM-AIT; and recovering a sub-aperture signal format corresponding to a standard ScanSAR mode, characterized in that the step of performing sub-aperture segmentation on the data subjected to the range compression and the RCMC comprises: performing sub-aperture segmentation on the ScanSAR data subjected to the range compression and the RCMC in such a way that one burst is overlapped for adjacent sub-apertures, wherein each sub-aperture comprises two bursts and one data gap. removing an azimuth chirp of each sub-aperture; filling data gaps between sub-aperture data using a Linear Prediction Model based Aperture Interpolation Technique, LPM-AIT; and recovering a sub-aperture signal format corresponding to a standard ScanSAR mode, characterized in that the step of performing sub-aperture segmentation on the data subjected to the range compression and the RCMC comprises: performing sub-aperture segmentation on the ScanSAR data subjected to the range compression and the RCMC in such a way that one burst is overlapped for adjacent sub-apertures, wherein each sub-aperture comprises two bursts and one data gap. performing sub-aperture segmentation on the ScanSAR data subjected to the range compression and the RCMC in such a way that one burst is overlapped for adjacent sub-apertures, wherein each sub-aperture comprises two bursts and one data gap.
Method for transmitting a message from a sender to a set of multiple receivers (4a- 4d) over a network, comprising: Sending a multicast message to the multiple receivers (4a- 4d); Receiving acknowledgement messages from a subset of the receivers (4a, 4b, 4d), each acknowledgement message indicating the receipt of the multicast message by a single receiver; and Sending a unicast message to a receiver of the set of receivers (4a - 4d) which is not part of the subset of the receivers (4a, 4b, 4d). Sending a multicast message to the multiple receivers (4a- 4d); Receiving acknowledgement messages from a subset of the receivers (4a, 4b, 4d), each acknowledgement message indicating the receipt of the multicast message by a single receiver; and Sending a unicast message to a receiver of the set of receivers (4a - 4d) which is not part of the subset of the receivers (4a, 4b, 4d).
A power system analysis support system which supports analysis of a power system, comprising: a measuring device which performs measurement related to the power system; and an analysis support apparatus which is connected to the measuring device to communicate therewith, wherein the measuring device includes a measuring unit which performs measurement related to the power system, a storage unit which stores measurement values measured by the measuring unit, and a communication unit, and the analysis support apparatus includes a communication unit which receives data from the measuring device, characterized in that the measuring device further includes: a parameter generator which generates a predetermined parameter indicating a probability density function of the measurement value from the plurality of measurement values stored in the storage unit, and the communication unit which sends the predetermined parameter generated by the parameter generator to the analysis support apparatus, and in that the analysis support apparatus further comprises a probability density function generator which generates a probability density function of the measurement value from the received predetermined parameter. a measuring device which performs measurement related to the power system; and an analysis support apparatus which is connected to the measuring device to communicate therewith, wherein the measuring device includes a measuring unit which performs measurement related to the power system, a storage unit which stores measurement values measured by the measuring unit, and a communication unit, and a measuring unit which performs measurement related to the power system, a storage unit which stores measurement values measured by the measuring unit, and a communication unit, and the analysis support apparatus includes a communication unit which receives data from the measuring device, characterized in that the measuring device further includes: a parameter generator which generates a predetermined parameter indicating a probability density function of the measurement value from the plurality of measurement values stored in the storage unit, and the communication unit which sends the predetermined parameter generated by the parameter generator to the analysis support apparatus, and in that the analysis support apparatus further comprises a probability density function generator which generates a probability density function of the measurement value from the received predetermined parameter. a parameter generator which generates a predetermined parameter indicating a probability density function of the measurement value from the plurality of measurement values stored in the storage unit, and the communication unit which sends the predetermined parameter generated by the parameter generator to the analysis support apparatus, and in that the analysis support apparatus further comprises a probability density function generator which generates a probability density function of the measurement value from the received predetermined parameter.
A resin composition comprising: polylactic acid; and a polyester copolymer, the polyester copolymer being a product of random copolymerization of lactic acid and another hydroxycarboxylic acid, wherein the mole fraction of the lactic acid in the polyester copolymer is from 10 to 70 mol%. polylactic acid; and a polyester copolymer, the polyester copolymer being a product of random copolymerization of lactic acid and another hydroxycarboxylic acid, wherein the mole fraction of the lactic acid in the polyester copolymer is from 10 to 70 mol%.
A railway vehicle equipped with a rigid wheel axle on which a wheel (12, 13) is rotatably mounted at each one of the two ends thereof, wherein the wheel axle is connected to and is held by a suspension means directly or indirectly fixed to the frame of the vehicle in such a manner that at least one end of the wheel axle is movable in a vertical direction with respect to the suspension means, characterized in that the suspension means surrounds at least a part of the wheel axle, wherein the suspension means, alone or in combination with further means, is arranged to allow a restricted free translatory motion of the wheel axle with respect to the suspension means, said restricted free translatory motion being restricted to a defined distance within the suspension means.
A method of segment routing in a network node of a network comprising a plurality of network nodes, the method comprising: receiving a segment routed packet comprising a payload and having a segment route; obtaining a target delivery time from the received segment routed packet; determining a time of arrival of the packet at a destination of the packet; determining if the time of arrival of the packet at the destination is prior to the target delivery time, and for a determination that the time of arrival of the packet at the destination is prior to the target delivery time, transmitting a packet comprising the payload towards the destination; wherein determining the time of arrival of the packet at the destination comprises: obtaining an expected delivery time for each segment of the segment route from the network node to the destination, and wherein the time of arrival is based on the total of the one or more expected delivery time for each segment from the network node to the destination; and characterised in that the obtaining the expected delivery time for each segment of the segment route from the network node to the destination comprises obtaining an indication from the packet of the expected delivery time for each segment of the segment route from the network node to the destination. receiving a segment routed packet comprising a payload and having a segment route; obtaining a target delivery time from the received segment routed packet; determining a time of arrival of the packet at a destination of the packet; determining if the time of arrival of the packet at the destination is prior to the target delivery time, and for a determination that the time of arrival of the packet at the destination is prior to the target delivery time, transmitting a packet comprising the payload towards the destination; obtaining an expected delivery time for each segment of the segment route from the network node to the destination, and wherein the time of arrival is based on the total of the one or more expected delivery time for each segment from the network node to the destination; and
Modular drive device for electromotively opening and closing and/or electromotively locking and unlocking a window, a door or the like, comprising: - an actuating unit which comprises an actuator and an actuator housing, in which the actuator is mounted, and which is configured to receive a drive torque and to output it via the actuator in order to open or close and/or in order to lock or unlock the window or the door; and - a gear mechanism unit which comprises a motor, a gear mechanism and a gear mechanism housing, in which the motor and the gear mechanism are received, in particular encapsulated, wherein an output element is provided on the gear mechanism, which output element is configured to be drive-coupled to the actuating unit in order to transmit a drive torque of the motor via the gear mechanism to the actuating unit; characterized in that the gear mechanism unit is configured to be arranged and fastened independently of the actuating unit in an edge-side, inner-side profile chamber of a cover frame of the window or the door, and the actuating unit is configured to be arranged and fastened outside the profile chamber, in the hinge between the cover frame and a wing frame of the window or the door, wherein the actuating unit has the greatest extent in the direction of a longitudinal axis and at least substantially in the direction of the longitudinal axis and is configured to be arranged in the hinge in such a way that the longitudinal axis is oriented at least substantially parallel to the course of the hinge, wherein the actuating unit and the gear mechanism unit are configured to be fastened to the frame (13, 15) offset with respect to one another transversely with respect to the longitudinal axis of the actuating unit, in particular spaced apart from one another transversely with respect to the longitudinal axis of the actuating unit, wherein the actuating unit is configured as a chain unit which comprises: as actuator, a transmission for transmitting a pulling and/or pushing movement from the modular drive device to the wing of the window or the door; as actuator housing, a chain housing, in which the chain is mounted; and a chain sprocket which interacts with the chain, wherein one end of the chain is configured to be fastened to a side, directed towards the hinge, of the wing frame. - an actuating unit which comprises an actuator and an actuator housing, in which the actuator is mounted, and which is configured to receive a drive torque and to output it via the actuator in order to open or close and/or in order to lock or unlock the window or the door; and - a gear mechanism unit which comprises a motor, a gear mechanism and a gear mechanism housing, in which the motor and the gear mechanism are received, in particular encapsulated, wherein an output element is provided on the gear mechanism, which output element is configured to be drive-coupled to the actuating unit in order to transmit a drive torque of the motor via the gear mechanism to the actuating unit;
A method for enabling efficient nested virtualization, the method comprising the steps of: executing a first root mode virtual machine monitor (L 0 VMM, 310) to virtualize system hardware and present virtualized system hardware to one or more virtualization layers; executing a non-root mode upper level VMM (L 1 VMM, 320) via a virtual machine - VM - to create a nested virtualization environment; trapping a privileged instruction issued from an upper level OS (L 2, 332) via the upper level VMM; copying a VM execution context from the upper level VMM to a lower level VMM (L 0, 310); and emulating the privileged instruction via the lower level VMM, the lower level VMM to receive an indication of the trapped privileged instruction from one of a physical processor of the system hardware or a parent VMM hosting the lower level VMM; characterised by preparing, by the upper level VMM, a Virtual Machine Control Structure - VMCS - for the upper level OS, the VMCS not containing all of a virtual processor context; wherein copying the VM execution context from the upper level VMM to the lower level VMM includes copying a minimal set of the virtual processor context stored in the upper level VMM to the lower level VMM, wherein the minimal set comprises the virtual processor context which is not contained in the VMCS; reconstructing the VM execution context based on the copied execution context. executing a first root mode virtual machine monitor (L 0 VMM, 310) to virtualize system hardware and present virtualized system hardware to one or more virtualization layers; executing a non-root mode upper level VMM (L 1 VMM, 320) via a virtual machine - VM - to create a nested virtualization environment; trapping a privileged instruction issued from an upper level OS (L 2, 332) via the upper level VMM; copying a VM execution context from the upper level VMM to a lower level VMM (L 0, 310); and emulating the privileged instruction via the lower level VMM, the lower level VMM to receive an indication of the trapped privileged instruction from one of a physical processor of the system hardware or a parent VMM hosting the lower level VMM; characterised by preparing, by the upper level VMM, a Virtual Machine Control Structure - VMCS - for the upper level OS, the VMCS not containing all of a virtual processor context; wherein copying the VM execution context from the upper level VMM to the lower level VMM includes copying a minimal set of the virtual processor context stored in the upper level VMM to the lower level VMM, wherein the minimal set comprises the virtual processor context which is not contained in the VMCS; reconstructing the VM execution context based on the copied execution context.