mhurhangee/ep-ind-claims huggingface dataset:
A method of generating a plurality of blended images, wherein the blended images are used to create an animation of a transition between two street-level images via intermediate aerial views of a 3D model from a virtual camera, wherein the plurality of blended images correspond to a series of positions of the virtual camera on a path of the transition between the two street-level images, and wherein, for each of the plurality of blended images, the method comprises: determining, by one or more computing devices, a plurality of fragments (430, 440, 450, 460) for a three-dimensional model of a geographical location, wherein each fragment has a fragment color from the 3D model; determining, by the one or more computing devices, geospatial location data for each fragment based at least in part on latitude information, longitude information, and altitude information associated with the 3D model; for each fragment of the plurality of fragments, identifying, by the one or more computing devices, a pixel color of a pixel in a street-level image based at least in part on the geospatial location data, wherein the pixel in the street-level image corresponds to the fragment and wherein the correspondence between the pixel and the fragment comprises an alignment of the pixel and the fragment along a line-of-sight of the virtual camera; determining, by the one or more computing devices, a blending ratio based on at least one of a position and an orientation of the virtual camera, wherein the blending ratio is a ratio of a quantity of the pixel color to a quantity of the fragment color; and generating, by the one or more computing devices, the blended image, comprising blending the pixel color and the fragment color based on the blending ratio for each of the plurality of blended images. determining, by one or more computing devices, a plurality of fragments (430, 440, 450, 460) for a three-dimensional model of a geographical location, wherein each fragment has a fragment color from the 3D model; determining, by the one or more computing devices, geospatial location data for each fragment based at least in part on latitude information, longitude information, and altitude information associated with the 3D model; for each fragment of the plurality of fragments, identifying, by the one or more computing devices, a pixel color of a pixel in a street-level image based at least in part on the geospatial location data, wherein the pixel in the street-level image corresponds to the fragment and wherein the correspondence between the pixel and the fragment comprises an alignment of the pixel and the fragment along a line-of-sight of the virtual camera; determining, by the one or more computing devices, a blending ratio based on at least one of a position and an orientation of the virtual camera, wherein the blending ratio is a ratio of a quantity of the pixel color to a quantity of the fragment color; and generating, by the one or more computing devices, the blended image, comprising blending the pixel color and the fragment color based on the blending ratio for each of the plurality of blended images.
A method of producing energetic materials with a narrow particulate size distribution, comprising the steps forming a liquid dispersed phase, comprising at least one first solvent wherein at least one energetic material is dissolved therein, forming a liquid continuous phase, comprising at least one second solvent which is substantially immiscible with said dispersed phase, causing the liquid dispersed phase to be passed through a porous membrane into the liquid continuous phase, wherein said liquid continuous phase is caused to exert a shear force on said liquid dispersed phase, in a reaction vessel separating the liquid dispersed and liquid continuous phases, optionally removing the first solvent from the liquid dispersed phase to provide the energetic material. wherein the continuous phase comprises an aliquot of the first solvent, to prevent premature precipitation of particulates of said newly formed emulsion.
A processing method for creating a performance measurement task, characterized in that: establishing performance measurement objects and a correspondence between virtual network functions, VNFs, and the performance measurement objects in a management information base; receiving a first performance measurement task creating message from an operation support system, OSS, or a network management system, NMS; an element management system, EMS, seeking out identification information of the VNFs corresponding thereto from the correspondence according to identification information of the performance measurement objects; and acquiring performance measurement results from the VNFs according to the first performance measurement task creating message, and reporting a performance measurement file to the OSS or the NMS, wherein the performance measurement results are carried in the performance measurement file. establishing performance measurement objects and a correspondence between virtual network functions, VNFs, and the performance measurement objects in a management information base; receiving a first performance measurement task creating message from an operation support system, OSS, or a network management system, NMS; an element management system, EMS, seeking out identification information of the VNFs corresponding thereto from the correspondence according to identification information of the performance measurement objects; and acquiring performance measurement results from the VNFs according to the first performance measurement task creating message, and reporting a performance measurement file to the OSS or the NMS, wherein the performance measurement results are carried in the performance measurement file.
One or more non-transitory computer-readable media having instructions, stored thereon, that when executed cause a user equipment, UE, to: receive, via radio resource control, RRC, signaling, a plurality of parameter sets, wherein individual parameter sets of the plurality of parameter sets include a number of common reference signal, CRS, antenna ports and a CRS frequency shift, wherein the individual parameter sets are associated with different transmission points of a Long Term Evolution, LTE, network; detect downlink control information, DCI, that includes a 2-bit index to indicate one of the individual parameter sets; identify the individual parameter set indicated by the 2-bit index; and decode a physical downlink shared channel, PDSCH, based on the identified individual parameter set. receive, via radio resource control, RRC, signaling, a plurality of parameter sets, wherein individual parameter sets of the plurality of parameter sets include a number of common reference signal, CRS, antenna ports and a CRS frequency shift, wherein the individual parameter sets are associated with different transmission points of a Long Term Evolution, LTE, network; detect downlink control information, DCI, that includes a 2-bit index to indicate one of the individual parameter sets; identify the individual parameter set indicated by the 2-bit index; and decode a physical downlink shared channel, PDSCH, based on the identified individual parameter set.
A method of identifying an optimized spinal cord simulation "SCS" pattern for pain reduction, the method comprising: generating a plurality of SCS patterns using an optimization algorithm based on predetermined performance criteria, wherein the predetermined performance criteria comprise variance of pain score reduction across different pain states; evaluating the plurality of SCS patterns for pain reduction using a computational model of a neuronal network; and identifying at least one candidate SCS pattern having an optimized temporal pattern of stimulation capable of reducing pain. generating a plurality of SCS patterns using an optimization algorithm based on predetermined performance criteria, wherein the predetermined performance criteria comprise variance of pain score reduction across different pain states; evaluating the plurality of SCS patterns for pain reduction using a computational model of a neuronal network; and identifying at least one candidate SCS pattern having an optimized temporal pattern of stimulation capable of reducing pain.
An aluminum nitride particle having a hexagonal columnar barrel part and bowl-like projection parts at both ends of the columnar part, wherein the long diameter of the barrel part is 10 to 250 μm, the ratio (L 1 /D) of the distance (L 1) between the apexes of the two projection pars to the long diameter of the barrel part is 0.7 to 1.3, and the percentage of the length or thickness (L 2) of the barrel part to the distance (L 1) between the apexes of the two projection parts is 10 to 60 %.
A method, comprising: - associating, by a device (110, 111), a first plurality of network nodes (120-123, 130-133, 140) of a network with a first cryptographic keying material and a multicast IP address, - associating, by the device (110, 111), a second plurality of network nodes (120-123, 130-133, 140) of the network with a second cryptographic keying material and the multicast IP address, the first cryptographic keying material having a different secret than the second cryptographic keying material, - controlling, by the device (110, 111), the first plurality of network nodes (120-123, 130-133, 140) to execute encrypted multicast transmission of packetized data based on the secret of the first cryptographic keying material and the multicast IP address, - controlling, by the device (110, 111), the second plurality of network nodes (120-123, 130-133, 140) to execute encrypted multicast transmission of packetized data based on the secret of the second cryptographic keying material and the multicast IP address, wherein said network comprises said device (110, 111). - associating, by a device (110, 111), a first plurality of network nodes (120-123, 130-133, 140) of a network with a first cryptographic keying material and a multicast IP address, - associating, by the device (110, 111), a second plurality of network nodes (120-123, 130-133, 140) of the network with a second cryptographic keying material and the multicast IP address, the first cryptographic keying material having a different secret than the second cryptographic keying material, - controlling, by the device (110, 111), the first plurality of network nodes (120-123, 130-133, 140) to execute encrypted multicast transmission of packetized data based on the secret of the first cryptographic keying material and the multicast IP address, - controlling, by the device (110, 111), the second plurality of network nodes (120-123, 130-133, 140) to execute encrypted multicast transmission of packetized data based on the secret of the second cryptographic keying material and the multicast IP address, wherein said network comprises said device (110, 111).
A coupling arrangement in the field of wind turbines comprising - a nacelle having a plurality of first bolts, - a tower having a plurality of bolt holes, the bolts being insertable in the bolt holes by moving the nacelle and the tower towards each other in a mounting direction, and - locking means for locking the nacelle to the tower in a direction opposite to the mounting direction, - wherein the locking means comprise a first element and a second element, wherein the first element is engageable in or behind the second element for locking the nacelle to the tower, - wherein the nacelle comprises a protruding element protruding further in the mounting direction than the first bolts, each of the protruding elements having one of the first or the second element (14, 15) of the locking means and the tower having the respective other one of the first or the second element (14, 15) of the locking means. - wherein the protruding elements are configured as protruding second bolts insertable in the holes by moving the nacelle and the tower towards each other in the mounting direction. - a nacelle having a plurality of first bolts, - a tower having a plurality of bolt holes, the bolts being insertable in the bolt holes by moving the nacelle and the tower towards each other in a mounting direction, and - locking means for locking the nacelle to the tower in a direction opposite to the mounting direction, - wherein the locking means comprise a first element and a second element, wherein the first element is engageable in or behind the second element for locking the nacelle to the tower, - wherein the nacelle comprises a protruding element protruding further in the mounting direction than the first bolts, each of the protruding elements having one of the first or the second element (14, 15) of the locking means and the tower having the respective other one of the first or the second element (14, 15) of the locking means. - wherein the protruding elements are configured as protruding second bolts insertable in the holes by moving the nacelle and the tower towards each other in the mounting direction.
An antenna, comprising: first, second, third, and fourth columns of radiating elements; first, second, third, and fourth ports and a sub-band feed network for a first sub-band (Fig. 6, 2600MHz Ports 3-6), each of the first to fourth ports for the first sub-band being coupled to a respective one of the first to fourth columns of radiating elements by the sub-band feed network for the first sub-band; and first and second ports and first and second sub-band feed networks for a second sub-band (Fig. 6, 1900MHz Ports 1-2), the first port for the second sub-band being coupled to both of the first and second columns of radiating elements by the first sub-band feed network for the second sub-band that includes at least one power divider and the second port for the second sub-band being coupled to both of the third and fourth columns of radiating elements by the second sub-band feed network for the second sub-band that includes at least one power divider, wherein the first and second columns of radiating elements form a first pair of columns of radiating elements and the third and fourth columns of radiating elements form a second pair of columns of radiating elements, and wherein the first pair of columns of radiating elements and the second pair of columns of radiating elements are arranged such that an aperture between the first pair of columns of radiating elements and the second pair of columns of radiating elements has a spacing of about 1 wavelength at a frequency within the second sub-band. first, second, third, and fourth columns of radiating elements; first, second, third, and fourth ports and a sub-band feed network for a first sub-band (Fig. 6, 2600MHz Ports 3-6), each of the first to fourth ports for the first sub-band being coupled to a respective one of the first to fourth columns of radiating elements by the sub-band feed network for the first sub-band; and first and second ports and first and second sub-band feed networks for a second sub-band (Fig. 6, 1900MHz Ports 1-2), the first port for the second sub-band being coupled to both of the first and second columns of radiating elements by the first sub-band feed network for the second sub-band that includes at least one power divider and the second port for the second sub-band being coupled to both of the third and fourth columns of radiating elements by the second sub-band feed network for the second sub-band that includes at least one power divider, wherein the first and second columns of radiating elements form a first pair of columns of radiating elements and the third and fourth columns of radiating elements form a second pair of columns of radiating elements, and wherein the first pair of columns of radiating elements and the second pair of columns of radiating elements are arranged such that an aperture between the first pair of columns of radiating elements and the second pair of columns of radiating elements has a spacing of about 1 wavelength at a frequency within the second sub-band.
A method for sending a message, comprising: establishing a mapping table, wherein the mapping table comprises a corresponding relationship at least between a Route Identification, RID, of an Access Service Node, ASN, of a sender and an Access Identification, AID, and the AID comprises an AID of the sender and an AID of a receiver; receiving a message from the receiver; searching the mapping table for the RID of the ASN of the sender corresponding to the message according to the message; and sending the message to the ASN according to the found RID of the ASN. establishing a mapping table, wherein the mapping table comprises a corresponding relationship at least between a Route Identification, RID, of an Access Service Node, ASN, of a sender and an Access Identification, AID, and the AID comprises an AID of the sender and an AID of a receiver; receiving a message from the receiver; searching the mapping table for the RID of the ASN of the sender corresponding to the message according to the message; and sending the message to the ASN according to the found RID of the ASN.
An accessory gearbox for an aircraft turbomachine, the turbomachine extending along a longitudinal axis and comprising a low-pressure spool, a high-pressure spool and a radial shaft connected to the high-pressure spool, the accessory gearbox comprising a gear train comprising at least one input shaft, configured to be mechanically coupled to the radial shaft, and a plurality of output shafts, configured to be rotatably coupled to equipment, at least one output shaft, hereinafter referred to as a mixed shaft, being rotatably coupled to high-speed equipment (E') configured to operate over a high speed range, the accessory gearbox being characterized in that it comprises: • a very low-speed motor configured to operate over a very low speed range, below the high speed range of said high-speed equipment (E'), • a clutch system configured to mate with said mixed shaft, the very low-speed motor being mounted to the clutch system so that: o in a clutched position of the clutch system, the very low-speed motor is coupled to the mixed shaft, so as to rotatably drive the high-pressure spool, when the turbomachine is stopped, and o in a declutched position of the clutch system, the very low-speed motor is decoupled from the mixed shaft in order to be protected from the speeds transmitted by the high-pressure spool to the mixed shaft to drive the high-speed equipment (E') when the turbomachine is in operation. • a very low-speed motor configured to operate over a very low speed range, below the high speed range of said high-speed equipment (E'), • a clutch system configured to mate with said mixed shaft, the very low-speed motor being mounted to the clutch system so that: o in a clutched position of the clutch system, the very low-speed motor is coupled to the mixed shaft, so as to rotatably drive the high-pressure spool, when the turbomachine is stopped, and o in a declutched position of the clutch system, the very low-speed motor is decoupled from the mixed shaft in order to be protected from the speeds transmitted by the high-pressure spool to the mixed shaft to drive the high-speed equipment (E') when the turbomachine is in operation. o in a clutched position of the clutch system, the very low-speed motor is coupled to the mixed shaft, so as to rotatably drive the high-pressure spool, when the turbomachine is stopped, and o in a declutched position of the clutch system, the very low-speed motor is decoupled from the mixed shaft in order to be protected from the speeds transmitted by the high-pressure spool to the mixed shaft to drive the high-speed equipment (E') when the turbomachine is in operation.
Household appliance with a door leaf and a front panel acting as a decor panel in front of the door leaf, two bars projecting from the front panel extend beyond narrow sides of the door leaf and are clamped between the narrow sides and a strip screwed to each narrow side.
A method of wireless communication performed by an evolved node B, eNB, the method comprising: transmitting a first message to reconfigure an uplink transmission mode of a user equipment, UE, from a first uplink transmission mode to a second uplink transmission mode; and implementing a reconfiguration scheme to assure at least one of two or more second control messages are recognizable by the UE during a transition period after transmission of the first message, wherein the transition period continues until the UE confirms successful transition to the second uplink transmission mode or the transition period continues for a duration defined by the eNB; and wherein the first uplink transmission mode is a single antenna port mode compatible with a LTE Rel-8 UE, and wherein the first uplink transmission mode does not support aperiodic sounding reference signal and the second uplink transmission mode supports dynamic aperiodic sounding reference signal triggering; and further comprising: transmitting the two or more second control messages, wherein one of the two or more second control messages is recognizable by the UE before the reconfiguration and another message of the two or more second control messages is recognizable by the UE after the reconfiguration, wherein control information associated with the first uplink transmission mode during a time interval is transmitted in a UE specific space, and control information associated with the second uplink transmission mode is transmitted in a common search space. transmitting a first message to reconfigure an uplink transmission mode of a user equipment, UE, from a first uplink transmission mode to a second uplink transmission mode; and implementing a reconfiguration scheme to assure at least one of two or more second control messages are recognizable by the UE during a transition period after transmission of the first message, wherein the transition period continues until the UE confirms successful transition to the second uplink transmission mode or the transition period continues for a duration defined by the eNB; and wherein the first uplink transmission mode is a single antenna port mode compatible with a LTE Rel-8 UE, and wherein the first uplink transmission mode does not support aperiodic sounding reference signal and the second uplink transmission mode supports dynamic aperiodic sounding reference signal triggering; and further comprising: transmitting the two or more second control messages, wherein one of the two or more second control messages is recognizable by the UE before the reconfiguration and another message of the two or more second control messages is recognizable by the UE after the reconfiguration, wherein control information associated with the first uplink transmission mode during a time interval is transmitted in a UE specific space, and control information associated with the second uplink transmission mode is transmitted in a common search space.