mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving a value identifying a minimum number of paging occasions configured for indicating a change of system information to be monitored during a modification period; identifying a discontinuous reception, DRX, cycle to be utilized during the modification period; and selecting respective paging occasions to monitor during the modification period such that the minimum number of paging occasions configured for indicating a change of system information is monitored and wakeup periods for monitoring paging occasions outside the DRX cycle are substantially minimized. receiving a value identifying a minimum number of paging occasions configured for indicating a change of system information to be monitored during a modification period; identifying a discontinuous reception, DRX, cycle to be utilized during the modification period; and selecting respective paging occasions to monitor during the modification period such that the minimum number of paging occasions configured for indicating a change of system information is monitored and wakeup periods for monitoring paging occasions outside the DRX cycle are substantially minimized.
A heat recovery steam generator ("HRSG") for producing electricity using an integrated molten carbonate fuel cell comprising an anode and cathode, the HRSG comprising: an enclosure that forms a flow path that extends between an inlet that receives a gas flow and an outlet that exhausts at least a portion of the received gas flow; one or more heat exchangers capable of generating steam extending into the flow path; and a fuel cell screen located within the enclosure and comprising a plurality of molten carbonate fuel cells having cathode inlets, the fuel cell screen being oriented in the flow path so that the cathode inlets of the molten carbonate fuel cells receive substantially all of the received gas flow, the plurality of molten carbonate fuel cells also having a plurality of cathode outlets fluidly exposed to the flow path to discharge cathode exhaust to the flow path. an enclosure that forms a flow path that extends between an inlet that receives a gas flow and an outlet that exhausts at least a portion of the received gas flow; one or more heat exchangers capable of generating steam extending into the flow path; and a fuel cell screen located within the enclosure and comprising a plurality of molten carbonate fuel cells having cathode inlets, the fuel cell screen being oriented in the flow path so that the cathode inlets of the molten carbonate fuel cells receive substantially all of the received gas flow, the plurality of molten carbonate fuel cells also having a plurality of cathode outlets fluidly exposed to the flow path to discharge cathode exhaust to the flow path.
A braking system for a trailer and work machine combination, comprising: a pressurized fluid supply; a hydraulic base valve fluidly coupled to the supply, the hydraulic base valve including an inlet and an outlet; a pneumatic base valve fluidly coupled to the supply, the pneumatic base valve including an inlet and an outlet; a hydraulic output configured to be fluidly coupled to a hydraulic braking system of a trailer, the hydraulic output fluidly coupled to the outlet of the hydraulic base valve; a pneumatic output configured to be fluidly coupled to a pneumatic braking system of a trailer, the pneumatic output fluidly coupled to the outlet of the pneumatic base valve; and characterized in that the braking system further comprises; a proportional control valve fluidly coupled to the supply, the proportional control valve including an outlet disposed in fluid communication with the inlets of the hydraulic base valve and the pneumatic base valve. comprising: a pressurized fluid supply; a hydraulic base valve fluidly coupled to the supply, the hydraulic base valve including an inlet and an outlet; a pneumatic base valve fluidly coupled to the supply, the pneumatic base valve including an inlet and an outlet; a hydraulic output configured to be fluidly coupled to a hydraulic braking system of a trailer, the hydraulic output fluidly coupled to the outlet of the hydraulic base valve; a pneumatic output configured to be fluidly coupled to a pneumatic braking system of a trailer, the pneumatic output fluidly coupled to the outlet of the pneumatic base valve; and characterized in that the braking system further comprises; a proportional control valve fluidly coupled to the supply, the proportional control valve including an outlet disposed in fluid communication with the inlets of the hydraulic base valve and the pneumatic base valve.
A hybrid fuel supply system for an engine (100,3) of a vessel, comprising: a compression device (200,1150) configured to compress boil-off gas generated from liquefied natural gas stored in an LNG cargo tank (CT,1); a high pressure pump (300,1120) configured to compress LNG supplied from the LNG cargo tank (CT,1); a vaporizer (310,1130) configured to vaporize the LNG compressed by the high pressure pump (300,1120); and a dual fuel engine to which the BOG compressed through the compression device (200,1150) is supplied as fuel, wherein the engine (100,3) of the vessel uses high pressure gas compressed at 150 to 400 bar as fuel and is driven by at least one of the BOG compressed in the compression device (200,1150) and the LNG compressed in the high pressure pump (300,1120), characterized in that the hybrid fuel supply system comprises a first passage provided with the compression device (200,1150) and a second passage provided with the high pressure pump (300,1120) and the vaporizer (310,1130), the first passage being configured such that BOG generated from LNG stored in the LNG cargo tank (CT,1) is compressed at 150 to 400 bar and then supplied to the engine of the vessel, and the second passage being configured such that the LNG stored in the LNG cargo tank (CT,1) is pumped at 150 to 400 bar and vaporized and then supplied to the engine for the vessel, in that the hybrid fuel supply system is configured with the redundancy of the first passage and the second passage, and in that the compression device (200,1150) is provided with only one set. a compression device (200,1150) configured to compress boil-off gas generated from liquefied natural gas stored in an LNG cargo tank (CT,1); a high pressure pump (300,1120) configured to compress LNG supplied from the LNG cargo tank (CT,1); a vaporizer (310,1130) configured to vaporize the LNG compressed by the high pressure pump (300,1120); and a dual fuel engine to which the BOG compressed through the compression device (200,1150) is supplied as fuel, wherein the engine (100,3) of the vessel uses high pressure gas compressed at 150 to 400 bar as fuel and is driven by at least one of the BOG compressed in the compression device (200,1150) and the LNG compressed in the high pressure pump (300,1120), characterized in that the hybrid fuel supply system comprises a first passage provided with the compression device (200,1150) and a second passage provided with the high pressure pump (300,1120) and the vaporizer (310,1130), the first passage being configured such that BOG generated from LNG stored in the LNG cargo tank (CT,1) is compressed at 150 to 400 bar and then supplied to the engine of the vessel, and the second passage being configured such that the LNG stored in the LNG cargo tank (CT,1) is pumped at 150 to 400 bar and vaporized and then supplied to the engine for the vessel, in that the hybrid fuel supply system is configured with the redundancy of the first passage and the second passage, and in that the compression device (200,1150) is provided with only one set.
Device for macro inspection of flat objects, in particular wafers, comprising (a) an object holder (b) a camera assembly with a camera for taking an image of at least a portion of the object; (c) a driving assembly for the generation of a rotational movement between the camera assembly and the object from a first imaging position to at least one further imaging position; wherein (d) the camera assembly comprises at least one further camera; (e) the object ranges imaged by different cameras are at least partly different, wherein all cameras together simultaneously detect only a portion of the same inspection range of the object; (f) each object point of the entire inspection range is imaged at least once by one of the cameras due to the rotational movement between the camera assembly and the object generated with the driving assembly; and (g) the object, the object holder or the camera assembly is rotatable about an axis perpendicular to the object plane of the cameras, characterized in that (h) the camera assembly with the cameras is arranged above the object holder, wherein an object range of the object plane is imaged on each camera; (i) each of the cameras of the camera assembly has a position corresponding to an image field of the object range; and (j) the images of the image fields of different cameras of the camera assembly taken in the different imaging positions are assembled to one common overall image. (a) an object holder (b) a camera assembly with a camera for taking an image of at least a portion of the object; (c) a driving assembly for the generation of a rotational movement between the camera assembly and the object from a first imaging position to at least one further imaging position; wherein (d) the camera assembly comprises at least one further camera; (e) the object ranges imaged by different cameras are at least partly different, wherein all cameras together simultaneously detect only a portion of the same inspection range of the object; (f) each object point of the entire inspection range is imaged at least once by one of the cameras due to the rotational movement between the camera assembly and the object generated with the driving assembly; and (g) the object, the object holder or the camera assembly is rotatable about an axis perpendicular to the object plane of the cameras, characterized in that (h) the camera assembly with the cameras is arranged above the object holder, wherein an object range of the object plane is imaged on each camera; (i) each of the cameras of the camera assembly has a position corresponding to an image field of the object range; and (j) the images of the image fields of different cameras of the camera assembly taken in the different imaging positions are assembled to one common overall image.
An organic electroluminescent element that comprises an anode and a cathode on a substrate and at least one organic layer disposed between the anode and the cathode, wherein the at least one organic layer is a layer that is produced by forming a film of a composition that comprises at least two cross-linking compounds and polymerizing the cross-linking compounds, wherein at least two of the cross-linking compounds have different numbers of cross-linking groups selected from wherein R 2 to R 3 each independently denote a hydrogen atom or an alkyl group, and wherein the crosslinking compounds are compounds having a partial structure of the following formula:
A semiconductor component comprising a first layer comprising a semiconductor material, as a substrate, a second layer running on said first layer, at least two intermediate layers (14, 16) made of the materials of the first and second layers running between the first and second layer, where the first intermediate layer facing the second layer may contain a eutectic mixture of the materials of the first and second layers as well as an electroconductive contact (15, 15a, 15b) forming an electroconductive connection to the first layer and originating at or running through the second layer, wherein in the area of the contact point, back side of the semiconductor component is entirely or at least partially covered by the at least second layer, and the electroconductive contact (15, 15a, 15b) comprises a solderable or wettable metallic material, which is alloyed into the second layer or forms a mixture with the material of the second layer, characterized in that the solderable or wettable metallic material as the electroconductive contact (15, 15a, 15b) originating at the second layer, is alloyed into at least one of the intermediate layers (14, 16) or passes through the intermediate layers, wherein the second layer is porous.
A coated substrate comprising: • a substrate comprising two main faces separated by edges, • a soft coating comprising one or more layers deposited by physical vapor deposition provided on at least a part of at least one main face of the substrate, • a protective coating provided on at least a part of said face above the soft coating, • optionally at least one intermediate coating provided on at least a part of said face between the soft coating and the protective coating, wherein, the protective coating is a radiation cured coating obtained by curing a radiation curable composition comprising one or more compound bearing one or more cyclic ether CEC, and with the proviso that when the optional at least one intermediate coating is a sol-gel coating, the sol-gel coating comprises from 0 to 1.59 wt% of cerium on the total weight of metal, metalloid and lanthanide elements of the sol-gel coating. • a substrate comprising two main faces separated by edges, • a soft coating comprising one or more layers deposited by physical vapor deposition provided on at least a part of at least one main face of the substrate, • a protective coating provided on at least a part of said face above the soft coating, • optionally at least one intermediate coating provided on at least a part of said face between the soft coating and the protective coating, the protective coating is a radiation cured coating obtained by curing a radiation curable composition comprising one or more compound bearing one or more cyclic ether CEC, and with the proviso that when the optional at least one intermediate coating is a sol-gel coating, the sol-gel coating comprises from 0 to 1.59 wt% of cerium on the total weight of metal, metalloid and lanthanide elements of the sol-gel coating.
A fan blade platform assembly (82; 182; 282) for a gas turbine engine, comprising: a pressure side platform half (84; 184; 284) including a first attachment wall (84-2; 184-2), a first gas path wall (84-1; 184-1), and a first connecting wall (84-3; 184-3) attached to both the first attachment wall and the first gas path wall; a suction side platform half (86; 186; 286) including a second attachment wall (86-2; 186-2), a second gas path wall (86-1; 186-1), and a second connecting wall (86-3; 186-3) attached to both the second attachment wall and the second gas path wall; and a seal (88; 188; 288) engaging the pressure side platform half (84; 184; 284) and the suction side platform half (86; 186; 286), characterised in that the seal (88; 188; 288) is fixed relative to one of the first connecting wall and the second connecting wall and is in moveable engagement with to the other of the first connecting wall and the second connecting wall and the seal is V-shaped and follows a curvilinear path in an axial direction. a pressure side platform half (84; 184; 284) including a first attachment wall (84-2; 184-2), a first gas path wall (84-1; 184-1), and a first connecting wall (84-3; 184-3) attached to both the first attachment wall and the first gas path wall; a suction side platform half (86; 186; 286) including a second attachment wall (86-2; 186-2), a second gas path wall (86-1; 186-1), and a second connecting wall (86-3; 186-3) attached to both the second attachment wall and the second gas path wall; and a seal (88; 188; 288) engaging the pressure side platform half (84; 184; 284) and the suction side platform half (86; 186; 286), characterised in that the seal (88; 188; 288) is fixed relative to one of the first connecting wall and the second connecting wall and is in moveable engagement with to the other of the first connecting wall and the second connecting wall and the seal is V-shaped and follows a curvilinear path in an axial direction.
A method for controlling uplink transmission power by a user equipment in a multiple component carrier system, comprising: generating an uplink signal to be transmitted on a first serving cell; receiving from a base station random access initiate information commanding initiation of a random access procedure with respect to a second serving cell; and calculating estimated power headroom based on both a first transmission power scheduled for transmission of the uplink signal and a second transmission power scheduled for transmission of a physical random access channel, PRACH, to which a random access preamble is mapped, wherein the method further comprises, if the estimated power headroom is less than a threshold power transmitting the uplink signal and the PRACH at the same time by adjusting based on a power allocation priority the first transmission power in case the uplink signal comprises a Sounding Reference Signal, SRS, and by adjusting based on a power allocation priority the first transmission power in case the uplink signal comprises a Physical Uplink Shared Channel, PUSCH, which does not include an ACK/NACK Signal, Channel Quality Information, CQI, and a rank indicator and by adjusting based on a power allocation priority the second transmission power in case the uplink signal comprises a Physical Uplink Shared Channel, PUSCH, which includes at least one of an ACK/NACK signal, Channel Quality Information, CQI, and a rank indicator. generating an uplink signal to be transmitted on a first serving cell; receiving from a base station random access initiate information commanding initiation of a random access procedure with respect to a second serving cell; and calculating estimated power headroom based on both a first transmission power scheduled for transmission of the uplink signal and a second transmission power scheduled for transmission of a physical random access channel, PRACH, to which a random access preamble is mapped, wherein the method further comprises, if the estimated power headroom is less than a threshold power transmitting the uplink signal and the PRACH at the same time by adjusting based on a power allocation priority the first transmission power in case the uplink signal comprises a Sounding Reference Signal, SRS, and by adjusting based on a power allocation priority the first transmission power in case the uplink signal comprises a Physical Uplink Shared Channel, PUSCH, which does not include an ACK/NACK Signal, Channel Quality Information, CQI, and a rank indicator and by adjusting based on a power allocation priority the second transmission power in case the uplink signal comprises a Physical Uplink Shared Channel, PUSCH, which includes at least one of an ACK/NACK signal, Channel Quality Information, CQI, and a rank indicator.
A blade for a turbine engine, comprising: an airfoil including a base and a free, tip end, the tip end including at least one porous, abradable element, wherein the at least one porous, abradable element includes a honeycomb, characterised in that: the honeycomb has cell walls that are tapered in wall thickness, having a thicker base portion that tapers to a thinner distal end portion. an airfoil including a base and a free, tip end, the tip end including at least one porous, abradable element, wherein the at least one porous, abradable element includes a honeycomb, characterised in that: the honeycomb has cell walls that are tapered in wall thickness, having a thicker base portion that tapers to a thinner distal end portion.
A method for positioning a Bluetooth beacon device in an indoor positioning system, the method comprising: broadcasting, by the Bluetooth beacon device, a Bluetooth beacon signal comprising an identifier of the Bluetooth beacon device; detecting, in a mobile communication device, the Bluetooth beacon signal; upon detecting the Bluetooth beacon signal determining, by the mobile communication device, an information element indicating a location of the mobile communication device at the time of detecting the Bluetooth beacon signal and transmitting the detected identifier of the Bluetooth beacon device and the information element to a server through a network, wherein the information element is determined by using the indoor positioning system; and determining, by the server, a location of the Bluetooth beacon device on the basis of the received information element and the identifier of the Bluetooth beacon device. broadcasting, by the Bluetooth beacon device, a Bluetooth beacon signal comprising an identifier of the Bluetooth beacon device; detecting, in a mobile communication device, the Bluetooth beacon signal; upon detecting the Bluetooth beacon signal determining, by the mobile communication device, an information element indicating a location of the mobile communication device at the time of detecting the Bluetooth beacon signal and transmitting the detected identifier of the Bluetooth beacon device and the information element to a server through a network, wherein the information element is determined by using the indoor positioning system; and determining, by the server, a location of the Bluetooth beacon device on the basis of the received information element and the identifier of the Bluetooth beacon device.
One or more computer-readable media comprising instructions that, upon execution of the instructions by one or more processors of a base station, are to cause the base station to: identify a parameter related to a zero power, ZP, resource element, RE, mapping set in a physical resource block, PRB, wherein the ZP RE mapping set relates to resources that are not to be used to transmit a physical channel transmission; transmit, to a user equipment, UE, an indication of the ZP RE mapping set, wherein the indication indicates two separate bitmaps related to the ZP RE mapping set and the two separate bitmaps include a first bitmap related to a frequency domain and a second bitmap related to a time domain; and wherein the ZP RE mapping set is one of a plurality of ZP RE mapping sets that have been previously indicated to a UE by a radio resource layer, RRC, signal, and wherein the indication is an indication of a subset of the plurality of ZP RE mapping sets, wherein the subset includes the ZP RE mapping set. identify a parameter related to a zero power, ZP, resource element, RE, mapping set in a physical resource block, PRB, wherein the ZP RE mapping set relates to resources that are not to be used to transmit a physical channel transmission; transmit, to a user equipment, UE, an indication of the ZP RE mapping set, wherein the indication indicates two separate bitmaps related to the ZP RE mapping set and the two separate bitmaps include a first bitmap related to a frequency domain and a second bitmap related to a time domain; and wherein the ZP RE mapping set is one of a plurality of ZP RE mapping sets that have been previously indicated to a UE by a radio resource layer, RRC, signal, and wherein the indication is an indication of a subset of the plurality of ZP RE mapping sets, wherein the subset includes the ZP RE mapping set.
Heat-sensitive recording material in web form, having at least one first ply and a second ply at least partly concealing the first ply, where o the first ply, at least facing the second ply, has an intensive coloration and o the second ply comprises hollow-body pigments which can be melted to form a script by locally confined heat treatment, characterized in that the first ply is concealed virtually opaquely by the second ply and in that the recording material has at least one protective layer at least partly concealing the second ply, and where the at least one protective layer at least partly concealing the second ply comprises as constituents at least: - at least one inorganic pigment, - at least one binder, - at least one wax. o the first ply, at least facing the second ply, has an intensive coloration and o the second ply comprises hollow-body pigments which can be melted to form a script by locally confined heat treatment, - at least one inorganic pigment, - at least one binder, - at least one wax.