mhurhangee/ep-ind-claims huggingface dataset:
A method for managing transmit powers of a wireless broadband terminal operating in a predetermined frequency band in a multi-carrier system, the method comprising: assigning a transmit signal to one or more sub-carriers; and limiting powers of the transmit signal to a predetermined level based on a proximity between the sub-carriers and an edge of the predetermined frequency band, wherein the power of the transmit signal on a predetermined sub-carrier is lower if it has less guard band toward the edge of the predetermined frequency band; characterized in that the limiting further includes: receiving at the wireless broadband terminal from a base station an output power profile, the power profile indicating how power should be managed over the predetermined frequency band including the sub-carriers; and limiting powers of the transmit signal based on the received power profile. assigning a transmit signal to one or more sub-carriers; and limiting powers of the transmit signal to a predetermined level based on a proximity between the sub-carriers and an edge of the predetermined frequency band, wherein the power of the transmit signal on a predetermined sub-carrier is lower if it has less guard band toward the edge of the predetermined frequency band; characterized in that the limiting further includes: receiving at the wireless broadband terminal from a base station an output power profile, the power profile indicating how power should be managed over the predetermined frequency band including the sub-carriers; and limiting powers of the transmit signal based on the received power profile. receiving at the wireless broadband terminal from a base station an output power profile, the power profile indicating how power should be managed over the predetermined frequency band including the sub-carriers; and limiting powers of the transmit signal based on the received power profile.
A cylinder for a reciprocating piston internal combustion engine, in particular for a uniflow-scavenged large two-stroke diesel engine, with a gas supply system, wherein the gas supply system comprises a gas inlet valve having a gas inlet nozzle, which is configured such that it can be arranged in a cylinder wall of the cylinder of the reciprocating piston internal combustion engine such that a fuel gas provided as fuel can be supplied to a combustion space of the cylinder by means of the gas inlet nozzle in the installed state of the gas supply system, wherein the gas inlet valve comprises a pressure space, which is arranged in a valve housing, in which pressure space the fuel gas can be provided via a gas supply for storage and supply into the gas inlet nozzle in the operating state, and a valve body having a valve disk arranged at a valve shaft and having a valve seat is provided in the pressure space, said valve seat sealingly cooperating with the valve disk in a closed state of the valve body such that the supply of the fuel gas from the pressure space into the gas inlet nozzle is inhibited and the valve disk can be raised from the valve seat by means of a valve drive being in operative communication with the valve shaft such that the fuel gas can be supplied to the gas inlet nozzle from the pressure space past the valve disk in an open state of the valve body, wherein a monitoring system for determining a position of the valve body is provided for monitoring a fuel gas flow into the combustion space, characterized in that the gas supply system is provided in a region of the cylinder wall between a top dead center and a bottom dead center of a piston of the reciprocating piston internal combustion engine, and that the monitoring system is in signal communication with a monitoring unit and the position of the valve body in the operating state can be detected by the monitoring unit such that a fuel gas supply to the gas inlet nozzle can be inhibited in dependence on a crank angle of the reciprocating piston internal combustion engine and/or in dependence on a position of a gas exchange valve of the reciprocating piston internal combustion engine.
A fixing device for fixing at least one solar collector to a pylon or the like, wherein the fixing device comprises a collector pedestal for the at least one solar collector that can be fixed to the pylon, a reversing device that can detachably be fixed to the pylon, a winch device, a lift body that is moveable along the pylon; and a traction means, wherein the traction means has a first end fixed to the winch device and a second end fixed to the lift body, wherein the traction means is at least partially guided at the reversing device between the first end and the second end, wherein the traction means is fixed to the winch device such that the length of the traction means between winch device and the lift body can be reduced by the traction means and the reversing device guides the traction means above the installation position of the at least one solar collector at the pylon, wherein the collector pedestal can be moved along the pylon by means of the lift body, characterized in that the lift body has a guiding means, wherein the guiding means abuts on the pylon, and the guiding means has at least a first guiding means part and a second guiding means part, wherein the distance between the first guiding means part and a second guiding means part can be adjusted.
An interlayer film for a laminated glass, which contains (i) a polyvinyl acetal resin; (ii) a moisture resistance improver, which is a phosphate ester compound selected from poly(oxyethylene) octylphenyl ether phosphate ester, poly(oxyethylene) nonylphenyl ether phosphate ester, poly(oxyethylene) laurylphenyl ether phosphate ester; and (iii) 2-ethyl hexanoic acid. (i) a polyvinyl acetal resin; (ii) a moisture resistance improver, which is a phosphate ester compound selected from poly(oxyethylene) octylphenyl ether phosphate ester, poly(oxyethylene) nonylphenyl ether phosphate ester, poly(oxyethylene) laurylphenyl ether phosphate ester; and (iii) 2-ethyl hexanoic acid.
An applicator for implantation of an implant, having a cylinder, a plunger displaceably mounted therein, and a cylinder part, which plunger has a pusher plunger for pushing the implant out of a cannula, wherein the cannula is mountable on coupling of a cylinder part, the cylinder part being movably guided in the cylinder, there being provided a gear mechanism which couples the plunger to the cylinder part, a movement of the plunger relative to the cylinder being converted into an opposite movement of the cylinder part, characterized in that a sleeve that at least partially surrounds the cylinder is provided, the sleeve being displaceably mounted around the cylinder and being displaceable beyond the coupling-side end of the cylinder until it at least partially surrounds a cannula coupled to the coupling of the applicator.
A scalable liquid submersion cooling system (10, 60, 70, 80) for electronics, comprising: a plurality of modular electronics enclosures (12, 12a, 12b, 12c), each enclosure includes a liquid-tight section that houses a plurality of electronic components to be liquid submersion cooled, a plurality of electronic components in the liquid-tight section, a liquid inlet to the liquid-tight section, and a liquid outlet from the liquid-tight section; a plurality of modular manifolds (14, 14a, 14b, 14c) each of which is configured to fluidly connect to at least one of the electronics enclosures (12, 12a, 12b, 12c), each modular manifold (14, 14a, 14b, 14c) includes a liquid supply manifold portion and a liquid return manifold portion, a plurality of liquid supply outlets in the liquid supply manifold portion, at least one liquid supply inlet in the liquid supply manifold portion, a plurality of liquid return inlets in the liquid return manifold portion, and at least one liquid return outlet in the liquid return manifold portion; and for each of the modular manifolds (14, 14a, 14b, 14c), the number of liquid supply outlets and the number of liquid return inlets differ from the other modular manifolds (14, 14a, 14b, 14c) but are the same within each modular manifold (14, 14a, 14b, 14c); a plurality of modular pumps (16, 16a, 16b, 16c) each of which is configured to fluidly connect to the modular manifolds(14, 14a, 14b, 14c), each pump (16, 16a, 16b, 16c) having a different pumping performance; and a plurality of modular heat exchanger units (18, 18a, 18b). a plurality of modular electronics enclosures (12, 12a, 12b, 12c), each enclosure includes a liquid-tight section that houses a plurality of electronic components to be liquid submersion cooled, a plurality of electronic components in the liquid-tight section, a liquid inlet to the liquid-tight section, and a liquid outlet from the liquid-tight section; a plurality of modular manifolds (14, 14a, 14b, 14c) each of which is configured to fluidly connect to at least one of the electronics enclosures (12, 12a, 12b, 12c), each modular manifold (14, 14a, 14b, 14c) includes a liquid supply manifold portion and a liquid return manifold portion, a plurality of liquid supply outlets in the liquid supply manifold portion, at least one liquid supply inlet in the liquid supply manifold portion, a plurality of liquid return inlets in the liquid return manifold portion, and at least one liquid return outlet in the liquid return manifold portion; and for each of the modular manifolds (14, 14a, 14b, 14c), the number of liquid supply outlets and the number of liquid return inlets differ from the other modular manifolds (14, 14a, 14b, 14c) but are the same within each modular manifold (14, 14a, 14b, 14c); a plurality of modular pumps (16, 16a, 16b, 16c) each of which is configured to fluidly connect to the modular manifolds(14, 14a, 14b, 14c), each pump (16, 16a, 16b, 16c) having a different pumping performance; and a plurality of modular heat exchanger units (18, 18a, 18b).
Use of a viscosity index improving additive in an automotive fuel composition, for the purpose of improving the lubricity of the fuel composition, wherein the viscosity index improving additive is a star-shaped polyisoprene-based polymer characterized by the formula: D ′ − PA − D " n − X; wherein D' represents a block derived from at least one diene; PA represents a block derived from monoalkenyl arene; D" represents a block derived from diene; n represents the average number of arms per star polymer formed by the reaction of 2 or more moles of a polyalkenyl coupling agent per mole of arms; and X represents a nucleus of a polyalkenyl coupling agent; wherein at least one of diene blocks D' and D" is a copolymer block derived from mixed diene monomer, in which from about 65wt% to about 95wt% of the incorporated monomer units are from isoprene and from about 5wt% up to about 35wt% of the incorporated monomer units are from butadiene, and wherein at least about 80wt% of the butadiene is incorporated in a 1,4-configuration; and wherein D' has a number average molecular weight of from about 10,000 to about 120,000 daltons; PA has a number average molecular weight of from about 10,000 to about 50,000 daltons; and D" has a number average molecular weight of from about 5,000 to about 60,000 daltons. wherein D' represents a block derived from at least one diene; PA represents a block derived from monoalkenyl arene; D" represents a block derived from diene; n represents the average number of arms per star polymer formed by the reaction of 2 or more moles of a polyalkenyl coupling agent per mole of arms; and X represents a nucleus of a polyalkenyl coupling agent; wherein at least one of diene blocks D' and D" is a copolymer block derived from mixed diene monomer, in which from about 65wt% to about 95wt% of the incorporated monomer units are from isoprene and from about 5wt% up to about 35wt% of the incorporated monomer units are from butadiene, and wherein at least about 80wt% of the butadiene is incorporated in a 1,4-configuration; and wherein D' has a number average molecular weight of from about 10,000 to about 120,000 daltons; PA has a number average molecular weight of from about 10,000 to about 50,000 daltons; and D" has a number average molecular weight of from about 5,000 to about 60,000 daltons.
Household dishwasher with a dishwasher cavity and a base support, which comprises a groove-shaped receiving region with a base and which supports the dishwasher cavity, wherein the dishwasher cavity comprises a base, a dishwasher cavity casing connected to the base and a rear wall connected both to the base and also to the dishwasher cavity casing, wherein the base comprises a first connection flange and the rear wall comprises a second connection flange that rests against the first connection flange of the base at least in sections and wherein the second connection flange of the rear wall has a deformation region, wherein - the deformation region of the second connection flange of the rear wall projects in the direction onto the base of the groove-shaped receiving region of the base support to beyond the first connection flange of the base and - the deformation region of the second connection flange of the rear wall is bent in a direction oriented away from the first connection flange of the base in such a way that the deformation region of the second connection flange of the rear wall rests against the second connection flange of the rear wall. - the deformation region of the second connection flange of the rear wall projects in the direction onto the base of the groove-shaped receiving region of the base support to beyond the first connection flange of the base and - the deformation region of the second connection flange of the rear wall is bent in a direction oriented away from the first connection flange of the base in such a way that the deformation region of the second connection flange of the rear wall rests against the second connection flange of the rear wall.
A method comprising: receiving an Ethernet frame, wherein the Ethernet frame comprises an Ethernet source address, an Ethernet destination address, and an IP datagram, wherein the IP datagram comprises an IP header and an IP payload, wherein the IP payload comprises a User Datagram Protocol, UDP, header; calculating a length in bytes of the IP payload of the IP datagram; comparing the calculated IP payload length to a predetermined value; and passing a portion or all of the Ethernet frame to a UDP layer of a protocol stack if the calculated IP payload length is equal to or greater than the predetermined value or dropping the portion or all of the Ethernet frame if the calculated IP payload length is less than the predetermined value, further comprising counting data bytes of the Ethernet frame to generate a total number of counted bytes, wherein the IP payload length is calculated as a function of the total number of counted bytes. receiving an Ethernet frame, wherein the Ethernet frame comprises an Ethernet source address, an Ethernet destination address, and an IP datagram, wherein the IP datagram comprises an IP header and an IP payload, wherein the IP payload comprises a User Datagram Protocol, UDP, header; calculating a length in bytes of the IP payload of the IP datagram; comparing the calculated IP payload length to a predetermined value; and passing a portion or all of the Ethernet frame to a UDP layer of a protocol stack if the calculated IP payload length is equal to or greater than the predetermined value or dropping the portion or all of the Ethernet frame if the calculated IP payload length is less than the predetermined value, further comprising counting data bytes of the Ethernet frame to generate a total number of counted bytes, wherein the IP payload length is calculated as a function of the total number of counted bytes.
A liquid ejecting apparatus which ejects liquid onto a medium, the liquid ejecting apparatus comprising: a carriage which includes a control substrate configuring at least a part of a control unit which controls driving of the entire liquid ejecting apparatus, an ejecting unit which ejects the liquid, and a driving substrate which is connected to the control substrate and the ejecting unit, and drives the ejecting unit, wherein the carriage is provided with a fixing unit which fixes a position of the driving substrate with respect to a position of the ejecting unit, characterized in that the fixing unit is provided on the upper side of the driving substrate, in the carriage. a carriage which includes a control substrate configuring at least a part of a control unit which controls driving of the entire liquid ejecting apparatus, an ejecting unit which ejects the liquid, and a driving substrate which is connected to the control substrate and the ejecting unit, and drives the ejecting unit, wherein the carriage is provided with a fixing unit which fixes a position of the driving substrate with respect to a position of the ejecting unit, characterized in that the fixing unit is provided on the upper side of the driving substrate, in the carriage.
A signal transmission method of an Evolved Node B, ENB,, the ENB using a plurality of two or more antenna ports and comprising at least two transmission paths (PathA, PathB), each path corresponding to an antenna port of the plurality of antenna ports, the method comprising: identifying, by an ENB controller, a start point of a subframe; identifying, by the ENB controller, whether a physical downlink shared channel, PDSCH, is transmitted in a corresponding subframe on the at least two transmission paths (PathA, PathB), respectively, based on the start point of the subframe; determining (315, 320), by the ENB controller, a connection state for each transmission path (PathA, PathB) based on whether the PDSCH is transmitted in the corresponding subframe on the at least two transmission paths (PathA, PathB), respectively, the connection state comprising an on state and an off state, wherein the on state is determined for each transmission path if the PDSCH is transmitted on at least one of the at least two transmission paths so as to control the ENB to operate in a Multiple-Input Multiple-Output, MIMO, mode, and if the PDSCH is not transmitted in the at least two transmission paths, the on state is determined for one of the at least two transmission paths while the off state is determined for the remaining of the at least two transmission paths, so as to control the ENB to operate in a Single-Input Multiple-Output, SIMO, mode; and transmitting a signal based on the determined connection state for each transmission path (PathA, PathB). identifying, by an ENB controller, a start point of a subframe; identifying, by the ENB controller, whether a physical downlink shared channel, PDSCH, is transmitted in a corresponding subframe on the at least two transmission paths (PathA, PathB), respectively, based on the start point of the subframe; determining (315, 320), by the ENB controller, a connection state for each transmission path (PathA, PathB) based on whether the PDSCH is transmitted in the corresponding subframe on the at least two transmission paths (PathA, PathB), respectively, the connection state comprising an on state and an off state, wherein the on state is determined for each transmission path if the PDSCH is transmitted on at least one of the at least two transmission paths so as to control the ENB to operate in a Multiple-Input Multiple-Output, MIMO, mode, and if the PDSCH is not transmitted in the at least two transmission paths, the on state is determined for one of the at least two transmission paths while the off state is determined for the remaining of the at least two transmission paths, so as to control the ENB to operate in a Single-Input Multiple-Output, SIMO, mode; and transmitting a signal based on the determined connection state for each transmission path (PathA, PathB).
A method to be executed at least in part in a computing device for generating an enhanced simulated video from a camera feed, the method comprising: receiving an original video input from a single-direction camera; generating a stream of vehicle video patches by capturing images of vehicles in frames where the vehicles appear near the camera, and adjusting a size of the captured images; buffering a predefined number of frames; matching more distant vehicles in the vehicle video patches at a time t to closer same vehicles in the vehicle video patches at a later time t + n; replacing the more distant vehicles at time t with patches of closer same vehicles at time t + n; fusing the vehicle video patches into a simulated video displaying the vehicles, wherein intermediate frames are created if the frame rate of the input video differs from the frame rate of the simulated video; and rendering the simulated video. receiving an original video input from a single-direction camera; generating a stream of vehicle video patches by capturing images of vehicles in frames where the vehicles appear near the camera, and adjusting a size of the captured images; buffering a predefined number of frames; matching more distant vehicles in the vehicle video patches at a time t to closer same vehicles in the vehicle video patches at a later time t + n; replacing the more distant vehicles at time t with patches of closer same vehicles at time t + n; fusing the vehicle video patches into a simulated video displaying the vehicles, wherein intermediate frames are created if the frame rate of the input video differs from the frame rate of the simulated video; and rendering the simulated video.
A thin film forming apparatus to form a thin film by film forming means on each of a plurality of substrates held on an outer circumferential surface of a drum type substrate holder that is rotatable about a rotating shaft, while the substrate holder is being rotated in an evacuatable chamber, wherein the apparatus comprises an arm to transfer a substrate fixing jig fixedly holding a substrate or a plurality of substrates that is to be removably secured onto the outer circumferential surface of the substrate holder to/from the substrate holder in the chamber; and securing means to releasably secure the substrate fixing jig transferred by the arm onto the outer circumferential surface of the substrate holder; wherein the substrate holder is installed rotatably about a horizontal rotating shaft; the arm is provided outside of the chamber and the arm transfers the substrate fixing jig in a direction parallel to the rotating shaft along an outer circumferential surface of the substrate holder and the securing means is provided with the substrate holder along the longitudinal direction of the substrate holder and the securing means fixes end parts of the substrate fixing jig which is transferred by the arm on the substrate holder, a substrate hand section of the arm can be inserted between the substrate holder and a substrate fixing section of the substrate fixing jig, wherein the substrate fixing section is provided between the end parts and is bent outwardly to be raised above the end parts.