mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication by a User Equipment, UE, comprising: determining a constraint on a total number of transfer domain coefficients to be reported for compressed Channel State Information, CSI, feedback by the UE for a plurality of beams identified for the feedback, wherein each transfer domain coefficient is associated with amplitude information and phase information, wherein the transfer domain is based at least on a set of DFT, Discrete Fourier Transform, bases or a set of DCT, Discrete Cosine Transfer, bases; selecting from a transfer domain coefficient compression matrix, based on the constraint, a set of one or more transfer domain coefficients to report for each of the beams; reporting information indicating a number of selected transfer domain coefficients in the set of transfer domain coefficients for each beam and a location of each transfer domain coefficient within the transfer domain coefficient compression matrix; and reporting at least the amplitude and phase information for the selected coefficients, wherein the reported amplitude and phase information comprises beam-specific amplitude and phase values and coefficient-specific differential amplitude values and differential phase value, wherein a number of bits used for reporting amplitude and phase information comprises a number of bits for reporting the beam-specific amplitude and phase values, and a number of bits for reporting the coefficient-specific differential amplitude values and differential phase values. determining a constraint on a total number of transfer domain coefficients to be reported for compressed Channel State Information, CSI, feedback by the UE for a plurality of beams identified for the feedback, wherein each transfer domain coefficient is associated with amplitude information and phase information, wherein the transfer domain is based at least on a set of DFT, Discrete Fourier Transform, bases or a set of DCT, Discrete Cosine Transfer, bases; selecting from a transfer domain coefficient compression matrix, based on the constraint, a set of one or more transfer domain coefficients to report for each of the beams; reporting information indicating a number of selected transfer domain coefficients in the set of transfer domain coefficients for each beam and a location of each transfer domain coefficient within the transfer domain coefficient compression matrix; and reporting at least the amplitude and phase information for the selected coefficients, wherein the reported amplitude and phase information comprises beam-specific amplitude and phase values and coefficient-specific differential amplitude values and differential phase value, wherein a number of bits used for reporting amplitude and phase information comprises a number of bits for reporting the beam-specific amplitude and phase values, and a number of bits for reporting the coefficient-specific differential amplitude values and differential phase values.
A bag-in-box system for use in dispensing a pumpable product comprising: a) a carton; b) a flexible thermoplastic pouch disposed in the carton; c) a spout joined to the pouch; d) a spout closure, and e) a pumpable product disposed in the pouch; wherein the flexible thermoplastic pouch comprises i) an outer wall (22, 26; 32, 36) comprising a coextruded film comprising (a) an outer heat-sealable layer comprising an ethylene polymer or copolymer; (b) a first tie layer disposed between the heat-sealable layer and a first intermediate layer, the tie layer comprising a chemically modified polyolefinic adhesive; (c) the first intermediate layer comprising a polyamide; (d) a core layer bonded to said first intermediate layer comprising an ethylene vinyl alcohol copolymer or a chemically modified polyolefinic adhesive; (e) a second intermediate layer bonded to said core layer, and comprising a polyamide; and (f) a second tie layer bonded to the second intermediate layer comprising a self-weldable chemically modified polyolefinic adhesive; wherein the film is a collapsed lay-flat tubular film; and ii) a discrete inner wall (24, 28; 34, 38) comprising ethylene polymer or copolymer; the outer wall (22, 26; 32, 36) sealed to the discrete inner wall (24, 28; 34, 38) at the perimeter of the pouch. a) a carton; b) a flexible thermoplastic pouch disposed in the carton; c) a spout joined to the pouch; d) a spout closure, and e) a pumpable product disposed in the pouch; i) an outer wall (22, 26; 32, 36) comprising a coextruded film comprising (a) an outer heat-sealable layer comprising an ethylene polymer or copolymer; (b) a first tie layer disposed between the heat-sealable layer and a first intermediate layer, the tie layer comprising a chemically modified polyolefinic adhesive; (c) the first intermediate layer comprising a polyamide; (d) a core layer bonded to said first intermediate layer comprising an ethylene vinyl alcohol copolymer or a chemically modified polyolefinic adhesive; (e) a second intermediate layer bonded to said core layer, and comprising a polyamide; and (f) a second tie layer bonded to the second intermediate layer comprising a self-weldable chemically modified polyolefinic adhesive; wherein the film is a collapsed lay-flat tubular film; and (a) an outer heat-sealable layer comprising an ethylene polymer or copolymer; (b) a first tie layer disposed between the heat-sealable layer and a first intermediate layer, the tie layer comprising a chemically modified polyolefinic adhesive; (c) the first intermediate layer comprising a polyamide; (d) a core layer bonded to said first intermediate layer comprising an ethylene vinyl alcohol copolymer or a chemically modified polyolefinic adhesive; (e) a second intermediate layer bonded to said core layer, and comprising a polyamide; and (f) a second tie layer bonded to the second intermediate layer comprising a self-weldable chemically modified polyolefinic adhesive; ii) a discrete inner wall (24, 28; 34, 38) comprising ethylene polymer or copolymer;
A thermal protective coating, comprising, in dry admixture: from 5 % to 35 % of colloidal silica, colloidal alumina, or combinations thereof; from 23 % to 79 % of a filler taken from the group consisting of silicon dioxide, aluminum oxide, titanium dioxide, magnesium oxide, calcium oxide, and boron oxide; from 2 % to 20 % of one or more emissivity agents taken from the group consisting of silicon hexaboride, boron carbide, silicon tetraboride, silicon carbide, molybdenum disilicide, tungsten disilicide, zirconium diboride, cupric chromite, and metallic oxides; and from 1.5 % to 5.0 % of a stabilizer taken from the group consisting of bentonite, kaolin, magnesium alumina silica clay, tabular alumina, and stabilized zirconium oxide. from 5 % to 35 % of colloidal silica, colloidal alumina, or combinations thereof; from 23 % to 79 % of a filler taken from the group consisting of silicon dioxide, aluminum oxide, titanium dioxide, magnesium oxide, calcium oxide, and boron oxide; from 2 % to 20 % of one or more emissivity agents taken from the group consisting of silicon hexaboride, boron carbide, silicon tetraboride, silicon carbide, molybdenum disilicide, tungsten disilicide, zirconium diboride, cupric chromite, and metallic oxides; and from 1.5 % to 5.0 % of a stabilizer taken from the group consisting of bentonite, kaolin, magnesium alumina silica clay, tabular alumina, and stabilized zirconium oxide.
A method performed at a server for instructing a vehicle where and when to refuel, the method comprising: determining a real-time GPS location for a vehicle; determining at least one fuel stop along a route for the vehicle; calculating the fuel stop for the vehicle based on a workflow, a real-time driver profile, a configuration of the vehicle, the real-time GPS location of the vehicle, real-time vehicle data, at least one dynamic compliance rule, and a selected fuel stop profile, wherein the configuration of the vehicle is selected from one of a single vehicle, a vehicle with one or more trailers, and a vehicle with one or more refrigeration trailers and the workflow comprises an origination location of the vehicle, a destination of the vehicle, a route to the destination, a cargo, a time of departure and a time of arrival; and transmitting to the vehicle guidance to the selected fuel stop from the current location of the vehicle, wherein the guidance includes micro-navigation to an exact fuel pump of the fuel stop for fueling during a predetermined fueling time period; wherein the at least one dynamic compliance rule is selected from: speed limits, a transport of toxic waste, a transport of refrigerated cargo, rest durations for drivers, a necessary insurance coverage, or a type of taxes and fees to be paid. determining a real-time GPS location for a vehicle; determining at least one fuel stop along a route for the vehicle; calculating the fuel stop for the vehicle based on a workflow, a real-time driver profile, a configuration of the vehicle, the real-time GPS location of the vehicle, real-time vehicle data, at least one dynamic compliance rule, and a selected fuel stop profile, wherein the configuration of the vehicle is selected from one of a single vehicle, a vehicle with one or more trailers, and a vehicle with one or more refrigeration trailers and the workflow comprises an origination location of the vehicle, a destination of the vehicle, a route to the destination, a cargo, a time of departure and a time of arrival; and transmitting to the vehicle guidance to the selected fuel stop from the current location of the vehicle, wherein the guidance includes micro-navigation to an exact fuel pump of the fuel stop for fueling during a predetermined fueling time period;
A method for modifying a casing in a turbine system, the method comprising: engaging a jig with a hole defined in a spot face on the casing, the jig comprising at least one machining passage and at least one alignment feature, the alignment feature comprising an alignment passage and alignment pin, the alignment passage including a threaded inner wall and the alignment pin including a mating threaded outer surface. aligning the jig with respect to the casing by screwing the alignment pin into the alignment passage until the threaded outer surface of the pin has engaged the threaded inner wall of the passage to a specified torque; and machining at least one installation hole into the casing through the spot face. engaging a jig with a hole defined in a spot face on the casing, the jig comprising at least one machining passage and at least one alignment feature, the alignment feature comprising an alignment passage and alignment pin, the alignment passage including a threaded inner wall and the alignment pin including a mating threaded outer surface. aligning the jig with respect to the casing by screwing the alignment pin into the alignment passage until the threaded outer surface of the pin has engaged the threaded inner wall of the passage to a specified torque; and machining at least one installation hole into the casing through the spot face.
Internal combustion engine having four cylinders (12a, 12b, 12c, 12d), wherein each cylinder (12a, 12b, 12c, 12d) has a first inlet valve and at least one second inlet valve, wherein an inlet camshaft having actuating cams (30, 32, 34) associated with the inlet valves (14, 16) is provided for actuating the first inlet valves and the at least second inlet valves, wherein each first inlet valve is associated with a first actuating cam having a first cam geometry and a second actuating cam having a second cam geometry, wherein the first cam geometry and the second cam geometry differ from one another at least over a portion of their periphery, wherein the first actuating cam and the second actuating cam can be activated, if necessary, by means of at least one valve train adjusting device by a relative displacement with respect to the associated first inlet valve in the axial direction of the inlet camshaft in order to actuate the relevant first inlet valve, and wherein at at least one cylinder (12b, 12c), the second inlet valve is associated with a first actuating cam having a first cam geometry and a second actuating cam having a second cam geometry, wherein the first cam geometry and the second cam geometry differ from one another at least over a portion of their periphery, wherein the first actuating cam and the second actuating cam can be activated, if necessary, by means of at least one valve train adjusting device by the relative displacement with respect to the associated second inlet valve in the axial direction of the inlet camshaft in order to actuate the second inlet valve, wherein a) at exactly two cylinders (12b, 12c), the second inlet valve is associated with a first actuating cam having a first cam geometry and a second actuating cam having a second cam geometry and b) at exactly two cylinders (12a, 12d), the second inlet valve is associated with only one individual actuating cam in each case, wherein the second cam geometry of the second actuating cam is designed such that, when the second actuating cam is activated, it causes a zero stroke on the corresponding inlet valve (14, 16) and wherein the first inlet valves are each associated with a filling duct and the second inlet valves are each associated with a swirl duct. a) at exactly two cylinders (12b, 12c), the second inlet valve is associated with a first actuating cam having a first cam geometry and a second actuating cam having a second cam geometry and b) at exactly two cylinders (12a, 12d), the second inlet valve is associated with only one individual actuating cam in each case,
A method, comprising: obtaining, by a first device, a first measured result; generating, by the first device, a first data packet in a first format, the first data packet based, at least in part, on the first measured result, and the first format associated with the first device; generating, by the first device, a second data packet in a second format, the second data packet based, at least in part, on a portion of the first data packet; and transmitting the first data packet in the first format and the second data packet in the second format via a first communications network; wherein the second data packet in the second format contains actionable information derived from the first data packet in the first format, and wherein the first device comprises an analyzer, an automation system, or an loT device characterized in that the second format being independent of the first device. obtaining, by a first device, a first measured result; generating, by the first device, a first data packet in a first format, the first data packet based, at least in part, on the first measured result, and the first format associated with the first device; generating, by the first device, a second data packet in a second format, the second data packet based, at least in part, on a portion of the first data packet; and transmitting the first data packet in the first format and the second data packet in the second format via a first communications network; wherein the second data packet in the second format contains actionable information derived from the first data packet in the first format, and wherein the first device comprises an analyzer, an automation system, or an loT device characterized in that the second format being independent of the first device.
An installation for producing a spun-bonded web, comprising a spinnerette with a diffusor for producing endless filaments, with a first discharge belt, which is formed to transport the endless filaments and to transfer them to a subsequent second discharge belt, wherein at least one device for the water jet entangling of the endless filaments to a spun-bonded web is disposed at the second discharge belt, wherein in the following the spun-bonded web is entangled and/or textured by means of at least one further water jet entangling (13, 15), wherein the first discharge belt transports the endless filaments in a dry and untangled condition, wherein a roll is disposed at the start of the second discharge belt or at the end of the first discharge belt, characterized in that the endless filaments are guided around the roll at a smaller wrap angle of up to 45°, in order to reduce the sagging of the endless filaments in the nip between the first and the second discharge belt (4, 7).
A water craft comprising a body and at least two water engaging means (11, 12), the body being at least partially suspended above the at least two water engaging means by a suspension system, locating means (451, 452, 457, 458) being provided to connect each water engaging means (11, 12) to the body to permit substantially vertical and pitch direction motions of the water engaging means relative to the body, the suspension system including: at least one front pitch support ram and at least one back pitch support ram, the front and back pitch support rams providing support for at least a portion of the body relative to the at least two water engaging means (11, 12); and the at least one front pitch support ram including at least a compression chamber forming a front pitch compression volume and the at least one back pitch support ram including at least a compression chamber forming a back pitch compression volume; characterised by a body pitch conduit connected between the front pitch compression volume and the back pitch compression volume, the body pitch conduit including a body pitch device dividing the body pitch conduit into a front body pitch conduit portion and a back body pitch conduit portion, the body pitch device controlling the effective flow of fluid between the body pitch conduit front and back portions. at least one front pitch support ram and at least one back pitch support ram, the front and back pitch support rams providing support for at least a portion of the body relative to the at least two water engaging means (11, 12); and the at least one front pitch support ram including at least a compression chamber forming a front pitch compression volume and the at least one back pitch support ram including at least a compression chamber forming a back pitch compression volume; characterised by a body pitch conduit connected between the front pitch compression volume and the back pitch compression volume, the body pitch conduit including a body pitch device dividing the body pitch conduit into a front body pitch conduit portion and a back body pitch conduit portion, the body pitch device controlling the effective flow of fluid between the body pitch conduit front and back portions.
A Power Distribution Unit, the PDU comprising: an input configured to be coupled to a power source to receive 3-phase power from the power source; a plurality of phase lines (220, 222, 224) coupled to the input, each phase line configured to carry one phase of the 3-phase power; a neutral line coupled to the input; at least one outlet; at least one switch circuit configured to selectively couple the at least one outlet to the plurality of phase lines; a data connection; and a controller coupled to the at least one switch circuit and the data connection, wherein the controller is configured to monitor current from the plurality of phase lines (220, 222, 224) to the at least one outlet, receive, via the data connection, phase loading information related to 3-phase power of at least one external device coupled to the power source, and operate the at least one switch circuit to selectively couple the at least one outlet to at least one of the plurality of phase (220, 222, 224) lines based on the current and the received phase loading information, characterized in that the at least one switch circuit comprises: a first switch circuit configured to selectively couple the at least one outlet to a first one of the plurality of phase lines (220, 222, 224); and a second switch circuit configured to selectively couple the at least one outlet to one of the neutral line and a second one of the plurality of phase lines (220, 222, 224). an input configured to be coupled to a power source to receive 3-phase power from the power source; a plurality of phase lines (220, 222, 224) coupled to the input, each phase line configured to carry one phase of the 3-phase power; a neutral line coupled to the input; at least one outlet; at least one switch circuit configured to selectively couple the at least one outlet to the plurality of phase lines; a data connection; and a controller coupled to the at least one switch circuit and the data connection, wherein the controller is configured to monitor current from the plurality of phase lines (220, 222, 224) to the at least one outlet, receive, via the data connection, phase loading information related to 3-phase power of at least one external device coupled to the power source, and operate the at least one switch circuit to selectively couple the at least one outlet to at least one of the plurality of phase (220, 222, 224) lines based on the current and the received phase loading information, characterized in that the at least one switch circuit comprises: a first switch circuit configured to selectively couple the at least one outlet to a first one of the plurality of phase lines (220, 222, 224); and a second switch circuit configured to selectively couple the at least one outlet to one of the neutral line and a second one of the plurality of phase lines (220, 222, 224). a first switch circuit configured to selectively couple the at least one outlet to a first one of the plurality of phase lines (220, 222, 224); and a second switch circuit configured to selectively couple the at least one outlet to one of the neutral line and a second one of the plurality of phase lines (220, 222, 224).