mhurhangee/ep-ind-claims huggingface dataset:
A premixing apparatus for a gas turbine system, the premixing apparatus comprising: fuel inlets configured to receive fuel and direct the fuel into the premixing apparatus; a swirl assembly at a center of a face of the premixing apparatus, the swirl assembly including swirl vanes, wherein each of the swirl vanes includes a fuel injection port in fluid communication with the fuel inlet and through which fuel is delivered from the fuel injection port to mix the fuel with oxidant flowing around the swirl vanes to produce a first fuel/oxidant mixture which flows to a combustion chamber for combustion; and non-swirl elements surrounding the swirl assembly, each non-swirl element comprising a micromixer including tubes arranged in a tube bundle, wherein the micromixer is in fluid communication with the fuel inlet and fuel and an oxidant are premixed within each tube to produce a second fuel/oxidant mixture flowing from the non-swirl elements to the combustion chamber for combustion. fuel inlets configured to receive fuel and direct the fuel into the premixing apparatus; a swirl assembly at a center of a face of the premixing apparatus, the swirl assembly including swirl vanes, wherein each of the swirl vanes includes a fuel injection port in fluid communication with the fuel inlet and through which fuel is delivered from the fuel injection port to mix the fuel with oxidant flowing around the swirl vanes to produce a first fuel/oxidant mixture which flows to a combustion chamber for combustion; and non-swirl elements surrounding the swirl assembly, each non-swirl element comprising a micromixer including tubes arranged in a tube bundle, wherein the micromixer is in fluid communication with the fuel inlet and fuel and an oxidant are premixed within each tube to produce a second fuel/oxidant mixture flowing from the non-swirl elements to the combustion chamber for combustion.
A knee revision prosthesis having anterior, posterior, lateral, medial, distal and proximal sides and sagittal, coronal and transverse planes, comprising: a) a femoral component that connects to the distal end of a resected femur, said femoral component including: i) medial and lateral condyles (22, 24) having distal, articulating surfaces and proximal mounting surfaces (21a-e); ii) a patellar flange having a patellar articulating surface that bridges the anterior ends (28, 30) of the femoral articulating surfaces; b) a tibial component that connects to the proximal end of a resected tibia, said tibial component including a proximal bearing surface with medial and lateral concavities (72, 74) that articulate with said medial and lateral condyles (22, 24); c) progressive constraint means for providing progressively increasing and progressively decreasing rotational constraint of the femoral component in the coronal and transverse planes as the femoral component rotates in the sagittal plane between full extension, to a position in flexion, and then back to full extension; characterized in that the progressive constraint means provides rotational constraint of the femoral component in the coronal and transverse planes at a non-constant rate of change as the femoral component rotates in the sagittal plane between full extension, to a position in flexion, and then back to full extension. a) a femoral component that connects to the distal end of a resected femur, said femoral component including: i) medial and lateral condyles (22, 24) having distal, articulating surfaces and proximal mounting surfaces (21a-e); ii) a patellar flange having a patellar articulating surface that bridges the anterior ends (28, 30) of the femoral articulating surfaces; i) medial and lateral condyles (22, 24) having distal, articulating surfaces and proximal mounting surfaces (21a-e); ii) a patellar flange having a patellar articulating surface that bridges the anterior ends (28, 30) of the femoral articulating surfaces; b) a tibial component that connects to the proximal end of a resected tibia, said tibial component including a proximal bearing surface with medial and lateral concavities (72, 74) that articulate with said medial and lateral condyles (22, 24); c) progressive constraint means for providing progressively increasing and progressively decreasing rotational constraint of the femoral component in the coronal and transverse planes as the femoral component rotates in the sagittal plane between full extension, to a position in flexion, and then back to full extension;
A method of transmitting channel state information, CSI, feedback reporting by a user equipment, UE, in a wireless communication system, the method comprising: receiving information on one or more resource regions configured for the UE from an eNode B; and when a first periodic CSI reporting is configured for a primary resource region, a second periodic CSI reporting is configured for a secondary resource region, and the first periodic CSI reporting for the primary resource region occurs simultaneously in a time interval with the second periodic CSI reporting for the secondary resource region, transmitting in the time interval only the first periodic CSI reporting for the primary resource region through a physical uplink control channel, PUCCH, to the eNode B, wherein the reporting period of the first periodic CSI reporting is longer than a reporting period of the second periodic CSI reporting. receiving information on one or more resource regions configured for the UE from an eNode B; and when a first periodic CSI reporting is configured for a primary resource region, a second periodic CSI reporting is configured for a secondary resource region, and the first periodic CSI reporting for the primary resource region occurs simultaneously in a time interval with the second periodic CSI reporting for the secondary resource region, transmitting in the time interval only the first periodic CSI reporting for the primary resource region through a physical uplink control channel, PUCCH, to the eNode B, wherein the reporting period of the first periodic CSI reporting is longer than a reporting period of the second periodic CSI reporting.
A memory device, comprising: a memory cell array configured to store data and status data; and a data output circuit configured to: transmit status data to an external device through at least one data line during a latency period in response to a read enable signal received from the external device, wherein the status data is generated based on misalignment between transmitted data and a clock signal, wherein status data includes retraining data indicating whether to perform the retraining operation on the memory device; and transmit the data stored in the memory cell array to the external device through the at least one data line during a period subsequent to the latency period, wherein the status data further include a data associated with a duty cycle modulation of a signal of the memory device, a data associated with an oscillation of a data strobe signal, memory core status data and a ZQ code for adjusting the gain, or strength, of an input/output driver. a memory cell array configured to store data and status data; and a data output circuit configured to: transmit status data to an external device through at least one data line during a latency period in response to a read enable signal received from the external device, wherein the status data is generated based on misalignment between transmitted data and a clock signal, wherein status data includes retraining data indicating whether to perform the retraining operation on the memory device; and transmit the data stored in the memory cell array to the external device through the at least one data line during a period subsequent to the latency period, transmit status data to an external device through at least one data line during a latency period in response to a read enable signal received from the external device, wherein the status data is generated based on misalignment between transmitted data and a clock signal, wherein status data includes retraining data indicating whether to perform the retraining operation on the memory device; and transmit the data stored in the memory cell array to the external device through the at least one data line during a period subsequent to the latency period,
A process for the preparation of abiraterone or abiraterone acetate according to the scheme: wherein X may be hydrogen or acetyl radical, CH 3 -C -, said process comprising: - a first step consisting in the reaction of prasterone or prasterone acetate with an aromatic bis(trifluoromethanesulfonimide) of general formula Ar-N(Tf) 2, wherein Ar indicates an aromatic radical other than phenyl and the group N(Tf) 2 is radical: in the presence of a base selected from the alcoholates of alkali metals; and - a second step consisting in the reaction of the mixture resulting from said first step with diethylpyridylborane in the presence of a palladium catalyst. - a first step consisting in the reaction of prasterone or prasterone acetate with an aromatic bis(trifluoromethanesulfonimide) of general formula Ar-N(Tf) 2, wherein Ar indicates an aromatic radical other than phenyl and the group N(Tf) 2 is radical: - a second step consisting in the reaction of the mixture resulting from said first step with diethylpyridylborane in the presence of a palladium catalyst.
A Zr-based amorphous alloy, consisting of 40-75 atomic percent of (Zr x Ti y Sn z), 10-35 atomic percent of (Cu m Ni n), 0.5-5 atomic percent of Fe, 15-25 atomic percent of Be, 0-10 atomic percent of ETM, and 0-10 atomic percent of LTM, wherein x, y and z are atomic fractions, and x+y+z equals to 1; wherein x is 0.6-0.85, and z is in the range of 0.01x - 0.1x; wherein m and n are atomic fractions, and m+n equals to 1; and wherein m is 0.5-0.65 wherein ETM comprises at least one element selected from Group IIIB, Group IVB, Group VB and Group VIB of the Element Periodic Table, provided that ETM is not Zr or Ti, and wherein LTM comprises at least one element selected from Group IB, Group IIB, Group VIIB, Group VIIIB of the Element Periodic Table, provided that LTM is not Cu, Ni or Fe. 40-75 atomic percent of (Zr x Ti y Sn z), 10-35 atomic percent of (Cu m Ni n), 0.5-5 atomic percent of Fe, 15-25 atomic percent of Be, 0-10 atomic percent of ETM, and 0-10 atomic percent of LTM,
A tetrapolymer composition, comprising: a) styrene; b) acrylonitrile; c) methylmethacrylate; and d) α-methylstyrene, wherein the tetrapolymer exhibits a refractive index value "n" at least similar to a refractive index value "n" of a conventional polycarbonate, and wherein the tetrapolymer exhibits a refractive index value "n" that is in the range of from 1.584 to 1.588. a) styrene; b) acrylonitrile; c) methylmethacrylate; and d) α-methylstyrene,
A system for monitoring perishable goods within a distribution chain including a transport refrigeration system, the system comprising: sensors for monitoring parameters associated with the perishable goods in the transport refrigeration system; a storage device to store the parameters associated with the perishable goods, the storage device storing historical parameters for other goods, at least one of the parameters being received from the transport refrigeration system; and a parameter management system coupled to the storage device; characterised in that the parameter management system includes a predictive module to determine parameters that are missing in response to the sensors being unavailable, detect trends in the parameters, and determine predicted parameters which are probable values to fill in gaps of the missing parameters based on the trends and the historical parameters; and a meshing module to determine output parameters by combining the predicted parameters and the parameters. sensors for monitoring parameters associated with the perishable goods in the transport refrigeration system; a storage device to store the parameters associated with the perishable goods, the storage device storing historical parameters for other goods, at least one of the parameters being received from the transport refrigeration system; and a parameter management system coupled to the storage device; characterised in that the parameter management system includes a predictive module to determine parameters that are missing in response to the sensors being unavailable, detect trends in the parameters, and determine predicted parameters which are probable values to fill in gaps of the missing parameters based on the trends and the historical parameters; and a meshing module to determine output parameters by combining the predicted parameters and the parameters.
A method comprising: receiving image data at a receiver device, wherein the image data corresponds to a structured light image obtained by projecting a pattern of projected coded light onto an object or a scene, and generating the image data by capturing a reflection of the projected coded light with a receiver image sensor; processing the image data to generate depth information based on the pattern of projected coded light, wherein the depth information corresponds to a depth map; performing one or more filtering operations on the image data, to reduce or eliminate a presence of the pattern of projected coded light included in the image, wherein an output of the one or more filtering operations includes filtered image data; performing a comparison between the depth information and the filtered image data to identify one or more missing depth values in the depth information, wherein missing depth values are associated with regions of the image data where the pattern of projected coded light is not detected in the image data; and modifying the depth information by populating the missing depth values to be included in the depth map, to generate a modified depth map. receiving image data at a receiver device, wherein the image data corresponds to a structured light image obtained by projecting a pattern of projected coded light onto an object or a scene, and generating the image data by capturing a reflection of the projected coded light with a receiver image sensor; processing the image data to generate depth information based on the pattern of projected coded light, wherein the depth information corresponds to a depth map; performing one or more filtering operations on the image data, to reduce or eliminate a presence of the pattern of projected coded light included in the image, wherein an output of the one or more filtering operations includes filtered image data; performing a comparison between the depth information and the filtered image data to identify one or more missing depth values in the depth information, wherein missing depth values are associated with regions of the image data where the pattern of projected coded light is not detected in the image data; and modifying the depth information by populating the missing depth values to be included in the depth map, to generate a modified depth map.
A braking system (30; 130; 140; 150; 160) for at least one first wheel of a motor vehicle comprising a first brake, a hydraulic circuit (20, 24) for controlling the first brake and a first electric motor for controlling the first brake, said circuit and said motor being at least partly simultaneously actuable by a same actuation member, wherein the first brake is hydraulically controlled and mechanically controlled, the hydraulic circuit (20, 24) being connected to the hydraulic control system of the first brake and the first electric motor being connected to the mechanical control system of the first brake, and wherein the hydraulic circuit comprises a master cylinder connected to the hydraulic control system of the first brake by at least one pipe containing a brake fluid, the braking system comprising a connection mechanism mechanically connecting the actuation member to at least one piston of the master cylinder, the connection mechanism comprising no servo-brake.
An imide-linked photoinitiator selected from the group consisting of structure, and: wherein Q 1 and Q 2 are each a small molecule or polymer, wherein Q 1 and Q 2 can be the same or different; Ar is selected from the group consisting of R is a linear or branched alkylene, cycloalkylene, alkylenoxy, alkenylene, arylene and alkylene containing a heteroatom or a carbonyl group; R 1 is independently a linear or branched alkyl group, a cycloalkyl, an alkylenoxy, an alkenyl, an aryl group, an alkyl group containing a heteroatom, a carbonyl group, H, OR, NR 2, SR, F, Cl, Br or I; Y 1 is a linear or branched (C 1 to C 8) alkylene group or a bond; L f is a functional linkage selected from the group consisting of an ether, an ester, an amide, a urethane, and a carbonate; m = 0 or 1; n = 0 or 1; p = 0 or 1; and x = 1-100. Q 1 and Q 2 are each a small molecule or polymer, wherein Q 1 and Q 2 can be the same or different; Ar is selected from the group consisting of R is a linear or branched alkylene, cycloalkylene, alkylenoxy, alkenylene, arylene and alkylene containing a heteroatom or a carbonyl group; R 1 is independently a linear or branched alkyl group, a cycloalkyl, an alkylenoxy, an alkenyl, an aryl group, an alkyl group containing a heteroatom, a carbonyl group, H, OR, NR 2, SR, F, Cl, Br or I; Y 1 is a linear or branched (C 1 to C 8) alkylene group or a bond; L f is a functional linkage selected from the group consisting of an ether, an ester, an amide, a urethane, and a carbonate; m = 0 or 1; n = 0 or 1; p = 0 or 1; and x = 1-100.
A tank system for a motor vehicle having an internal combustion engine, in particular for a commercial vehicle having a diesel engine, having a) a fuel tank (18, 19) for receiving a fuel, in particular a diesel fuel, for operating the internal combustion engine, and b) a suction jet pump for conveying the fuel out of the fuel tank (18, 19), and c) a tank sensor for measuring a filling level of the fuel, characterized d) in that the tank sensor measures the filling level of the fuel in the fuel tank (18, 19), the suction jet pump being integrated structurally into the tank sensor. a) a fuel tank (18, 19) for receiving a fuel, in particular a diesel fuel, for operating the internal combustion engine, and b) a suction jet pump for conveying the fuel out of the fuel tank (18, 19), and c) a tank sensor for measuring a filling level of the fuel, characterized d) in that the tank sensor measures the filling level of the fuel in the fuel tank (18, 19), the suction jet pump being integrated structurally into the tank sensor.
A method for non-destructive ultrasound inspection, wherein at least one ultrasonic pulse is radiated by means of at least one ultrasonic transmitter into a workpiece to be inspected and the ultrasonic pulse is reflected on boundary surfaces in the workpiece, the reflected ultrasound is received by means of at least one ultrasonic receiver and the associated signals are evaluated, and the ultrasound in the process passes through a leading body which is disposed between the workpiece and the transmitter or receiver, wherein the method comprises at least one step for determining the sound velocity in the leading body by means of a phased array comprised of selectively controllable transducers (2, 3), wherein at least one first transducer of the phased array acts as a transmitter of at least one ultrasonic pulse, and at least one second transducer of the phased array acts as a receiver of the ultrasonic pulse, respectively, and the sound velocity in the leading body is determined at least by means of a travel time measurement of the ultrasound along the shortest sound path (e1, e2) of the ultrasound between said spaced transducers (2, 3), and wherein the sound velocity in the leading body determined in the step for determining the sound velocity is used in the evaluation of the signals from the ultrasound inspection of the workpiece, and wherein the transducers (2, 3) of the phased array that are spatially as distant from one another as possible are used in the step for determining the sound velocity.
A liquid crystal display device, comprising: a first substrate and a second substrate which are opposed to each other; liquid crystal which fills a space between the first substrate and the second substrate; a polarization layer which is formed by application on a surface of the first substrate that is opposite to the liquid crystal; a condenser lens, which is formed on a surface of the polarization layer that is opposite to the first substrate, characterized in that the polarization layer contains a dichroic dye that has lyotropic liquid crystal properties, and in that the liquid crystal display device further comprises an alignment layer which performs an alignment of the polarization layer and is formed between the first substrate and the polarization layer. a first substrate and a second substrate which are opposed to each other; liquid crystal which fills a space between the first substrate and the second substrate; a polarization layer which is formed by application on a surface of the first substrate that is opposite to the liquid crystal; a condenser lens, which is formed on a surface of the polarization layer that is opposite to the first substrate, characterized in that the polarization layer contains a dichroic dye that has lyotropic liquid crystal properties, and in that the liquid crystal display device further comprises an alignment layer which performs an alignment of the polarization layer and is formed between the first substrate and the polarization layer.