mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: obtaining a set of energy dependent projection data generated from a spectral scan, wherein the set of energy dependent projection data includes a sub-set of projection data corresponding to only contrast agent; separating the sub-set of projection data from other projection data of the energy dependent data, wherein the other projection data includes non-contrast agent projection data; scaling the sub-set of projection data to change a concentration of the contrast agent in the sub-set of projection data from that of the sub-set of projection data; and visually presenting at least the scaled sub-set of projection data, characterized in that the concentration of the contrast agent in the scaled sub-set of projection data is reduced through scaling, thus reducing noise, and noise is added back to the scaled sub-set of projection data. obtaining a set of energy dependent projection data generated from a spectral scan, wherein the set of energy dependent projection data includes a sub-set of projection data corresponding to only contrast agent; separating the sub-set of projection data from other projection data of the energy dependent data, wherein the other projection data includes non-contrast agent projection data; scaling the sub-set of projection data to change a concentration of the contrast agent in the sub-set of projection data from that of the sub-set of projection data; and visually presenting at least the scaled sub-set of projection data, characterized in that the concentration of the contrast agent in the scaled sub-set of projection data is reduced through scaling, thus reducing noise, and noise is added back to the scaled sub-set of projection data.
A system for a gas turbine engine, the gas turbine engine comprising a primary shaft, the system comprising a rotor shaft; a plurality of components connected to the rotor shaft, including a wound field synchronous main machine, MM, and a permanent magnet generator, PMG, characterised in that the MM and PMG together provide torque to change a rotational speed of the rotor shaft, thereby changing a rotational speed of the primary shaft, and wherein: the system further comprises a controller providing current to the PMG, whereby the MM and PMG together provide torque to change the rotational speed of the rotor shaft wherein the MM and PMG together provide torque during engine start-up, and/or wherein the MM and the PMG together provide torque to change rotational speed of the gas turbine engine during climb, cruise, loiter and/or landing, or wherein the PMG provides primary torque to the rotor shaft prior to initial engine startup and/or at engine shutdown, thereby reducing stress on the rotor shaft. a rotor shaft; a plurality of components connected to the rotor shaft, including a wound field synchronous main machine, MM, and a permanent magnet generator, PMG, characterised in that the MM and PMG together provide torque to change a rotational speed of the rotor shaft, thereby changing a rotational speed of the primary shaft, and wherein: the system further comprises a controller providing current to the PMG, whereby the MM and PMG together provide torque to change the rotational speed of the rotor shaft wherein the MM and PMG together provide torque during engine start-up, and/or wherein the MM and the PMG together provide torque to change rotational speed of the gas turbine engine during climb, cruise, loiter and/or landing, or wherein the PMG provides primary torque to the rotor shaft prior to initial engine startup and/or at engine shutdown, thereby reducing stress on the rotor shaft. the MM and PMG together provide torque to change a rotational speed of the rotor shaft, thereby changing a rotational speed of the primary shaft, and wherein: the system further comprises a controller providing current to the PMG, whereby the MM and PMG together provide torque to change the rotational speed of the rotor shaft wherein the MM and PMG together provide torque during engine start-up, and/or wherein the MM and the PMG together provide torque to change rotational speed of the gas turbine engine during climb, cruise, loiter and/or landing, or wherein the PMG provides primary torque to the rotor shaft prior to initial engine startup and/or at engine shutdown, thereby reducing stress on the rotor shaft.
A method of controlling radio transmission in a cellular network, the method comprising: detecting a trigger event by a radio device; - in response to the trigger event, monitoring by the radio device radio channel quality experienced by the radio device; and - in response to a condition based on the monitored radio channel quality being met, triggering by the radio device a data transfer with the cellular network, characterised in that the trigger event comprises reception of a paging message (401; 501), wherein the radio device receiving an indication causes the radio device to perform said monitoring of the radio channel quality in response to reception of the paging message (401; 501) which is a dedicated paging message of conditional type. - in response to the trigger event, monitoring by the radio device radio channel quality experienced by the radio device; and - in response to a condition based on the monitored radio channel quality being met, triggering by the radio device a data transfer with the cellular network, characterised in that the trigger event comprises reception of a paging message (401; 501),
An expandable device, comprising an outer surface sized to fit within a body lumen, in an aerodigestive tract, one or more regions of the outer surface having a tissue collection surface, characterized in that when the expandable device is deflated the outer surface has internal folds and external folds, wherein the tissue collection surface is present on one or more internal folds of the outer surface and is not present on one or more external folds, wherein the outer surface has a diameter of 10-30 mm, wherein the expandable device is coated with an agent, wherein the agent is coated on the internal folds of the expandable device, and wherein the agent is a therapeutic agent, diagnostic agent or imaging agent.
A computer-implemented method for identifying a user to a communal computing device, wherein the communal computing device is an interactive digital whiteboard, the method comprising: receiving from the communal computing device a biometric feature of a person in proximity to the communal computing device, the communal computing device having a trust relationship with a cloud-based provider; determining, via the cloud-based provider, a first identity associated with the biometric feature; detecting, via the cloud-based provider, a personal device in proximity to the communal computing device, the personal device also having the trust relationship with the cloud-based provider; determining, via the cloud-based provider, a second identity associated with the personal device; matching, via the cloud-based provider, the first identity and the second identity to a user identity of the user; and if there is a match then the cloud-based provider reporting the user identity to the communal computing device for recognizing the user on the communal computing device. receiving from the communal computing device a biometric feature of a person in proximity to the communal computing device, the communal computing device having a trust relationship with a cloud-based provider; determining, via the cloud-based provider, a first identity associated with the biometric feature; detecting, via the cloud-based provider, a personal device in proximity to the communal computing device, the personal device also having the trust relationship with the cloud-based provider; determining, via the cloud-based provider, a second identity associated with the personal device; matching, via the cloud-based provider, the first identity and the second identity to a user identity of the user; and
A method for transmitting a Physical Uplink Control Channel, PUCCH, by a user equipment, UE, in a wireless communication system, the method comprising: transmitting, through 1 or 2 symbols, a PUCCH to carry Uplink Control Information, UCI, wherein, based on a payload size of the UCI, the PUCCH includes one of (i) a sequence corresponding to the UCI based on sequence selection and (ii) the UCI and a reference signal, RS, which are multiplexed based on a Frequency Division Multiplexing, FDM. transmitting, through 1 or 2 symbols, a PUCCH to carry Uplink Control Information, UCI, wherein, based on a payload size of the UCI, the PUCCH includes one of (i) a sequence corresponding to the UCI based on sequence selection and (ii) the UCI and a reference signal, RS, which are multiplexed based on a Frequency Division Multiplexing, FDM.
A coil form comprising: - a bobbin made of an electrically insulating material and including a tube section shaped wall; and - a coil mechanically supported by the bobbin and including a first plurality of conductor windings supported by the wall on the outside of the wall, wherein the coil includes a second plurality of conductor windings supported by the wall on the inside of the wall, characterized in that the first plurality of conductor windings and the second plurality of conductor windings are made of one continuous conductor section. - a bobbin made of an electrically insulating material and including a tube section shaped wall; and - a coil mechanically supported by the bobbin and including a first plurality of conductor windings supported by the wall on the outside of the wall,
Apparatus for generating a synthesis gas from biomass by entrained-flow gasification, comprising: - a conditioning plant for the biomass, which has a coarse crushing device for the biomass supplied and which is connected downstream via a first lock to a pressurized carbonization plant for the hydrothermal generation of carbonization char from the biomass, where the carbonization plant - comprises at least a preheating device and a carbonization reactor disposed downstream of the preheating device, where a hot water line runs from the carbonization reactor to the preheating device for the purpose of recycling eliminated process water from the carbonization reactor, and - is connected downstream via a second lock to at least one solid-liquid separation device (12, 13) for providing a fuel, and where the conditioning plant, downstream of the solid-liquid separation device (12, 13), has a drying device for drying the fuel, downstream of which there is a crushing device, the crushing device providing for crushing of the fuel to give a pulverized fuel having particle sizes in a range from 55 μm to 500 μm, and comprising: - a transfer device for transferring the fuel, and - an entrained-flow gasification plant, where the transfer device provides for coupling of the conditioning plant to the entrained-flow gasification plant, where the entrained-flow gasification plant comprises a fuel supply line which is couplable to the transfer device and which is connected downstream via a third lock to a conveying system for the fuel that leads into an entrained-flow gasification device. - a conditioning plant for the biomass, which has a coarse crushing device for the biomass supplied and which is connected downstream via a first lock to a pressurized carbonization plant for the hydrothermal generation of carbonization char from the biomass, where the carbonization plant - comprises at least a preheating device and a carbonization reactor disposed downstream of the preheating device, where a hot water line runs from the carbonization reactor to the preheating device for the purpose of recycling eliminated process water from the carbonization reactor, and - is connected downstream via a second lock to at least one solid-liquid separation device (12, 13) for providing a fuel, - a transfer device for transferring the fuel, and - an entrained-flow gasification plant,
Protective goggles for outdoor sports, comprising: - a protective optical shield, - a frame delimiting an opening which is closed by the shield, - lateral means (110, 130, 140, 116, 216) for latching the shield to the frame, allowing at least one lateral end of the shield to be secured to the frame, the lateral latching means comprising a lock that is designed to cover part of the lateral end of the shield, characterized in that the lock slides by lateral translation, with respect to the frame, between a locked configuration and an unlocked configuration in which the lock is positioned so that it no longer covers the shield. - a protective optical shield, - a frame delimiting an opening which is closed by the shield, - lateral means (110, 130, 140, 116, 216) for latching the shield to the frame, allowing at least one lateral end of the shield to be secured to the frame, the lateral latching means comprising a lock that is designed to cover part of the lateral end of the shield,
The nanocomposite comprising: - Magnetic alloy nanoparticles at least partly consisting of a soft magnetic alloy, - An insulating matrix supporting the magnetic alloy nanoparticles, characterised in that it further comprises insulating nanoparticles supported by the matrix and interposed between the magnetic alloy nanoparticles so as to space said magnetic alloy nanoparticles from each other and thus ensure, alone, the electrical insulation of said magnetic alloy nanoparticles and eliminate the electrical conduction paths of length greater than 200 nm. - Magnetic alloy nanoparticles at least partly consisting of a soft magnetic alloy, - An insulating matrix supporting the magnetic alloy nanoparticles,
A fuel injector for a turbine engine such as an airplane turboprop or turbojet, the injector comprising a body having admission means for admitting fuel under pressure, a stop valve mounted in the body downstream from the admission means and designed to open at a first determined fuel pressure and to remain open beyond said first pressure in order to feed a primary fuel circuit (31, 20), and a metering valve mounted in the body downstream from the stop valve and designed to open beyond a second determined fuel pressure greater than the first pressure, and to remain open beyond the second pressure in order to feed a secondary fuel circuit (17, 21), the injector being characterized in that it includes at least one leakage channel extending from a zone situated downstream from the stop valve and upstream from the metering valve to a zone situated downstream from the metering valve in order to generate a permanent leakage flow in the secondary circuit (17, 21).
An electromagnetic ultrasonic transducer comprising a support, an elastic board disposed on the support, a magnetizer on the elastic board which is a magnetic conductance material, and a magnet field generator for making the magnetizer vibrate; the thickness of the magnetizer is in micrometers, ranging from 1 to 300 microns, characterized in that the magnetizer is an elastic coil, and elastic coil is a photolithographic coil.
A bone cutting device that is a device for cutting a bone by irradiating with a laser beam, comprising: a light source for emitting a laser beam of 1000 to 1500 nm with a peak output of 10 to 70 W/cm 2, a laser beam emitting part including a body being provided with a light shielding pipe, and an inactive gas jet part including a body having a gas flow passage formed inside thereof, the laser beam emitting part being adapted to emit the laser beam from an emitting port provided at a tip end thereof, the inactive gas jet part being adapted to jet an inactive gas to the bone to be cut, wherein the inside of the light shielding pipe is in communication with the gas flow passage of the inactive gas jet part in the vicinity of the tip thereof so that the inactive gas is jetted to the outside from the emitting port provided at the tip of the light shielding pipe together with the laser beam. a light source for emitting a laser beam of 1000 to 1500 nm with a peak output of 10 to 70 W/cm 2, a laser beam emitting part including a body being provided with a light shielding pipe, and an inactive gas jet part including a body having a gas flow passage formed inside thereof, the laser beam emitting part being adapted to emit the laser beam from an emitting port provided at a tip end thereof, the inactive gas jet part being adapted to jet an inactive gas to the bone to be cut, wherein the inside of the light shielding pipe is in communication with the gas flow passage of the inactive gas jet part in the vicinity of the tip thereof so that the inactive gas is jetted to the outside from the emitting port provided at the tip of the light shielding pipe together with the laser beam.
A method of performing a sizing analysis, the method comprising: providing an archival sizing ladder, the archival sizing ladder obtained by separating and detecting a standard sizing ladder under known conditions in a device having the same configuration as the device that will be used to separate and fractionate a sample, and containing components of a known size and relating component size to migration time; measuring migration times for a standard sizing ladder through a separation channel in a first fractionation device, the separation channel having a quantity of a first batch of sieving gel disposed therein, thereby providing a first sieving gel sizing ladder, the first sieving gel sizing ladder including first sieving gel ladder migration times; determining a ratio of the first sieving gel sizing ladder migration times to the archival ladder migration times, thereby providing a first correction; encoding the first correction into a first information storage means; attaching the first information storage means to a second fractionation device, a separation channel of the second fractionation device having a quantity of the first batch of sieving gel disposed therein; reading the first correction encoded into the information storage means; applying the first correction to each archival ladder migration time, thereby providing a first corrected archival sizing ladder; and performing a sizing analysis of separated components of a sample disposed in the second fractionation device using the first corrected archival sizing ladder. providing an archival sizing ladder, the archival sizing ladder obtained by separating and detecting a standard sizing ladder under known conditions in a device having the same configuration as the device that will be used to separate and fractionate a sample, and containing components of a known size and relating component size to migration time; measuring migration times for a standard sizing ladder through a separation channel in a first fractionation device, the separation channel having a quantity of a first batch of sieving gel disposed therein, thereby providing a first sieving gel sizing ladder, the first sieving gel sizing ladder including first sieving gel ladder migration times; determining a ratio of the first sieving gel sizing ladder migration times to the archival ladder migration times, thereby providing a first correction; encoding the first correction into a first information storage means; attaching the first information storage means to a second fractionation device, a separation channel of the second fractionation device having a quantity of the first batch of sieving gel disposed therein; reading the first correction encoded into the information storage means; applying the first correction to each archival ladder migration time, thereby providing a first corrected archival sizing ladder; and performing a sizing analysis of separated components of a sample disposed in the second fractionation device using the first corrected archival sizing ladder.
A method of manufacturing a fibre composite article, wherein the fibre-composite article comprises an inclined or curved surface, the method comprising the steps of: providing a mould having an inclined or curved surface; defining a layup plane in said mould, said layup plane arranged to intersect at two points with at least a portion of the inclined or curved surface of said mould to which it is desired to apply a fibre material layer; providing a layup head for the dispensing of a fibre material layer, wherein said layup head has a defined application plane where said fibre material layer is dispensed from said layup head along said application plane; positioning said layup head wherein said application plane is rotated relative to said layup plane, such that, relative to the horizontal plane, the slope of said layup plane is greater than the slope of said application plane; applying at least one fibre material layer from said rotated application plane of said layup head to said layup plane of said mould, such that the applied fibre material falls under the effect of gravity to said inclined or curved surface of said mould; applying a resin to said at least one fibre material layer in said mould; and curing said resin to form a fibre-composite article having an inclined surface. providing a mould having an inclined or curved surface; defining a layup plane in said mould, said layup plane arranged to intersect at two points with at least a portion of the inclined or curved surface of said mould to which it is desired to apply a fibre material layer; providing a layup head for the dispensing of a fibre material layer, wherein said layup head has a defined application plane where said fibre material layer is dispensed from said layup head along said application plane; positioning said layup head wherein said application plane is rotated relative to said layup plane, such that, relative to the horizontal plane, the slope of said layup plane is greater than the slope of said application plane; applying at least one fibre material layer from said rotated application plane of said layup head to said layup plane of said mould, such that the applied fibre material falls under the effect of gravity to said inclined or curved surface of said mould; applying a resin to said at least one fibre material layer in said mould; and curing said resin to form a fibre-composite article having an inclined surface.