mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting a breast cancer cell_in a cellular breast sample obtained from breast tissue from a subject, the method comprising: a) flow cytometrically analyzing the cellular breast sample to obtain: i) sample data comprising sample cell density data; ii) epithelial cell data comprising DNA content data, proliferation data and cell volume data; and iii) white blood cell data comprising at least one of an estrogen receptor expression level and a progesterone receptor expression level; and b) evaluating obtained sample data, epithelial cell data and WBC data to detect the breast cancer cell in the cellular breast sample. a) flow cytometrically analyzing the cellular breast sample to obtain: i) sample data comprising sample cell density data; ii) epithelial cell data comprising DNA content data, proliferation data and cell volume data; and iii) white blood cell data comprising at least one of an estrogen receptor expression level and a progesterone receptor expression level; and i) sample data comprising sample cell density data; ii) epithelial cell data comprising DNA content data, proliferation data and cell volume data; and iii) white blood cell data comprising at least one of an estrogen receptor expression level and a progesterone receptor expression level; and b) evaluating obtained sample data, epithelial cell data and WBC data to detect the breast cancer cell in the cellular breast sample.
An ignition system comprising: a housing defining an interior and an exhaust outlet, wherein the housing is configured and adapted to be mounted to a combustor to issue flame from the exhaust outlet into the combustor for ignition and flame stabilization within the combustor; a fuel injector mounted to the housing with an outlet of the fuel injector directed to issue a spray of fuel into the interior of the housing; an igniter mounted to the housing with an ignition point of the igniter proximate the outlet of the fuel injector for ignition within the interior of the housing. an inner wall mounted in the interior of the housing, spaced apart inward from the housing to define an air plenum between the inner wall and the housing and to define a combustion chamber within the inner wall; characterized in that an elbow with an elbow inlet operatively connected to receive combustion products from the combustion chamber along a longitudinal axis and an elbow outlet in fluid communication with the inlet, wherein the elbow outlet is aligned along an angle relative to the longitudinal axis; and an exhaust tube in fluid communication with the elbow outlet for issuing combustion gases from the exhaust tube. a housing defining an interior and an exhaust outlet, wherein the housing is configured and adapted to be mounted to a combustor to issue flame from the exhaust outlet into the combustor for ignition and flame stabilization within the combustor; a fuel injector mounted to the housing with an outlet of the fuel injector directed to issue a spray of fuel into the interior of the housing; an igniter mounted to the housing with an ignition point of the igniter proximate the outlet of the fuel injector for ignition within the interior of the housing. an inner wall mounted in the interior of the housing, spaced apart inward from the housing to define an air plenum between the inner wall and the housing and to define a combustion chamber within the inner wall; characterized in that an elbow with an elbow inlet operatively connected to receive combustion products from the combustion chamber along a longitudinal axis and an elbow outlet in fluid communication with the inlet, wherein the elbow outlet is aligned along an angle relative to the longitudinal axis; and an exhaust tube in fluid communication with the elbow outlet for issuing combustion gases from the exhaust tube.
A multi-channel aerosol scattering absorption measuring instrument, comprising a light path device, a detection device and a gas path device, wherein said light path device comprises a light source, said detection device comprises a control unit and a detection unit, said detection unit comprises a photoacoustic cavity, a first long-range multiple reflector, a second long-range multiple reflector, 4-10 photoelectric detectors and a sound converter, wherein the first long-range multiple reflector and second long-range multiple reflector are positioned at the two ends of the photoacoustic cavity respectively, wherein one photoelectric detector is arranged outside the detection device for measuring light intensity of the light source from the detection unit and other photoelectric detectors are arranged on the inner surface of the photoacoustic cavity for measuring the scattering intensities of an aerosol at different angles, said sound converter is arranged on the inner surface of the photoacoustic cavity, in the middle position of the photoacoustic cavity and perpendicular to the long axis of the photoacoustic cavity, said photoelectric detectors and sound, converter are connected to said control unit respetively, wherein said gas path device comprises a sample loading unit, and a sample discharging unit, wherein said sample loading unit and sample discharging unit communicate with the two ends of said photoacoustic cavity respectively, the light source from the light path device and a gas flow from the gas path device enter the photoacoustic cavity of the detection device and are detected by the control unit respectively, wherein the instrument comprises a temperature/pressure/humidity sensor arranged on the inner surface of the photoacoustic cavity and connected to said control unit, and said gas path device comprises a calibration unit comprising calibration gas sources.
Method for controlling radio transmission, carried out in a wireless terminal, comprising: transmitting, to a base station of the wireless network, information defining spatial properties of an intended radio signal transmission from the wireless terminal, wherein said spatial properties are indicative of a position of, or direction towards, another recipient than said base station; obtaining, from the base station, a transmission grant which gives the wireless terminal permission to transmit a radio signal, wherein said transmission grant is indicative of a spatial limitation associated with the permission to transmit, wherein the transmission grant defines the spatial limitation based on said spatial properties; and transmitting the radio signal in accordance with said spatial limitation. transmitting, to a base station of the wireless network, information defining spatial properties of an intended radio signal transmission from the wireless terminal, wherein said spatial properties are indicative of a position of, or direction towards, another recipient than said base station; obtaining, from the base station, a transmission grant which gives the wireless terminal permission to transmit a radio signal, wherein said transmission grant is indicative of a spatial limitation associated with the permission to transmit, wherein the transmission grant defines the spatial limitation based on said spatial properties; and transmitting the radio signal in accordance with said spatial limitation.
A method of clock transmission between networks, comprising: acquiring a first information corresponding to a clock class of a first clock, wherein the first information is based on a first protocol, and the first clock is transmitted by a first network equipment; acquiring a second information corresponding to a clock class of a second clock, wherein the second information is based on a second protocol, and the second clock is transmitted by a second network equipment; converting the first information into a second information corresponding to the clock class of the first clock; performing, according to the second information corresponding to the clock class of the first clock and the second information corresponding to the clock class of the second clock, a source selection on the first clock and the second clock; and transmitting a second information corresponding to a clock class of the selected clock source; wherein the first information is a precision time protocol, PTP, clock class information, and the second information is a synchronous status message, SSM. acquiring a first information corresponding to a clock class of a first clock, wherein the first information is based on a first protocol, and the first clock is transmitted by a first network equipment; acquiring a second information corresponding to a clock class of a second clock, wherein the second information is based on a second protocol, and the second clock is transmitted by a second network equipment; converting the first information into a second information corresponding to the clock class of the first clock; performing, according to the second information corresponding to the clock class of the first clock and the second information corresponding to the clock class of the second clock, a source selection on the first clock and the second clock; and transmitting a second information corresponding to a clock class of the selected clock source; wherein the first information is a precision time protocol, PTP, clock class information, and the second information is a synchronous status message, SSM.
An air cleaner assembly comprising: a) a housing defining an inlet and an outlet, and including an access opening between the inlet and outlet; b) a filter cartridge received within the housing, the filter cartridge covering the access opening; and c) a lock mechanism, the lock mechanism being movable between an unlocked position in which the filter cartridge can be installed and removed from the housing and a locked position in which the filter cartridge is secured within the housing; d) characterized in that the filter cartridge and lock mechanism include interacting features enabling the lock mechanism to be moved from the unlocked position to the locked position only when the filter cartridge is installed within the housing. a) a housing defining an inlet and an outlet, and including an access opening between the inlet and outlet; b) a filter cartridge received within the housing, the filter cartridge covering the access opening; and c) a lock mechanism, the lock mechanism being movable between an unlocked position in which the filter cartridge can be installed and removed from the housing and a locked position in which the filter cartridge is secured within the housing; d) characterized in that the filter cartridge and lock mechanism include interacting features enabling the lock mechanism to be moved from the unlocked position to the locked position only when the filter cartridge is installed within the housing.
A thin film transistor, including a gate, a gate insulation player, an oxide active layer, a source, and a drain, wherein a region of the oxide active layer corresponding to a gap between the source and the drain is an active region, wherein the thin film transistor further includes: a source transition layer formed between the source and the oxide active layer, and a drain transition layer formed between the drain and the oxide active layer, the source transition layer and the drain transition layer comprise heavily doped semiconductor material including at least one element of B, Si, Ge and Te, wherein the source transition layer is formed on the oxide active layer, and the source is formed on the source transition layer; the drain transition layer is formed on the oxide active layer, and the drain is formed on the drain transition layer; the source transition layer and the drain transition layer are not connected; and both the source transition layer and the drain transition layer are in direct contact with the oxide active layer, wherein the oxide active layer of the thin film transistor includes the active region, a source contact region and a drain contact region, wherein the active region represents semiconductor characteristics, and the source contact region and the drain contact regions represent conductor characteristics, wherein the source transition layer is in direct contact with the source contact region of the oxide active layer, and the drain transition layer is in direct contact with the drain contact region of the oxide active layer, and wherein the source contact region is converted into a conductor by H + in the source transition layer penetrated into the oxide active layer, and the drain contact region is converted into a conductor by H + in the drain transition layer penetrated into the oxide active layer.
Method for starting up a battery system having a battery, a DC voltage intermediate circuit that is connected to the battery, and a drive system that is connected to the DC voltage intermediate circuit, wherein the battery has a plurality of series-connected battery modules (40, 60) that in each case comprise a coupling unit (30, 50) and at least one battery cell that is connected between a first input (31, 51) and a second input (32, 52) of the coupling unit (30, 50), said method comprising at least the following steps: a) disconnect the battery cells of all the series-connected battery modules (40, 60) by transmitting a corresponding control signal to the coupling units (30, 50) of the series-connected battery modules (40, 60); b) provide a bridge on the output side of all the series-connected battery modules (40, 60) so that an output voltage of the battery is zero; c) connect the battery cells of one of the series-connected battery modules (40, 60) and terminate the bridge on the output side of one of the series-connected battery modules (40, 60) by terminating the transmission of the corresponding control signal to the coupling unit (30, 50) of one of the series-connected battery modules (40, 60); d) repeat the step c) for in each case a further one of the series-connected battery modules (40, 60), as a result of which a voltage of the DC voltage intermediate circuit is continuously increased incrementally, wherein said voltage has a stepped progression that is approximately linear in the middle, at least until the voltage of the DC voltage intermediate circuit achieves a first desired operating voltage; and e) start up the drive system that is connected to the DC voltage intermediate circuit if the voltage of the DC voltage intermediate circuit achieves a second desired operating voltage. a) disconnect the battery cells of all the series-connected battery modules (40, 60) by transmitting a corresponding control signal to the coupling units (30, 50) of the series-connected battery modules (40, 60); b) provide a bridge on the output side of all the series-connected battery modules (40, 60) so that an output voltage of the battery is zero; c) connect the battery cells of one of the series-connected battery modules (40, 60) and terminate the bridge on the output side of one of the series-connected battery modules (40, 60) by terminating the transmission of the corresponding control signal to the coupling unit (30, 50) of one of the series-connected battery modules (40, 60); d) repeat the step c) for in each case a further one of the series-connected battery modules (40, 60), as a result of which a voltage of the DC voltage intermediate circuit is continuously increased incrementally, wherein said voltage has a stepped progression that is approximately linear in the middle, at least until the voltage of the DC voltage intermediate circuit achieves a first desired operating voltage; and e) start up the drive system that is connected to the DC voltage intermediate circuit if the voltage of the DC voltage intermediate circuit achieves a second desired operating voltage.
A filter for aerosol particle deposition sampling suitable for mimicking tracheobronchial deposition efficiency curves expected in vivo and for emulating the deposition efficiency of the tracheobronchial region of the lungs over a range of physiological inhalation flow rates, characterized in that said filter comprises: • a plurality of one to seven filter layers of fibrous filter material stacked coaxially, the fibrous filter material being formed from cylindrically shaped fibres arranged in a mesh weave, wherein the fibrous filter material comprises fibres with a fibre diameter of 10 μm to 45 μm, a face diameter of 30 mm to 80 mm, and 203 to 762 openings per cm (80 to 300 openings per inch) in both directions of the mesh weave; and • an outer ring portion encircling the fibrous filter material and securing said plurality of filter layers.; such that said filter has a filter efficiency for mimicking that of expected in-vivo tracheobronchial deposition efficiency curves and for emulating the average deposition efficiency of the tracheobronchial region of the lungs over a range of physiological inhalation flow rates. • a plurality of one to seven filter layers of fibrous filter material stacked coaxially, the fibrous filter material being formed from cylindrically shaped fibres arranged in a mesh weave, wherein the fibrous filter material comprises fibres with a fibre diameter of 10 μm to 45 μm, a face diameter of 30 mm to 80 mm, and 203 to 762 openings per cm (80 to 300 openings per inch) in both directions of the mesh weave; and • an outer ring portion encircling the fibrous filter material and securing said plurality of filter layers.;
A composition comprising a pesticidal active ingredient with a maximum solubility in water of 10 g/l at 20 °C, and a polyether dendron of formula, wherein the symbols and indices have the following meanings: each Y is independently [R 1 -(O-CH 2 -CH 2) p -O-]; each Z is independently [R 2 -(O-CH 2 -CH 2) q (O-CH(CH 3)-CH 2) r -O-]; each R 1 is independently H, CH 3 or C 2 -C 4 -alkyl; each R 2 is independently linear or branched C 8 -C 22 -alkyl; X is H or C 1 -C 4 -alkyl; m is 1, 2, 3, 4, 5 or 6; n, o are rational positive numbers > 0, with the proviso that the sum of n and o is 2 m; p is a natural number from 5 to 50; q is a natural number from 1 to 50; r is 0 or is a natural number from 1 to 30, with the proviso that 5 ≤ q + r ≤ 50, and ∼ denotes the bonding of the respective group to the dendron scaffold. each Y is independently [R 1 -(O-CH 2 -CH 2) p -O-]; each Z is independently [R 2 -(O-CH 2 -CH 2) q (O-CH(CH 3)-CH 2) r -O-]; each R 1 is independently H, CH 3 or C 2 -C 4 -alkyl; each R 2 is independently linear or branched C 8 -C 22 -alkyl; X is H or C 1 -C 4 -alkyl; m is 1, 2, 3, 4, 5 or 6; n, o are rational positive numbers > 0, with the proviso that the sum of n and o is 2 m; p is a natural number from 5 to 50; q is a natural number from 1 to 50; r is 0 or is a natural number from 1 to 30, with the proviso that 5 ≤ q + r ≤ 50, ∼ denotes the bonding of the respective group to the dendron scaffold.
A compound that is -2-(4-((2-ethoxy-3-(4-(trifluoromethyl)phenoxy)propyl)thio)-2-methylphenoxy)acetic acid or a salt thereof for use in treating an intrahepatic cholestatic disease.
A building equipped with a system for producing sanitary hot water, said system comprising: an aerothermal heat pump device producing sanitary hot water from an airflow and a cold water supply; a controlled mechanical ventilation, comprising a network of air conducts within the building and a ventilation system to have the air circulate in the network of air conducts within the building and between the interior and the exterior of the building, the network of air conducts being coupled to the aerothermal heat pump device, the aerothermal heat pump device being configured to use the air circulated by the controlled mechanical ventilation to produce sanitary hot water; a photovoltaic panel assembly, on or near the building, collecting the light emitted from the sun; at least one air conduct of the network of air conducts of the controlled mechanical ventilation opening on the rear of the photovoltaic panel assembly and being connected to the aerothermal heat pump device to use the air heated by the sun at the rear of the photovoltaic panel assembly to produce sanitary hot water, via the ventilation system; characterized in that the network of air conducts of the controlled mechanical ventilation further connects one or more rooms of the building and the aerothermal heat pump device to use the air from the one or more rooms of the building to produce sanitary hot water. an aerothermal heat pump device producing sanitary hot water from an airflow and a cold water supply; a controlled mechanical ventilation, comprising a network of air conducts within the building and a ventilation system to have the air circulate in the network of air conducts within the building and between the interior and the exterior of the building, the network of air conducts being coupled to the aerothermal heat pump device, the aerothermal heat pump device being configured to use the air circulated by the controlled mechanical ventilation to produce sanitary hot water; a photovoltaic panel assembly, on or near the building, collecting the light emitted from the sun; at least one air conduct of the network of air conducts of the controlled mechanical ventilation opening on the rear of the photovoltaic panel assembly and being connected to the aerothermal heat pump device to use the air heated by the sun at the rear of the photovoltaic panel assembly to produce sanitary hot water, via the ventilation system;
A process of fabricating a component having at least first and second regions (14,12) with different grain structures, the process comprising: performing at least one forging step on a preform to produce a profile having at least a first portion corresponding to the first region of the component, the preform being formed of a precipitation-strengthened alloy having a solvus temperature at which precipitates of the alloy enter into solid solution, the at least one forging step comprising a non-final forging step performed at a first strain rate and at a first subsolvus temperature that is below the solvus temperature of the alloy; performing a subsequent forging step on the profile to produce a final profile comprising the first portion and a second portion corresponding to the second region of the component, the subsequent forging step being performed at a subsequent strain rate and at a subsequent subsolvus temperature, wherein at least one of the subsequent strain rate and subsequent subsolvus temperature is either higher or lower than the first strain rate or first subsolvus temperature; and then performing a heat treatment on the final profile to cause grain growth in the final profile, wherein the first portion of the final profile has a different grain size than the second portion as a result of the first strain rate being different than the subsequent strain rate and/or the first subsolvus temperature being different than the subsequent subsolvus temperature. performing at least one forging step on a preform to produce a profile having at least a first portion corresponding to the first region of the component, the preform being formed of a precipitation-strengthened alloy having a solvus temperature at which precipitates of the alloy enter into solid solution, the at least one forging step comprising a non-final forging step performed at a first strain rate and at a first subsolvus temperature that is below the solvus temperature of the alloy; performing a subsequent forging step on the profile to produce a final profile comprising the first portion and a second portion corresponding to the second region of the component, the subsequent forging step being performed at a subsequent strain rate and at a subsequent subsolvus temperature, wherein at least one of the subsequent strain rate and subsequent subsolvus temperature is either higher or lower than the first strain rate or first subsolvus temperature; and then performing a heat treatment on the final profile to cause grain growth in the final profile, wherein the first portion of the final profile has a different grain size than the second portion as a result of the first strain rate being different than the subsequent strain rate and/or the first subsolvus temperature being different than the subsequent subsolvus temperature.