mhurhangee/ep-ind-claims huggingface dataset:
A method for evaluating a human subject for having atherosclerotic coronary artery disease (ASCAD) or as having a coronary atherosclerotic plaque, the method comprising: measuring the levels of each analyte within a panel of analyte biomarkers in a biological sample obtained from a subject, wherein the panel of analyte biomarkers comprises valylleucine, glutamate, acisoga, urate, glucuronate, fucose, butyrylcarnitine and mannose; comparing the measured levels of the analytes in the biological sample with one or more reference samples, wherein the references are representative of matched human subjects; and identifying the subject as having atherosclerotic coronary artery disease or as having a coronary atherosclerotic plaque if measured levels of the analytes in the biological sample are increased or decreased relative to the amounts of the analytes in the reference samples. measuring the levels of each analyte within a panel of analyte biomarkers in a biological sample obtained from a subject, wherein the panel of analyte biomarkers comprises valylleucine, glutamate, acisoga, urate, glucuronate, fucose, butyrylcarnitine and mannose; comparing the measured levels of the analytes in the biological sample with one or more reference samples, wherein the references are representative of matched human subjects; and identifying the subject as having atherosclerotic coronary artery disease or as having a coronary atherosclerotic plaque if measured levels of the analytes in the biological sample are increased or decreased relative to the amounts of the analytes in the reference samples.
A user equipment, UE, comprising: higher layer processor configured to acquire a dedicated radio resource control, RRC, message, the dedicated RRC message comprising information for indicating a configuration of a control resource set, CORESET; and physical downlink control channel, PDCCH, receiving unit configured to monitor a PDCCH in the CORESET, wherein the PDCCH consists of one or more control channel elements, CCEs, each of the one or more CCEs is mapped to 6 resource element groups, REGs, which includes a plurality of resource elements, REs, the CORESET consists of N resource blocks in a frequency domain, N is a multiple of 6 for the CORESET of which a time duration is set to one of a divisor of 6, the one of the divisor of 6 not being 1, and an REG bundling size is determined using the time duration of the CORESET. higher layer processor configured to acquire a dedicated radio resource control, RRC, message, the dedicated RRC message comprising information for indicating a configuration of a control resource set, CORESET; and physical downlink control channel, PDCCH, receiving unit configured to monitor a PDCCH in the CORESET, wherein the PDCCH consists of one or more control channel elements, CCEs, each of the one or more CCEs is mapped to 6 resource element groups, REGs, which includes a plurality of resource elements, REs, the CORESET consists of N resource blocks in a frequency domain, N is a multiple of 6 for the CORESET of which a time duration is set to one of a divisor of 6, the one of the divisor of 6 not being 1, and an REG bundling size is determined using the time duration of the CORESET. the PDCCH consists of one or more control channel elements, CCEs, each of the one or more CCEs is mapped to 6 resource element groups, REGs, which includes a plurality of resource elements, REs, the CORESET consists of N resource blocks in a frequency domain, N is a multiple of 6 for the CORESET of which a time duration is set to one of a divisor of 6, the one of the divisor of 6 not being 1, and an REG bundling size is determined using the time duration of the CORESET.
A method for manufacturing a functional film, comprising steps of: feeding a support continuously from a first film roll, forming a coating film on the support, providing a laminate film on a surface of the coating film, and taking up the laminated support (Bo) to a second film roll; and loading the second film roll made by the aforementioned step in a vacuum film-forming apparatus, feeding the laminated support (Bo) provided with the laminate film continuously from the second film roll, peeling off the laminate film, forming an inorganic film on the coating film on the support, and taking up the support with the coating film and the inorganic film to a third film roll. feeding a support continuously from a first film roll, forming a coating film on the support, providing a laminate film on a surface of the coating film, and taking up the laminated support (Bo) to a second film roll; and loading the second film roll made by the aforementioned step in a vacuum film-forming apparatus, feeding the laminated support (Bo) provided with the laminate film continuously from the second film roll, peeling off the laminate film, forming an inorganic film on the coating film on the support, and taking up the support with the coating film and the inorganic film to a third film roll.
A cigarette comprising: a tobacco rod; and a filter comprising a first filter plug on a tobacco rod side connected to an end of the tobacco rod, a second filter plug on a cigarette end side, and a flavor capsule arranged in a cavity between the first and second filter plugs (21, 22) or in the second filter plug, the flavor capsule having a diameter of 3 to 6 mm, characterized in that the first filter plug has a ventilation hole, wherein a ventilation resistance per unit length of the second filter plug is 20 to 60% of a ventilation resistance per unit length of the first filter plug, and a filter ventilation rate (Vf) of the cigarette is 30% or more. a tobacco rod; and a filter comprising a first filter plug on a tobacco rod side connected to an end of the tobacco rod, a second filter plug on a cigarette end side, and a flavor capsule arranged in a cavity between the first and second filter plugs (21, 22) or in the second filter plug, the flavor capsule having a diameter of 3 to 6 mm, characterized in that the first filter plug has a ventilation hole, wherein a ventilation resistance per unit length of the second filter plug is 20 to 60% of a ventilation resistance per unit length of the first filter plug, and a filter ventilation rate (Vf) of the cigarette is 30% or more.
An antenna suitable for use as a phased array antenna of a radar system, said antenna comprising: a plurality of radiating elements; and a feed network configured to define a plurality of inputs and couple energy from the inputs to the radiating elements, wherein energy from each of the inputs (18A, 18B, 18C) is coupled to a power divider (24A, 24B, 24C), wherein the feed network is further configured to define a plurality of over-moded waveguide couplers configured to define a plurality of sub-arrays (20A, 20B, 20C) that couple each input (18A, 18B, 18C) to a sub-group (22A, 22B, 22C) of the radiating elements, wherein the sub-arrays (20A, 20B, 20C) are arranged in a side-by-side arrangement and configured such that half of the radiators of a sub-group are shared with an adjacent sub-group of an adjacent sub-array, wherein each of the over-moded waveguide couplers is configured to define a left in-port that receives energy from a left divider, a right in-port that receives energy from a right divider adjacent the left divider, a left out-port that guides energy to a left radiator, and a right out-port that guides energy to a right radiator adjacent the left radiator, wherein each over-moded waveguide coupler includes an over-moded section defined by a width selected such that energy propagates through the over-moded section in multiple modes effective to establish a first path for energy from the left in-port and a second path for energy from the right in-port, wherein the first path is distinct from the second path. a plurality of radiating elements; and a feed network configured to define a plurality of inputs and couple energy from the inputs to the radiating elements, wherein energy from each of the inputs (18A, 18B, 18C) is coupled to a power divider (24A, 24B, 24C), wherein the feed network is further configured to define a plurality of over-moded waveguide couplers configured to define a plurality of sub-arrays (20A, 20B, 20C) that couple each input (18A, 18B, 18C) to a sub-group (22A, 22B, 22C) of the radiating elements, wherein the sub-arrays (20A, 20B, 20C) are arranged in a side-by-side arrangement and configured such that half of the radiators of a sub-group are shared with an adjacent sub-group of an adjacent sub-array, wherein each of the over-moded waveguide couplers is configured to define a left in-port that receives energy from a left divider, a right in-port that receives energy from a right divider adjacent the left divider, a left out-port that guides energy to a left radiator, and a right out-port that guides energy to a right radiator adjacent the left radiator, wherein each over-moded waveguide coupler includes an over-moded section defined by a width selected such that energy propagates through the over-moded section in multiple modes effective to establish a first path for energy from the left in-port and a second path for energy from the right in-port, wherein the first path is distinct from the second path.
A method of assessing the efficacy of a treatment regimen comprising administration of the Hsp90 inhibitor NVP-AUY922 for treating melanoma or gastric cancer cancer in a subject, the method comprising: a) contacting a first serum or tumor sample obtained from said subject prior to administering NVP-AUY922 to the subject with a reagent able to detect IL-8; b) contacting a second serum or tumor sample obtained from said subject following administration of NVP-AUY922 with a reagent able to detect IL-8; and c) comparing the levels of IL-8 from the first and second serum or tumor samples, wherein an elevated level of IL-8 present in the first serum or tumor sample, relative to the second serum or tumor sample, is an indication that the treatment regimen is efficacious for treating melanoma or gastric cancer in the subject. a) contacting a first serum or tumor sample obtained from said subject prior to administering NVP-AUY922 to the subject with a reagent able to detect IL-8; b) contacting a second serum or tumor sample obtained from said subject following administration of NVP-AUY922 with a reagent able to detect IL-8; and c) comparing the levels of IL-8 from the first and second serum or tumor samples, wherein an elevated level of IL-8 present in the first serum or tumor sample, relative to the second serum or tumor sample, is an indication that the treatment regimen is efficacious for treating melanoma or gastric cancer in the subject.
An external load bearing distracting device for an articulating anatomical joint comprising: a first component configured to be attached to a first member of the articulating anatomical joint and a second component operably associated with the first component; a third component configured to be attached to a second member of the articulating anatomical joint and a fourth component operably associated with the third component; and a joint joining the second component and the fourth component; the joint being configured to enable natural motion present in the articulating anatomical joint; two retaining components; and a means (4, 5) enabling adjusting and fixing the first component and the third component at desired longitudinal position in relation to a mediolateral axis of the joint, wherein the mediolateral axis may be aligned with the flexion-extension axis of rotation of the articulating anatomical joint, in order to provide distraction of the articulating anatomical joint, wherein the first component and the second component are slidably and telescopically interconnected and the third component and the fourth component are slidably and telescopically interconnected, two components (7; 8) of said four components (6; 7; 3; 8) disposed on mutually opposite sides in relation to the mediolateral axis of the joint each comprising one retaining component and the other two (6; 3) of said four components (6; 7; 3; 8) each comprising the means (4, 5). a first component configured to be attached to a first member of the articulating anatomical joint and a second component operably associated with the first component; a third component configured to be attached to a second member of the articulating anatomical joint and a fourth component operably associated with the third component; and a joint joining the second component and the fourth component; the joint being configured to enable natural motion present in the articulating anatomical joint; two retaining components; and a means (4, 5) enabling adjusting and fixing the first component and the third component at desired longitudinal position in relation to a mediolateral axis of the joint, wherein the mediolateral axis may be aligned with the flexion-extension axis of rotation of the articulating anatomical joint, in order to provide distraction of the articulating anatomical joint, wherein the first component and the second component are slidably and telescopically interconnected and the third component and the fourth component are slidably and telescopically interconnected, two components (7; 8) of said four components (6; 7; 3; 8) disposed on mutually opposite sides in relation to the mediolateral axis of the joint each comprising one retaining component and the other two (6; 3) of said four components (6; 7; 3; 8) each comprising the means (4, 5).
A multicast-based wireless communication method, comprising: receiving, by a terminal device, downlink control information, DCI from a base station, wherein the DCI is used to schedule a current multicast traffic channel MTCH, the DCI comprises indication information, and the indication information is used to indicate that configuration information of the current MTCH is modified in a next modification period, MP; and obtaining, by the terminal device, modified configuration information of the current MTCH according to the indication information. receiving, by a terminal device, downlink control information, DCI from a base station, wherein the DCI is used to schedule a current multicast traffic channel MTCH, the DCI comprises indication information, and the indication information is used to indicate that configuration information of the current MTCH is modified in a next modification period, MP; and obtaining, by the terminal device, modified configuration information of the current MTCH according to the indication information.
A method of forming a woven preform, comprising: weaving a first fabric (502, 504, 1402, 1404) over a second fabric (502, 504, 1402, 1404) in a first portion of the woven preform, the first and second fabrics (502, 504, 1402, 1404) each including warp fibers interwoven with weft fibers; interweaving warp fibers of the first fabric (502, 504, 1402, 1404) with warp fibers of the second fabric (502, 504, 1402, 1404) at a crossover portion (518, 1400 1) of the woven preform such that after the crossover portion (518, 1400 1) the first fabric (502, 504, 1402, 1404) is woven under the second fabric (502, 504, 1402, 1404) in a second portion of the woven preform; wherein the warp fibers in the first and second fabrics (502, 504, 1402, 1404) are continuous across the crossover portion (518, 1400 1), characterized in that the warp fibers on edges of the first fabric (502, 504, 1402, 1404) and the warp fibers on edges of the second fabric (502, 504, 1402, 1404) are floating in the crossover portion (518, 1400 1). weaving a first fabric (502, 504, 1402, 1404) over a second fabric (502, 504, 1402, 1404) in a first portion of the woven preform, the first and second fabrics (502, 504, 1402, 1404) each including warp fibers interwoven with weft fibers; interweaving warp fibers of the first fabric (502, 504, 1402, 1404) with warp fibers of the second fabric (502, 504, 1402, 1404) at a crossover portion (518, 1400 1) of the woven preform such that after the crossover portion (518, 1400 1) the first fabric (502, 504, 1402, 1404) is woven under the second fabric (502, 504, 1402, 1404) in a second portion of the woven preform; wherein the warp fibers in the first and second fabrics (502, 504, 1402, 1404) are continuous across the crossover portion (518, 1400 1), characterized in that the warp fibers on edges of the first fabric (502, 504, 1402, 1404) and the warp fibers on edges of the second fabric (502, 504, 1402, 1404) are floating in the crossover portion (518, 1400 1).
A process tool comprising: a frame; a substrate transport connected to the frame and having an end effector configured to support a substrate; and characterized in that it comprises: a substrate transport apparatus auto-teach system for auto-teaching a substrate station location, the auto-teach system including a controller configured to move the substrate transport so that the substrate transport taps the substrate supported on the end effector against a substrate station feature causing a change in eccentricity between the substrate the end effector), determine the change in eccentricity, and determine the substrate station location based on at least the change in eccentricity between the substrate and the end effector. a frame; a substrate transport connected to the frame and having an end effector configured to support a substrate; and characterized in that it comprises: a substrate transport apparatus auto-teach system for auto-teaching a substrate station location, the auto-teach system including a controller configured to move the substrate transport so that the substrate transport taps the substrate supported on the end effector against a substrate station feature causing a change in eccentricity between the substrate the end effector), determine the change in eccentricity, and determine the substrate station location based on at least the change in eccentricity between the substrate and the end effector. a substrate transport apparatus auto-teach system for auto-teaching a substrate station location, the auto-teach system including a controller configured to move the substrate transport so that the substrate transport taps the substrate supported on the end effector against a substrate station feature causing a change in eccentricity between the substrate the end effector), determine the change in eccentricity, and determine the substrate station location based on at least the change in eccentricity between the substrate and the end effector.
Microfluidic device for analysing a gaseous compound, in a dynamic manner and in a flow, the device comprising: - mixing means which enable co-elution in a capillary tube of a gaseous phase comprising the gaseous compound and a solution comprising a derivative agent, the mixing means comprising, in order to carry out the transport of the gaseous phase, a mass flow controller which is adapted for gases or a gas pump, and, in order to carry out the transport of the solution, a peristaltic pump or a syringe pump, these means being controlled so that the gas flow is from 100 to 10000 times greater than the liquid flow; - means for reacting the gaseous compound in solution with the derivative agent; - means for eliminating the gaseous phase; and - means for determining the concentration of gaseous compound, characterised in that the mixing means enable an annular flow to be obtained and comprise an entrapment cell comprising a capillary tube which is supplied at the centre thereof with gaseous phase comprising the gaseous compound via a gaseous phase capillary supply tube and at the periphery with a solution comprising the derivative agent via a solution supply tube. - mixing means which enable co-elution in a capillary tube of a gaseous phase comprising the gaseous compound and a solution comprising a derivative agent, the mixing means comprising, in order to carry out the transport of the gaseous phase, a mass flow controller which is adapted for gases or a gas pump, and, in order to carry out the transport of the solution, a peristaltic pump or a syringe pump, these means being controlled so that the gas flow is from 100 to 10000 times greater than the liquid flow; - means for reacting the gaseous compound in solution with the derivative agent; - means for eliminating the gaseous phase; and - means for determining the concentration of gaseous compound,
Use of a kit in the in vitro detection or diagnosis of breast cancer, comprising nucleic acid(s) capable of specifically binding to a breast cancer marker: miR-4730.
An RF switch comprising: a plurality of series-coupled RF switch cells coupled between a first RF input (RF 1) and a second RF input, each RF switch cell having an input; and a biasing network having a plurality of outputs configured for individually biasing each of the RF switch cell inputs to a distinct bias voltage based upon a rank number of the RF switch cell; wherein each RF switch cell of the plurality of series-coupled RF switch cells comprises a transistor (T 1 -T N) having a control node forming the input of the RF switch cell; wherein the distinct bias voltages range from a first voltage associated with a first RF switch cell of the plurality of series-coupled RF switch cells to a second voltage associated with an intermediate RF switch cell of the plurality of series-coupled RF switch cells and different from the first voltage, and from a third voltage associated with a last RF switch cell of the plurality of series-coupled RF switch cells and different from the second voltage to the second voltage associated with the intermediate RF switch cell; characterized in that: the biasing network is adapted to supply the transistors of the first RF switch cell or the transistors of the last RF switch cell with a high negative bias voltage and the transistor of the intermediate RF switch cell with a low negative bias voltage. a plurality of series-coupled RF switch cells coupled between a first RF input (RF 1) and a second RF input, each RF switch cell having an input; and a biasing network having a plurality of outputs configured for individually biasing each of the RF switch cell inputs to a distinct bias voltage based upon a rank number of the RF switch cell; wherein each RF switch cell of the plurality of series-coupled RF switch cells comprises a transistor (T 1 -T N) having a control node forming the input of the RF switch cell; wherein the distinct bias voltages range from a first voltage associated with a first RF switch cell of the plurality of series-coupled RF switch cells to a second voltage associated with an intermediate RF switch cell of the plurality of series-coupled RF switch cells and different from the first voltage, and from a third voltage associated with a last RF switch cell of the plurality of series-coupled RF switch cells and different from the second voltage to the second voltage associated with the intermediate RF switch cell; characterized in that: the biasing network is adapted to supply the transistors of the first RF switch cell or the transistors of the last RF switch cell with a high negative bias voltage and the transistor of the intermediate RF switch cell with a low negative bias voltage.