mhurhangee/ep-ind-claims huggingface dataset:
A method for distinguishing between a healthy condition, esophageal adenocarcinoma and Barrett's esophagus in a subject, the method comprising determining in a sample from the subject the level of a glycospecies of at least one glycoprotein, which glycospecies is differentially expressed between at least two of HC, EAC and BE, and determining a likelihood of the subject having or not having HC, EAC or BE based on whether the respective levels of the individual glycospecies are above or below a corresponding predetermined threshold that correlates with the presence or absence of HC, EAC or BE, wherein the at least one glycoprotein comprises complement C9.
A network element of a cable television (CATV) network, said network element comprising one or more amplifier units for amplifying downstream signal transmission for digital output into one or more output channels; means for detecting total output power of all active digital output channels; means for providing a predetermined correlation as a first network element-specific correlation equation between the detected output power of said active digital output channels and a corresponding minimum bias current for said one or more amplifier units, wherein the first correlation equation is defined based on an output signal not exceeding a first value of bit error rate and/or modulation error ratio, said first value being a maximum allowable value of bit error rate and/or modulation error ratio; and means for adjusting the bias current of said one or more amplifier units on the basis of the predetermined correlation. one or more amplifier units for amplifying downstream signal transmission for digital output into one or more output channels; means for detecting total output power of all active digital output channels; means for providing a predetermined correlation as a first network element-specific correlation equation between the detected output power of said active digital output channels and a corresponding minimum bias current for said one or more amplifier units, wherein the first correlation equation is defined based on an output signal not exceeding a first value of bit error rate and/or modulation error ratio, said first value being a maximum allowable value of bit error rate and/or modulation error ratio; and means for adjusting the bias current of said one or more amplifier units on the basis of the predetermined correlation.
A method for making a cathode comprising: selecting a first source of naturally occurring pyrite and milling the first source in a slurry, said first source having a first mean diameter of the volume distribution measured after the milling of between 5 μm and 15 μm; introducing a second source of synthetic pyrite into the slurry, said second source having a second mean diameter of the volume distribution of between 100 nanometers and 4 μm; coating the slurry containing the first and second sources onto a current collector. selecting a first source of naturally occurring pyrite and milling the first source in a slurry, said first source having a first mean diameter of the volume distribution measured after the milling of between 5 μm and 15 μm; introducing a second source of synthetic pyrite into the slurry, said second source having a second mean diameter of the volume distribution of between 100 nanometers and 4 μm; coating the slurry containing the first and second sources onto a current collector.
A positioning tool for an endoscopic inspection means for inspecting a manifold casing of an aircraft turbine engine, this manifold casing comprising an annular wall with an axis A of revolution which comprises through orifices and which is surrounded by an annular manifold comprising at least one gas passage port (20a, 20b) opening into an annular cavity delimited between the manifold and said wall, the tool comprising: - a centring device configured to be engaged in said port and comprising a distal end configured to bear against said wall, and a proximal end configured to be held securely on an opening of said port, and - at least one mask (28a, 28b, 28c) configured to be engaged in said port and to be positioned and fastened on said centring device, this mask comprising a window (30, 30', 30") for endoscopic inspection of a zone to be inspected inside said port and/or said cavity, characterized in that said centring device comprises at his distal end a bearing pad. - a centring device configured to be engaged in said port and comprising a distal end configured to bear against said wall, and a proximal end configured to be held securely on an opening of said port, and - at least one mask (28a, 28b, 28c) configured to be engaged in said port and to be positioned and fastened on said centring device, this mask comprising a window (30, 30', 30") for endoscopic inspection of a zone to be inspected inside said port and/or said cavity,
An injection molding apparatus comprising: an auxiliary injection unit for producing a melt stream of moldable material, the auxiliary injection unit having an extruder barrel; and an injection molding system having a melt diverter component, for receiving the melt stream from the extruder barrel and delivering the melt stream to a manifold for providing the melt stream to an injection molding nozzle that is in fluid communication with a mold cavity, the injection molding system having mold plates (154, 158, 184, 186, 188) within or between which the melt diverter component, the manifold and the injection molding nozzle are at least partially positioned, characterized in that, a portion of the extruder barrel of the auxiliary injection unit is positioned between mold plates (154, 158, 184, 186, 188) of the injection molding system, and wherein a downstream end of the extruder barrel is secured to the melt diverter component for delivering the melt stream thereto during an injection cycle. an auxiliary injection unit for producing a melt stream of moldable material, the auxiliary injection unit having an extruder barrel; and an injection molding system having a melt diverter component, for receiving the melt stream from the extruder barrel and delivering the melt stream to a manifold for providing the melt stream to an injection molding nozzle that is in fluid communication with a mold cavity, the injection molding system having mold plates (154, 158, 184, 186, 188) within or between which the melt diverter component, the manifold and the injection molding nozzle are at least partially positioned, characterized in that, a portion of the extruder barrel of the auxiliary injection unit is positioned between mold plates (154, 158, 184, 186, 188) of the injection molding system, and wherein a downstream end of the extruder barrel is secured to the melt diverter component for delivering the melt stream thereto during an injection cycle.
A surface enhanced luminescence (SELS) sensor comprising: a substrate; nano fingers projecting from the substrate, each of the nano fingers comprising: a polymer pillar having a sidewall and a top; a coating layer covering the sidewall; and a metal cap supported by and in contact with the top of the pillar, and wherein the coating layer is not covered by the metal cap and wherein the metal cap has an exposed top surface not covered by the coating layer. a substrate; nano fingers projecting from the substrate, each of the nano fingers comprising: a polymer pillar having a sidewall and a top; a coating layer covering the sidewall; and a metal cap supported by and in contact with the top of the pillar, and wherein the coating layer is not covered by the metal cap and wherein the metal cap has an exposed top surface not covered by the coating layer. a polymer pillar having a sidewall and a top; a coating layer covering the sidewall; and a metal cap supported by and in contact with the top of the pillar, and wherein the coating layer is not covered by the metal cap and wherein the metal cap has an exposed top surface not covered by the coating layer.
An elevator system comprising a first elevator car (1,1'); a second elevator car (2, 2'); a rotatable rope wheel (3, 3',) mounted on a fixed location; and a roping (R, R') suspending the first and second elevator car (1,1'; 2, 2') on opposite sides of the rope wheel (3, 3'), the roping (R, R') comprising at least one rope (4, 4', 4", 4a"', 4b"), which passes over the rope wheel (3, 3'), and is connected on the first side of the rope wheel (3, 3') to the first elevator car (1,1') and on the second side to the second elevator car (2, 2'), characterized in that the first car (1,1') and the second car (2,2') are arranged to travel vertically in the same hoistway (H,H') one above the other, and in that the topmost landing (L2,L2') of the first elevator car (1,1') and the lowermost landing (L3,L3') of the second elevator car (2, 2') are successive landings of a building having said elevator system, and in that said rope (4, 4') comprises at least one load bearing member (1, 1') oriented parallel with the longitudinal direction of the rope (4, 4'), and in that the load bearing member (1, 1') is made of composite material comprising reinforcing fibers (f) embedded in polymer matrix (m), which reinforcing fibers (f) are carbon fibers oriented parallel with the longitudinal direction of the rope (4, 4').
A composite heat exchanger comprising: an air cooled condenser having a pair of tanks (5a, 5b) and a core part arranged between the tanks thereof; a sub-radiator having a pair of tanks (3a, 3b) and a core part that is arranged between the tanks (3a, 3b) thereof and on the same plane as a plane of the core part of the air cooled condenser, the core part of the sub-radiator being formed with the core part of the air cooled condenser as one unit; and a main radiator having a pair of tanks (2a, 2b) and a core part that is arranged between the tanks (2a, 2b) thereof, wherein the upstream side tank of the sub-radiator is formed in a state where said one of the tanks of the sub-radiator is communicated with the downstream side tank of the main radiator, wherein one of the tanks (3a, 3b) of the sub-radiator contains a water cooled condenser, and wherein a part of flowing medium that is cooled down by the main radiator is introduced in the sub-radiator to cool flowing medium of the water cooled condenser, and the flowing medium that is cooled by the water cooled condenser is introduced in the air cooled condenser to be cooled, wherein the upstream side tank (3 a) of the tanks of the sub-radiator is provided to project forward from the downstream side tank of the main radiator, being shaped like a rectangular box, so that the upstream side tank of the tanks of the sub-radiator and the downstream side tank of the main radiator are formed as one unit, and in that the other tank of the tanks of the sub radiator is apart from an upstream side tank of the main radiator. an air cooled condenser having a pair of tanks (5a, 5b) and a core part arranged between the tanks thereof; a sub-radiator having a pair of tanks (3a, 3b) and a core part that is arranged between the tanks (3a, 3b) thereof and on the same plane as a plane of the core part of the air cooled condenser, the core part of the sub-radiator being formed with the core part of the air cooled condenser as one unit; and a main radiator having a pair of tanks (2a, 2b) and a core part that is arranged between the tanks (2a, 2b) thereof, wherein the upstream side tank of the sub-radiator is formed in a state where said one of the tanks of the sub-radiator is communicated with the downstream side tank of the main radiator, wherein one of the tanks (3a, 3b) of the sub-radiator contains a water cooled condenser, and wherein a part of flowing medium that is cooled down by the main radiator is introduced in the sub-radiator to cool flowing medium of the water cooled condenser, and the flowing medium that is cooled by the water cooled condenser is introduced in the air cooled condenser to be cooled, wherein the upstream side tank (3 a) of the tanks of the sub-radiator is provided to project forward from the downstream side tank of the main radiator, being shaped like a rectangular box, so that the upstream side tank of the tanks of the sub-radiator and the downstream side tank of the main radiator are formed as one unit, and in that the other tank of the tanks of the sub radiator is apart from an upstream side tank of the main radiator.
An aerosol-generating device for generating an aerosol from an aerosol-forming substrate, the aerosol-generating device being configured to generate the aerosol during a usage session progressing through a plurality of sequential phases between a usage session start and a usage session stop, the aerosol-generating device comprising: a timer, a haptic output unit, a controller, and an accelerometer, in which progress of the usage session through the plurality of sequential phases is controlled by the controller in response to timing signals from the timer and in response to signals representative of a monitored user interaction parameter, in which the accelerometer is configured to detect movement of the aerosol-generating device associated with a predetermined gesture and send a signal to the controller, in which the signal provided by the accelerometer is analysed to determine if the gesture detected is a gesture indicating a usage session progress query and, if the detected signal is determined to be a usage session progress query, the controller is configured to determine the current phase of the usage session and send a signal to the haptic output unit to emit an indication of the progress of the usage session, and in which the controller is configured to control the haptic output unit to emit a different haptic output during each of the plurality of sequential phases to indicate progress of the usage session. a timer, a haptic output unit, a controller, and an accelerometer, in which progress of the usage session through the plurality of sequential phases is controlled by the controller in response to timing signals from the timer and in response to signals representative of a monitored user interaction parameter, in which the accelerometer is configured to detect movement of the aerosol-generating device associated with a predetermined gesture and send a signal to the controller, in which the signal provided by the accelerometer is analysed to determine if the gesture detected is a gesture indicating a usage session progress query and, if the detected signal is determined to be a usage session progress query, the controller is configured to determine the current phase of the usage session and send a signal to the haptic output unit to emit an indication of the progress of the usage session, and in which the controller is configured to control the haptic output unit to emit a different haptic output during each of the plurality of sequential phases to indicate progress of the usage session.
An apparatus for delay angle compensation for flying start function in a medium-voltage inverter, the apparatus comprising: a signal processing unit configured, by converting a three-phase voltage of an inverter output terminal to a two-phase stationary reference frame voltage (Vαβ), to generate an AC signal V' corresponding to a frequency applied by the inverter and an AC signal qV' having a phase angle delayed by 90 degrees to the V', and to generate a reference frequency (ω') for phase angle compensation; a phase generating unit configured to convert the V' and the qV' signals to dq-axis voltages (Vd, Vq) through a rotary coordinate conversion, and to generate a phase angle (θ) using the Vq; and a phase compensating unit configured to calculate a compensation phase angle by multiplying the reference frequency (ω') generated from the signal processing unit by a predetermined delay time, and to generate an initial angle for the flying start by aggregating the compensation phase angle with the phase angle (θ) generated from the phase generating unit. a signal processing unit configured, by converting a three-phase voltage of an inverter output terminal to a two-phase stationary reference frame voltage (Vαβ), to generate an AC signal V' corresponding to a frequency applied by the inverter and an AC signal qV' having a phase angle delayed by 90 degrees to the V', and to generate a reference frequency (ω') for phase angle compensation; a phase generating unit configured to convert the V' and the qV' signals to dq-axis voltages (Vd, Vq) through a rotary coordinate conversion, and to generate a phase angle (θ) using the Vq; and a phase compensating unit configured to calculate a compensation phase angle by multiplying the reference frequency (ω') generated from the signal processing unit by a predetermined delay time, and to generate an initial angle for the flying start by aggregating the compensation phase angle with the phase angle (θ) generated from the phase generating unit.
A pipe coupling (10,270) for straddling facing end portions (16a,18a) of a pair of pipe elements (16,18) to secure said pipe elements together in an end-to-end relationship, wherein said end portions of said pipe elements each has an outer surface (20,22) of substantially cylindrical profile and wherein said pipe coupling comprises: a plurality of coupling segments (12,14,272,274), each having a pair of arcuate surfaces (32,34) adapted to interface with the cylindrically profiled outer surfaces of said pipe elements, said arcuate surfaces being in spaced apart relation lengthwise of one another; and each said coupling segment having connection members in the form of lugs (264,266) for adjustably connecting one coupling segment to another to permit said arcuate surfaces to engage said outer surfaces of said pipe elements when said portions of said pipe elements have been inserted between said coupling segments in said end-to-end relationship; characterised in that a spacer is positioned and releasably held by friction between the lugs (264, 266), said spacer maintaining said coupling segments in a predetermined spaced apart relation sufficient to allow said end portions of said pipe elements to be inserted between said coupling segments in said end-to-end relationship, the connection members being adjustably tightenable (28,30) to draw said segments together following removal of said spacer. a plurality of coupling segments (12,14,272,274), each having a pair of arcuate surfaces (32,34) adapted to interface with the cylindrically profiled outer surfaces of said pipe elements, said arcuate surfaces being in spaced apart relation lengthwise of one another; and each said coupling segment having connection members in the form of lugs (264,266) for adjustably connecting one coupling segment to another to permit said arcuate surfaces to engage said outer surfaces of said pipe elements when said portions of said pipe elements have been inserted between said coupling segments in said end-to-end relationship; a spacer is positioned and releasably held by friction between the lugs (264, 266), said spacer maintaining said coupling segments in a predetermined spaced apart relation sufficient to allow said end portions of said pipe elements to be inserted between said coupling segments in said end-to-end relationship, the connection members being adjustably tightenable (28,30) to draw said segments together following removal of said spacer.
A contactor comprising: a bellows body, wherein the bellows body is made up of curve-shaped intermediate portions and arc portions each configured to connect the adjacent intermediate portions, wherein each of connecting projections is provided on each boundary between one intermediate portion and one arc portion such that adjacent connection projections come into contact with each other upon compression of the bellows body; a fixed portion, connected to one end of the bellows body and provided with at least one fixed touch piece (33, 34) extending along the bellows body; and a movable portion, connected to the other end of the bellows body, wherein the moveable portion is adapted to be depressed to compress and buckle the bellows body such that arc portions are brought into contact with an inner side surface of the fixed touch piece (33, 34) of the fixed portion, while adjacent connecting projections of the bellows body come into contact with each other. a bellows body, wherein the bellows body is made up of curve-shaped intermediate portions and arc portions each configured to connect the adjacent intermediate portions, wherein each of connecting projections is provided on each boundary between one intermediate portion and one arc portion such that adjacent connection projections come into contact with each other upon compression of the bellows body; a fixed portion, connected to one end of the bellows body and provided with at least one fixed touch piece (33, 34) extending along the bellows body; and a movable portion, connected to the other end of the bellows body, wherein the moveable portion is adapted to be depressed to compress and buckle the bellows body such that arc portions are brought into contact with an inner side surface of the fixed touch piece (33, 34) of the fixed portion, while adjacent connecting projections of the bellows body come into contact with each other.
A method of transmitting an uplink reference signal by a terminal configured to support multiple TTI lengths in a wireless communication system, comprising: receiving uplink, UL, grant downlink control information, DCI, that schedules a transmission time interval, TTI,; and transmitting the uplink reference signal for the TTI based on the UL grant DCI, the method characterized in that: the UL grant DCI includes a first field for indicating one of a plurality of candidate patterns predefined for a plurality of TTIs, and each of the plurality of candidate patterns provides information regarding at least one symbol for uplink reference signal transmission among a plurality of symbols included in the plurality of TTIs. receiving uplink, UL, grant downlink control information, DCI, that schedules a transmission time interval, TTI,; and transmitting the uplink reference signal for the TTI based on the UL grant DCI, the method characterized in that: the UL grant DCI includes a first field for indicating one of a plurality of candidate patterns predefined for a plurality of TTIs, and each of the plurality of candidate patterns provides information regarding at least one symbol for uplink reference signal transmission among a plurality of symbols included in the plurality of TTIs. the UL grant DCI includes a first field for indicating one of a plurality of candidate patterns predefined for a plurality of TTIs, and each of the plurality of candidate patterns provides information regarding at least one symbol for uplink reference signal transmission among a plurality of symbols included in the plurality of TTIs.
Camshaft adjuster, which is of vane cell design, for adjusting the angle-of-rotation position of a camshaft relative to a crankshaft, with at least two working chambers to which pressure oil can be supplied to change the angle-of-rotation position, each working chamber being divided by a respective vane into two sub chambers (41A, 41B), and the pressure oil being supplied to one of the two sub chambers, depending on the desired direction of the change in the angle-of-rotation position, in such a manner that said sub chamber is increased and the second sub chamber is reduced, it being possible for at least one of the working chambers to be cut off depending on an operating parameter by the supply of pressure oil being blocked, the operating parameter being the pressure of the pressure oil, it being possible for the supply of pressure oil to be blocked by an actuating body, the actuating position of which is determined by the pressure of the pressure oil, characterized in that the actuating body is of double-action design in such a manner that, depending on the direction of the change in the angle-of-rotation position, the working chamber can be cut off by the supply of pressure oil either to the first sub chamber or to the second sub chamber being blocked.