mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication, comprising: determining a set of uplink, UL, component carriers, CCs, to use for a user equipment, UE, (115, 215, 415, 1115, 1215, 1315) the set of UL CCs comprising at least one UL CC in a first radio frequency spectrum band and at least one UL CC in a second radio frequency spectrum band, wherein the first radio frequency spectrum band is a dedicated radio frequency spectrum band, and the second radio frequency spectrum band is a shared radio frequency spectrum band for which a device has to contend for access; identifying, for a subframe, uplink control information, UCI, due for transmission, wherein the UCI is associated with one or more CCs and comprises aperiodic channel state information, CSI; limiting available UL CCs for transmission of the periodic CSI included in the UCI to the at least one UL CC in the first radio frequency spectrum band; and allowing the transmission of aperiodic CSI included in the UCI over an UL CC in the shared radio frequency spectrum band. determining a set of uplink, UL, component carriers, CCs, to use for a user equipment, UE, (115, 215, 415, 1115, 1215, 1315) the set of UL CCs comprising at least one UL CC in a first radio frequency spectrum band and at least one UL CC in a second radio frequency spectrum band, wherein the first radio frequency spectrum band is a dedicated radio frequency spectrum band, and the second radio frequency spectrum band is a shared radio frequency spectrum band for which a device has to contend for access; identifying, for a subframe, uplink control information, UCI, due for transmission, wherein the UCI is associated with one or more CCs and comprises aperiodic channel state information, CSI; limiting available UL CCs for transmission of the periodic CSI included in the UCI to the at least one UL CC in the first radio frequency spectrum band; and allowing the transmission of aperiodic CSI included in the UCI over an UL CC in the shared radio frequency spectrum band.
A method of cutting potatoes into a plurality of pieces, the method comprising the steps of: (a) providing a potato to a cutting implement having a cutting edge for cutting a potato; characterized by the method comprising the steps of (b) supplying a lubricating liquid onto the cutting implement to form a liquid film over at least part of the cutting edge, the lubricating liquid comprising an aqueous dispersion of an antifoam additive; and (c) cutting the potato using the lubricated cutting edge to cut a potato piece from the potato. (a) providing a potato to a cutting implement having a cutting edge for cutting a potato; characterized by the method comprising the steps of (b) supplying a lubricating liquid onto the cutting implement to form a liquid film over at least part of the cutting edge, the lubricating liquid comprising an aqueous dispersion of an antifoam additive; and (c) cutting the potato using the lubricated cutting edge to cut a potato piece from the potato.
A method for evaluating a condition of skin dryness, the method comprising measuring the expression levels of AGR2 and/or AGR3 in skin cells collected from a subject.
A driver for a smectic-A composition liquid crystal panel, the driver forming a resonant circuit operable to oscillate at resonant frequency for ordering the smectic-A liquid crystal composition of the panel and wherein the liquid crystal panel forms part of the resonant circuit.
A method of preparing malto-oligosaccharides, said method comprising: providing a corn fraction, said corn fraction having been prepared from a dry-milled corn flour from which germ and fiber have been removed; subjecting said corn flour to catalyzed hydrolysis in a jet cooker under conditions suitable to result in a mixture of malto-oligosaccharides, wherein the hydrolysis is catalyzed with an acid or one or more enzymes; and recovering said mixture of malto-oligosaccharides, the recovering including separating the mixture of malto-oligosaccharides from insoluble materials by centrifugation and filtration, the mixture recovered having a dextrose equivalent value of at most 70 and a protein content of less than 1%. providing a corn fraction, said corn fraction having been prepared from a dry-milled corn flour from which germ and fiber have been removed; subjecting said corn flour to catalyzed hydrolysis in a jet cooker under conditions suitable to result in a mixture of malto-oligosaccharides, wherein the hydrolysis is catalyzed with an acid or one or more enzymes; and recovering said mixture of malto-oligosaccharides, the recovering including separating the mixture of malto-oligosaccharides from insoluble materials by centrifugation and filtration, the mixture recovered having a dextrose equivalent value of at most 70 and a protein content of less than 1%.
An organic light emitting diode (OLED) pixel unit, comprising an opaque region and a transparent region which are arranged side by side, wherein the opaque region comprises an opaque display element, and the transparent region comprises at least one transparent display element, wherein the opaque display element is an active matrix OLED (AMOLED) display element comprising an organic light emitting device and a thin film transistor on a substrate, the thin film transistor is configured to drive the organic light emitting device of the AMOLED display element, wherein the transparent display element is a passive matrix OLED (PMOLED) display element comprising an organic light emitting device on the substrate, the organic light emitting device of the PMOLED display element is configured to be driven by a voltage directly applied onto the organic light emitting device, and wherein a cathode of the opaque display element and a cathode of the transparent display element are made from a same material layer simultaneously and are disconnected from each other, the cathode of the opaque display element is arranged at a side of a light emitting layer of the opaque display element away from the thin film transistor of the opaque display element, and the cathode of the transparent display element is arranged at a side of a light emitting layer of the transparent display element away from the substrate. wherein the opaque display element is an active matrix OLED (AMOLED) display element comprising an organic light emitting device and a thin film transistor on a substrate, the thin film transistor is configured to drive the organic light emitting device of the AMOLED display element, wherein the transparent display element is a passive matrix OLED (PMOLED) display element comprising an organic light emitting device on the substrate, the organic light emitting device of the PMOLED display element is configured to be driven by a voltage directly applied onto the organic light emitting device, and wherein a cathode of the opaque display element and a cathode of the transparent display element are made from a same material layer simultaneously and are disconnected from each other, the cathode of the opaque display element is arranged at a side of a light emitting layer of the opaque display element away from the thin film transistor of the opaque display element, and the cathode of the transparent display element is arranged at a side of a light emitting layer of the transparent display element away from the substrate.
A process for applying under pressure a coated or uncoated film onto a main surface of a lens substrate comprising: (a) providing a coated or uncoated film; (b) providing a lens substrate having a first main surface and an opposite second main surface, said second main surface bearing at least one coating which is sensitive to a temperature T; (c) forming a layer of an adhesive between a face of the coated or uncoated film and the first main surface of the lens substrate; (d) applying pressure on the coated or uncoated film to urge said film against the lens substrate first main surface, with the adhesive between, to conform the film to the lens substrate first main surface; (e) maintaining pressure on the film while, subjecting the adhesive to an activation step for activating the adhesive and promoting adhesion between the film and said first main surface of the lens substrate; (f) stopping activation and releasing applied pressure; and (g) recovering the lens substrate with the coated or uncoated film adhered thereon; wherein during the pressure application steps and activation steps the second main surface of the lens substrate is at least partly in contact with a matching surface of a non deformable heat sink block made of a plastic material, and during the activation step the first main surface of the lens substrate is heated to at least the temperature T, while the second main surface of the lens substrate maintained at a temperature of at least 10°C lower than temperature T without the use of any cooling system. (a) providing a coated or uncoated film; (b) providing a lens substrate having a first main surface and an opposite second main surface, said second main surface bearing at least one coating which is sensitive to a temperature T; (c) forming a layer of an adhesive between a face of the coated or uncoated film and the first main surface of the lens substrate; (d) applying pressure on the coated or uncoated film to urge said film against the lens substrate first main surface, with the adhesive between, to conform the film to the lens substrate first main surface; (e) maintaining pressure on the film while, subjecting the adhesive to an activation step for activating the adhesive and promoting adhesion between the film and said first main surface of the lens substrate; (f) stopping activation and releasing applied pressure; and (g) recovering the lens substrate with the coated or uncoated film adhered thereon;
Method for manufacturing a configurable electrical component comprising a step of printing a pattern on a substrate (112, 12) with a nano-ink based on conductive nanoparticles, the nano-ink initially being nonconductive, and said pattern being interrupted by at least one micro-break (120, 20), characterized in that it comprises a step of sintering at least part of said pattern so as to make that part conductive, said sintering step making it possible to modify the state of the nanoparticles contained in said nano-ink so as to at least partially fill said at least one micro-break, and said at least one micro-break has a width of between 10 um and 50 μm. characterized in that it comprises a step of sintering at least part of said pattern so as to make that part conductive, said sintering step making it possible to modify the state of the nanoparticles contained in said nano-ink so as to at least partially fill said at least one micro-break, and said at least one micro-break has a width of between 10 um and 50 μm.
System for adjusting the angular position of a pinion relative to a wheel on which the pinion is mounted such that it can pivot, the adjusting system comprising an adjusting member as well as a wheel on which a pinion is frictionally mounted so as to form a wheel set, the adjusting member, pivotally mounted on wheel, being engaged with the pinion and allowing to pivot said pinion so as to adjust the angular position of the pivot relative to the wheel.
An oxygen concentrator comprising; a proton-conducting membrane; a cathode contacting a first side of the membrane; an anode contacting a second side of the membrane; a catalytic apparatus comprising a catalyst and a diffusion layer, the diffusion layer spacing the catalyst from the cathode; and a housing (4, 6) defining a cathode chamber, the catalytic apparatus being contained within the cathode chamber and the housing defining one or more vents enabling air to flow to the catalyst, wherein the oxygen concentrator does not have a water reservoir and is configured to sustain its operation by electrolysing water derived only from humidity in the air and the catalyst and by provision of the catalytic apparatus positioned very close to or directly adjacent to the cathode such that the catalytic apparatus converts cathode-generated hydrogen to water and recycles the water to the proton-conducting membrane with little water loss, and wherein the cathode is not exposed to atmospheric oxygen. a proton-conducting membrane; a cathode contacting a first side of the membrane; an anode contacting a second side of the membrane; a catalytic apparatus comprising a catalyst and a diffusion layer, the diffusion layer spacing the catalyst from the cathode; and a housing (4, 6) defining a cathode chamber, the catalytic apparatus being contained within the cathode chamber and the housing defining one or more vents enabling air to flow to the catalyst, wherein the oxygen concentrator does not have a water reservoir and is configured to sustain its operation by electrolysing water derived only from humidity in the air and the catalyst and by provision of the catalytic apparatus positioned very close to or directly adjacent to the cathode such that the catalytic apparatus converts cathode-generated hydrogen to water and recycles the water to the proton-conducting membrane with little water loss, and wherein the cathode is not exposed to atmospheric oxygen.
A method of 3D printing an object, the method comprising: depositing build material in a predetermined pattern to form a first layer of a 3D printed object; and depositing build material in a predetermined pattern to form a first layer of a skirt in contact with the 3D printed object, wherein depositing build material to form the first layer of the skirt comprises 3D printing a first layer of a sidewalk that substantially surrounds at least a portion of a perimeter of the 3D printed object and 3D printing a first layer of a perforated interface between the sidewalk and the perimeter of the skirt, wherein the perforated interface enables the sidewalk to be removed from the 3D printed object, and wherein depositing build material in a predetermined pattern to form the first layer of the 3D printed object is carried out prior to depositing build material in a predetermined pattern to form the first layer of the skirt. depositing build material in a predetermined pattern to form a first layer of a 3D printed object; and depositing build material in a predetermined pattern to form a first layer of a skirt in contact with the 3D printed object, wherein depositing build material to form the first layer of the skirt comprises 3D printing a first layer of a sidewalk that substantially surrounds at least a portion of a perimeter of the 3D printed object and 3D printing a first layer of a perforated interface between the sidewalk and the perimeter of the skirt, wherein the perforated interface enables the sidewalk to be removed from the 3D printed object, and wherein depositing build material in a predetermined pattern to form the first layer of the 3D printed object is carried out prior to depositing build material in a predetermined pattern to form the first layer of the skirt.
A transporting system for feeding items into containers, the system comprising: - a carousel conveyor; - a plurality of containers located on the carousel conveyor; - wherein the carousel conveyor comprises: - a first longitudinal conveyor; - a second longitudinal conveyor parallel to the first longitudinal conveyor; and - transversal conveyors (13, 14, 15, 16) arranged at the ends of the longitudinal conveyors (11, 12) configured to move the containers between the longitudinal conveyors (11, 12); - a buffer conveyor for feeding items to the containers located on the carousel conveyor, wherein the buffer conveyor is arranged above one of the longitudinal conveyors (11, 12) and comprises at least two transporting modules arranged in a series and configured to transfer items along a first axis which is parallel to the longitudinal conveyors (11, 12), characterized in that the at least two transporting modules are also configured to transfer items along a second axis which is perpendicular to the first axis and in that the system furthermore comprises a curved outlet conveyor for discharging the containers from the carousel conveyor. - a carousel conveyor; - a plurality of containers located on the carousel conveyor; - wherein the carousel conveyor comprises: - a first longitudinal conveyor; - a second longitudinal conveyor parallel to the first longitudinal conveyor; and - transversal conveyors (13, 14, 15, 16) arranged at the ends of the longitudinal conveyors (11, 12) configured to move the containers between the longitudinal conveyors (11, 12); - a first longitudinal conveyor; - a second longitudinal conveyor parallel to the first longitudinal conveyor; and - transversal conveyors (13, 14, 15, 16) arranged at the ends of the longitudinal conveyors (11, 12) configured to move the containers between the longitudinal conveyors (11, 12); - a buffer conveyor for feeding items to the containers located on the carousel conveyor, wherein the buffer conveyor is arranged above one of the longitudinal conveyors (11, 12) and comprises at least two transporting modules arranged in a series and configured to transfer items along a first axis which is parallel to the longitudinal conveyors (11, 12),
Operating method for a driver assistance system for vehicle longitudinal control of a vehicle with respect to a third-party vehicle, preferably for speed and/or distance control, wherein a changing angle of incidence of the third-party vehicle approaching laterally or from the rear is used when performing the vehicle longitudinal control, wherein the angle of incidence is the angle between the direction of travel of the vehicle and the distance vector to the third-party vehicle, comprising the steps: - Determining a trajectory of the third-party vehicle dependent on a measured distance and the changing angle of incidence of the third-party vehicle; - Determining a trajectory of the vehicle; - Determining, dependent on the determined trajectory curves (110, 111), whether a duration of time or a distance until a possible lateral collision between the vehicle and the third-party vehicle has fallen below a predetermined threshold value; characterised in that, if the duration of time or the distance has fallen below the predetermined threshold value and/or if the lateral angle of incidence is within a predetermined range, the method comprises the following steps: - Output of a warning signal to the driver; - Determining whether the driver configures an evasive manoeuvre during a reaction phase, if the driver does not configure an evasive manoeuvre during the reaction phase, executing longitudinal vehicle control until a safe distance to the third-party vehicle is reached, and - Calculation of a relative speed of the third-party vehicle approaching laterally or from behind from a change over time in a distance between the vehicle and the third-party vehicle and a change in the angle of incidence, wherein the longitudinal vehicle control is performed only if, after the driver has not carried out an evasive manoeuvre during the reaction phase, the relative speed falls below a predetermined threshold value. - Determining a trajectory of the third-party vehicle dependent on a measured distance and the changing angle of incidence of the third-party vehicle; - Determining a trajectory of the vehicle; - Determining, dependent on the determined trajectory curves (110, 111), whether a duration of time or a distance until a possible lateral collision between the vehicle and the third-party vehicle has fallen below a predetermined threshold value; - Output of a warning signal to the driver; - Determining whether the driver configures an evasive manoeuvre during a reaction phase, if the driver does not configure an evasive manoeuvre during the reaction phase, executing longitudinal vehicle control until a safe distance to the third-party vehicle is reached, and - Calculation of a relative speed of the third-party vehicle approaching laterally or from behind from a change over time in a distance between the vehicle and the third-party vehicle and a change in the angle of incidence, wherein the longitudinal vehicle control is performed only if, after the driver has not carried out an evasive manoeuvre during the reaction phase, the relative speed falls below a predetermined threshold value.
An apparatus body of an image pickup apparatus comprising: a fixing unit to which a lens adapter, to which an interchangeable lens is detachably attachable, is detachably attachable, characterized by an electrical connecting portion that is formed as a comb-shaped terminal that is electrically connectable with a terminal of an electrical communication unit provided in the lens adapter wherein the comb-shaped terminal is constituted by a plurality of plate terminals (262a through 262j) that are prolonged in an optical axis direction and are arranged side by side in a situation where surfaces of plates are mutually opposite, wherein the plate terminals (262a through 262j) are formed to be nipped between pairs of elastic contact pieces of the electrical communication unit in the plate thickness direction, and wherein a contact position of the comb-shaped terminal contacting with the terminal of the electrical communication unit is variable relatively in the optical axis direction with respect to the terminal of the electrical communication unit. a fixing unit to which a lens adapter, to which an interchangeable lens is detachably attachable, is detachably attachable, characterized by an electrical connecting portion that is formed as a comb-shaped terminal that is electrically connectable with a terminal of an electrical communication unit provided in the lens adapter wherein the comb-shaped terminal is constituted by a plurality of plate terminals (262a through 262j) that are prolonged in an optical axis direction and are arranged side by side in a situation where surfaces of plates are mutually opposite, wherein the plate terminals (262a through 262j) are formed to be nipped between pairs of elastic contact pieces of the electrical communication unit in the plate thickness direction, and wherein a contact position of the comb-shaped terminal contacting with the terminal of the electrical communication unit is variable relatively in the optical axis direction with respect to the terminal of the electrical communication unit.