mhurhangee/ep-ind-claims huggingface dataset:
A turbine bucket for a gas turbine engine, the turbine bucket comprising: a pressure side; a suction side opposite the pressure side; and, a bucket squealer tip attached to the pressure side and the suction side comprising a plurality of high hot hardness shroud-cutting deposits deposited on an exterior surface of the bucket squealer tip, wherein the plurality of high hot hardness shroud-cutting deposits have a hardness of at least about 1100 kg mm -2 and a melting temperature of at least about 1500 °C, wherein the plurality of high hot hardness shroud-cutting deposits are selected from the group consisting of CrN, Cr 3 C 2, HfN, HfC, WC, Al 2 O 3, SiC, BN, B 4 C and diamond carbon, and, wherein at least a first high hot hardness shroud cutting deposit comprises a first composition and at least a second high hot hardness shroud cutting deposit comprises a second composition different than the first composition, wherein the high hot hardness shroud-cutting deposits comprise a plurality of hard particles mixed with one or more braze filler metals wherein the plurality of hard particles deposits comprise both cubic BN and Al 2 O 3 at a ratio from about 50:50 to about 20:80. a pressure side; a suction side opposite the pressure side; and, a bucket squealer tip attached to the pressure side and the suction side comprising a plurality of high hot hardness shroud-cutting deposits deposited on an exterior surface of the bucket squealer tip, wherein the plurality of high hot hardness shroud-cutting deposits have a hardness of at least about 1100 kg mm -2 and a melting temperature of at least about 1500 °C, wherein the plurality of high hot hardness shroud-cutting deposits are selected from the group consisting of CrN, Cr 3 C 2, HfN, HfC, WC, Al 2 O 3, SiC, BN, B 4 C and diamond carbon, and, wherein at least a first high hot hardness shroud cutting deposit comprises a first composition and at least a second high hot hardness shroud cutting deposit comprises a second composition different than the first composition, wherein the high hot hardness shroud-cutting deposits comprise a plurality of hard particles mixed with one or more braze filler metals wherein the plurality of hard particles deposits comprise both cubic BN and Al 2 O 3 at a ratio from about 50:50 to about 20:80.
A method of outputting at least one still image from a media file, the media file comprising a data part and a metadata part, the metadata part being organized based on a hierarchy of boxes compliant with the ISOBMFF standard, the method comprising: - obtaining one or more entries in an item information box for describing each of one or more still images as one or more items, each of the one or more items being identified by an item identifier; - obtaining a property box comprising an indexed list of one or more properties related to the one or more still images, the one or more properties comprising one or more display parameters or one or more transformation operators; - obtaining association metadata for associating an item identifier with the one or more properties in the property box; - obtaining a bitstream representing the one or more still images from the data part of the media file; and - outputting at least one of the one or more still images from the media file, based on the obtained one or more entries, the obtained property box, the obtained association metadata and the obtained bitstream. - obtaining one or more entries in an item information box for describing each of one or more still images as one or more items, each of the one or more items being identified by an item identifier; - obtaining a property box comprising an indexed list of one or more properties related to the one or more still images, the one or more properties comprising one or more display parameters or one or more transformation operators; - obtaining association metadata for associating an item identifier with the one or more properties in the property box; - obtaining a bitstream representing the one or more still images from the data part of the media file; and - outputting at least one of the one or more still images from the media file, based on the obtained one or more entries, the obtained property box, the obtained association metadata and the obtained bitstream.
A method for selecting and indicating to a user one from a plurality of ballasting options for an agricultural vehicle when coupled to an agricultural implement, comprising: within a first range of discrete values of a first operational parameter of the vehicle and a first range of discrete values of a second operational parameter of the vehicle, using a received identifier (R2.1) for a selected implement to look up a second range, less than or equal to the first range, of discrete values of the first parameter, and a second range, less than or equal to the first range, of discrete values of the second parameter to obtain a values subset from the combinations of discrete first and second operational parameter values; deriving (107, 109) a respective optimal selection from the plurality of ballasting options for each combination in the values subset; identifying one ballasting option selection on the basis of a predetermined selection criteria; and indicating the identified selection to the user. within a first range of discrete values of a first operational parameter of the vehicle and a first range of discrete values of a second operational parameter of the vehicle, using a received identifier (R2.1) for a selected implement to look up a second range, less than or equal to the first range, of discrete values of the first parameter, and a second range, less than or equal to the first range, of discrete values of the second parameter to obtain a values subset from the combinations of discrete first and second operational parameter values; deriving (107, 109) a respective optimal selection from the plurality of ballasting options for each combination in the values subset; identifying one ballasting option selection on the basis of a predetermined selection criteria; and indicating the identified selection to the user.
A base station configured to be used as a remote base (2, RU) station in a wireless communication system including the remote base station (2, RU), a central base station (1, DU) configured to communicate with the remote base station, and a user equipment configured to communicate with the remote base station, the base station (2, RU) comprising: a reception unit configured to receive from the central base station (1, DU): a parameter that includes information related to a Listen Before Talk process, and information used when transmitting data; a detection unit configured to perform the Listen Before Talk process according to the parameter; and wherein the remote base station (2, RU) includes a layer function different from the central base station (1, DU). a parameter that includes information related to a Listen Before Talk process, and information used when transmitting data; a detection unit configured to perform the Listen Before Talk process according to the parameter; and wherein the remote base station (2, RU) includes a layer function different from the central base station (1, DU).
Paper, suitable for use as removable or repositionable labels, comprising: a paper substrate, having a weight of less than about 70 gsm, a width extending between lateral edges (7, 8), a longitudinal axis extending along the center of the width, a first side and a second side, the first side supporting at least one release layer; the second side supporting at least one layer of adhesive (113, 114); characterised in that the second side supports at least one layer of a cleaning material between the adhesive layer or layers (113, 114) and the paper substrate, which cleaning material has an affinity for the adhesive of the layer or layers (113, 114); the adhesive layer or layers (113, 114) comprising substantially discrete adhesive patches having a dry weight per unit area of the paper, the adhesive patches being separated by adhesive having a lower dry weight per unit area of the paper; wherein the cleaning material and the adhesive having a lower dry weight per unit area of the paper form a cleaning layer that, in use, tends to clean printer components when the labels are being printed. a paper substrate, having a weight of less than about 70 gsm, a width extending between lateral edges (7, 8), a longitudinal axis extending along the center of the width, a first side and a second side, the first side supporting at least one release layer; the second side supporting at least one layer of adhesive (113, 114); characterised in that the second side supports at least one layer of a cleaning material between the adhesive layer or layers (113, 114) and the paper substrate, which cleaning material has an affinity for the adhesive of the layer or layers (113, 114); the adhesive layer or layers (113, 114) comprising substantially discrete adhesive patches having a dry weight per unit area of the paper, the adhesive patches being separated by adhesive having a lower dry weight per unit area of the paper; wherein the cleaning material and the adhesive having a lower dry weight per unit area of the paper form a cleaning layer that, in use, tends to clean printer components when the labels are being printed.
An electronics package comprising: a lead frame; a wide band-gap semiconductor device mounted on the lead frame via a die attach material; an over-mold molded around the lead frame and the wide band-gap semiconductor device, characterized in that the over-mold has a glass transition temperature greater than 135°C, a flexural modulus less than about 20 GPa, a coefficient of thermal expansion below about 50 ppm/°C at temperatures above the glass transition temperature and a coefficient of thermal expansion below about 18 ppm/°C at temperatures below the glass transition temperature, and a moisture absorption rate less than about 0.5%. a lead frame; a wide band-gap semiconductor device mounted on the lead frame via a die attach material; an over-mold molded around the lead frame and the wide band-gap semiconductor device, characterized in that the over-mold has a glass transition temperature greater than 135°C, a flexural modulus less than about 20 GPa, a coefficient of thermal expansion below about 50 ppm/°C at temperatures above the glass transition temperature and a coefficient of thermal expansion below about 18 ppm/°C at temperatures below the glass transition temperature, and a moisture absorption rate less than about 0.5%.
An electronic device with a display interface, comprising: a device body, comprising a groove; a display module, disposed on the device body, wherein the display module comprises a shaft, the shaft is rotatably connected to the groove, and is adapted to be slid in the groove, and an extension direction (α) of the groove differs from an axis (β) of the shaft, wherein the extension direction (α) of the groove is perpendicular to the axis (β) of the shaft, wherein the shaft is slid between a first groove position and a second groove position inside the groove, and when the shaft is in the first groove position, an orientation of the display module relative to the device body is restricted, and when the shaft is in the second groove position, the display module is adapted to be rotated relative to the device body, wherein the shaft comprises a plurality of flexible fasteners, the flexible fasteners are arranged in an annular manner, the flexible fasteners are wedged into the device body, the groove comprises a first groove area, a second groove area and a waist area, the waist area is located between the first groove area and the second groove area, a width of the waist area is smaller than a width of the first groove area, the width of the waist area is smaller than a width of the second groove area, and when the shaft is in the first groove position, the shaft is in the first groove area, and when the shaft is in the second groove position, the shaft is in the second groove area. a device body, comprising a groove; a display module, disposed on the device body, wherein the display module comprises a shaft, the shaft is rotatably connected to the groove, and is adapted to be slid in the groove, and an extension direction (α) of the groove differs from an axis (β) of the shaft, wherein the extension direction (α) of the groove is perpendicular to the axis (β) of the shaft, wherein the shaft is slid between a first groove position and a second groove position inside the groove, and when the shaft is in the first groove position, an orientation of the display module relative to the device body is restricted, and when the shaft is in the second groove position, the display module is adapted to be rotated relative to the device body, wherein the shaft comprises a plurality of flexible fasteners, the flexible fasteners are arranged in an annular manner, the flexible fasteners are wedged into the device body, the groove comprises a first groove area, a second groove area and a waist area, the waist area is located between the first groove area and the second groove area, a width of the waist area is smaller than a width of the first groove area, the width of the waist area is smaller than a width of the second groove area, and when the shaft is in the first groove position, the shaft is in the first groove area, and when the shaft is in the second groove position, the shaft is in the second groove area.
A method for wireless communication by a user equipment, UE, comprising: receiving a channel state information, CSI, report configuration, configuring the UE for reporting at least a subset of precoding matrix information including, a plurality of selected beams, a frequency domain compression matrix for each of the beams at each of a plurality of taps in the time domain, and a subset of a plurality of linear combination coefficients associated with the frequency domain compression matrices and beams; receiving a configuration of non-contiguous frequency resources for CSI reporting; determining a size of a gap between sets of non-contiguous frequency resources; performing frequency compression of the precoding matrix information using the nominal discrete Fourier transform, DFT,-based matrix when the size of the gap is below a threshold; and performing frequency domain compression of the precoding matrix information using a truncated frequency domain compression matrix when the size of the gap is equal to or greater than the threshold. receiving a channel state information, CSI, report configuration, configuring the UE for reporting at least a subset of precoding matrix information including, a plurality of selected beams, a frequency domain compression matrix for each of the beams at each of a plurality of taps in the time domain, and a subset of a plurality of linear combination coefficients associated with the frequency domain compression matrices and beams; receiving a configuration of non-contiguous frequency resources for CSI reporting; determining a size of a gap between sets of non-contiguous frequency resources; performing frequency compression of the precoding matrix information using the nominal discrete Fourier transform, DFT,-based matrix when the size of the gap is below a threshold; and performing frequency domain compression of the precoding matrix information using a truncated frequency domain compression matrix when the size of the gap is equal to or greater than the threshold.
A method for producing a semiconductor substrate for solid-state image sensing device, - wherein a silicon crystal is previously included with carbon at a solid-soluted concentration of 1x10 16 -1x10 17 atoms/cm 3 and oxygen at a solid-soluted concentration of 1.4x10 18 -1.6x10 18 atoms/cm 3 in the production of a single crystal silicon substrate, wherein the single crystal silicon substrate is produced by using a CZ, Czochralski, method, - next, an epitaxial layer of silicon is provided on the silicon substrate to obtain a semiconductor substrate, - next, aheat treatment step of 600 °C - 700 °C is employed to grow and form carbon-oxygen based precipitates by using the semiconductor substrate containing the solid-soluted carbon as a substrate for solid-state image sensing device through the device production step, wherein the carbon-oxygen based precipitates are spontaneously separated out over the whole of the silicon substrate through the initial stage of the device production step by using the semiconductor substrate containing the solid soluted carbon, so that the gettering sink having a high gettering ability against metal contamination at the device production step can be formed over a full thickness of the silicon substrate just beneath the epitaxial layer, and wherein the carbon-oxygen based precipitates have a size of not less than 10 nm and to be existent in the silicon substrate at a density of 1x10 6 - 1x10 8 precipitates/cm 2. - wherein a silicon crystal is previously included with carbon at a solid-soluted concentration of 1x10 16 -1x10 17 atoms/cm 3 and oxygen at a solid-soluted concentration of 1.4x10 18 -1.6x10 18 atoms/cm 3 in the production of a single crystal silicon substrate, wherein the single crystal silicon substrate is produced by using a CZ, Czochralski, method, - next, an epitaxial layer of silicon is provided on the silicon substrate to obtain a semiconductor substrate, - next, aheat treatment step of 600 °C - 700 °C is employed to grow and form carbon-oxygen based precipitates by using the semiconductor substrate containing the solid-soluted carbon as a substrate for solid-state image sensing device through the device production step, wherein the carbon-oxygen based precipitates are spontaneously separated out over the whole of the silicon substrate through the initial stage of the device production step by using the semiconductor substrate containing the solid soluted carbon, so that the gettering sink having a high gettering ability against metal contamination at the device production step can be formed over a full thickness of the silicon substrate just beneath the epitaxial layer, and wherein the carbon-oxygen based precipitates have a size of not less than 10 nm and to be existent in the silicon substrate at a density of 1x10 6 - 1x10 8 precipitates/cm 2.
A vehicle with a rear exhaust engine and an upper structure of the rear exhaust engine, wherein the engine is provided with an exhaust system component behind the engine in a vehicle front-rear direction, the upper structure comprising: a first flow rectifying member provided above the engine, the first flow rectifying member subjecting traveling wind to flow regulation so that the traveling wind flows rearward along an upper surface thereof; and a second flow rectifying member provided behind the first flow rectifying member, the second flow rectifying member subjecting the traveling wind subjected to flow regulation by the first flow rectifying member to flow regulation so that the traveling wind is directed to the exhaust system component along an upper surface thereof, wherein a fuel system component of the engine is disposed below the first flow rectifying member, characterized in that an oil separator having a cavity therein is provided below the second flow rectifying member, wherein a cover member that covers the second flow rectifying member is provided between the second flow rectifying member and a hood so that a gap through which the traveling wind passes is present, and wherein an opening is provided between the engine and a front end of the first flow rectifying member so that the traveling wind flows in a space between the engine and the first flow rectifying member. a first flow rectifying member provided above the engine, the first flow rectifying member subjecting traveling wind to flow regulation so that the traveling wind flows rearward along an upper surface thereof; and a second flow rectifying member provided behind the first flow rectifying member, the second flow rectifying member subjecting the traveling wind subjected to flow regulation by the first flow rectifying member to flow regulation so that the traveling wind is directed to the exhaust system component along an upper surface thereof, wherein a fuel system component of the engine is disposed below the first flow rectifying member, characterized in that an oil separator having a cavity therein is provided below the second flow rectifying member, wherein a cover member that covers the second flow rectifying member is provided between the second flow rectifying member and a hood so that a gap through which the traveling wind passes is present, and wherein an opening is provided between the engine and a front end of the first flow rectifying member so that the traveling wind flows in a space between the engine and the first flow rectifying member.
Lens hood of an image recording device arranged on the rear side of a motor vehicle windscreen, comprising a flat heating element which is arranged on the base of the lens hood, which is bounded by a side edge, the heating element being arranged on the front side of the base of the lens hood, facing the windscreen, characterized in that the heating element is let into the base of the lens hood, so that the heating element fully or at least partly forms the front-side surface of the base.
A non-occlusive dilation distender movable between a collapsed configuration which enables introduction and removal thereof to and from an operative site in a vessel or other hollow organ of a patient, and an expanded configuration in which the distender assumes a radially expanded condition and defines a flow path therethrough, characterised in that the distender includes a substantially tubular, radially expandable frame having a plurality of spaced apertures and at least one inflatable tube threaded through at least some of the apertures, the tube shaped to extend in a spiral when inflated, and wherein the distender is movable to the expanded configuration by inflating the tube, and from the expanded configuration to the collapsed configuration by deflating the tube.
A relief printing plate precursor for laser engraving, comprising: a relief-forming layer formed of a resin composition for laser engraving; or a crosslinked relief-forming layer obtained by crosslinking the relief-forming layer formed of the resin composition for laser engraving, wherein the resin composition for laser engraving comprises a binder polymer having a weight average molecular weight of 5,000 or greater as Component A, and carbon black of which pH is higher than 6 as Component B, characterized in that the carbon black has an average particle size when being dispersed into water equal to or less than 500 nm. a relief-forming layer formed of a resin composition for laser engraving; or a crosslinked relief-forming layer obtained by crosslinking the relief-forming layer formed of the resin composition for laser engraving, wherein the resin composition for laser engraving comprises a binder polymer having a weight average molecular weight of 5,000 or greater as Component A, and carbon black of which pH is higher than 6 as Component B, characterized in that the carbon black has an average particle size when being dispersed into water equal to or less than 500 nm.