mhurhangee/ep-ind-claims huggingface dataset:
A decoding device, comprising: a split unit configured to split encoded data into tiles; a motion compensation unit configured to generate a prediction image, when tile splittable information of video usability information indicates that decoding may be performed independently between tiles, by performing motion compensation of a reference image independently within each of co-located tiles corresponding to the tiles into which the encoded data has been split, wherein the encoded data is split into the tiles when the tile splittable information indicates that decoding may be performed independently between tiles and based on a flag of a picture parameter set which indicates whether tile split information is controlled for each picture within a sequence of pictures or whether the tile split information is identical for each picture within the sequence when a picture of a current image is split into the tiles and decoded, co-located tiles being tiles positioned at the same place in different images and tile split information indicating split positions of tiles in an image, wherein a tile is a portion of a split image; and a decoding unit configured to decode the encoded data using the prediction image generated by the motion compensation unit. a split unit configured to split encoded data into tiles; a motion compensation unit configured to generate a prediction image, when tile splittable information of video usability information indicates that decoding may be performed independently between tiles, by performing motion compensation of a reference image independently within each of co-located tiles corresponding to the tiles into which the encoded data has been split, wherein the encoded data is split into the tiles when the tile splittable information indicates that decoding may be performed independently between tiles and based on a flag of a picture parameter set which indicates whether tile split information is controlled for each picture within a sequence of pictures or whether the tile split information is identical for each picture within the sequence when a picture of a current image is split into the tiles and decoded, co-located tiles being tiles positioned at the same place in different images and tile split information indicating split positions of tiles in an image, wherein a tile is a portion of a split image; and a decoding unit configured to decode the encoded data using the prediction image generated by the motion compensation unit.
Housing arrangement for a radar sensor, comprising at least one tubular body, a lens being attached to a distal end of the tubular body, a radar sender and a radar receiver being arranged in the tubular body at a proximal end, with the housing arrangement having a shielding device for radar beams arranged on a side wall of the tubular body, the tubular body consisting of a dielectric plastics material and the shielding device being arranged on an external face of the tubular body and having a layer applied to the tubular body or a film or a metal part separate from the tubular body, characterized in that the tubular body is a circular cylinder.
Rotor bearing unit for testing a drive component, wherein the rotor bearing unit has a shaft part, a guide box, and a housing part, wherein the shaft part is arranged rotatably in relation to the housing part, wherein the housing part is connected to the guide box, wherein the shaft part of the rotor bearing unit is designed for force-fitting and/or form-fitting connection to a shaft of the drive component to be tested, characterized in that the housing part is connected in a frictionally locking manner to the guide box, and in that the housing part of the rotor bearing unit is designed for force-fitting and/or form-fitting connection to a housing of the drive component to be tested.
A user device (599, 2200) having an eye-tracking feature, comprising: a front panel including a display screen; a first group of light sources (501, 701) positioned at a first region of the front panel, the first group of light sources configured to emit light; a photodetector module positioned on the front panel in the vicinity of the first group of light sources (501, 701) for generating eye tracking signals based on retroreflected lights (21, 23) detected from a user's eye corresponding to the emitted light from the first group of light sources (501, 701); a second group of light sources (502, 703) positioned at a second region of the front panel, the second group of light sources (502, 703) configured to emit light; wherein the photodetector module is configured to capture images of a user's eye including reflection images of the emitted light from the second group of light sources (502, 703); and a processor communicatively coupled to the photodetector module, the processor configured to: process the eye tracking signals to determine eye pupil center coordinates of the user's eye; process the captured images of the user's eye to determine screen center coordinates of the display screen; and compare the determined eye pupil center coordinates and the determined screen center coordinates to determine a gaze point of the user's eye on the display screen. a first group of light sources (501, 701) positioned at a first region of the front panel, the first group of light sources configured to emit light; a photodetector module positioned on the front panel in the vicinity of the first group of light sources (501, 701) for generating eye tracking signals based on retroreflected lights (21, 23) detected from a user's eye corresponding to the emitted light from the first group of light sources (501, 701); a second group of light sources (502, 703) positioned at a second region of the front panel, the second group of light sources (502, 703) configured to emit light; wherein the photodetector module is configured to capture images of a user's eye including reflection images of the emitted light from the second group of light sources (502, 703); and a processor communicatively coupled to the photodetector module, the processor configured to: process the eye tracking signals to determine eye pupil center coordinates of the user's eye; process the captured images of the user's eye to determine screen center coordinates of the display screen; and compare the determined eye pupil center coordinates and the determined screen center coordinates to determine a gaze point of the user's eye on the display screen. process the eye tracking signals to determine eye pupil center coordinates of the user's eye; process the captured images of the user's eye to determine screen center coordinates of the display screen; and compare the determined eye pupil center coordinates and the determined screen center coordinates to determine a gaze point of the user's eye on the display screen.
An electrode catalyst for fuel cell comprising a catalyst carrier containing carbon as a main component and a catalytic metal supported on the catalyst carrier, the catalyst having an R' (D'/G intensity ratio) of 0.6 or less, which is the ratio of D' band peak intensity (D' intensity) measured in the vicinity of 1620 cm -1 relative to G band peak intensity (G intensity) measured in the vicinity of 1580 cm -1 by Raman spectroscopy, characterized in that the volume ratio of a water vapor adsorption amount relative to a nitrogen adsorption amount at a relative pressure of 0.5 in adsorption isotherm is 0.15 or more and 0.30 or less; wherein the R' value is determined by: measuring a Raman spectrum of the catalyst with a Micro-Raman spectrometer at room temperature (25°C) for an exposure time of 30 seconds by four times as a cumulated number, using an excitation wavelength Nd:SHG of YAG of 532 nm, a laser output of 3 mW, a spot size of 1 μm and a CCD detector; determining the peaks of the G band and the D' band by peak fitting with Gaussian distribution; and calculating the relative intensity ratio between the peak intensity in the vicinity of 1620 cm -1 called a D' band (D' intensity) and peak intensity in the vicinity of 1580 cm -1 called a G band (G intensity), that is, a peak area ratio (D' intensity/G intensity), to obtain the R' value. measuring a Raman spectrum of the catalyst with a Micro-Raman spectrometer at room temperature (25°C) for an exposure time of 30 seconds by four times as a cumulated number, using an excitation wavelength Nd:SHG of YAG of 532 nm, a laser output of 3 mW, a spot size of 1 μm and a CCD detector; determining the peaks of the G band and the D' band by peak fitting with Gaussian distribution; and calculating the relative intensity ratio between the peak intensity in the vicinity of 1620 cm -1 called a D' band (D' intensity) and peak intensity in the vicinity of 1580 cm -1 called a G band (G intensity), that is, a peak area ratio (D' intensity/G intensity), to obtain the R' value.
A medical system (20, 120) for accessing a bodily opening defined by tissue, the medical system (20, 120) comprising: a medical instrument (22, 122); and an overtube (24, 124) defining an overtube lumen sized to receive the medical instrument (22, 122), the overtube (24, 124) and the overtube lumen defining a longitudinal axis, the overtube (24, 124) including a distal end (32, 132) having a tapered portion and a plurality of longitudinally extending slits (44, 144) defining a plurality of flaps (46, 146), the overtube (24, 124) having a diameter that is reduced along the tapered portion of the distal end (32, 132), the tapered portion of the overtube (24, 124) sized relative to the medical instrument (22, 122) such that distal translation of the medical instrument (22, 122) through the distal end (32, 132) of the overtube (24, 124) forces the plurality of flaps (46, 146) to move radially between an introduction configuration and an operative configuration, the plurality of flaps (46, 146) engaging each other at a distal tip (40, 140) of the overtube (24, 124) to substantially close the overtube lumen in the introduction configuration, the plurality of flaps (46, 146) moved radially outwardly in the operative configuration, characterized in that the distal tip (40, 140) is flared radially outwardly along a continuous curvature to define a lip (42, 142). a medical instrument (22, 122); and an overtube (24, 124) defining an overtube lumen sized to receive the medical instrument (22, 122), the overtube (24, 124) and the overtube lumen defining a longitudinal axis, the overtube (24, 124) including a distal end (32, 132) having a tapered portion and a plurality of longitudinally extending slits (44, 144) defining a plurality of flaps (46, 146), the overtube (24, 124) having a diameter that is reduced along the tapered portion of the distal end (32, 132), the tapered portion of the overtube (24, 124) sized relative to the medical instrument (22, 122) such that distal translation of the medical instrument (22, 122) through the distal end (32, 132) of the overtube (24, 124) forces the plurality of flaps (46, 146) to move radially between an introduction configuration and an operative configuration, the plurality of flaps (46, 146) engaging each other at a distal tip (40, 140) of the overtube (24, 124) to substantially close the overtube lumen in the introduction configuration, the plurality of flaps (46, 146) moved radially outwardly in the operative configuration, characterized in that the distal tip (40, 140) is flared radially outwardly along a continuous curvature to define a lip (42, 142).
An arrangement that is turnable around an axis of rotation, arranged to achieve a reciprocal oscillatory motion ("S") of a guide bar in a chain saw arrangement, which chain saw arrangement is supported by a harvester unit for cutting of timber, which oscillatory motion ("S") is performed in the plane ("P") of the guide bar, which arrangement comprises two shaft parts, which shaft parts are arranged to interact axially and are, via a bearing arrangement comprised in the arrangement, connected and rotatably arranged, about said axis of rotation, in relation to each other, which shaft parts comprise an outer stator part, and an inner rotor part or vice versa, and wherein a pump unit is arranged to, using an imparted hydraulic pressure, turn the rotor part in relation to the stator part and thereby the guide bar, wherein stator part is arranged to engage with the rotor part, wherein the stator part comprises two outer discs (11, 12) and an intermediate disc, wherein the rotor part comprises a disc axially arranged between the two outer discs (11, 12) and arranged to cooperate with the intermediate disc, wherein the discs (11, 12, 13, 14) of the stator part and the rotor part are arranged in parallel and centered about the said axis of rotation, wherein the discs (11, 12, 13, 14) are arranged so that the intermediate disc and the disc of the rotor part together form at least one cavity (13") between the outer discs, wherein the pump unit is arranged to impart the said hydraulic pressure in said cavity (13") so that the disc of the rotor is thereby turned in relation to the intermediate disc of the rotor, characterised in that the arrangement is arranged so that hydraulic fluid is then allowed to penetrate between common sliding or bearing surfaces (110-116, 131, 141) between said discs (11, 12, 13, 14) of the stator part and the rotor part.
A mixed fiber nonwoven fabric comprising at least two fiber groups, namely, one containing fibers of polyolefin based resin component A and the other containing fibers of polyolefin based resin component B, the fiber group containing fibers of polyolefin based resin component A being referred to as first fiber group, the first fiber group having a number average fiber diameter of 0.3μm to 7.0 μm, part of the fibers of polyolefin based resin component B, each having a fiber diameter in the range of 15μm to 100 μm and not less than 5 times the number average fiber diameter of the first fiber group being referred to as fibers of second fiber group, the fibers of the second fiber group maintaining a form of fibers and existing in the cross section of the mixed fiber nonwoven fabric at a rate of 7.0 fibers or more per millimeter of the cross-sectional length, the melting point of polyolefin based resin component B being lower by 5°C to 40°C than that of polyolefin based resin component A, the melt flow rate of polyolefin based resin component A being 5 to 100 times the melt flow rate of polyolefin based resin component B and the number average fiber diameter of the mixed fiber nonwoven fabric as a whole being 0.3μm to 10 μm.
A fiber optic cassette defining a mutually orthogonal coordinate system having a longitudinal axis, a lateral axis, and a transverse axis, the fiber optic cassette comprising: a cassette body, the cassette body extending along the longitudinal axis between a front and a rear, extending along the lateral axis between a first side and a second side, and extending along the transverse axis between a bottom and a top; a plurality of fiber optic adapter apertures defined at the front of the cassette body; a side channel defined at the first side of the cassette body, the side channel comprising an entry aperture spaced from the rear of the cassette body along the longitudinal axis; a splice module receptacle defined in the cassette body; an insert module removably insertable into an intermediate portion of the side channel; a splice module removably insertable into the splice module receptacle; and a cover removably connectable to the cassette body and comprising a cover body extending along the longitudinal axis between a front and a rear; characterized in that the cover further comprises a plurality of tabs extending from the front along the longitudinal axis, each of the plurality of tabs removably insertable into one of the plurality of fiber optic adapter apertures when the cover is removably connected to the cassette body. a cassette body, the cassette body extending along the longitudinal axis between a front and a rear, extending along the lateral axis between a first side and a second side, and extending along the transverse axis between a bottom and a top; a plurality of fiber optic adapter apertures defined at the front of the cassette body; a side channel defined at the first side of the cassette body, the side channel comprising an entry aperture spaced from the rear of the cassette body along the longitudinal axis; a splice module receptacle defined in the cassette body; an insert module removably insertable into an intermediate portion of the side channel; a splice module removably insertable into the splice module receptacle; and a cover removably connectable to the cassette body and comprising a cover body extending along the longitudinal axis between a front and a rear; characterized in that the cover further comprises a plurality of tabs extending from the front along the longitudinal axis, each of the plurality of tabs removably insertable into one of the plurality of fiber optic adapter apertures when the cover is removably connected to the cassette body.
A method for joining two materials composed of aluminum-based metals, comprising: interposing an insert material composed of an alloy containing zinc and aluminum; zinc and magnesium; zinc, magnesium and aluminum; zinc, copper and aluminum; or zinc, silver and aluminum as main components between two materials composed of aluminum-based metal; with at least 80% by weight of the insert material consisting of the main components, and wherein zinc presents the main constituent element of the main components; heating the two materials to a temperature that causes an eutectic reaction while being pressed relative to each other, thereby generating a melt by eutectic reaction with aluminum in the base material at the joint interface; and discharging aluminum oxide film along with the melt from the joint interface. interposing an insert material composed of an alloy containing zinc and aluminum; zinc and magnesium; zinc, magnesium and aluminum; zinc, copper and aluminum; or zinc, silver and aluminum as main components between two materials composed of aluminum-based metal; with at least 80% by weight of the insert material consisting of the main components, and wherein zinc presents the main constituent element of the main components; heating the two materials to a temperature that causes an eutectic reaction while being pressed relative to each other, thereby generating a melt by eutectic reaction with aluminum in the base material at the joint interface; and discharging aluminum oxide film along with the melt from the joint interface.
Control method of shifting gear in an automatic manual transmission to pass from a current gear to a successive gear.; the automatic gear transmission comprises a gearbox, which is provided with at least one primary shaft and at least one secondary shaft connected to driving wheels, and at least one clutch, which is interposed between the primary shaft of the gearbox and a drive shaft of an engine; the control method comprises the steps of determining, when the clutch is at least partially closed, a target torque (T C-TAR) that has to be transmitted through the clutch; determining, when the clutch is at least partially closed, a rotation speed target (ω E-TAR) of the drive shaft of the engine; determining a target engine torque (T E-TAR) of the engine according to the target torque (T C-TAR) that has to be transmitted through the clutch and according to the rotation speed target (ω E-TAR) of the drive shaft of the engine; and making the engine pursue the target engine torque (T E-TAR) of the engine; the control method is characterized in that it comprises the further steps of: determining, during a design phase, a model of the engine and of the transmission; using the model of the engine and of the transmission to determine in open-loop a first contribution (T E-TAR1) of the target engine torque (T E-TAR) of the engine according to the target torque (T C-TAR) that has to be transmitted through the clutch and according to the rotation speed target (ω E-TAR) of the drive shaft of the engine; using a feedback control to determine in closed-loop a second contribution (T E-TAR2) of the target engine torque (T E-TAR) of the engine according to the rotation speed target (ω E-TAR) of the drive shaft of the engine and using the rotation speed target (ω E-TAR) of the drive shaft of the engine as a feedback variable; and adding algebraically the first contribution (T E-TAR1) of the target engine torque (T E-TAR) of the engine to the second contribution (T E-TAR2) of the target engine torque (T E-TAR) of the engine in order to determine the target engine torque (T E-TAR) of the engine. determining, during a design phase, a model of the engine and of the transmission; using the model of the engine and of the transmission to determine in open-loop a first contribution (T E-TAR1) of the target engine torque (T E-TAR) of the engine according to the target torque (T C-TAR) that has to be transmitted through the clutch and according to the rotation speed target (ω E-TAR) of the drive shaft of the engine; using a feedback control to determine in closed-loop a second contribution (T E-TAR2) of the target engine torque (T E-TAR) of the engine according to the rotation speed target (ω E-TAR) of the drive shaft of the engine and using the rotation speed target (ω E-TAR) of the drive shaft of the engine as a feedback variable; and adding algebraically the first contribution (T E-TAR1) of the target engine torque (T E-TAR) of the engine to the second contribution (T E-TAR2) of the target engine torque (T E-TAR) of the engine in order to determine the target engine torque (T E-TAR) of the engine.
Tyre pressure checking system for a vehicle for determining at least one tyre-specific parameter, having: a tyre pressure sensor attachable to a rim of a pneumatic tyre of the vehicle, a tyre valve which has a valve stem with a longitudinally extending core chamber that opens into a particularly dome-shaped end face of a valve base, a fastening element which connects the tyre pressure sensor and the tyre valve at the valve base thereof by engaging in the core chamber, a union nut that is provided to fasten the tyre valve to the rim and is screwed onto a threaded portion of the valve stem, and a valve cap which can be screwed onto the air inlet end of the valve stem, characterized in that the valve cap has a coupling section and the union nut has a mating coupling section, wherein the coupling section and the mating coupling section form a positive locking and/or a non-positive locking connection at least periodically during installation of the tyre pressure sensor. a tyre pressure sensor attachable to a rim of a pneumatic tyre of the vehicle, a tyre valve which has a valve stem with a longitudinally extending core chamber that opens into a particularly dome-shaped end face of a valve base, a fastening element which connects the tyre pressure sensor and the tyre valve at the valve base thereof by engaging in the core chamber, a union nut that is provided to fasten the tyre valve to the rim and is screwed onto a threaded portion of the valve stem, and a valve cap which can be screwed onto the air inlet end of the valve stem, characterized in that the valve cap has a coupling section and the union nut has a mating coupling section, wherein the coupling section and the mating coupling section form a positive locking and/or a non-positive locking connection at least periodically during installation of the tyre pressure sensor.