mhurhangee/patent-ind-claim-en huggingface dataset:
A reproduction apparatus capable of switching between reproduction of a first HDR video stream and a second HDR video stream, the reproduction apparatus comprising: a decoding section configured to: receive reproducible contents including a first content including the first HDR video stream and a second content including the second HDR video stream, wherein dynamic metadata including luminance information of a unit of a video frame is added to the first HDR video stream, wherein no dynamic metadata is added to the second HDR video stream, wherein static metadata including luminance information of a unit of a content is associated with the second HDR video stream; and decode the second HDR video stream when the second content is to be reproduced; characterized by a generation section configured to generate pseudo dynamic metadata including parameters same as those of the dynamic metadata for the second HDR video stream; and an output controlling section configured to: add the pseudo dynamic metadata to video data obtained by the decoding of the second HDR video stream; and output resulting data to a display apparatus. a decoding section configured to: receive reproducible contents including a first content including the first HDR video stream and a second content including the second HDR video stream, wherein dynamic metadata including luminance information of a unit of a video frame is added to the first HDR video stream, wherein no dynamic metadata is added to the second HDR video stream, wherein static metadata including luminance information of a unit of a content is associated with the second HDR video stream; and decode the second HDR video stream when the second content is to be reproduced; characterized by receive reproducible contents including a first content including the first HDR video stream and a second content including the second HDR video stream, wherein dynamic metadata including luminance information of a unit of a video frame is added to the first HDR video stream, wherein no dynamic metadata is added to the second HDR video stream, wherein static metadata including luminance information of a unit of a content is associated with the second HDR video stream; and decode the second HDR video stream when the second content is to be reproduced; characterized by a generation section configured to generate pseudo dynamic metadata including parameters same as those of the dynamic metadata for the second HDR video stream; and an output controlling section configured to: add the pseudo dynamic metadata to video data obtained by the decoding of the second HDR video stream; and output resulting data to a display apparatus. add the pseudo dynamic metadata to video data obtained by the decoding of the second HDR video stream; and output resulting data to a display apparatus.
A cyclotron comprising: a pair of magnetic poles disposed to face each other; a coil configured to surround each of the magnetic poles and generate a first magnetic flux density directing from the magnetic pole on one side to the magnetic pole on the other side; a foil stripper provided on a circling orbit of charged particles to strip off electrons from the charged particles; and a magnetic flux density adjustment unit configured to generate at the foil a second magnetic flux density directing in an opposite direction to a direction of the first magnetic flux density, characterized in that the magnetic flux density adjustment unit is configured to generate the second magnetic flux density so that an absolute value of a magnetic flux density at a position of the foil stripper when viewed in a plan view is smaller than an absolute value of the first magnetic flux density. a pair of magnetic poles disposed to face each other; a coil configured to surround each of the magnetic poles and generate a first magnetic flux density directing from the magnetic pole on one side to the magnetic pole on the other side; a foil stripper provided on a circling orbit of charged particles to strip off electrons from the charged particles; and a magnetic flux density adjustment unit configured to generate at the foil a second magnetic flux density directing in an opposite direction to a direction of the first magnetic flux density, characterized in that the magnetic flux density adjustment unit is configured to generate the second magnetic flux density so that an absolute value of a magnetic flux density at a position of the foil stripper when viewed in a plan view is smaller than an absolute value of the first magnetic flux density.
A washing device of a filterpress comprising: - a support carriage , wherein said support carriage is adapted for slidingly mounting on sliding guides of the filterpress above a plurality of filtering plates aligned to each other along a longitudinal extension direction (X), - a washing group that comprises at least one nozzle that is adapted to supply a washing fluid flow, - first actuating means that is adapted to move said support carriage according to said longitudinal extension direction (X), - second actuating means that is adapted to move said washing group according to a top to down direction and vice-versa (V) such that said washing group enters in a space (D) defined between two filtering plates adjacent to each other in an open configuration, characterized in that said washing group comprises a roller shutter that is adapted to carry out the descent and ascent movements according to said top to down direction and vice- versa (V). - a support carriage , wherein said support carriage is adapted for slidingly mounting on sliding guides of the filterpress above a plurality of filtering plates aligned to each other along a longitudinal extension direction (X), - a washing group that comprises at least one nozzle that is adapted to supply a washing fluid flow, - first actuating means that is adapted to move said support carriage according to said longitudinal extension direction (X), - second actuating means that is adapted to move said washing group according to a top to down direction and vice-versa (V) such that said washing group enters in a space (D) defined between two filtering plates adjacent to each other in an open configuration,
A system for producing carbon dioxide from a process gas, said process gas comprising a hydrocarbon, said system comprising: a combustion subsystem configured to combust said hydrocarbon and output a combustion effluent, wherein said combustion effluent comprises carbon dioxide and water; a first separation subsystem configured to separate, by a physical adsorption process, a first quantity of said carbon dioxide from said combustion effluent; a second separation subsystem configured to separate, by chemisorption, a second quantity of said carbon dioxide from said combustion effluent; and a cooling subsystem interposed between said combustion subsystem and said first separation subsystem , the cooling subsystem being configured to separate water from the effluent; wherein said second separation subsystem is in series with said first separation subsystem and downstream of said first separation subsystem . a combustion subsystem configured to combust said hydrocarbon and output a combustion effluent, wherein said combustion effluent comprises carbon dioxide and water; a first separation subsystem configured to separate, by a physical adsorption process, a first quantity of said carbon dioxide from said combustion effluent; a second separation subsystem configured to separate, by chemisorption, a second quantity of said carbon dioxide from said combustion effluent; and a cooling subsystem interposed between said combustion subsystem and said first separation subsystem , the cooling subsystem being configured to separate water from the effluent; wherein said second separation subsystem is in series with said first separation subsystem and downstream of said first separation subsystem .
A lateral field effect transistor, comprising: a P-type body region ; a P + -type drain region ; a P + -type source region ; an N-type channel region wherein the N-type channel region is positioned between the source region and the drain region and the drain region and channel region are separated by an extended drain region of P-type semiconductor; a dielectric material provided at a surface of the extended drain region and a field plate , configured to act as a RESURF structure, extending from the channel towards the drain region and positioned such that the dielectric material is between the field plate and the extended drain region , the field plate having an end ; and in which the field plate extends from, and is electrically coupled to, a gate of the field effect transistor towards the drain region of the field effect transistor; wherein an N-type region buried in the P-type body region and forming a conductive structure being positioned such that a portion of the extended drain region is located between the conductive structure and the dielectric material, the conductive structure having an end aligned to within 0 to 3 microns of the end of the field plate located closer to the drain region ; and wherein the conductive structure contacts the channel region of the field effect transistor. a P-type body region ; a P + -type drain region ; a P + -type source region ; an N-type channel region wherein the N-type channel region is positioned between the source region and the drain region and the drain region and channel region are separated by an extended drain region of P-type semiconductor; a dielectric material provided at a surface of the extended drain region and a field plate , configured to act as a RESURF structure, extending from the channel towards the drain region and positioned such that the dielectric material is between the field plate and the extended drain region , the field plate having an end ; and in which the field plate extends from, and is electrically coupled to, a gate of the field effect transistor towards the drain region of the field effect transistor; wherein an N-type region buried in the P-type body region and forming a conductive structure being positioned such that a portion of the extended drain region is located between the conductive structure and the dielectric material, the conductive structure having an end aligned to within 0 to 3 microns of the end of the field plate located closer to the drain region ; and wherein the conductive structure contacts the channel region of the field effect transistor.
A method performed by a half-duplex wireless transmit / receive unit, HD-WTRU, for processing subframes, the method comprising: determining, based on a priority rule , a subframe to process from an uplink subframe and a downlink subframe, wherein the uplink subframe and the downlink subframe are adjacent to or overlap each other; and processing the determined subframe. determining, based on a priority rule , a subframe to process from an uplink subframe and a downlink subframe, wherein the uplink subframe and the downlink subframe are adjacent to or overlap each other; and processing the determined subframe.
A nitrogen oxide storage catalyst comprising: a first layer on a substrate including ceria-alumina composite particles having a barium component supported on the composite particles; and a second layer on the first layer, the second layer including ceria-alumina composite particles substantially free of alkaline earth metal, wherein the ceria-alumina composite particles include a ceria phase present in a weight percent of the composite in the range of 30% to 70% on an oxide basis, wherein ceria is present in the form of CeO 2 crystallite that have an average crystallite size as determined by XRD after aging the catalytic article at 950 °C for 5 hours in 2% O 2 and 10% steam/N 2 less than 130 Å. a first layer on a substrate including ceria-alumina composite particles having a barium component supported on the composite particles; and a second layer on the first layer, the second layer including ceria-alumina composite particles substantially free of alkaline earth metal, wherein the ceria-alumina composite particles include a ceria phase present in a weight percent of the composite in the range of 30% to 70% on an oxide basis, wherein ceria is present in the form of CeO 2 crystallite that have an average crystallite size as determined by XRD after aging the catalytic article at 950 °C for 5 hours in 2% O 2 and 10% steam/N 2 less than 130 Å.
A method of reducing or eliminating melt fracture in a multimodal PE base resin having a higher molecular weight component and a lower molecular weight component, characterized by at least one of the following conditions: a magnitude of slip-stick less than about 2068 kPa (300 psi); a smooth to matte transition of less than about 90 kPa of stress and a shear rate less than about 10 s -1 comprising: increasing the molecular weight (Mw) of the lower molecular weight component, or decreasing both the amount of the lower molecular weight component and the Mw of the higher molecular weight component, or introducing a polymer component having a molecular weight distribution peak mode that is disposed between the molecular weight distribution peak modes of the lower molecular weight component and higher molecular weight component.
Wheel hub for wheelchairs, comprising a hub body which has a central inner through-bore and is provided on its outer cylindrical circumferential surface with two circular hub disks which are arranged at a distance from one another, project outward over the circumferential surface and each have an outer hole circle of through-bores for the insertion of spokes, the hub disks being releasably non-rotatably fixed in a centering bore on a centering shoulder of the hub body as separate components in each case on a radial stop surface , which protrudes outward from the outer circumferential surface of the hub body , of an annular body , and the stop surfaces being arranged on the outer sides of the annular bodies facing away from one another, characterized in that the center point of the outer hole circle of each hub disk and the center point of the centering bore of the relevant hub disk are offset from one another by a dimension U. the hub disks being releasably non-rotatably fixed in a centering bore on a centering shoulder of the hub body as separate components in each case on a radial stop surface , which protrudes outward from the outer circumferential surface of the hub body , of an annular body , and the stop surfaces being arranged on the outer sides of the annular bodies facing away from one another, characterized in that the center point of the outer hole circle of each hub disk and the center point of the centering bore of the relevant hub disk are offset from one another by a dimension U.
Turbine engine with at least a high pressure and a low pressure turbine section comprising a casing and at least one turbine blade rotatably mounted within the casing wherein at least part of the inner surface of the casing is covered with shrouds as abradables to provide clearance control between the inner surface and the tip of the at least one blade and wherein the tip of the blade is coated with a hard PVD coating, characterized in that the shroud material of at least the high pressure and/or the low pressure section comprises a porous ceramic based material and that the abradables are made of CoNiCrAIY-hBN, NiCrAl-bentonite, NiCrAl-hBN or NiCrFeAl-hBN and the hard PVD coating on the tip of the blade consists of a droplet free nitride PVD coating comprising Me1Me2X, where Me1 is an element of the group formed by Ti, Cr or Zr or a combination thereof and Me2 is Al and/or Si and X is an element of the group formed by N, or N and O, or N and B, or N and O and B.
An apparatus for polymerizing or cross-linking a dental composition that includes a photosensitive material, comprising: - a chamber for housing a product (P) produced with the aforesaid dental composition, said chamber being sealable with a cover ; - a light source configured to emit a light radiation with a wavelength comprised between 350 nm and 600 nm; - a pneumatic circuit in fluid communication with the chamber , said pneumatic circuit being configured to apply an overpressure or a vacuum pressure in the chamber , said pneumatic circuit comprising at least a pressure line and a vacuum line connectable to a compressed air source, said pressure line being configured to introduce pressurized air into the chamber , said vacuum line comprising a Venturi vacuum gauge in communication with the chamber to create a vacuum pressure therein, said pneumatic circuit comprising at least a valve on the pressure line and at least a valve on the vacuum line , said valves being opened selectively to apply a pressure or a vacuum in the chamber and optionally - a compressor; wherein the light source is housed in the chamber - a chamber for housing a product (P) produced with the aforesaid dental composition, said chamber being sealable with a cover ; - a light source configured to emit a light radiation with a wavelength comprised between 350 nm and 600 nm; - a pneumatic circuit in fluid communication with the chamber , said pneumatic circuit being configured to apply an overpressure or a vacuum pressure in the chamber , said pneumatic circuit comprising at least a pressure line and a vacuum line connectable to a compressed air source, said pressure line being configured to introduce pressurized air into the chamber , said vacuum line comprising a Venturi vacuum gauge in communication with the chamber to create a vacuum pressure therein, said pneumatic circuit comprising at least a valve on the pressure line and at least a valve on the vacuum line , said valves being opened selectively to apply a pressure or a vacuum in the chamber and optionally - a compressor;
Drop-down seal unit (100; 100') for a sill-less door , at least comprising: - a housing , which is open to a bottom side and in which a sealing ledge element is mounted such that it is vertically displaceable, and - at least one triggering unit , having a triggering element , jutting out of the housing , for lowering the sealing ledge element , - a flexible sealing strip , which, viewed in cross section, extends in an arc up to the lowerable sealing ledge element , characterized in that , on a side face of the housing , which side face is designed for connection to a door leaf , is fitted an elastically deformable stop sealing element (40; 40') which has a side face and to which the flexible sealing strip is connected. - a housing , which is open to a bottom side and in which a sealing ledge element is mounted such that it is vertically displaceable, and - at least one triggering unit , having a triggering element , jutting out of the housing , for lowering the sealing ledge element , - a flexible sealing strip , which, viewed in cross section, extends in an arc up to the lowerable sealing ledge element , characterized in that , on a side face of the housing , which side face is designed for connection to a door leaf , is fitted an elastically deformable stop sealing element (40; 40') which has a side face and to which the flexible sealing strip is connected.
A guidance system for inserting a needle into a body of a patient in connection with imaging technology, the system comprising: an imaging device including a probe for ultrasonically imaging an internal body portion target; a stylet removably disposed within the needle , the stylet including at least one magnetic element ; at least one sensor included in the probe that senses a magnetic field of the at least one magnetic element of the stylet; a processor that uses data relating to the magnetic field sensed by the at least one sensor to determine a position of the needle in at least two spatial dimensions; and a display that depicts the position of the needle with respect to the target together with the image of the target. an imaging device including a probe for ultrasonically imaging an internal body portion target; a stylet removably disposed within the needle , the stylet including at least one magnetic element ; at least one sensor included in the probe that senses a magnetic field of the at least one magnetic element of the stylet; a processor that uses data relating to the magnetic field sensed by the at least one sensor to determine a position of the needle in at least two spatial dimensions; and a display that depicts the position of the needle with respect to the target together with the image of the target.
A melt system capable of heating hot melt pellets into a liquid, the melt system comprising: a melter comprising: a thermally conductive body forming an interior with a surface area; a chamber at an upper end of the body for receiving the pellets; a collector within the body and located below the chamber for receiving the liquid from the melted pellets; a divider disposed between the chamber and the collector , the divider defining a plurality of channels that extend between the chamber and the collector , wherein a plurality of walls of the plurality of channels form heat exchange surfaces; and a first heater for transferring heat to the body; characterized by a controller that causes a feed assembly to replenish the pellets in the melter ; and a level sensor connected to the controller , the level sensor being configured to determine a melt level in the melter and send melt level data indicating the melt level to the controller , wherein the melter further comprises a heater cartridge disposed within a cartridge bore that extends through the divider between the chamber and the collector. a melter comprising: a thermally conductive body forming an interior with a surface area; a chamber at an upper end of the body for receiving the pellets; a collector within the body and located below the chamber for receiving the liquid from the melted pellets; a divider disposed between the chamber and the collector , the divider defining a plurality of channels that extend between the chamber and the collector , wherein a plurality of walls of the plurality of channels form heat exchange surfaces; and a first heater for transferring heat to the body; characterized by a thermally conductive body forming an interior with a surface area; a chamber at an upper end of the body for receiving the pellets; a collector within the body and located below the chamber for receiving the liquid from the melted pellets; a divider disposed between the chamber and the collector , the divider defining a plurality of channels that extend between the chamber and the collector , wherein a plurality of walls of the plurality of channels form heat exchange surfaces; and a first heater for transferring heat to the body; characterized by a controller that causes a feed assembly to replenish the pellets in the melter ; and a level sensor connected to the controller , the level sensor being configured to determine a melt level in the melter and send melt level data indicating the melt level to the controller , wherein the melter further comprises a heater cartridge disposed within a cartridge bore that extends through the divider between the chamber and the collector.