mhurhangee/ep-ind-claims huggingface dataset:
A method for decoding an image, the method comprising: receiving a bitstream including image information; decoding a base block size information on a size of a base block having a same quantization parameter and a residual quantization parameter of a decoding object unit from the bitstream; obtaining a predicted quantization parameter of the decoding object unit based on the base block size information; and determining a quantization parameter of the decoding object unit by adding the predicted quantization parameter and the residual quantization parameter; wherein the base block size information is defined in a Picture Parameter Set and the residual quantization parameter is indicated in a transform unit TU, wherein the base block size information is decoded in a variable length decoding, and wherein, when the size of the decoding object unit is smaller than the size of the base block, the decoding object unit is included in an inner part of the base block and the predicted quantization parameter of the decoding object unit is derived a same value as a predicted quantization parameter of other units inside the base block. receiving a bitstream including image information; decoding a base block size information on a size of a base block having a same quantization parameter and a residual quantization parameter of a decoding object unit from the bitstream; obtaining a predicted quantization parameter of the decoding object unit based on the base block size information; and determining a quantization parameter of the decoding object unit by adding the predicted quantization parameter and the residual quantization parameter; wherein the base block size information is defined in a Picture Parameter Set and the residual quantization parameter is indicated in a transform unit TU, wherein the base block size information is decoded in a variable length decoding, and wherein, when the size of the decoding object unit is smaller than the size of the base block, the decoding object unit is included in an inner part of the base block and the predicted quantization parameter of the decoding object unit is derived a same value as a predicted quantization parameter of other units inside the base block.
A control station for electrical installation, comprising: - a protection box having a side wall with a front face defining a longitudinal axis parallel to its development plane ( π) and a rear face designed to be placed on the wall; - a plurality of controls (5, 9, 20) anchored to said protection box, at least one of said controls being a mushroom emergency push button; - a plurality of pairs of mutually movable electrical contacts associated with respective controls (5, 9, 20) and adapted to be connected to one or more power supply and/or service circuits of the electrical installation for the opening/closing thereof; wherein each of said controls (5, 9, 20) is associated with one or more contact units having respective pairs of mutually movable electrical contacts and arranged in said protection box in a removable manner; characterized in that said emergency push button is housed in a respective seat formed on a lateral face of said side wall perpendicular to said development plane ( π) and is anchored to one or more contact units removably housed in said protection box with the respective contacts movable along a movement direction parallel to said development plane ( π); wherein said lateral face is transverse and perpendicular to said longitudinal axis of development and is designed to face upward when said box is mounted on the wall; wherein said emergency push button is arranged in said housing to be operated along a movement direction parallel to said longitudinal axis and has a maximum crosswise dimension completely contained in the maximum height of said protection box so as not to protrude with respect to said development plane ( π) of said front face nor from the parallel plane defined by said rear face. - a protection box having a side wall with a front face defining a longitudinal axis parallel to its development plane ( π) and a rear face designed to be placed on the wall; - a plurality of controls (5, 9, 20) anchored to said protection box, at least one of said controls being a mushroom emergency push button; - a plurality of pairs of mutually movable electrical contacts associated with respective controls (5, 9, 20) and adapted to be connected to one or more power supply and/or service circuits of the electrical installation for the opening/closing thereof;
Stable Fluindione composition wherein the composition comprises Fluindione, one or more antioxidant agents selected from the group consisting of sodium sulfite, sodium bisulfite, sodium metabisulfite, potassium metabisulfite, potassium bisulfite, potassium sulfite and combinations thereof, and one or more pharmaceutically acceptable excipients.
A method of forming a multilayer structure, the method comprising: depositing a layer comprising cobalt on a dielectric layer comprising a silicon dioxide layer in contact with a front wafer surface of a silicon wafer, wherein the layer comprising cobalt is deposited by a technique selected from the group consisting of sputtering, evaporation, electron-beam evaporation, ion beam evaporation, chemical vapor deposition, electrolytic plating, and metal foil bonding to thereby prepare a structure comprising the silicon wafer, the dielectric layer, and the layer comprising cobalt; annealing the structure comprising the silicon wafer, the dielectric layer comprising a silicon dioxide layer, and the layer comprising cobalt in a reducing atmosphere at a temperature between 800°C and 1200°C to thereby prepare the layer comprising single crystalline cobalt; and epitaxially depositing a graphene layer on the layer comprising single crystalline cobalt, wherein the graphene layer has a single mono-atomic thickness. depositing a layer comprising cobalt on a dielectric layer comprising a silicon dioxide layer in contact with a front wafer surface of a silicon wafer, wherein the layer comprising cobalt is deposited by a technique selected from the group consisting of sputtering, evaporation, electron-beam evaporation, ion beam evaporation, chemical vapor deposition, electrolytic plating, and metal foil bonding to thereby prepare a structure comprising the silicon wafer, the dielectric layer, and the layer comprising cobalt; annealing the structure comprising the silicon wafer, the dielectric layer comprising a silicon dioxide layer, and the layer comprising cobalt in a reducing atmosphere at a temperature between 800°C and 1200°C to thereby prepare the layer comprising single crystalline cobalt; and epitaxially depositing a graphene layer on the layer comprising single crystalline cobalt, wherein the graphene layer has a single mono-atomic thickness.
A method of manufacturing a cutting tool using a laser source emitting laser (L1, L2), the cutting tool comprising a base material and a diamond single crystal material fixed to the base material, the diamond single crystal material having a rake face, a flank face continuous with the rake face, and a cutting edge formed by a ridgeline serving as a boundary between the rake face and the flank face, the method comprising: a flank face irradiation step of applying the laser to the diamond single crystal material along the cutting edge from a side of the flank face, and being characterised by: the laser having a peak output of less than 1 W and a pulse width of 1×10 -12 seconds or less in the flank face irradiation step. a flank face irradiation step of applying the laser to the diamond single crystal material along the cutting edge from a side of the flank face, and being characterised by: the laser having a peak output of less than 1 W and a pulse width of 1×10 -12 seconds or less in the flank face irradiation step.
A grooving blade having a cutting insert pocket, wherein the grooving blade comprises opposing first and second major surfaces (11,12) extending between parallel first and second longitudinal mounting edges (13,14) and between opposing first and second end edges (15,16) which extend transverse to the longitudinal mounting edges, wherein a damping means is fixed to the blade, characterised in that the damping means is releasably fixed to the blade, in that the damping means projects laterally with respect to at least one major surface (11,12) of the blade, and in that the damping means has a largest width (Wd) in the transverse direction which is greater than the largest width (Wb) of the blade.
A turbine engine comprising a casing housing at least one stator stage having variable-pitch vanes controlled by an actuator ring coaxially surrounding said casing, the ring being constrained to move in turning only about an axis of said casing and being connected by crank-arms to said variable-pitch vanes, wherein said actuator ring is coupled to at least one adjacent specific drive unit generally in the form of an actuator and comprising two portions forming a body and a rod, characterized in that said rod is hinged to the ring and said body is hinged to said casing, and in that the hinge (44, 46) between the cylinder and the casing is arranged in the vicinity of the end of the body from which the rod extends.
- Device for the laser treatment of trousers comprising [a] a laser beam generating equipment, wherein said equipment defines an emission axis, a first opening angle around said emission axis and a second opening angle around said emission axis, in a plane perpendicular to said first opening angle, such that said equipment is suitable for emitting said laser beam within a pyramid defined by said emission axis and said first and second opening angles, and [b] a work station with two mannequins, wherein each mannequin comprises an upper support structure, with a fixing area for the upper part of a pair of trousers and from which two legs, suitable for being housed inside the trouser legs of said pair of trousers, extend, wherein each leg defines a longitudinal axis, wherein the two longitudinal axis of the two legs of each mannequin define a mannequin plane, wherein each mannequin defines a longitudinal symmetry axis arranged on said mannequin plane, wherein each one of the mannequins is oriented towards said equipment so that the emission axis strikes the mannequin plane at an angle of less than 90° and each mannequin has at least one of its legs within said pyramid, wherein the laser generating equipment comprises a laser beam generating unit and a head which, while as a whole said head being fixed with respect to the laser beam generating unit so that the head is not suitable for directing its pyramid from one mannequin to another, is suitable for directing said laser beam from one mannequin to the other of said two mannequins and in any direction comprised within said pyramid.
An electrode active material slurry for application in all-solid lithium batteries comprising: a clustered complex, a solvent and a second binder, wherein the clustered complex comprises an electrode active material, a solid electrolyte, a conductive material, and a first binder, wherein the first binder adheres interparticle microstructures of the electrode active material, the solid electrolyte and the conductive material by being applied on a surface of the electrode active material, and the second binder is present between the clustered complex, wherein the first binder comprises polytetrafluoroethylene (PTFE), and wherein the second binder comprises nitrile butadiene rubber. a clustered complex, a solvent and a second binder, wherein the clustered complex comprises an electrode active material, a solid electrolyte, a conductive material, and a first binder, wherein the first binder adheres interparticle microstructures of the electrode active material, the solid electrolyte and the conductive material by being applied on a surface of the electrode active material, and the second binder is present between the clustered complex, wherein the first binder comprises polytetrafluoroethylene (PTFE), and wherein the second binder comprises nitrile butadiene rubber.
A sealed refrigerant compressor (10A, 10B) comprising: a sealed container in which lubricating oil is reserved in a lower portion in an interior of the sealed container; an electric component (20A, 20B) accommodated in the sealed container; and a compression component accommodated in the sealed container and configured to be driven by the electric component (20A, 20B), wherein the compression component includes a cylinder disposed inside the sealed container to extend in a direction crossing a vertical direction, and a piston which is reciprocatable inside the cylinder, characterized in that the electric component (20A, 20B) includes a stator (21A, 21B), and a rotor (22A, 22B) having a lower surface facing an oil surface of the lubricating oil, and the rotor (22A, 22B) has a shape in which a diameter of the rotor (22A, 22B) is larger than a length of the rotor in a rotational axis direction thereof, and a core of the rotor (22A, 22B) is provided with at least one balance hole (24A, 24B, 24C, 24D) for adjusting a load balance during rotation of the rotor (22A, 22B). a sealed container in which lubricating oil is reserved in a lower portion in an interior of the sealed container; an electric component (20A, 20B) accommodated in the sealed container; and a compression component accommodated in the sealed container and configured to be driven by the electric component (20A, 20B), wherein the compression component includes a cylinder disposed inside the sealed container to extend in a direction crossing a vertical direction, and a piston which is reciprocatable inside the cylinder, characterized in that the electric component (20A, 20B) includes a stator (21A, 21B), and a rotor (22A, 22B) having a lower surface facing an oil surface of the lubricating oil, and the rotor (22A, 22B) has a shape in which a diameter of the rotor (22A, 22B) is larger than a length of the rotor in a rotational axis direction thereof, and a core of the rotor (22A, 22B) is provided with at least one balance hole (24A, 24B, 24C, 24D) for adjusting a load balance during rotation of the rotor (22A, 22B).
A method, comprising: an apparatus determining content of a data message to be sent on a control channel; and the apparatus selecting between ciphering and not ciphering the data message based on the determined content; characterized in that for the case in which the determined content indicates that a data block comprises a short message service message, the selecting is for ciphering the data block; and otherwise, if the determined content indicates that the data block comprises a system information message, the selecting is for not ciphering the data block. an apparatus determining content of a data message to be sent on a control channel; and the apparatus selecting between ciphering and not ciphering the data message based on the determined content; characterized in that for the case in which the determined content indicates that a data block comprises a short message service message, the selecting is for ciphering the data block; and otherwise, if the determined content indicates that the data block comprises a system information message, the selecting is for not ciphering the data block.
A method of treating an elastomer packaging element, in particular a stopper for medical or pharmaceutical use, said packaging element having a bottom portion that is to penetrate into a neck of a container and a top portion that is to co-operate in sealed manner with a top surface of said neck of the container, the top surface of said top portion being treated by a plasma-assisted polymerization method at atmospheric pressure using a plasma flame created at atmospheric pressure and into which a monomer is injected, said monomer polymerizing on said top surface in order to form a coating, said method comprising a stage of atmospheric plasma-assisted surface activation and a stage of atmospheric plasma-assisted deposition, the method being characterized in that said atmospheric plasma-assisted surface activation stage comprises passing said plasma flame over said top surface, with the following parameters: - gas used for generating the plasma flame: air, argon, nitrogen, helium, oxygen, advantageously air or nitrogen; preferably nitrogen; - speed at which the plasma flame passes over said top surface: 10 mm/s to 1000 mm/s, and advantageously 100 mm/s to 500 mm/s, preferably 300 mm/s; - number of passes over said top surface to perform activation: one cycle to five cycles, advantageously a single cycle; - activation gas flow rate: 5 L/min to 200 L/min, and advantageously 10 L/min to 100 L/min, preferably 60 L/min; - distance between the nozzle where the plasma is generated and said top surface: in the range 1 mm to 50 mm, and advantageously in the range 5 mm to 35 mm, preferably 20 mm. - gas used for generating the plasma flame: air, argon, nitrogen, helium, oxygen, advantageously air or nitrogen; preferably nitrogen; - speed at which the plasma flame passes over said top surface: 10 mm/s to 1000 mm/s, and advantageously 100 mm/s to 500 mm/s, preferably 300 mm/s; - number of passes over said top surface to perform activation: one cycle to five cycles, advantageously a single cycle; - activation gas flow rate: 5 L/min to 200 L/min, and advantageously 10 L/min to 100 L/min, preferably 60 L/min; - distance between the nozzle where the plasma is generated and said top surface: in the range 1 mm to 50 mm, and advantageously in the range 5 mm to 35 mm, preferably 20 mm.
1. A battery protection circuit comprising: a charging control switch (C-SW) connected in series to a big current path between a battery module configured with a plurality of cells connected in series and one of a first and second battery pack terminals (P+, P-); the big current path being the charging path and discharging path, the charging path represents a current flowing path between a charging device connected through the battery pack terminals (P+, P-) and the battery module, the discharging path represents a current flowing path between a load connected through the battery pack terminals (P+, P-) and the battery module; a battery controller for controlling the charging control switch based on cell voltages of all of the plurality of cells; and a first protection circuit wherein the first protection circuit is configured to intercept or allow a current flowing between first and second cells neighboring each other among the plurality of cells based on a cell voltage of the first cell, wherein the first protection circuit includes: at least one switch (FET21, FET22) connected in series between the first and second cells, and a cell controller for controlling the at least one switch according to the cell voltage of the first cell. a charging control switch (C-SW) connected in series to a big current path between a battery module configured with a plurality of cells connected in series and one of a first and second battery pack terminals (P+, P-); the big current path being the charging path and discharging path, the charging path represents a current flowing path between a charging device connected through the battery pack terminals (P+, P-) and the battery module, the discharging path represents a current flowing path between a load connected through the battery pack terminals (P+, P-) and the battery module; a battery controller for controlling the charging control switch based on cell voltages of all of the plurality of cells; and a first protection circuit wherein the first protection circuit is configured to intercept or allow a current flowing between first and second cells neighboring each other among the plurality of cells based on a cell voltage of the first cell, wherein the first protection circuit includes: at least one switch (FET21, FET22) connected in series between the first and second cells, and a cell controller for controlling the at least one switch according to the cell voltage of the first cell. at least one switch (FET21, FET22) connected in series between the first and second cells, and a cell controller for controlling the at least one switch according to the cell voltage of the first cell.
Oven door for closing an oven cavity comprising a door glass being at least partially transparent for enabling a user to look into the oven cavity and a door handle for opening the door, wherein the door handle comprises a projection unit being adapted to project light onto an projection area, characterised in that the projection unit is adapted to project light onto an projection area of the door glass in order to provide a graphical display on the door glass, wherein the door glass is adapted to emit or reflect light towards the space in front of the oven door based on the light provided by the projection unit in order to provide information to a user in front of the oven door, and wherein the projection unit is a Liquid Crystal on Silicon (LCoS) projection unit, a Digital Light Processing projection unit or a micro-electromechanical system (MEMS) projection unit, and wherein the oven door comprises a user control interface at least partially located in the area of the graphical display, said user control interface being adapted to detect user interactions for controlling the oven.
A valve for a delivery sheath, guide, catheter, or other elongate tubular medical device, comprising: a tubular body comprising an open first, proximal end, a closed second, distal end, and a passage extending between the first and second ends defining a central longitudinal axis, the second, distal end comprising an end wall having a proximal, inner surface and a distal, outer surface, and including a hole therein communicating with the passage; and a flap formed on the end wall over the hole; characterized in that the flap is formed across the distal, outer surface of the end wall, defining an area larger than the hole, and is movable away from the second end to allow passage of an elongate device through the hole when the elongate device is introduced from the open first, proximal end and through the hole via the passage; and wherein the hole is radially offset from the central longitudinal axis. a tubular body comprising an open first, proximal end, a closed second, distal end, and a passage extending between the first and second ends defining a central longitudinal axis, the second, distal end comprising an end wall having a proximal, inner surface and a distal, outer surface, and including a hole therein communicating with the passage; and a flap formed on the end wall over the hole; characterized in that the flap is formed across the distal, outer surface of the end wall, defining an area larger than the hole, and is movable away from the second end to allow passage of an elongate device through the hole when the elongate device is introduced from the open first, proximal end and through the hole via the passage; and wherein the hole is radially offset from the central longitudinal axis.