mhurhangee/ep-ind-claims huggingface dataset:
A method on a multi-mode mobile device, a first network mode being a Third Generation Partnership Project, 3GPP, mode and a second network mode being Code Division Multiple Access, CDMA, mode, the method comprising on boot up of the mobile device: checking an identity module at the mobile device for the presence of one or more Dedicated Files each having a specific file identifier indicative of a respective network mode (114, 212) selected from the first network mode or the second network mode; and configuring a personality of the mobile device based on the one or more network modes indicated by the one or more specific file identifiers of the one or more Dedicated Files found to be present in the checking step (120, 220, 230), the personality indicating at least one network mode of the mobile device; configuring a graphical user interface of applications on the mobile device based on the configured personality to reflect functionality permitted or disallowed by the personality. checking an identity module at the mobile device for the presence of one or more Dedicated Files each having a specific file identifier indicative of a respective network mode (114, 212) selected from the first network mode or the second network mode; and configuring a personality of the mobile device based on the one or more network modes indicated by the one or more specific file identifiers of the one or more Dedicated Files found to be present in the checking step (120, 220, 230), the personality indicating at least one network mode of the mobile device; configuring a graphical user interface of applications on the mobile device based on the configured personality to reflect functionality permitted or disallowed by the personality.
A method to enhance the bit depth of a video signal, said method comprising: receiving a first standard dynamic range video signal being a 16-bit SDR video signal; receiving a second SDR video signal derived from the first SDR video signal, the second SDR video signal being an 8-bit SDR video signal, the first and second SDR video signal comprising images; determining a low codeword threshold S l and/or a high codeword threshold S h that bounds an entire codeword range of an image area of interest within the images of the second SDR video signal; generating a predicted SDR video signal from the second SDR video signal, wherein codewords smaller than the low codeword threshold S l and/or codewords greater than the high codeword threshold S h are clipped to a constant codeword value; generating a mask that selects the codeword values below the low codeword threshold S l and/or above the high codeword threshold S h; encoding (320, 325) the difference between the first SDR video signal and the predicted SDR video signal, masked with the generated mask, into an enhancement layer; generating interlayer predictor metadata from the second SDR video signal; and generating a base layer from the second SDR video signal; and thus providing the enhancement layer, the interlayer predictor metadata, and the base layer for decoding. receiving a first standard dynamic range video signal being a 16-bit SDR video signal; receiving a second SDR video signal derived from the first SDR video signal, the second SDR video signal being an 8-bit SDR video signal, the first and second SDR video signal comprising images; determining a low codeword threshold S l and/or a high codeword threshold S h that bounds an entire codeword range of an image area of interest within the images of the second SDR video signal; generating a predicted SDR video signal from the second SDR video signal, wherein codewords smaller than the low codeword threshold S l and/or codewords greater than the high codeword threshold S h are clipped to a constant codeword value; generating a mask that selects the codeword values below the low codeword threshold S l and/or above the high codeword threshold S h; encoding (320, 325) the difference between the first SDR video signal and the predicted SDR video signal, masked with the generated mask, into an enhancement layer; generating interlayer predictor metadata from the second SDR video signal; and generating a base layer from the second SDR video signal; and thus providing the enhancement layer, the interlayer predictor metadata, and the base layer for decoding.
A curable powder coating composition comprising: a film-forming resin comprising at least one polymer having at least one type of reactive functional group and a curing agent having functional groups reactive with the functional group of the polymer; and a plurality of inorganic particles selected from alumina particles having an average particle size between 0.1 and 6 μm and silicon carbide particles having an average particle size between 0.1 and 10 μm dispersed in said resin in an amount of 0.1 to 8 weight percent based on the total weight of the coating composition. a film-forming resin comprising at least one polymer having at least one type of reactive functional group and a curing agent having functional groups reactive with the functional group of the polymer; and a plurality of inorganic particles selected from alumina particles having an average particle size between 0.1 and 6 μm and silicon carbide particles having an average particle size between 0.1 and 10 μm dispersed in said resin in an amount of 0.1 to 8 weight percent based on the total weight of the coating composition.
An antenna apparatus comprising: a sleeve antenna and a coaxial cable, the sleeve antenna being connected to the coaxial cable, the sleeve antenna including a central conductor and a sleeve, the lengths of the central conductor and the sleeve being 1/4 λ, respectively; and a reflector having a cone shape with a central axis, wherein the sleeve antenna is arranged in a concave portion of the reflector, the central conductor is on the central axis of the reflector, and a top end of the central conductor is separate from a vertex portion of the reflector, a first disk for matching the impedance of the antenna apparatus, arranged at the central conductor of the sleeve antenna and at a distance of 1/16 λ from the upper end of the sleeve along the central axis of the reflector, and a second disk for suppressing leakage currents on the coaxial cable, arranged at the coaxial cable of the sleeve antenna and at a distance of 3/8 λ from the upper end of the sleeve along the central axis of the reflector. a sleeve antenna and a coaxial cable, the sleeve antenna being connected to the coaxial cable, the sleeve antenna including a central conductor and a sleeve, the lengths of the central conductor and the sleeve being 1/4 λ, respectively; and a reflector having a cone shape with a central axis, wherein the sleeve antenna is arranged in a concave portion of the reflector, the central conductor is on the central axis of the reflector, and a top end of the central conductor is separate from a vertex portion of the reflector, a first disk for matching the impedance of the antenna apparatus, arranged at the central conductor of the sleeve antenna and at a distance of 1/16 λ from the upper end of the sleeve along the central axis of the reflector, and a second disk for suppressing leakage currents on the coaxial cable, arranged at the coaxial cable of the sleeve antenna and at a distance of 3/8 λ from the upper end of the sleeve along the central axis of the reflector.
A controller configured to control a multiphase synchronous motor with a rotor and a plurality of phases for receiving a plurality of motor vectors, the controller configured to, for a motor flux vector: set a first phase of the motor to a floating state in a first phase in which the first phase is electrically floating; set a voltage across a second phase of the motor for a first period; receive first voltage samples associated with the first phase in the first period; set the voltage across the second phase of the motor for a second period, in which the first period and the second period are periods of one or more pulse width modulation cycles, in which a polarity of the voltage across the second phase in the second period is opposite to a polarity of the voltage across the second phase in the first period; receive second voltage samples associated with the first phase in the second period; and determine a position of the rotor based on the first and second voltage samples; characterized by being further configured to, on initialization of the motor: apply three vectors before determining the position of the rotor; determine a direction of travel of the motor; and apply a 180 degree correction to the position of the rotor if the determined direction of travel opposes an expected direction of travel. set a first phase of the motor to a floating state in a first phase in which the first phase is electrically floating; set a voltage across a second phase of the motor for a first period; receive first voltage samples associated with the first phase in the first period; set the voltage across the second phase of the motor for a second period, in which the first period and the second period are periods of one or more pulse width modulation cycles, in which a polarity of the voltage across the second phase in the second period is opposite to a polarity of the voltage across the second phase in the first period; receive second voltage samples associated with the first phase in the second period; and determine a position of the rotor based on the first and second voltage samples; characterized by being further configured to, on initialization of the motor: apply three vectors before determining the position of the rotor; determine a direction of travel of the motor; and apply a 180 degree correction to the position of the rotor if the determined direction of travel opposes an expected direction of travel. apply three vectors before determining the position of the rotor; determine a direction of travel of the motor; and apply a 180 degree correction to the position of the rotor if the determined direction of travel opposes an expected direction of travel.
A process for producing 1-chloro-3,3,3-trifluoropropene comprising: reacting 1,1,1,3,3-pentafluoropropane with hydrogen chloride in a gas phase in the presence of a solid catalyst, thereby obtaining a reaction product, and purifying the reaction product, wherein the solid catalyst is a metal oxide of at least one metal selected from the group consisting of aluminum, chromium, zirconium, titanium and magnesium, or wherein the solid catalyst is a supported catalyst in which a compound of at least one metal selected from the group consisting of aluminum, chromium, titanium, manganese, iron, nickel, cobalt, magnesium, zirconium and antimony, or a mixture thereof, is supported on a carrier. reacting 1,1,1,3,3-pentafluoropropane with hydrogen chloride in a gas phase in the presence of a solid catalyst, thereby obtaining a reaction product, and purifying the reaction product, wherein the solid catalyst is a metal oxide of at least one metal selected from the group consisting of aluminum, chromium, zirconium, titanium and magnesium, or wherein the solid catalyst is a supported catalyst in which a compound of at least one metal selected from the group consisting of aluminum, chromium, titanium, manganese, iron, nickel, cobalt, magnesium, zirconium and antimony, or a mixture thereof, is supported on a carrier.
A method for determining the progesterone-associated physiological state of a lactating cow comprising: measuring at least one Milk Solid -related physical parameter in at least one milk sample from a lactating cow; correlating the MS-related parameter with calibrated data; and determining the progesterone-associated physiological state according to the MS-related physical parameter, characterised in that the MS-related physical parameter is at least one of size, size distribution or at least one dielectric parameter. measuring at least one Milk Solid -related physical parameter in at least one milk sample from a lactating cow; correlating the MS-related parameter with calibrated data; and determining the progesterone-associated physiological state according to the MS-related physical parameter, characterised in that the MS-related physical parameter is at least one of size, size distribution or at least one dielectric parameter.
Process for the manufacture of pentafluoroethane from perchloroethylene and HF in the gas phase in the presence of a catalyst, characterized in that (i) the reaction of PER with HF is carried out with an HF/PER molar ratio of greater than 20, a pressure greater than 5 bar absolute, at a temperature of between 330°C and 375°C, in the presence of oxygen and of a mixed catalyst composed of oxides, of halides and/or of oxyhalides of nickel and of chromium deposited on a support composed of aluminum fluoride or of a mixture of aluminum fluoride and of alumina, and that (ii) the stream exiting from this reaction stage is subjected to a separation stage in order to give a fraction of light products comprising hydrochloric acid and pentafluoroethane and a fraction of heavy products comprising unreacted hydrofluoric acid and possibly unreacted perchloroethylene and that (iii) the fraction is recycled directly to the reaction stage without any purification operation.
A high-strength stainless steel for oil well excellent in workability, having a chemical composition comprising, by mass percent, C: at most 0.05%, Si: at least 0.05% and at most 1.0%, Mn: less than 0.2%, P: at most 0.05%, S: less than 0.002%, Cr: over 16% and at most 18%, Mo: 1.5 to 3.0%, Cu: 1.0 to 3.5%, Ni: 3.5 to 6.5%, Al: 0.001 to 0.1%, N: at least 0.002% and at most 0.025%, and O: at most 0.01%, optionally further comprising at least one or more selected from the group consisting of V: at most 0.30%, Nb: at most 0.30%, Ti: at most 0.30%, and Zr: at most 0.30%, and/or optionally at least one or more selected from the group consisting of Ca: at most 0.005%, Mg: at most 0.005%, La: at most 0.005%, Ce: at most 0.005%, and B: at most 0.01%, the balance being Fe and impurities, a microstructure comprising a martensite phase, 10 to 48.5%, by volume ratio, of a ferrite phase and at most 10%, by volume ratio, of a retained austenite phase, yield strength of at least 758 MPa and uniform elongation of at least 10%.
A Computed Tomography, CT, system comprising an x-ray source and an x-ray detector array of photon counting edge-on detectors, wherein each edge-on detector has a number of depth-segments, also referred to as detector elements, arranged at different spatial locations in the direction of incoming x-rays, wherein the CT system is configured to operate based on a time offset measurement scheme for providing a time offset between measurement periods for at least two different detector elements located at different depths, wherein the time offset is chosen so that at least two measurement periods at least partially overlap in time.
A submerged-floating type water house comprising: a first lower side part and a second lower side part formed to be symmetrical with respect to each other; a first upper side part and a second upper side part extending from the first lower side part and the second lower side part and formed to be symmetrical with respect to each other; and a front part and a rear part formed on a front side and a rear side of the first lower side part and the second lower side part, and the first upper side part and the second upper side part, wherein the submerged-floating type water house forms a hexahedral body and wherein, in a state in which the body floats in water, the body is configured such that it forms a rhombic shape when viewed from the front side or the rear side in which portions of the first lower side part and the second lower side part are submerged in water, wherein the submerged-floating type water house further comprises; a propellant configured to allow the body to move in a selected direction; a GPS module capable of acquiring information on a current location of the body and information on a location, to which the body is to move; and a control unit configured to control the body to move to a preset location by controlling the propellant on a basis of the location information of the body acquired by the GPS module. a first lower side part and a second lower side part formed to be symmetrical with respect to each other; a first upper side part and a second upper side part extending from the first lower side part and the second lower side part and formed to be symmetrical with respect to each other; and a front part and a rear part formed on a front side and a rear side of the first lower side part and the second lower side part, and the first upper side part and the second upper side part, wherein the submerged-floating type water house forms a hexahedral body and wherein, in a state in which the body floats in water, the body is configured such that it forms a rhombic shape when viewed from the front side or the rear side in which portions of the first lower side part and the second lower side part are submerged in water, wherein the submerged-floating type water house further comprises; a propellant configured to allow the body to move in a selected direction; a GPS module capable of acquiring information on a current location of the body and information on a location, to which the body is to move; and a control unit configured to control the body to move to a preset location by controlling the propellant on a basis of the location information of the body acquired by the GPS module.
Polygodial of formula I or a plant extract containing polygodial of formula I for use in the treatment or prevention of a viral infection from Herpes simplex type 1 (HSV-1), or a condition or disease resulting from a HSV-1 viral infection, wherein the condition or disease is one or more HSV-1 related cold sores.
Device for supplying electric power to at least one piece of equipment of an aircraft rotor driven by a mast, said device comprising a removable rod capable of being reversibly secured to said mast, said rod having a rotating case provided with a securing means for securing it to said mast and a non-rotating case integral with a connection means capable of being secured to a reference element of said aircraft, characterised in that said rod comprises: - a non-rotating converter secured to the non-rotating case and provided with an input capable of being supplied by an input electric current coming from an electrical network of said aircraft, said non-rotating converter being an electrical converter generating an alternating electric current at a frequency above one kilohertz from said input electric current, and - a rotary transformer integrated into the rod, said transformer having a primary element secured to the non-rotating case and a secondary element secured to the rotating case, the primary element being connected to the non-rotating converter so as to receive said alternating electric current, and the secondary element being capable of supplying electric power to a piece of equipment of a rotor. - a non-rotating converter secured to the non-rotating case and provided with an input capable of being supplied by an input electric current coming from an electrical network of said aircraft, said non-rotating converter being an electrical converter generating an alternating electric current at a frequency above one kilohertz from said input electric current, and - a rotary transformer integrated into the rod, said transformer having a primary element secured to the non-rotating case and a secondary element secured to the rotating case, the primary element being connected to the non-rotating converter so as to receive said alternating electric current, and the secondary element being capable of supplying electric power to a piece of equipment of a rotor.
Turbomachine blade comprising a hollow body defining a cavity, and comprising a downstream trailing edge, the blade further comprising at least one hole which communicates with the cavity and which opens downstream onto the trailing edge, the trailing edge extending along the main radial direction of the blade, and comprising a downstream convex face, characterised in that each hole opens onto a planar rear face of a flat region formed in the downstream convex face of the trailing edge. the blade further comprising at least one hole which communicates with the cavity and which opens downstream onto the trailing edge, the trailing edge extending along the main radial direction of the blade, and comprising a downstream convex face, characterised in that each hole opens onto a planar rear face of a flat region formed in the downstream convex face of the trailing edge.
An apparatus for computing mathematical functions, the apparatus comprising: a pre-processing hardware stage configured to take as inputs an opcode corresponding to Asin, Acos, Atan or Atan2 and one or two input arguments (x; (x,y)) and to produce one or more pre-processing output arguments (s; (s,t); (v,s,t)) according to the one or two input arguments (x; (x,y)) and the opcode when the opcode corresponds to Asin, Atan, or Atan2 and to produce one pre-processing output argument (s) according to one of the one or two input arguments (x) and the opcode when the opcode corresponds to Acos; an inverse function hardware stage configured to calculate a value G = Acos /Sqrt(1-Z*Z) for opcodes corresponding to all of Asin, Acos, Atan, and Atan2, where Z is one of the pre-processing output arguments (s) if the opcode corresponds to Asin, Atan or Atan2 and where Z is the absolute value of one of the one or two input arguments (|x|) if the opcode corresponds to Acos, and to generate one or two inverse function output arguments (Out1; (Out1,Out2)), where G is used to generate the first inverse function output argument); and a post-processing hardware stage configured to obtain the final result from the first inverse function output argument and at least one of the one or two input arguments (x), one of the pre-processing output arguments (s;t) and the second inverse function output argument depending on the opcode; wherein the pre-processing, inverse function, and post-processing hardware stages (600, 602, 606) are configured to produce final results corresponding to Asin, Acos, Atan, and Atan2 according to the opcode. a pre-processing hardware stage configured to take as inputs an opcode corresponding to Asin, Acos, Atan or Atan2 and one or two input arguments (x; (x,y)) and to produce one or more pre-processing output arguments (s; (s,t); (v,s,t)) according to the one or two input arguments (x; (x,y)) and the opcode when the opcode corresponds to Asin, Atan, or Atan2 and to produce one pre-processing output argument (s) according to one of the one or two input arguments (x) and the opcode when the opcode corresponds to Acos; an inverse function hardware stage configured to calculate a value G = Acos /Sqrt(1-Z*Z) for opcodes corresponding to all of Asin, Acos, Atan, and Atan2, where Z is one of the pre-processing output arguments (s) if the opcode corresponds to Asin, Atan or Atan2 and where Z is the absolute value of one of the one or two input arguments (|x|) if the opcode corresponds to Acos, and to generate one or two inverse function output arguments (Out1; (Out1,Out2)), where G is used to generate the first inverse function output argument); and a post-processing hardware stage configured to obtain the final result from the first inverse function output argument and at least one of the one or two input arguments (x), one of the pre-processing output arguments (s;t) and the second inverse function output argument depending on the opcode; wherein the pre-processing, inverse function, and post-processing hardware stages (600, 602, 606) are configured to produce final results corresponding to Asin, Acos, Atan, and Atan2 according to the opcode.