mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a housing comprising: a front plate comprising a flat portion , and at least one curved portion bent from a periphery of the flat portion , and disposed to face a first direction, a rear plate disposed to face a second direction that is opposite to the first direction, and a side member comprising a first surface disposed to face a direction that is perpendicular to the first and second directions, and extending while facing the curved portion and surrounding at least a partial space between the front plate and the rear plate ; a display disposed to be viewed through at least a portion of the front plate ; characterized in that the side member includes: a first groove recessed on the first surface in the second direction with a valley shape and in which an end of the curved portion is accommodated; and a second groove formed on the first surface, located on an inner side of the housing relative to the first groove and having a shape recessed in the second direction and including a curved surface, wherein the second groove is less spaced apart from the flat portion in the second direction than the first groove, and in that a bonding layer is disposed between the front plate and at least a portion of the first groove and the second groove . a front plate comprising a flat portion , and at least one curved portion bent from a periphery of the flat portion , and disposed to face a first direction, a rear plate disposed to face a second direction that is opposite to the first direction, and a side member comprising a first surface disposed to face a direction that is perpendicular to the first and second directions, and extending while facing the curved portion and surrounding at least a partial space between the front plate and the rear plate ; a display disposed to be viewed through at least a portion of the front plate ; characterized in that the side member includes: a first groove recessed on the first surface in the second direction with a valley shape and in which an end of the curved portion is accommodated; and a second groove formed on the first surface, located on an inner side of the housing relative to the first groove and having a shape recessed in the second direction and including a curved surface, wherein the second groove is less spaced apart from the flat portion in the second direction than the first groove, a first groove recessed on the first surface in the second direction with a valley shape and in which an end of the curved portion is accommodated; and a second groove formed on the first surface, located on an inner side of the housing relative to the first groove and having a shape recessed in the second direction and including a curved surface, wherein the second groove is less spaced apart from the flat portion in the second direction than the first groove, and in that a bonding layer is disposed between the front plate and at least a portion of the first groove and the second groove .
A method of making a rotary magnetic drive member , the method comprising: establishing a continuous helical magnet comprising a plurality of turns on a non-magnetic rod with an axial spacing between axially adjacent segments of the helical magnet using an additive manufacturing process including wire arc additive manufacturing, additive friction stir manufacturing, wire feed additive manufacturing, cold spray deposition, laser deposition, directed energy deposition, wherein the helical magnet is continuous and uninterrupted along a helical path along the rod .
An optical add and drop multiplexer comprising: a branching unit configured to branch a first wavelength-multiplexed optical signal (S1) input through a first transmission line (TL11), the first wavelength-multiplexed optical signal (S1) including a first optical signal (T1) and a second optical signal (B1) in a band different from that of the first optical signal (T1); a wavelength selection unit (13; 23) configured to receive one of the branched first wavelength-multiplexed optical signals (S12) branched by the branching unit , receive a second wavelength-multiplexed optical signal (S3) including a third optical signal (TD) in the same band as that of the first optical signal (T1) and a fourth optical signal (B2) in the same band as that of the second optical signal (B1) through a second transmission line (BL2), output a third wavelength-multiplexed optical signal (S4) including the first optical signal (T1) and the fourth optical signal (B2) to a third transmission line (TL12), and output the third optical signal (TD); and a multiplexing unit configured to output a fourth wavelength-multiplexed optical signal (S2) including the other of the branched first wavelength-multiplexed optical signals (S11) branched by the branching unit and the third optical signal (TD) output from the wavelength selection unit (13; 23) to a fourth transmission line (BL1). a branching unit configured to branch a first wavelength-multiplexed optical signal (S1) input through a first transmission line (TL11), the first wavelength-multiplexed optical signal (S1) including a first optical signal (T1) and a second optical signal (B1) in a band different from that of the first optical signal (T1); a wavelength selection unit (13; 23) configured to receive one of the branched first wavelength-multiplexed optical signals (S12) branched by the branching unit , receive a second wavelength-multiplexed optical signal (S3) including a third optical signal (TD) in the same band as that of the first optical signal (T1) and a fourth optical signal (B2) in the same band as that of the second optical signal (B1) through a second transmission line (BL2), output a third wavelength-multiplexed optical signal (S4) including the first optical signal (T1) and the fourth optical signal (B2) to a third transmission line (TL12), and output the third optical signal (TD); and a multiplexing unit configured to output a fourth wavelength-multiplexed optical signal (S2) including the other of the branched first wavelength-multiplexed optical signals (S11) branched by the branching unit and the third optical signal (TD) output from the wavelength selection unit (13; 23) to a fourth transmission line (BL1).
An aircraft including a fuselage, a nacelle and a radome mounted on the aircraft , the radome comprising: an outer mold line which is an outer and/or exterior surface of the radome, the outer mold line having a closure angle formed between a trailing portion of the outer mold line and a surface of a fuselage on which the radome is mounted, the closure angle is between 16 degrees and 18 degrees and thus being configured to reduce a likelihood of separated airflow from occurring proximate a trailing portion of the radome during a flight of the aircraft , the radome being mounted on the fuselage of the aircraft at a location that reduces a rate of change of a transverse cross-sectional area of the aircraft , wherein a longitudinal span of the radome overlaps a leading annular surface of the nacelle of the aircraft , and wherein the leading annular surface of the nacelle defines a first transverse plane , and wherein a second transverse plane that intersects a point corresponding to the greatest vertical extent of the radome is coplanar with the first transverse plane .
A textile composed of meta fibers, comprising: a plurality of meta fibers arranged into a yarn, each of said meta fibers including: a hydrophobic component of a first spinnable polymer material, wherein the hydrophobic component is a polymeric material selected from a group consisting of: Polyethylene (PE), polyethylene terephthalate (PET), polypropylene (PP), polybutylene terephthalate (PBT), and combinations thereof; a hydrophilic component of a second spinnable polymer material, wherein the hydrophilic component is a polymeric material selected from a group consisting of: Nylons, Nylon 66, Nylon 6 (PA6), polyurethane, and combinations thereof; and a plurality of optical nanostructures embedded in said hydrophobic component; wherein said hydrophobic component and the hydrophilic component are connected in a configuration selected from a group including an eccentric sheath-core configuration, and side-by-side configuration, wherein in said eccentric sheath-core configuration, said hydrophobic component constitutes a core, and said hydrophilic component constitutes a sheath surrounding said core; and wherein, responsive to fluctuations in a relative humidity level, each said meta fiber changes a configuration thereof, resulting in modulation of a fiber-to-fiber spacing within the yarn, thus changing an electromagnetic coupling between the optical nanostructures embedded in said fibers, resulting in the infrared optical emission adjustment, followed by an active self-regulation of the air movement and heat transport through the smart textile composed of said meta fibers. a hydrophobic component of a first spinnable polymer material, wherein the hydrophobic component is a polymeric material selected from a group consisting of: Polyethylene (PE), polyethylene terephthalate (PET), polypropylene (PP), polybutylene terephthalate (PBT), and combinations thereof; a hydrophilic component of a second spinnable polymer material, wherein the hydrophilic component is a polymeric material selected from a group consisting of: Nylons, Nylon 66, Nylon 6 (PA6), polyurethane, and combinations thereof; and a plurality of optical nanostructures embedded in said hydrophobic component; wherein said hydrophobic component and the hydrophilic component are connected in a configuration selected from a group including an eccentric sheath-core configuration, and side-by-side configuration, wherein in said eccentric sheath-core configuration, said hydrophobic component constitutes a core, and said hydrophilic component constitutes a sheath surrounding said core; and wherein, responsive to fluctuations in a relative humidity level, each said meta fiber changes a configuration thereof, resulting in modulation of a fiber-to-fiber spacing within the yarn, thus changing an electromagnetic coupling between the optical nanostructures embedded in said fibers, resulting in the infrared optical emission adjustment, followed by an active self-regulation of the air movement and heat transport through the smart textile composed of said meta fibers.
A method of manufacturing an absorbent non-leaching antimicrobial porous matrix composite, comprising: making or obtaining a flexible porous solid matrix substrate that forms a pore-containing solid matrix, wherein the pores of the solid substrate have an average size of under 3 mm in width at their narrowest dimension; physically incorporating a non-leachable antimicrobial within or upon a pore-containing solid matrix, wherein the non-leachable antimicrobial has exposure to the interior of the matrix pores; removing any non-physically incorporated non-leachable antimicrobial from the pore-containing solid matrix, wherein the non-leachable antimicrobial comprises one or more of copper, silver, zinc, bismuth, gold, aluminum, boron, selenium, gallium, sulfur, germanium, barium, manganese, vanadium, lead, beryllium, cadmium, chromium, arsenic, tellurium, mercury, thallium, uranium, tin, antimony, indium, iron, cobalt or nickel, strontium, scandium, titanium, manganese, yttrium, zirconium, niobium, molybdenum, technetium, ruthenium, rhodium, palladium, lanthanum, hafnium, tantalum, tungsten, rhenium, osmium, iridium, platinum, gold, mercury, actinium, rutherfordium, dubnium, seaborgium, bohrium, hassium, meitnerium, darmstadtium, roentgenium, copernicium, cerium, praseodymium, neodymium, promethium, samarium, europium, gadolinium, terbium, dysprosium, holmium, erbium, thulium, ytterbium, lutetium, thorium, protactinium, uranium, neptunium, plutonium, americium, curium, berkelium, californium, einsteinium, fermium, mendelevium, nobelium, and lawrencium. making or obtaining a flexible porous solid matrix substrate that forms a pore-containing solid matrix, wherein the pores of the solid substrate have an average size of under 3 mm in width at their narrowest dimension; physically incorporating a non-leachable antimicrobial within or upon a pore-containing solid matrix, wherein the non-leachable antimicrobial has exposure to the interior of the matrix pores; removing any non-physically incorporated non-leachable antimicrobial from the pore-containing solid matrix, wherein the non-leachable antimicrobial comprises one or more of copper, silver, zinc, bismuth, gold, aluminum, boron, selenium, gallium, sulfur, germanium, barium, manganese, vanadium, lead, beryllium, cadmium, chromium, arsenic, tellurium, mercury, thallium, uranium, tin, antimony, indium, iron, cobalt or nickel, strontium, scandium, titanium, manganese, yttrium, zirconium, niobium, molybdenum, technetium, ruthenium, rhodium, palladium, lanthanum, hafnium, tantalum, tungsten, rhenium, osmium, iridium, platinum, gold, mercury, actinium, rutherfordium, dubnium, seaborgium, bohrium, hassium, meitnerium, darmstadtium, roentgenium, copernicium, cerium, praseodymium, neodymium, promethium, samarium, europium, gadolinium, terbium, dysprosium, holmium, erbium, thulium, ytterbium, lutetium, thorium, protactinium, uranium, neptunium, plutonium, americium, curium, berkelium, californium, einsteinium, fermium, mendelevium, nobelium, and lawrencium.
A process for the preparation of a nucleoside phosphoramidate, preferably sofosbuvir, comprising a step of reacting a compound of formula 2: wherein R 1 and R 2 can independently be hydrogen or halogen, provided that at least one of R 1 and R 2 is a halogen; and R 3 is selected from the group consisting of methyl, ethyl and C 1-3 alkyl substituted by -NR 4 R 5 , wherein R 4 and R 5 are independently selected from the group consisting of: C 1 -C 6 alkyl, C 1 -C 20 alkyl aryl, and C 6 -C 20 aryl; or R 4 and R 5 together with the nitrogen form a ring, with: - a nucleoside of formula 8: wherein the base is a naturally occurring or modified purine or pyrimidine base represented by any of the following structures: wherein R 1 , R 2 , R 3 are independently selected from the group consisting of: H, F, Cl, Br, I, OH, OR, SH, SR', NH 2 , NHR', NR' 2 , C 1 -C 6 alkyl, halogenated C 1 -C 6 alkyl, C 2 -C 6 alkenyl, halogenated C 2 -C 6 alkenyl, C 2 -C 6 alkynyl, and halogenated C 2 -C 6 alkynyl; R' is selected from the group consisting of substituted or unsubstituted alkyl, substituted or unsubstituted alkyl aryl, and substituted or unsubstituted aryl; and Z is hydrogen or an oxygen protecting group; - a nucleoside of formula 5: or - a nucleoside of formula 6: wherein Ar is substituted or unsubstituted aryl; preferably wherein compound 2 is selected from a group consisting of 2a, 2b, 2c and 2d: 2a: R 1 =R 2 =Br, R 3 =CH 3 2b: R 1 =R 2 =Br, R 3 =CH 2 CH 2 N(CH 3 ) 2 2c: R 1 =Br, R 2 =H, R 3 =CH 3 2d: R 1 =R 2 =I, R 3 =CH 3 - a nucleoside of formula 8: wherein the base is a naturally occurring or modified purine or pyrimidine base represented by any of the following structures: wherein R 1 , R 2 , R 3 are independently selected from the group consisting of: H, F, Cl, Br, I, OH, OR, SH, SR', NH 2 , NHR', NR' 2 , C 1 -C 6 alkyl, halogenated C 1 -C 6 alkyl, C 2 -C 6 alkenyl, halogenated C 2 -C 6 alkenyl, C 2 -C 6 alkynyl, and halogenated C 2 -C 6 alkynyl; R' is selected from the group consisting of substituted or unsubstituted alkyl, substituted or unsubstituted alkyl aryl, and substituted or unsubstituted aryl; and Z is hydrogen or an oxygen protecting group; - a nucleoside of formula 5: or - a nucleoside of formula 6: wherein Ar is substituted or unsubstituted aryl; preferably wherein compound 2 is selected from a group consisting of 2a, 2b, 2c and 2d: 2a: R 1 =R 2 =Br, R 3 =CH 3 2b: R 1 =R 2 =Br, R 3 =CH 2 CH 2 N(CH 3 ) 2 2c: R 1 =Br, R 2 =H, R 3 =CH 3 2d: R 1 =R 2 =I, R 3 =CH 3 2b: R 1 =R 2 =Br, R 3 =CH 2 CH 2 N(CH 3 ) 2 2c: R 1 =Br, R 2 =H, R 3 =CH 3 2d: R 1 =R 2 =I, R 3 =CH 3
Cryogenic tank for storing liquefied H 2 with regulated pressure between the inner and outer tank without mobile elements, comprising an outer tank , an inner tank held inside the outer tank by means of supports , wherein the inner tank contains liquefied H 2 and the space between tanks contains H 2 in gas form, characterized in that it comprises an open-cell inner insulation layer in the space between tanks and in contact with the surface of the inner tank, wherein said inner insulation layer is embedded in the H 2 gas atmosphere of the space between tanks, at least one outer insulation layer in contact with the outer tank comprising closed-cell foams gasified with inert gases of low thermal conductivity and an evaporator inside the inner tank to ensure the exchange of H 2 in gaseous state with the space between tanks.
A method for compensating for a loss of a temperature sensor measurement in an attitude and heading reference system on a vehicle, the method comprising: detecting a temperature sensor measurement loss , wherein the temperature sensor measurement is otherwise used to calculate the vehicle's true airspeed (TAS) that is used to compute a vehicle bank angle (θ), wherein a sensor measurement model is augmented by the vehicle bank angle (θ) to correct for a gyro bias in a gyroscope in the attitude and heading reference system; detecting a turn by the vehicle ; in response to detecting the turn, calculating a first vehicle bank angle using measurements provided by gyroscopes , accelerometers , or magnetometers that are part of the attitude and heading reference system; estimating a first static air temperature (ESAT; 11600) using the first vehicle bank angle; estimating a second static air temperature (ST, 11600) independently of the first vehicle bank angle using a standard model that provides temperatures; computing an adjusted static air temperature using the first and second static air temperatures; and augmenting the sensor measurement model to compensate for a gyro-bias drift rate of the gyroscope in the attitude and heading reference system using the adjusted static air temperature. detecting a temperature sensor measurement loss , wherein the temperature sensor measurement is otherwise used to calculate the vehicle's true airspeed (TAS) that is used to compute a vehicle bank angle (θ), wherein a sensor measurement model is augmented by the vehicle bank angle (θ) to correct for a gyro bias in a gyroscope in the attitude and heading reference system; detecting a turn by the vehicle ; in response to detecting the turn, calculating a first vehicle bank angle using measurements provided by gyroscopes , accelerometers , or magnetometers that are part of the attitude and heading reference system; estimating a first static air temperature (ESAT; 11600) using the first vehicle bank angle; estimating a second static air temperature (ST, 11600) independently of the first vehicle bank angle using a standard model that provides temperatures; computing an adjusted static air temperature using the first and second static air temperatures; and augmenting the sensor measurement model to compensate for a gyro-bias drift rate of the gyroscope in the attitude and heading reference system using the adjusted static air temperature.
A keyless locking system comprising: a first cam assembly comprising a first cam latch configured to be securely interfaced with a quarter-turn bracket and an adapter portion configured to interface with a second cam assembly , wherein the second cam assembly comprises a quarter-turn second cam latch configured to selectively secure an access panel or door panel of an enclosure; a strike plate assembly coupled to the quarter-turn second cam latch of the second cam assembly, the strike plate assembly comprising a strike plate and a strike pin coupled to the strike plate; a locking assembly configured to be coupled to an inside surface of the access panel or door panel of the enclosure, the locking assembly comprising a locking mechanism configured to selectively secure the strike pin when configured in a locked position and release the strike pin when configured in an unlocked position; and an electronic actuator comprising at least one wireless receiver, a driver mechanism and a power supply, wherein the electronic actuator is configured to engage the driver mechanism upon wirelessly receiving an access code signal from an electronic device , wherein the driver mechanism, when engaged, is configured to disengage the locking assembly from a locked position to an unlocked position. a first cam assembly comprising a first cam latch configured to be securely interfaced with a quarter-turn bracket and an adapter portion configured to interface with a second cam assembly , wherein the second cam assembly comprises a quarter-turn second cam latch configured to selectively secure an access panel or door panel of an enclosure; a strike plate assembly coupled to the quarter-turn second cam latch of the second cam assembly, the strike plate assembly comprising a strike plate and a strike pin coupled to the strike plate; a locking assembly configured to be coupled to an inside surface of the access panel or door panel of the enclosure, the locking assembly comprising a locking mechanism configured to selectively secure the strike pin when configured in a locked position and release the strike pin when configured in an unlocked position; and an electronic actuator comprising at least one wireless receiver, a driver mechanism and a power supply, wherein the electronic actuator is configured to engage the driver mechanism upon wirelessly receiving an access code signal from an electronic device , wherein the driver mechanism, when engaged, is configured to disengage the locking assembly from a locked position to an unlocked position.
Method for correcting/calibrating, implemented by at least one calculation means, a value, called measured value, of a parameter for characterizing bone tissue determined by fractal measurement on a greyscale image produced in a first configuration, called measurement configuration, with respect to a second configuration, called reference configuration, distinguished from said measurement configuration by a difference affecting the measured value of said characterizing parameter, said method being characterized in that the characterizing parameter is a bone texture parameter, and in that it comprises the following steps: - determining a fractal dimension, called measured fractal dimension, of said greyscale image produced in the measurement configuration, - correcting said measured fractal dimension with reference to said reference configuration, said correction providing a value, called corrected value, of said fractal dimension, - determining a value, called corrected value, of said characterizing parameter from said corrected value of said fractal dimension. - determining a fractal dimension, called measured fractal dimension, of said greyscale image produced in the measurement configuration, - correcting said measured fractal dimension with reference to said reference configuration, said correction providing a value, called corrected value, of said fractal dimension, - determining a value, called corrected value, of said characterizing parameter from said corrected value of said fractal dimension.