mhurhangee/ep-ind-claims huggingface dataset:
An automotive or industrial gear oil comprising a. an oil of lubricating viscosity; b. 0.01 to 10 wt% of a sulfurized olefin comprising a mixture of sulfurized olefins of formula R 1 -S x -R 2 where R 1 and R 2 separately are derived from 2 to 6 carbon atom containing olefins and x is an integer of between 1 and 10, with the proviso that the sulfurized olefin will have a sulfur content of from about 10 to about 50 wt%, c. 100 to 10,000 ppm of a hydroxyalkylamine containing booster, wherein the hydroxyalkylamine containing booster comprises, consists essentially of, or consists of, an alkanolamine of formula I: where: R 5 is a C 4 to C 30 hydrocarbyl group; R 3 and R 4 are individually H or a C 1 to C 6 hydrocarbyl group and d. at least one of: i. 0.1 to 2 wt% of a metal alkylthiophosphate, ii. 0.1 to 8 wt % of a thiadiazole-functionalized dispersant, mixtures of (i) and (ii). a. an oil of lubricating viscosity; b. 0.01 to 10 wt% of a sulfurized olefin comprising a mixture of sulfurized olefins of formula R 1 -S x -R 2 where R 1 and R 2 separately are derived from 2 to 6 carbon atom containing olefins and x is an integer of between 1 and 10, with the proviso that the sulfurized olefin will have a sulfur content of from about 10 to about 50 wt%, c. 100 to 10,000 ppm of a hydroxyalkylamine containing booster, wherein the hydroxyalkylamine containing booster comprises, consists essentially of, or consists of, an alkanolamine of formula I: where: R 5 is a C 4 to C 30 hydrocarbyl group; R 3 and R 4 are individually H or a C 1 to C 6 hydrocarbyl group and R 5 is a C 4 to C 30 hydrocarbyl group; R 3 and R 4 are individually H or a C 1 to C 6 hydrocarbyl group and d. at least one of: i. 0.1 to 2 wt% of a metal alkylthiophosphate, ii. 0.1 to 8 wt % of a thiadiazole-functionalized dispersant, mixtures of (i) and (ii). i. 0.1 to 2 wt% of a metal alkylthiophosphate, ii. 0.1 to 8 wt % of a thiadiazole-functionalized dispersant, mixtures of (i) and (ii).
An antibody that binds to the p19 subunit of human IL-23 comprising a light chain and a heavy chain, wherein the light chain comprises a light chain variable region (LCVR) and the heavy chain comprises a heavy chain variable region (HCVR), wherein the amino acid sequence of the LCVR is SEQ ID NO: 8 and the amino acid sequence of the HCVR is SEQ ID NO: 7.
A vehicular brake hydraulic pressure control apparatus, comprising: a base body; a plurality of pressure-increasing valves; a plurality of pressure-reducing valves; a master-pressure sensor; a pair of reservoirs; a pair of cut valves; a pair of pumps; a pair of mechanical suction valves; a pair of caliper-pressure sensors; and a motor; wherein one side of the base body is a valve-mounting side on which the plurality of pressure-increasing valves, the plurality of pressure-reducing valves, the pair of cut valves, and the pair of caliper-pressure sensors are mounted, and another side of the base body opposite to the one side is a motor-mounting side on which the motor is mounted; the plurality of pressure-increasing valves are arranged in a line in a direction of center axes of the pumps, the plurality of pressure-reducing valves are arranged in a line in the direction of the center axes of the pumps, and the pair of cut valves and the pair of caliper-pressure sensors are arranged in a line in the direction of the center axes of the pumps; when a direction perpendicular to the direction of the center axes of the pumps and a rotational center axis of the motor is a vertical direction, an inlet port (21, 23) from a hydraulic pressure source and a plurality of outlet ports (22R, 22L, 24L, 24R) to be connected to a plurality of wheel brakes (FR, RL, FL, RR) are arranged in an upper portion of the base body, and the pair of reservoirs are arranged in a lower portion of the base body, where the lower portion is located opposite to the upper portion with respect to the center axes of the pumps; the pair of pumps are respectively arranged between the inlet port (21, 23) and the reservoirs; the plurality of pressure-increasing valves are respectively arranged above the center axes of the pumps; the plurality of pressure-reducing valves are respectively arranged below the plurality of pressure-increasing valves; the pair of cut valves are respectively arranged between the pressure-increasing valves and the pressure-reducing valves, and are located nearer to a central portion of the base body than ones of the pressure-increasing valves and ones of the pressure-reducing valves located on edge sides of the base body; characterized in that the pair of the mechanical suction valves are each arranged between ones of the pressure-reducing valves which are arrayed in the direction of the center axes of the pumps on an edge side of a vertical reference line passing through the rotational center axis, and the pair of mechanical suction valves respectively communicate with the pair of cut valves; and the master-pressure sensor is arranged on the vertical reference line above ones of the pressure-increasing valves located, in a central portion of the base body, adjacent to each other, in the direction of the center axes of the pumps. a base body; a plurality of pressure-increasing valves; a plurality of pressure-reducing valves; a master-pressure sensor; a pair of reservoirs; a pair of cut valves; a pair of pumps; a pair of mechanical suction valves; a pair of caliper-pressure sensors; and a motor;
An imaging apparatus comprising: an image sensor; an optical system; a controlling unit configured to change a tilt angle between the image sensor and a plane orthogonal to an optical axis of the optical system by tilting at least one of the image sensor and the optical system, and to set a plurality of areas (501, 502) in an image (301-1, 302-1, 701-1, 702-1) captured by the image sensor; an evaluation value acquiring unit configured to acquire for each area (501, 502) a plurality of area contrast evaluation values by changing the tilt angle through the controlling unit; an evaluation area determining unit configured to acquire, for each of the plurality of areas (501, 502), an optimal area tilt angle corresponding to a maximum area contrast evaluation value in the area, and to determine an evaluation area (701-4, 702-4, 1101-1, 1101-2) comprising the most areas with coincident optimal area tilt angles; and a tilt angle determining unit configured to determine a target tilt angle based on the coincident optimal area tilt angles of the evaluation area (701-4, 702-4, 1101-1, 1101-2); wherein the controlling unit is further configured to change the tilt angle based on the target tilt angle. an image sensor; an optical system; a controlling unit configured to change a tilt angle between the image sensor and a plane orthogonal to an optical axis of the optical system by tilting at least one of the image sensor and the optical system, and to set a plurality of areas (501, 502) in an image (301-1, 302-1, 701-1, 702-1) captured by the image sensor; to change a tilt angle between the image sensor and a plane orthogonal to an optical axis of the optical system by tilting at least one of the image sensor and the optical system, and to set a plurality of areas (501, 502) in an image (301-1, 302-1, 701-1, 702-1) captured by the image sensor; an evaluation value acquiring unit configured to acquire for each area (501, 502) a plurality of area contrast evaluation values by changing the tilt angle through the controlling unit; an evaluation area determining unit configured to acquire, for each of the plurality of areas (501, 502), an optimal area tilt angle corresponding to a maximum area contrast evaluation value in the area, and to determine an evaluation area (701-4, 702-4, 1101-1, 1101-2) comprising the most areas with coincident optimal area tilt angles; and to acquire, for each of the plurality of areas (501, 502), an optimal area tilt angle corresponding to a maximum area contrast evaluation value in the area, and to determine an evaluation area (701-4, 702-4, 1101-1, 1101-2) comprising the most areas with coincident optimal area tilt angles; and a tilt angle determining unit configured to determine a target tilt angle based on the coincident optimal area tilt angles of the evaluation area (701-4, 702-4, 1101-1, 1101-2); wherein the controlling unit is further configured to change the tilt angle based on the target tilt angle.
A magnetic flowmeter sensor (16, 116, 216, 316, 416) for detecting a flow rate of a process fluid flow, the sensor comprising: a conduit for conducting the process fluid flow through the sensor; two sensor faces (22, 122, 222, 322, 422), one on each end of the conduit, for connecting the sensor to the process fluid flow; a liner (34, 134, 234, 334, 434) lining the conduit for preventing physical contact between the process fluid flow and the conduit; the liner extending the full length of the conduit, and extending across at least a portion (40, 140, 222, 322, 422) of each sensor face to form a planar sealing surface (45, 145, 245, 345, 445) at each end of the sensor; characterized in that the liner includes a plurality of holes (46, 246, 446); and a plurality of mechanical fasteners passing through the plurality of holes to mechanically attach the liner to the flowmeter sensor to prevent shifting of the liner, wherein the mechanical fasteners are attached to the sensor faces or to a housing on the side of the magnetic flowmeter sensor, are axially closer to a mid-point between the two sensor faces (22, 122, 222, 322, 422) than the planar sealing surfaces (45, 145, 245, 345, 445) are to the mid-point, and wherein the plurality of mechanical fasteners do not extend beyond the planar sealing surface at each end of the sensor. a conduit for conducting the process fluid flow through the sensor; two sensor faces (22, 122, 222, 322, 422), one on each end of the conduit, for connecting the sensor to the process fluid flow; a liner (34, 134, 234, 334, 434) lining the conduit for preventing physical contact between the process fluid flow and the conduit; the liner extending the full length of the conduit, and extending across at least a portion (40, 140, 222, 322, 422) of each sensor face to form a planar sealing surface (45, 145, 245, 345, 445) at each end of the sensor; characterized in that the liner includes a plurality of holes (46, 246, 446); and a plurality of mechanical fasteners passing through the plurality of holes to mechanically attach the liner to the flowmeter sensor to prevent shifting of the liner, wherein the mechanical fasteners are attached to the sensor faces or to a housing on the side of the magnetic flowmeter sensor, are axially closer to a mid-point between the two sensor faces (22, 122, 222, 322, 422) than the planar sealing surfaces (45, 145, 245, 345, 445) are to the mid-point, and wherein the plurality of mechanical fasteners do not extend beyond the planar sealing surface at each end of the sensor.
A projection device configured to magnify and project, on a screen, an image displayed at an image display element, the projection device comprising: a dioptric system including at least one positive lens and at least one negative lens; and a reflection optical system (12, 14, 15) having at least one reflection optical element, characterised in that each of the at least one positive lens and the at least one negative lens satisfy the conditional expressions and at the same time: − 5 < dnT 72 < νd where dnT denotes a temperature coefficient of a relative refractive index at a D line in a range of 40 to 60 degrees and vd denotes an Abbe number. a dioptric system including at least one positive lens and at least one negative lens; and a reflection optical system (12, 14, 15) having at least one reflection optical element, characterised in that each of the at least one positive lens and the at least one negative lens satisfy the conditional expressions and at the same time: − 5 < dnT 72 < νd where dnT denotes a temperature coefficient of a relative refractive index at a D line in a range of 40 to 60 degrees and vd denotes an Abbe number.
A compound represented by formula I: wherein, R1, R2, R3, R4, R5, R6, R7, R8, R9, R10, R11, R12, R13 and R14 are each independently H or deuterium; and at least one of R1, R2, R3, R4, R5, R6, R7, R8, R9, R10, R11, R12, R13 and R14 must be D.
A method for refining magnetic domains of a grain-oriented electrical steel plate, the method comprising: a steel plate supporting roll position adjusting step of controlling a vertical direction position of the steel plate while supporting the steel plate; a laser radiating step of melting the steel plate by radiating a laser beam to form grooves on the surface of the steel plate; and a setting and maintaining step of setting and maintaining an internal operation environment of a laser room in which the laser radiation is performed; and wherein the steel plate supporting roll position adjusting step comprises a brightness measuring step of measuring brightness of a flame occurring when the laser is radiated to the steel plate in the laser radiating step; wherein in the laser radiating step, with respect to the surface of the steel plate progressing in contact with the surface of the steel plate supporting roll in the form of an arc, by setting as a reference point an radiating position of the laser beam when the radiating direction of the laser beam passes through a central axis of the steel plate supporting roll, the laser beam is radiated to a position separated at an angle along an outer peripheral surface from the center of the steel plate supporting roll at the reference point; and wherein the setting and maintaining step includes steps of isolating the inside of the laser room from the outside to block the inflow of external contaminants, and controlling an internal temperature, pressure, and humidity of the laser room. a steel plate supporting roll position adjusting step of controlling a vertical direction position of the steel plate while supporting the steel plate; a laser radiating step of melting the steel plate by radiating a laser beam to form grooves on the surface of the steel plate; and a setting and maintaining step of setting and maintaining an internal operation environment of a laser room in which the laser radiation is performed; and wherein the steel plate supporting roll position adjusting step comprises a brightness measuring step of measuring brightness of a flame occurring when the laser is radiated to the steel plate in the laser radiating step; wherein in the laser radiating step, with respect to the surface of the steel plate progressing in contact with the surface of the steel plate supporting roll in the form of an arc, by setting as a reference point an radiating position of the laser beam when the radiating direction of the laser beam passes through a central axis of the steel plate supporting roll, the laser beam is radiated to a position separated at an angle along an outer peripheral surface from the center of the steel plate supporting roll at the reference point; and wherein the setting and maintaining step includes steps of isolating the inside of the laser room from the outside to block the inflow of external contaminants, and controlling an internal temperature, pressure, and humidity of the laser room.
A compound or a pharmaceutically acceptable salt thereof for use in the treatment of cartilage disease in an animal subject including a mammalian subject, wherein the compound is selected from: 3-[2-(4-{2-ethyl-4,6-dimethyl-1H-imidazo[4,5-c]pyridin-1-yl}phenyl)ethyl]-1-[(4-methylbenzene)sulfonyl]urea; and 4-[(1 S)-1-({[5-chloro-2-(3-fluorophenoxy)pyridin-3-yl]carbonyl}amino)ethyl]benzoic acid, wherein the cartilage disease is cartilage destruction. 3-[2-(4-{2-ethyl-4,6-dimethyl-1H-imidazo[4,5-c]pyridin-1-yl}phenyl)ethyl]-1-[(4-methylbenzene)sulfonyl]urea; and 4-[(1 S)-1-({[5-chloro-2-(3-fluorophenoxy)pyridin-3-yl]carbonyl}amino)ethyl]benzoic acid, wherein the cartilage disease is cartilage destruction.
A method for enhancing a navigation solution of a device and a platform, wherein the mobility of the device is constrained or unconstrained within the platform, the method comprising: detecting and estimating the attitude of the device and the platform and determining the misalignment between the device and the platform by estimating the absolute heading of the platform and the standard deviation thereof by using the time rate of change of received signal strength of wireless signals from a wireless communication system having at least one access point. detecting and estimating the attitude of the device and the platform and determining the misalignment between the device and the platform by estimating the absolute heading of the platform and the standard deviation thereof by using the time rate of change of received signal strength of wireless signals from a wireless communication system having at least one access point.
A memory controller comprising: a PHY module including a first PHY terminal and connectable to a plurality of pins of a device connector; a MAC module including a first MAC terminal (251 - 258, 261-264) that is enabled to form a first lane with the first PHY terminal, and a second MAC terminal (251-258, 261-264); a switch controller configured to receive a signal from a host connector connected to at least one of the plurality of pins of the device connector and output a switch signal in response to the signal of the host connector; and a switch configured to disable the second MAC terminal (251-258, 261-264) either, by not connecting the second MAC terminal to the first PHY terminal, or by causing the second MAC terminal not to transmit and receive data to and from the PHY module, and to form the first lane by connecting the first PHY terminal to the first MAC terminal (251-258, 261-264) in response to the switch signal, charaterized in that the signal received from the host connector indicates a number of ports of the host connector, a type of the host connector, and a type of the device connector, and wherein when the type of the host connector or the device connector is changed, a configuration of a device lane between the PHY module and the device connector is changed. a PHY module including a first PHY terminal and connectable to a plurality of pins of a device connector; a MAC module including a first MAC terminal (251 - 258, 261-264) that is enabled to form a first lane with the first PHY terminal, and a second MAC terminal (251-258, 261-264); a switch controller configured to receive a signal from a host connector connected to at least one of the plurality of pins of the device connector and output a switch signal in response to the signal of the host connector; and a switch configured to disable the second MAC terminal (251-258, 261-264) either, by not connecting the second MAC terminal to the first PHY terminal, or by causing the second MAC terminal not to transmit and receive data to and from the PHY module, and to form the first lane by connecting the first PHY terminal to the first MAC terminal (251-258, 261-264) in response to the switch signal, charaterized in that the signal received from the host connector indicates a number of ports of the host connector, a type of the host connector, and a type of the device connector, and wherein when the type of the host connector or the device connector is changed, a configuration of a device lane between the PHY module and the device connector is changed.
A deformation detecting device, comprising: - a multi-functional fabric, including weft yarns and warp yarns woven together, - wherein at least some of said weft yarns, or both at least some of said weft yarns and at least some of said warp yarns, are electrically conductive, - wherein said weft yarns are provided with a flocking made up of non-electrically conductive fibers protruding substantially radially from the weft yarns, - wherein the electrically conductive yarns (T; O) are connected to conductive ends for applying an electrical voltage, in such a way that yarns connected to conductive ends of different polarities define respective plates (A1, A2) of a capacitive sensor, while the fibers of the flocking of said weft yarns define a dielectric material interposed between the capacitive sensor plates (A1, A2), - said device comprising an electronic control and processing unit connected to said conductive ends and configured to detect a deformation of said fabric on the basis of a detection of a capacitance variation of said capacitive sensor. - a multi-functional fabric, including weft yarns and warp yarns woven together, - wherein at least some of said weft yarns, or both at least some of said weft yarns and at least some of said warp yarns, are electrically conductive, - wherein said weft yarns are provided with a flocking made up of non-electrically conductive fibers protruding substantially radially from the weft yarns, - wherein the electrically conductive yarns (T; O) are connected to conductive ends for applying an electrical voltage, in such a way that yarns connected to conductive ends of different polarities define respective plates (A1, A2) of a capacitive sensor, while the fibers of the flocking of said weft yarns define a dielectric material interposed between the capacitive sensor plates (A1, A2), - said device comprising an electronic control and processing unit connected to said conductive ends and configured to detect a deformation of said fabric on the basis of a detection of a capacitance variation of said capacitive sensor.
A processor implemented method on a client device, the method comprising: receiving web application resources associated with a web application; modifying the web application resources by adding methods at least some of which pertain to processing of user data of the web application; and executing the modified web application resources on the client device; wherein at least one added method that pertains to the processing of user data implements a security feature by intercepting user data without modifying control data for the web application, and replacing the user data with replacement data for the purpose of communicating with an external server, such that the external server is exposed to the replacement data but not the user data; wherein the user data represents data entered by a user and control data is data specific to the web application that is necessary for its operation. receiving web application resources associated with a web application; modifying the web application resources by adding methods at least some of which pertain to processing of user data of the web application; and executing the modified web application resources on the client device; wherein at least one added method that pertains to the processing of user data implements a security feature by intercepting user data without modifying control data for the web application, and replacing the user data with replacement data for the purpose of communicating with an external server, such that the external server is exposed to the replacement data but not the user data; wherein the user data represents data entered by a user and control data is data specific to the web application that is necessary for its operation.
Use of multiple solid polymer matrices of a lipophilic nature, mixed with at least solid granulated materials of mineral or plant origin,which form the major proportion of the animal litter layer, the said matrices are formed of fat-absorbing polymers within which is incorporated at least an odorous or deodorizing active ingredient in liquid form, whose atmospheric diffusion from these said matrices serves to combat bad odors from fecal matter and compounds from the decomposition, by microorganisms, of urine contained in the said litter layer.