mhurhangee/patent-ind-claim-en huggingface dataset:
A method of detecting a repeating coded light message embedded in light emitted by a light source , the method comprising: from each respective one of a plurality of rolling-shutter cameras , receiving a respective series of frames captured by the respective camera, wherein the frames of each series each capture a footprint of the light source, and each frame in the series captures only a portion of the message, and wherein each of the cameras has a different value of a property affecting a number of frames required to capture the whole message; determining which of the cameras has the value of said property requiring the fewest number of frames to capture the whole message; and based thereon, selecting to decode the message from the combination of the portions of the message captured by the determined camera. from each respective one of a plurality of rolling-shutter cameras , receiving a respective series of frames captured by the respective camera, wherein the frames of each series each capture a footprint of the light source, and each frame in the series captures only a portion of the message, and wherein each of the cameras has a different value of a property affecting a number of frames required to capture the whole message; determining which of the cameras has the value of said property requiring the fewest number of frames to capture the whole message; and based thereon, selecting to decode the message from the combination of the portions of the message captured by the determined camera.
Thermoplastic polymer composition (P) comprising: (A) 90 to 99.9 wt.-%, preferably 93 to 99.9 wt.-%, in particular 95 to 99.8 wt.-%, of at least one styrene-based copolymer; (B) 0.1 to 10 wt.-%, preferably 0.1 to 7 wt.-%, in particular 0.2 to 2 wt.-%, of an aliphatic amide wax additive comprising at least one aliphatic amide wax composition (B-1) having a melting point in the range of 80°C to 115°C and at least one aliphatic fatty acid ester composition (B-2) having a melting point in the range of 35°C to 60°C; (C) 0 to 9.9 wt.-%, preferably 0.1 to 5 wt.-%, in particular 0.5 to 5 wt.-%, of at least one colorant, dye or pigment; and (D) 0 to 3 wt.-%, preferably 0.1 to 3 wt.-%, in particular 0.5 to 3 wt.-%, at least one further additive; wherein the constituents (A) to (D) sum up to 100 wt.-% of the thermoplastic polymer composition (P); the weight ratio (B-1) to (B-2) is ≥ 0.9 : 1 to ≤ 2.2 : 1; and the at least one styrene-based copolymer (A) is selected from poly(styrene-co-acrylonitrile) (SAN), poly(a-methyl styrene-co-acrylonitrile) (AMSAN), poly(styrene-co-methyl methacrylate) (SMMA) and mixtures thereof. (A) 90 to 99.9 wt.-%, preferably 93 to 99.9 wt.-%, in particular 95 to 99.8 wt.-%, of at least one styrene-based copolymer; (B) 0.1 to 10 wt.-%, preferably 0.1 to 7 wt.-%, in particular 0.2 to 2 wt.-%, of an aliphatic amide wax additive comprising at least one aliphatic amide wax composition (B-1) having a melting point in the range of 80°C to 115°C and at least one aliphatic fatty acid ester composition (B-2) having a melting point in the range of 35°C to 60°C; (C) 0 to 9.9 wt.-%, preferably 0.1 to 5 wt.-%, in particular 0.5 to 5 wt.-%, of at least one colorant, dye or pigment; and (D) 0 to 3 wt.-%, preferably 0.1 to 3 wt.-%, in particular 0.5 to 3 wt.-%, at least one further additive; the constituents (A) to (D) sum up to 100 wt.-% of the thermoplastic polymer composition (P); the weight ratio (B-1) to (B-2) is ≥ 0.9 : 1 to ≤ 2.2 : 1; and the at least one styrene-based copolymer (A) is selected from poly(styrene-co-acrylonitrile) (SAN), poly(a-methyl styrene-co-acrylonitrile) (AMSAN), poly(styrene-co-methyl methacrylate) (SMMA) and mixtures thereof.
Optical sensor for a pH-value measurement of a medium in microscopes, tubes or containers, comprising a photoluminescent and/or fluorescent layer , a light source for exciting the photoluminescence and/or the fluorescence of said layer, and a detector for detecting the photoluminescence intensity and/or the fluorescence intensity, and driving electrodes for applying a potential, wherein the optical sensor further comprises an electrically conductive support layer on which the photoluminescent and/or fluorescent layer is deposited, the photoluminescent and/or fluorescent layer having at least one electrical contact with the drive , so that a potential can be applied to the photoluminescent and/or fluorescent layer and this layer , in conjunction with the carrier layer , can thus be electrically switched as a working electrode, and wherein the optical sensor is equipped with at least one counter electrode and at least one reference electrode , which are in contact with the medium and which are each connected by means of at least one electrical contact to the drive of the electrodes , the photoluminescent and/or fluorescent layer being in the form of nanowires, the sensor being configured to carry out a pH measurement, to excite the said layer with the light source and to detect the photoluminescence intensities or fluorescence intensities and at the same time to apply a potential to the working electrode.
A surface cleaning apparatus , comprising a housing including an upright handle assembly and a base mounted to the handle assembly and adapted for movement across a surface to be cleaned, a suction source , a suction nozzle assembly provided on the base and defining a suction nozzle in fluid communication with the suction source , the suction nozzle assembly comprising a nozzle housing and a cover on the nozzle housing , and a fluid delivery system provided on the housing and comprising a fluid supply chamber adapted to hold a supply of liquid, a fluid dispenser provided on the base in fluid communication with the fluid supply chamber , and a fluid delivery pathway between the fluid supply chamber and the fluid dispenser ; characterized by : a hybrid brushroll that includes multiple agitation materials to optimize cleaning performance on different types of surfaces to be cleaned, including hard and soft surfaces, and for different cleaning modes, including wet and dry vacuum cleaning, wherein the hybrid brushroll is suitable for use on both hard and soft surfaces, and for wet and dry vacuum cleaning, and wherein the hybrid brushroll comprises a dowel , a plurality of tufted bristles extending from the dowel , and microfiber material provided on the dowel and arranged between the bristles . a hybrid brushroll that includes multiple agitation materials to optimize cleaning performance on different types of surfaces to be cleaned, including hard and soft surfaces, and for different cleaning modes, including wet and dry vacuum cleaning, wherein the hybrid brushroll is suitable for use on both hard and soft surfaces, and for wet and dry vacuum cleaning, and wherein the hybrid brushroll comprises a dowel , a plurality of tufted bristles extending from the dowel , and microfiber material provided on the dowel and arranged between the bristles .
Valve needle for a fluid injection valve , comprising a needle shaft and a sealing ball welded to a tip of the needle shaft , wherein the welded joint between the sealing ball and the needle shaft comprises at least two separate weld seams , which extend along the perimeter of the valve needle in the form of a c-shaped arc, characterized in that the welded joint , by means of the weld seams , has a 2-fold rotational symmetry with respect to a longitudinal axis.
An interferometric measurement method comprising the steps of: providing a light source and an interferometric probe configured to project a curved test wavefront (T) adapted to produce curved localized fringes when a test surface (S) is placed at a predetermined position in space relative to a reference surface ; determining a position in three-dimensional space of a single point of interest at a time on a test surface (S) relative to a reference coordinate system by fringe analysis when the point intersects said curved localized fringes ; and repeating said determining step for a plurality of single points along a predetermined scanning pattern; wherein said scanning pattern is determined by consecutive positions where each of said single points intersects said curved localized fringes . providing a light source and an interferometric probe configured to project a curved test wavefront (T) adapted to produce curved localized fringes when a test surface (S) is placed at a predetermined position in space relative to a reference surface ; determining a position in three-dimensional space of a single point of interest at a time on a test surface (S) relative to a reference coordinate system by fringe analysis when the point intersects said curved localized fringes ; and repeating said determining step for a plurality of single points along a predetermined scanning pattern; wherein said scanning pattern is determined by consecutive positions where each of said single points intersects said curved localized fringes .
An aqueous setting and hardening accelerator for a cement, mortar or concrete composition, the accelerator composition comprising between 30 and 55 w/w % of a nitrate salt as a nitrate solution and between 0.02 and 0.1 w/w% of an alkaline hydroxide, which is dissolved in the nitrate solution and, optionally, as a hydroxide precipitate in the accelerator composition, wherein the accelerator composition has a pH of at least 9.0.
A computer-implemented method, executed on a computing device, comprising: establishing connectivity with a plurality of security-relevant subsystems within a computing platform; defining a specific task to be executed on one or more of the plurality of security-relevant subsystems, thus defining one or more target security-relevant subsystems wherein defining the specific task includes: defining a unified specific task; and denormalizing the unified specific task to define a subsystem-specific task for each of the one or more target security-relevant subsystems, thus defining one or more subsystem-specific tasks, wherein each subsystem specific task includes one or more bespoke commands or operations to be performed on a respective security-relevant subsystems for accomplishing the unified specific task; commissioning a container-based job within which the specific task will be executed; executing the specific task within the container-based job; decommissioning the container-based job, including manually decommissioning the container-based job prior to completion of the execution of the specific task on the one or more target security-relevant subsystems. establishing connectivity with a plurality of security-relevant subsystems within a computing platform; defining a specific task to be executed on one or more of the plurality of security-relevant subsystems, thus defining one or more target security-relevant subsystems wherein defining the specific task includes: defining a unified specific task; and denormalizing the unified specific task to define a subsystem-specific task for each of the one or more target security-relevant subsystems, thus defining one or more subsystem-specific tasks, wherein each subsystem specific task includes one or more bespoke commands or operations to be performed on a respective security-relevant subsystems for accomplishing the unified specific task; defining a unified specific task; and denormalizing the unified specific task to define a subsystem-specific task for each of the one or more target security-relevant subsystems, thus defining one or more subsystem-specific tasks, wherein each subsystem specific task includes one or more bespoke commands or operations to be performed on a respective security-relevant subsystems for accomplishing the unified specific task; commissioning a container-based job within which the specific task will be executed; executing the specific task within the container-based job; decommissioning the container-based job, including manually decommissioning the container-based job prior to completion of the execution of the specific task on the one or more target security-relevant subsystems.
A pneumatic tire comprising an inner cavity surface and a sealant layer (11; 11A; 11B; 11C) arranged on the inner cavity surface, wherein the sealant layer (11; 11A; 11B; 11C) includes an adhesive material having adhesiveness and flowability, and fillers each formed in a fibrous or rod-like shape, and each of the fillers has a length more than 5 mm and not more than 30 mm, characterized in that the fillers include resin and each of the fillers has an outer diameter in a range of from 0.2 to 1.0 mm.
A method of controlling a wind turbine, the wind turbine comprising a wind sensor, a number of pitch-adjustable rotor blades, a yawing system, and a control system for yawing the wind turbine rotor relative to the wind and for changing the pitch of the rotor blades, the method comprising: - measuring a wind parameter by the wind sensor, wherein the wind parameter is indicative of the wind speed and/or the wind direction relative to the wind turbine; - obtaining a pre-determined first set of wind correction parameters, the first set comprising wind correction parameters for the adjustment of the wind parameter during normal operation; - obtaining a pre-determined second set of wind correction parameters, the second set comprising wind correction parameters for the adjustment of the wind parameter during non-production; - determining a production mode of the wind turbine, wherein the production mode comprises one of at least normal operation and non-production; - adjusting the wind parameter as a function of the set of wind correction parameters corresponding to the production mode at the time of adjusting; - determining a control parameter of the wind turbine as a function of the adjusted wind parameter; and - controlling the wind turbine according to the control parameter. - measuring a wind parameter by the wind sensor, wherein the wind parameter is indicative of the wind speed and/or the wind direction relative to the wind turbine; - obtaining a pre-determined first set of wind correction parameters, the first set comprising wind correction parameters for the adjustment of the wind parameter during normal operation; - obtaining a pre-determined second set of wind correction parameters, the second set comprising wind correction parameters for the adjustment of the wind parameter during non-production; - determining a production mode of the wind turbine, wherein the production mode comprises one of at least normal operation and non-production; - adjusting the wind parameter as a function of the set of wind correction parameters corresponding to the production mode at the time of adjusting; - determining a control parameter of the wind turbine as a function of the adjusted wind parameter; and - controlling the wind turbine according to the control parameter.
A turbine ring assembly comprising a plurality of ring sectors forming a turbine ring and a ring support structure , each ring sector having, along a section plane defined by an axial direction (D A ) and a radial direction (D R ) of the turbine ring , a portion forming an annular base with, in the radial direction (D R ) of the turbine ring , an inner face defining the inner face of the turbine ring and an outer face from which a first and a second attachment tabs protrude, the ring support structure including a central shroud from which a first and a second radial clamps protrude between which the first and second attachment tabs of each ring sector are maintained, characterized in that it comprises a one-piece annular flange removably fastened to the central shroud , the annular flange including a first free end , a second end coupled to the central shroud , a first portion extending from the first end , a second portion extending between the first portion and the second end , the first portion includes first and second tabs distinct from each other, the first tab bearing against the first attachment tab and the second tab being spaced apart from the first tab in the axial direction (D A ), the second tab being upstream of the first tab with respect to the direction of an air flow (F) intended to pass through the turbine ring assembly , the second portion of the annular flange comprising a bearing shroud protruding downstream in the axial direction (D A ), the bearing shroud including a radial bearing in contact with the central shroud of the ring support structure .
A vent for use in an electronic device for absorbing electromagnetic radiation, comprising: a body comprising at least one thermoplastic polymer and a radiation-absorbing filler distributed within said thermoplastic polymer for absorbing electromagnetic radiation, wherein said filler comprises any of carbon black, carbon fiber, and graphene, said body further comprising a plurality of openings , wherein said body is adapted for coupling to a frame of said electronic device to absorb electromagnetic radiation and to allow heat transfer via air flow through said openings between an interior of the frame and an external environment, and wherein said vent exhibits an insertion loss greater than -5 dB for electromagnetic energy with a frequency in a range of 1 GHz to 110 GHz, and characterised in that a concentration of said thermoplastic polymer is in a range of 50 percent to 99.8 percent by volume. a body comprising at least one thermoplastic polymer and a radiation-absorbing filler distributed within said thermoplastic polymer for absorbing electromagnetic radiation, wherein said filler comprises any of carbon black, carbon fiber, and graphene, said body further comprising a plurality of openings , wherein said body is adapted for coupling to a frame of said electronic device to absorb electromagnetic radiation and to allow heat transfer via air flow through said openings between an interior of the frame and an external environment, and wherein said vent exhibits an insertion loss greater than -5 dB for electromagnetic energy with a frequency in a range of 1 GHz to 110 GHz, and characterised in that a concentration of said thermoplastic polymer is in a range of 50 percent to 99.8 percent by volume.
A gripping portion structure of a gravure plate-making robot to be used in a fully automatic gravure plate-making processing system for manufacturing a gravure plate-making roll by gripping and transferring an unprocessed plate-making roll being a hollow cylinder roll to each processing device, the gripping portion structure (10A and 10B) of the gravure plate-making robot comprising: a pair of gripping plates (16a, 16b and 17a, 17b) to be mounted on an arm distal end 14 through intermediation of the frame portion of the gravure plate-making robot, the pair of gripping plates being freely spaced widely or narrowly from each other, and being configured to grip both end portions of the unprocessed plate-making roll ; a gripping surface forming member (20a, 20b and 36a, 36b) provided on each of the pair of gripping plates, the gripping surface forming member having a gripping surface (18a, 18b and 34a, 34b) that is curved so as to be recessed toward a center of the end portion of the unprocessed plate-making roll to be gripped and having a non-slip function; and the frame portion which is expandable and contractable by a drive portion . a pair of gripping plates (16a, 16b and 17a, 17b) to be mounted on an arm distal end 14 through intermediation of the frame portion of the gravure plate-making robot, the pair of gripping plates being freely spaced widely or narrowly from each other, and being configured to grip both end portions of the unprocessed plate-making roll ; a gripping surface forming member (20a, 20b and 36a, 36b) provided on each of the pair of gripping plates, the gripping surface forming member having a gripping surface (18a, 18b and 34a, 34b) that is curved so as to be recessed toward a center of the end portion of the unprocessed plate-making roll to be gripped and having a non-slip function; and the frame portion which is expandable and contractable by a drive portion .
A device for separating a fluid sample within a collection container, comprising: a separator having a through-hole defined therethrough along a through-axis (T), the separator comprising: a float , having a first density; and a ballast , having a second density greater than the first density, wherein a portion of the float is connected to a portion of the ballast , characterized in that the separator has a center of mass (R) and a center of volume (R1) and the center of mass (R) is offset from the through-axis (T), the float is adapted for deformation upon applied rotational force to the separator , the through-hole comprises a first opening and a second opening , and is adapted to allow fluid to pass through the separator , the separator is adapted to transition from a first initial position in which the through-hole is oriented in an open position for allowing fluid to pass therethrough, to a second sealing position for preventing fluid from being received therethrough, upon applied rotational force which causes deformation of the float, and transition of the through-hole from the open position to the closed position coincides with rotation of the mechanical separator from the first initial position to the second sealing position. a separator having a through-hole defined therethrough along a through-axis (T), the separator comprising: a float , having a first density; and a ballast , having a second density greater than the first density, wherein a portion of the float is connected to a portion of the ballast , a float , having a first density; and a ballast , having a second density greater than the first density, wherein a portion of the float is connected to a portion of the ballast , characterized in that the separator has a center of mass (R) and a center of volume (R1) and the center of mass (R) is offset from the through-axis (T), the float is adapted for deformation upon applied rotational force to the separator , the through-hole comprises a first opening and a second opening , and is adapted to allow fluid to pass through the separator , the separator is adapted to transition from a first initial position in which the through-hole is oriented in an open position for allowing fluid to pass therethrough, to a second sealing position for preventing fluid from being received therethrough, upon applied rotational force which causes deformation of the float, and transition of the through-hole from the open position to the closed position coincides with rotation of the mechanical separator from the first initial position to the second sealing position.