mhurhangee/ep-ind-claims huggingface dataset:
A method of dynamically controlling a wind turbine having a rotor supporting a plurality of blades and a main bearing supporting the rotor, the method comprising: detecting a load profile around the circumference of the main bearing, wherein detecting the load profile comprises detecting strain at a plurality of locations around the circumference of the main bearing, and estimating a continuous load profile around the circumference of the main bearing; generating a control signal based on the detected load profile; and dynamically adjusting the load profile of the main bearing using the control signal. detecting a load profile around the circumference of the main bearing, wherein detecting the load profile comprises detecting strain at a plurality of locations around the circumference of the main bearing, and estimating a continuous load profile around the circumference of the main bearing; generating a control signal based on the detected load profile; and dynamically adjusting the load profile of the main bearing using the control signal.
A display device comprising: a receptacle comprising a sidewall section and a support section, the support section extending from an inner side of the sidewall section, the sidewall section and the support section comprising metal; a liquid crystal panel and a backlight assembly, at least one of which is received in the receptacle, the backlight assembly comprises: - an optical reflection member provided on a rear surface of the receptacle to cover a through hole formed by the support section; - a light source provided at one side of the receptacle; - an optical member provided in the receptacle, the optical member comprising: a light guide plate provided in a space formed by the support section and the optical reflection member; and an optical sheet covering an upper surface of the support section, wherein a part of the optical sheet forms a bending section which is bent such that the bending section is provided along the inner side of the sidewall section. a receptacle comprising a sidewall section and a support section, the support section extending from an inner side of the sidewall section, the sidewall section and the support section comprising metal; a liquid crystal panel and a backlight assembly, at least one of which is received in the receptacle, the backlight assembly comprises: - an optical reflection member provided on a rear surface of the receptacle to cover a through hole formed by the support section; - a light source provided at one side of the receptacle; - an optical member provided in the receptacle, the optical member comprising: a light guide plate provided in a space formed by the support section and the optical reflection member; and an optical sheet covering an upper surface of the support section, wherein a part of the optical sheet forms a bending section which is bent such that the bending section is provided along the inner side of the sidewall section. - an optical reflection member provided on a rear surface of the receptacle to cover a through hole formed by the support section; - a light source provided at one side of the receptacle; - an optical member provided in the receptacle, the optical member comprising: a light guide plate provided in a space formed by the support section and the optical reflection member; and an optical sheet covering an upper surface of the support section, wherein a part of the optical sheet forms a bending section which is bent such that the bending section is provided along the inner side of the sidewall section. a light guide plate provided in a space formed by the support section and the optical reflection member; and an optical sheet covering an upper surface of the support section, wherein a part of the optical sheet forms a bending section which is bent such that the bending section is provided along the inner side of the sidewall section.
A radiation sensitive detector array, comprising: a plurality of detector modules extending along a z-axis direction and aligned along an x-axis direction with respect to the imaging system, at least one of the detector modules, including a module backbone; and at least one detector tile coupled to the module backbone through a non-threaded fastener, the at least one detector tile including a two-dimensional detector and a two-dimensional anti-scatter grid that is focused at a focal spot of an imaging system, a scintillator layer coupled to the two-dimensional anti-scatter grid; a photosensor layer coupled to the scintillator layer; and a substrate layer with electronics coupled to the photosensor layer characterized in that the two-dimensional detector at least includes a base layer coupled to the substrate layer, the base layer including: first and second sub-members (138 1, 138 2), wherein the second of the sub-members (138 2) is coupled to the module backbone through a threaded fastener and the first of the sub-members (138 1) is part of the tile, and the first and second sub-members (138 1, 138 2) are coupled through the non-threaded fastener. a plurality of detector modules extending along a z-axis direction and aligned along an x-axis direction with respect to the imaging system, at least one of the detector modules, including a module backbone; and at least one detector tile coupled to the module backbone through a non-threaded fastener, the at least one detector tile including a two-dimensional detector and a two-dimensional anti-scatter grid that is focused at a focal spot of an imaging system, a scintillator layer coupled to the two-dimensional anti-scatter grid; a photosensor layer coupled to the scintillator layer; and a substrate layer with electronics coupled to the photosensor layer characterized in that the two-dimensional detector at least includes a base layer coupled to the substrate layer, the base layer including: first and second sub-members (138 1, 138 2), wherein the second of the sub-members (138 2) is coupled to the module backbone through a threaded fastener and the first of the sub-members (138 1) is part of the tile, and the first and second sub-members (138 1, 138 2) are coupled through the non-threaded fastener.
Tilter with two structural elements (2, 3) which are movable with respect to each other, with a connection means connecting the movable structural elements (2, 3) to each other, with at least one arresting element for reversibly fixating the position of the movable structural elements (2, 3) with respect to each other, and with at least one friction means (42, 43, 44) arranged between the movable structural elements (2, 3) wherein, in a fixed position of the arresting element, the friction means (42, 43, 44) is in a frictional contact with a radial circumferential surface of at least one of the movable structural elements (2, 3) and wherein the friction means (42, 43, 44) comprises a plurality of friction discs; characterised in that, in a fixed position of the arresting element, the friction discs are in a frictional contact with each other.
A method for manufacturing a semiconductor sheet assembly, wherein a semiconductor sheet is rectangular, characterized by comprising steps of: S1: positioning the semiconductor sheet, and determining a first region to be grooved and a defect position in the first region, wherein the first region is a region within a predetermined range along a splitting line of the semiconductor sheet, the splitting line is one of lines splitting the semiconductor sheet in equal parts; S2: cutting and grooving the semiconductor sheet along the defect position in the first region and an edge point, the edge point is an intersection point of the splitting line and an edge of the semiconductor sheet, and a connecting line of the defect position and the intersection point is perpendicular to the edge of the semiconductor sheet; and S3: splitting the semiconductor sheet that is cut and grooved; wherein the step S2 includes: performing discontinuous laser dotting and grooving on the semiconductor sheet along the defect position in the first region. S1: positioning the semiconductor sheet, and determining a first region to be grooved and a defect position in the first region, wherein the first region is a region within a predetermined range along a splitting line of the semiconductor sheet, the splitting line is one of lines splitting the semiconductor sheet in equal parts; S2: cutting and grooving the semiconductor sheet along the defect position in the first region and an edge point, the edge point is an intersection point of the splitting line and an edge of the semiconductor sheet, and a connecting line of the defect position and the intersection point is perpendicular to the edge of the semiconductor sheet; and S3: splitting the semiconductor sheet that is cut and grooved;
A paging control apparatus comprising paging means adapted to: receive information indicating a Software Version Number, SVN, from a wireless terminal; determine a first mobility level of the wireless terminal based on the SVN, the first mobility level indicating that the wireless terminal is in low mobility; and apply, to page the wireless terminal, a first paging algorithm for the first mobility level, the first paging algorithm including paging the wireless terminal first in a last known tracking area of registered tracking areas for the wireless terminal and then in a plurality of the registered tracking areas. receive information indicating a Software Version Number, SVN, from a wireless terminal; determine a first mobility level of the wireless terminal based on the SVN, the first mobility level indicating that the wireless terminal is in low mobility; and apply, to page the wireless terminal, a first paging algorithm for the first mobility level, the first paging algorithm including paging the wireless terminal first in a last known tracking area of registered tracking areas for the wireless terminal and then in a plurality of the registered tracking areas.
A semiconductor light-emitting diode, comprising: a substrate having protrusions formed on the surface thereof; and semiconductor layers made of material different from that of said substrate and provided over the surface of said substrate, wherein a side face of said protrusions includes at least two surfaces having different inclination angles where the side face of said protrusions protrudes toward the outside of said protrusions; wherein the top face of said protrusions is substantially flat; and wherein the side face of said protrusions has at least a first sloped surface and a second sloped surface, from the bottom of the substrate, characterised in that: surface roughness Ra 1 of said first sloped surface is larger than surface roughness Ra 2 of said second sloped surface. a substrate having protrusions formed on the surface thereof; and semiconductor layers made of material different from that of said substrate and provided over the surface of said substrate, wherein a side face of said protrusions includes at least two surfaces having different inclination angles where the side face of said protrusions protrudes toward the outside of said protrusions; wherein the top face of said protrusions is substantially flat; and wherein the side face of said protrusions has at least a first sloped surface and a second sloped surface, from the bottom of the substrate, surface roughness Ra 1 of said first sloped surface is larger than surface roughness Ra 2 of said second sloped surface.
A process for determining the viability of a biological indicator, the process comprising: exposing the biological indicator to a viability detection medium comprising hydrogen peroxide, the biological indicator comprising test microorganisms on a carrier, the exposing the biological indicator to the viability detection medium comprising hydrogen peroxide producing a gaseous reaction product comprising oxygen when one or more of the test microorganisms are viable; and detecting with a sensing device the presence or absence of the gaseous reaction product produced by the biological indicator combined with the viability detection medium, the sensing device comprising an electro-mechanical sensor, wherein the presence of the gaseous reaction product indicates the presence of viable test microorganisms and the absence of the gaseous reaction product indicates the absence of viable test microorganisms. exposing the biological indicator to a viability detection medium comprising hydrogen peroxide, the biological indicator comprising test microorganisms on a carrier, the exposing the biological indicator to the viability detection medium comprising hydrogen peroxide producing a gaseous reaction product comprising oxygen when one or more of the test microorganisms are viable; and detecting with a sensing device the presence or absence of the gaseous reaction product produced by the biological indicator combined with the viability detection medium, the sensing device comprising an electro-mechanical sensor, wherein the presence of the gaseous reaction product indicates the presence of viable test microorganisms and the absence of the gaseous reaction product indicates the absence of viable test microorganisms.
Bearing shield for mounting an optical measuring device, in particular a rotary encoder and/or a rotary angle encoder, comprising a flange with an opening for receiving an axis of rotation and bearing it in an axial direction on a central axis, in particular essentially perpendicular to the base surface of the bearing shield, wherein the flange surrounds the axis of rotation and has at least two pocket-shaped recesses (5, 6, 7, 8, 9) which extend in depth in the axial direction and over an angular range around the central axis of less than 180°, wherein at least two of the pocket-shaped recesses (5, 6, 7, 8, 9) adjoin each other and a rib (10, 11, 12, 13) is formed in the adjoining region which extends in the radial direction and at least two of the pocket-shaped recesses (5, 6, 7, 8, 9) are separated from each other by the rib (10, 11, 12, 13), characterized in that the rib (10, 11, 12, 13) is provided with a slot (14, 15, 16, 17) so that the two adjacent pocket-shaped recesses (5, 6, 7, 8, 9) are connected to one another in order to compensate for thermal expansion effects and to achieve a positionally stable and/or angularly positionally stable mounting of the optical measuring device.
Thin glass film composite web with a thin glass film web having a first and a second surface and two edges (15, 16) running in a longitudinal direction and a protective film web of a first material extending along at least a portion of the first surface, having at least one reinforcing strip (30, 31) running along at least one of the two edges (15, 16) of a second material that is different from the first material, wherein the protective film web and the reinforcing strips are connected to one another such that they can be applied together to the thin glass web, and characterized in that the at least one reinforcing strip (30, 31) has a higher relative tensile strength than the thin glass film web.
A touch-sensitive input device, comprising: receive circuitry; a capacitive touch sensor (104, 200) having a plurality of portions; and a controller configured to: responsive to not detecting a finger or a pen, operate the touch sensor (104, 200) in a locating mode by successively driving, for a touch frame of the locating mode, each portion of the touch sensor (104, 200) with a fixed DC voltage and multiplexing the portion of the touch sensor (104, 200) to the receive circuitry in a predefined sequence; and responsive to detecting the pen in the locating mode, operate the touch sensor (104, 200) in a tracking mode by driving, for a touch frame of the tracking mode, a selected portion of the touch sensor (104, 200) with the fixed DC voltage and multiplexing the selected portion to the receive circuitry to track the pen, the selected portion selected based on a detected location of the pen relative to the touch sensor and being varied as the detected location changes in the touch frame of the tracking mode. receive circuitry; a capacitive touch sensor (104, 200) having a plurality of portions; and a controller configured to: responsive to not detecting a finger or a pen, operate the touch sensor (104, 200) in a locating mode by successively driving, for a touch frame of the locating mode, each portion of the touch sensor (104, 200) with a fixed DC voltage and multiplexing the portion of the touch sensor (104, 200) to the receive circuitry in a predefined sequence; and responsive to detecting the pen in the locating mode, operate the touch sensor (104, 200) in a tracking mode by driving, for a touch frame of the tracking mode, a selected portion of the touch sensor (104, 200) with the fixed DC voltage and multiplexing the selected portion to the receive circuitry to track the pen, the selected portion selected based on a detected location of the pen relative to the touch sensor and being varied as the detected location changes in the touch frame of the tracking mode. responsive to not detecting a finger or a pen, operate the touch sensor (104, 200) in a locating mode by successively driving, for a touch frame of the locating mode, each portion of the touch sensor (104, 200) with a fixed DC voltage and multiplexing the portion of the touch sensor (104, 200) to the receive circuitry in a predefined sequence; and responsive to detecting the pen in the locating mode, operate the touch sensor (104, 200) in a tracking mode by driving, for a touch frame of the tracking mode, a selected portion of the touch sensor (104, 200) with the fixed DC voltage and multiplexing the selected portion to the receive circuitry to track the pen, the selected portion selected based on a detected location of the pen relative to the touch sensor and being varied as the detected location changes in the touch frame of the tracking mode.
An apparatus for generating nitric oxide comprising: a reaction chamber enclosing two electrodes separated by a gap; a gas inlet port for introducing a gas flow containing oxygen and nitrogen into said reaction chamber; an electronic control circuit to generate an electrical discharge across the two electrodes through the gas flow, the electrical control circuit configured to control the frequency of the intermittent periodic electrical discharges and the pulse duration of each intermittent electrical discharge of the electrical discharge to produce a concentration of nitric oxide in the gas flow, wherein said electronic control circuit is configured to control the frequency of the electric pulse discharges to within a range of 0.1 and 100 Hz, and the duration of each electric discharge within a range of 20 microseconds and 500 milliseconds; and a gas outlet port for delivering the gas flow and nitric oxide. a reaction chamber enclosing two electrodes separated by a gap; a gas inlet port for introducing a gas flow containing oxygen and nitrogen into said reaction chamber; an electronic control circuit to generate an electrical discharge across the two electrodes through the gas flow, the electrical control circuit configured to control the frequency of the intermittent periodic electrical discharges and the pulse duration of each intermittent electrical discharge of the electrical discharge to produce a concentration of nitric oxide in the gas flow, wherein said electronic control circuit is configured to control the frequency of the electric pulse discharges to within a range of 0.1 and 100 Hz, and the duration of each electric discharge within a range of 20 microseconds and 500 milliseconds; and a gas outlet port for delivering the gas flow and nitric oxide.
A fuel injector for side mounting in an engine so that an injector axis is inclined with respect to a cylinder axis, which defines a vertical direction, and with respect to a horizontal plane, - the fuel injector comprising a nozzle housing with a plurality of spray holes (21.1-25.1), each spray hole (21.1-25.1) extending along a spray-hole axis (S 1 -S 5) from an inlet (21.2-25.2) inside the nozzle housing to an outlet (21.3-25.3) and opening into a counterbore (21.4-25.4), the spray hole (21.1-25.1) being connected to the counterbore (21.4-25.4) through the outlet (21.3-25.3), - the spray holes (21.1-25.1) comprising at least one upper spray hole (21.1, 22.1, 25.1) and at least one lower spray hole (23.1, 24.1), the spray-hole axis of every upper spray hole (21.1, 22.1, 25.1) being less inclined against the horizontal plane than the spray-hole axis of every lower spray hole (23.1, 24.1), and - at least one upper spray hole (21.1, 22.1, 25.1) having a tangential configuration, with an elliptical cross-section at the inlet (21.2, 22.2, 25.2) with an aspect ratio of at least 1.1 and a circular cross-section at the outlet (21.3, 22.3, 25.3) with a roundness deviation of less than 5%, a small half-axis ( b 1, b 2) of the elliptical cross-section being inclined by less than 20° with respect to a radial plane (D 1, D 2), which radial plane (D 1, D 2) includes the injector axis and a center (C 1, C 2) of the cross-section. - the fuel injector comprising a nozzle housing with a plurality of spray holes (21.1-25.1), each spray hole (21.1-25.1) extending along a spray-hole axis (S 1 -S 5) from an inlet (21.2-25.2) inside the nozzle housing to an outlet (21.3-25.3) and opening into a counterbore (21.4-25.4), the spray hole (21.1-25.1) being connected to the counterbore (21.4-25.4) through the outlet (21.3-25.3), - the spray holes (21.1-25.1) comprising at least one upper spray hole (21.1, 22.1, 25.1) and at least one lower spray hole (23.1, 24.1), the spray-hole axis of every upper spray hole (21.1, 22.1, 25.1) being less inclined against the horizontal plane than the spray-hole axis of every lower spray hole (23.1, 24.1), and - at least one upper spray hole (21.1, 22.1, 25.1) having a tangential configuration, with an elliptical cross-section at the inlet (21.2, 22.2, 25.2) with an aspect ratio of at least 1.1 and a circular cross-section at the outlet (21.3, 22.3, 25.3) with a roundness deviation of less than 5%, a small half-axis ( b 1, b 2) of the elliptical cross-section being inclined by less than 20° with respect to a radial plane (D 1, D 2), which radial plane (D 1, D 2) includes the injector axis and a center (C 1, C 2) of the cross-section.
A membrane contactor comprises: a cap has an internally facing joining surface which is an internally beveled surface and a cap port; a cup body has an externally facing joining surface (13") which is an externally beveled surface in sealing engagement with the internally facing joining surface, a side port on a side of the cup body, and an end port located on an end of the cup body, the end port comprising an inwardly extending nipple with a mating external surface that is beveled; and a membrane cartridge is located within the cup body, is sealed to an open end of the cup body, and is in sealed fluid communication with the end port; wherein the membrane cartridge includes a perforated center tube, a first end of the center tube having a mating internal surface that is beveled, the mating internal surface being adapted to sealingly join with the mating external surface of the end port, and a second end of the center tube is plugged, and a bundle of hollow fibers surrounding and potted to the center tube, the hollow fibers are closed adjacent the first end of the center tube and open adjacent the second end of the center tube, and wherein the first end of the center tube is held in sealing engagement with the end port by the cartridge being sealed to the cup body. a cap has an internally facing joining surface which is an internally beveled surface and a cap port; a cup body has an externally facing joining surface (13") which is an externally beveled surface in sealing engagement with the internally facing joining surface, a side port on a side of the cup body, and an end port located on an end of the cup body, the end port comprising an inwardly extending nipple with a mating external surface that is beveled; and a membrane cartridge is located within the cup body, is sealed to an open end of the cup body, and is in sealed fluid communication with the end port;