mhurhangee/ep-ind-claims huggingface dataset:
A method for displaying a 3d video, comprising: receiving a 3d video signal, the 3d video signal comprising a frame of a left-eye signal and a frame of a right-eye signal that are consecutive; increasing the frame rate of the received 3d video signal; inserting a black frame to the 3d video signal of increased frame rate to generate n consecutive frames of the left-eye signal comprising the black frame and n consecutive frames of the right-eye signal comprising the black frame, with n being the number of the consecutive frames having the same content and n being greater than 2, wherein among the n consecutive frames of the left-eye signal, the first frame of the left-eye signal is a black frame, and the n th frame of the left-eye signal is a non-black frame; and, among the n consecutive frames of the right-eye signal, the first frame of the right-eye signal is a black frame, and the n th frame of the right-eye signal is a non-black frame; and driving, by light-emitting diode, LED, driving signals, a LED backlight of a panel to display the n consecutive frames of the left-eye signal and the n consecutive frames of the right-eye signal wherein, among the n consecutive frames of the left-eye signal, the second to the ( n -1)th frames of the left-eye signal correspond to black frames or non-black frames; and, among the n consecutive frames of the right-eye signal, the second to the ( n -1)th frames of the right-eye signal correspond to black frames or non-black frames. receiving a 3d video signal, the 3d video signal comprising a frame of a left-eye signal and a frame of a right-eye signal that are consecutive; increasing the frame rate of the received 3d video signal; inserting a black frame to the 3d video signal of increased frame rate to generate n consecutive frames of the left-eye signal comprising the black frame and n consecutive frames of the right-eye signal comprising the black frame, with n being the number of the consecutive frames having the same content and n being greater than 2, wherein among the n consecutive frames of the left-eye signal, the first frame of the left-eye signal is a black frame, and the n th frame of the left-eye signal is a non-black frame; and, among the n consecutive frames of the right-eye signal, the first frame of the right-eye signal is a black frame, and the n th frame of the right-eye signal is a non-black frame; and driving, by light-emitting diode, LED, driving signals, a LED backlight of a panel to display the n consecutive frames of the left-eye signal and the n consecutive frames of the right-eye signal
Method for the preservation of the wine bottled after opening the bottle, which being provided for its application in those cases in which the opening of a bottle is carried out and the wine contained in the same is not consumed in its entirety, in order to maintain the organoleptic properties of that residual wine, is characterized in that it consists of removing the oxygen present in the bottle, carrying out that oxygen removal by burning an innocuous combustible product that uses the air existing inside the bottle in its combustion, having planned that after the removal of the oxygen the sealing of the bottle is carried out.
A method of screening a candidate antigen-binding molecule for affinity to an antigen, comprising: a. contacting the candidate antigen-binding molecule with a substrate, the substrate comprising (i) an antigen immobilized on the substrate, and (ii) a normalization binding molecule immobilized on the substrate; b. detecting a binding of the candidate antigen-binding molecule to the antigen; c. detecting a binding of the candidate antigen-binding molecule to the normalization binding molecule to determine a concentration of the candidate antigen-binding molecule; and d. determining the affinity of the candidate antigen-binding molecule to the antigen from the binding of the candidate antigen molecule determined in (b) and the binding of the antigen-binding molecule to the normalization binding molecule determined in (c). a. contacting the candidate antigen-binding molecule with a substrate, the substrate comprising (i) an antigen immobilized on the substrate, and (ii) a normalization binding molecule immobilized on the substrate; b. detecting a binding of the candidate antigen-binding molecule to the antigen; c. detecting a binding of the candidate antigen-binding molecule to the normalization binding molecule to determine a concentration of the candidate antigen-binding molecule; and d. determining the affinity of the candidate antigen-binding molecule to the antigen from the binding of the candidate antigen molecule determined in (b) and the binding of the antigen-binding molecule to the normalization binding molecule determined in (c).
A floor element for a stall floor, which floor element is provided with two abutting sides (3, 5) across from each other against or along which at a small distance, when used in a stall floor, neighbouring floor elements are positioned, and which floor element is provided with a walking surface that has a slot grid for drainage of liquid, which slot grid comprises main slots which extend in essence crosswise to the abutting sides, as well as transverse slots which are shallower than the main slots and which extend from one of the main slots to a neighbouring main slot and are running at an angle to the main slots, the walking surface being subdivided into sub-faces which are bounded by neighbouring main slots and neighbouring transverse slots, characterized in that each sub-face is provided with grooves (11A, 11B) which are shallower than the transverse slots and of which a first groove runs parallel to the main slots and extends from one transverse slot to the next transverse slot, and a second groove runs parallel to the transverse slots and extends from one main slot to the next main slot, which grooves (11A, 11B) intersect each other.
A wearable device (102, 202, 402, 502) for determining a photoplethysmogram, comprising at least a first light source (104, 206, 404) arranged to provide light towards at least one entry point on a proband's body when the wearable device (102, 202, 402, 502) is used by the proband; and at least a first light detector (106, 208, 406) arranged to detect light received from the at least first light source (104, 206, 404) through the proband's body when the wearable device (102, 202, 402, 502) is used by the proband; and a control means arranged to calculate a photoplethysmogram based on the detected light; and at least a first and a second detector optical waveguide (110A, 110B) arranged to detect light in at least two different positions on the proband's body when the wearable device (102, 202, 402, 502) is used by the proband and feed it to the at least first light detector (106, 208, 406); characterized in that: the at least first light source (104, 206, 404) is a tuneable laser, wherein the wearable device (102, 202, 402, 502) further comprises an optical waveguide including a metasurface, wherein the optical waveguide including the metasurface is configured to direct different wavelengths of the tuneable laser to different entry points of the proband's body, and wherein the control means is arranged to control the wavelength of the tuneable laser directed by the optical waveguide including the metasurface to control the position of the at least one entry point. at least a first light source (104, 206, 404) arranged to provide light towards at least one entry point on a proband's body when the wearable device (102, 202, 402, 502) is used by the proband; and at least a first light detector (106, 208, 406) arranged to detect light received from the at least first light source (104, 206, 404) through the proband's body when the wearable device (102, 202, 402, 502) is used by the proband; and a control means arranged to calculate a photoplethysmogram based on the detected light; and at least a first and a second detector optical waveguide (110A, 110B) arranged to detect light in at least two different positions on the proband's body when the wearable device (102, 202, 402, 502) is used by the proband and feed it to the at least first light detector (106, 208, 406); characterized in that: the at least first light source (104, 206, 404) is a tuneable laser, wherein the wearable device (102, 202, 402, 502) further comprises an optical waveguide including a metasurface, wherein the optical waveguide including the metasurface is configured to direct different wavelengths of the tuneable laser to different entry points of the proband's body, and wherein the control means is arranged to control the wavelength of the tuneable laser directed by the optical waveguide including the metasurface to control the position of the at least one entry point.
A stage tool (200, 300, 400) for wellbore cementing, comprising: an external stage tool body (201, 301, 401); and a sliding sleeve (202, 302, 402) within the external stage tool body (201, 301, 401) configured to regulate flow through the stage tool (200, 300, 400); wherein the external stage tool body comprises a body cement port (203, 303, 403); characterized in that: the sliding sleeve comprises a sleeve cement port; and wherein the sliding sleeve (202, 302, 402) is configured to have a closed configuration wherein the body cement port (203, 303, 403) and the sleeve cement port (204, 304, 404) are not aligned, and an open configuration wherein the body cement port (203, 303, 403) and the sleeve cement port are aligned; the sliding sleeve (202, 302, 402) comprises a meltable alloy configured to seal a leak; and the meltable alloy is configured to be melted by a heating source, flow into the leak, and resolidify as the melted alloy cools, thereby sealing the leak; and the sliding sleeve (202, 302, 402) has an aluminum backing on an inner side configured to restrain the melted alloy from flowing into an inside of the tool and to guide the melted alloy through the sleeve cement port (204, 304, 404) and the body cement port (203, 303, 403) to a backstop on the external stage tool body. an external stage tool body (201, 301, 401); and a sliding sleeve (202, 302, 402) within the external stage tool body (201, 301, 401) configured to regulate flow through the stage tool (200, 300, 400); wherein the external stage tool body comprises a body cement port (203, 303, 403); the sliding sleeve comprises a sleeve cement port; and wherein the sliding sleeve (202, 302, 402) is configured to have a closed configuration wherein the body cement port (203, 303, 403) and the sleeve cement port (204, 304, 404) are not aligned, and an open configuration wherein the body cement port (203, 303, 403) and the sleeve cement port are aligned; the sliding sleeve (202, 302, 402) comprises a meltable alloy configured to seal a leak; and the meltable alloy is configured to be melted by a heating source, flow into the leak, and resolidify as the melted alloy cools, thereby sealing the leak; and the sliding sleeve (202, 302, 402) has an aluminum backing on an inner side configured to restrain the melted alloy from flowing into an inside of the tool and to guide the melted alloy through the sleeve cement port (204, 304, 404) and the body cement port (203, 303, 403) to a backstop on the external stage tool body.
A photon counting x-ray radiation detection system, the system comprising: - an x-ray radiation device for providing polychromatic x-ray radiation for traversing an examination zone during a detection period of a scan, wherein the examination zone is adapted to accommodate an object, - a photon counting detection device comprising detection elements for detecting the x-ray radiation after having traversed the examination zone, wherein the photon counting detection device is adapted to measure for each detection element photon counts in more than one energy bin during the detection period, said photon counting x-ray radiation detection system being characterized in: - a correction unit for estimating for each detection element an amount of a build up charge present in the detection element and for correcting the measured photon counts for the detection element in each energy bin based on the estimated amount of the build up charge, wherein the correction unit is adapted to perform the estimating and the correcting for the detection element based on a mathematical correction model having a plurality of model parameters, wherein the correction model models the amount of the build up charge in dependence of time and relates it to correction values for correcting the measured photon count in each energy bin. - an x-ray radiation device for providing polychromatic x-ray radiation for traversing an examination zone during a detection period of a scan, wherein the examination zone is adapted to accommodate an object, - a photon counting detection device comprising detection elements for detecting the x-ray radiation after having traversed the examination zone, wherein the photon counting detection device is adapted to measure for each detection element photon counts in more than one energy bin during the detection period, said photon counting x-ray radiation detection system being characterized in: - a correction unit for estimating for each detection element an amount of a build up charge present in the detection element and for correcting the measured photon counts for the detection element in each energy bin based on the estimated amount of the build up charge, - a correction unit for estimating for each detection element an amount of a build up charge present in the detection element and for correcting the measured photon counts for the detection element in each energy bin based on the estimated amount of the build up charge,
A method for a control system, the method comprising: performing a quadratic transformation on an objective function; determining a linear approximation of a pre-determined non-linear model of a process to be controlled; determining a convex approximation of a nonlinear constraint set of the control system; executing an optimization-based control algorithm using the objective function after the quadratic transformation has been performed, the linear approximation, and the convex approximation to determine a feasible control trajectory for a plurality of sample periods of a control trajectory; and controlling the process to be controlled by application of the determined feasible control trajectory within a predetermined time window. performing a quadratic transformation on an objective function; determining a linear approximation of a pre-determined non-linear model of a process to be controlled; determining a convex approximation of a nonlinear constraint set of the control system; executing an optimization-based control algorithm using the objective function after the quadratic transformation has been performed, the linear approximation, and the convex approximation to determine a feasible control trajectory for a plurality of sample periods of a control trajectory; and controlling the process to be controlled by application of the determined feasible control trajectory within a predetermined time window.
A blade-pitch-angle control device used for a wind power generator having a plurality of blades (1, 2, 3), the blade-pitch-angle control device comprising: load-measuring devices configured to measure a load applied to each of the blades at predetermined azimuth angles; a calculation device configured to calculate a periodic load fluctuation in each blade on the basis of the measured values measured by the load-measuring devices; an adjusting pitch-angle command-value generating device configured to generate an adjusting pitch-angle command value for each blade for reducing the periodic load fluctuation on the basis of the calculation results of the calculation device; and a pitch-angle-control command-value generating device configured to generate a pitch-angle-control command-value for each blade by causing the adjusting pitch-angle command value generated for each blade to be reflected in a common-pitch-angle command value for equally controlling the blades. load-measuring devices configured to measure a load applied to each of the blades at predetermined azimuth angles; a calculation device configured to calculate a periodic load fluctuation in each blade on the basis of the measured values measured by the load-measuring devices; an adjusting pitch-angle command-value generating device configured to generate an adjusting pitch-angle command value for each blade for reducing the periodic load fluctuation on the basis of the calculation results of the calculation device; and a pitch-angle-control command-value generating device configured to generate a pitch-angle-control command-value for each blade by causing the adjusting pitch-angle command value generated for each blade to be reflected in a common-pitch-angle command value for equally controlling the blades.
An electrostatic adsorbable sheet comprising: a support layer comprising a thermoplastic resin film having undergone charging treatment; and protective layers comprising a dielectric film, wherein the protective layers are laminated on both surfaces of the support layer by means of electrostatic adsorption. a support layer comprising a thermoplastic resin film having undergone charging treatment; and protective layers comprising a dielectric film, wherein the protective layers are laminated on both surfaces of the support layer by means of electrostatic adsorption.
A gas turbine engine component, comprising: a tubular body section including a plurality of fiber wraps encompassed within a matrix composition; and one or more integrally-formed stiffeners extending from an outer surface of the body section and in a component circumferential direction around the body section, the stiffener including one or more fiber wraps extending radially outwardly from the body section over a form and to the body section from the form; wherein the form is a filler element; and characterised in that: the filler element is hollow; the fiber wraps each include: a plurality of axial tows oriented to extend in the component circumferential direction; and a plurality of first bias tows and a plurality of second bias tows braided with the plurality of axial tows; and the plurality of axial tows are discontinuous at the stiffener along a circumferential length of the stiffener. a tubular body section including a plurality of fiber wraps encompassed within a matrix composition; and one or more integrally-formed stiffeners extending from an outer surface of the body section and in a component circumferential direction around the body section, the stiffener including one or more fiber wraps extending radially outwardly from the body section over a form and to the body section from the form; wherein the form is a filler element; and characterised in that: the filler element is hollow; the fiber wraps each include: wherein the form is a filler element; and characterised in that: the filler element is hollow; the fiber wraps each include: the filler element is hollow; the fiber wraps each include: a plurality of axial tows oriented to extend in the component circumferential direction; and a plurality of first bias tows and a plurality of second bias tows braided with the plurality of axial tows; and the plurality of axial tows are discontinuous at the stiffener along a circumferential length of the stiffener.
An ankle orthosis for limiting a range of motion in the ankle joint of a human foot and/or for mechanically stabilizing the ligamentous apparatus in the ankle joint, which orthosis comprises at least two partial sections (12, 18) connected to each other in an articulated manner, - wherein a lower partial section is assignable to a lateral side of the foot to be stabilised, and - wherein an upper partial section is assignable to a lateral side of the lower leg above the ankle joint of the foot, - wherein the upper partial section and the lower partial section are movably connected to each other by means of a joint with clearance, which joint is situated in the vicinity of the ankle joint, and - wherein, arranged proximally spaced apart from the joint, there is a guide element for angular limitation and/or path limitation of the mobility and pivotability of the upper and lower partial sections (18, 12) relative to each other, which guide element in each case restricts or limits the maximum pivot angles (α, β), both (i) in the case of dorsal extension and (ii) in the case of plantar flexion, to defined critical angles (α Dorsal, α Plantar), characterised in that the guide element is formed by a guide slot and a pin guided therein, in particular with slight clearance, which pin is shiftable and/or angularly adjustable. - wherein a lower partial section is assignable to a lateral side of the foot to be stabilised, and - wherein an upper partial section is assignable to a lateral side of the lower leg above the ankle joint of the foot, - wherein the upper partial section and the lower partial section are movably connected to each other by means of a joint with clearance, which joint is situated in the vicinity of the ankle joint, and - wherein, arranged proximally spaced apart from the joint, there is a guide element for angular limitation and/or path limitation of the mobility and pivotability of the upper and lower partial sections (18, 12) relative to each other, which guide element in each case restricts or limits the maximum pivot angles (α, β), both (i) in the case of dorsal extension and (ii) in the case of plantar flexion, to defined critical angles (α Dorsal, α Plantar), characterised in that the guide element is formed by a guide slot and a pin guided therein, in particular with slight clearance, which pin is shiftable and/or angularly adjustable. (i) in the case of dorsal extension and (ii) in the case of plantar flexion, to defined critical angles (α Dorsal, α Plantar), characterised in that the guide element is formed by a guide slot and a pin guided therein, in particular with slight clearance, which pin is shiftable and/or angularly adjustable.
A thermally conductive composition comprising a mixture containing an addition-reaction-type silicone being liquid, a thermally conductive filler, and an acryloyl-group-containing silane coupling agent, wherein the thermally conductive filler includes a metal hydroxide in an amount of 80% by volume or more of the thermally conductive filler, and the silane coupling agent is contained in a ratio of 0.1 to 0.8 parts by mass relative to 100 parts by mass of the addition-reaction-type silicone.