mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a wind turbine comprising steps of: - measuring an operating temperature in a plurality of components (3, 4, 5) of the wind turbine yielding a plurality of measured operating temperatures; - for each measured operating temperature, subtracting the measured operating temperature from a predefined maximum allowable operating temperature for the corresponding component (3, 4, 5) of the wind turbine thereby yielding a plurality of operating temperature margins; - determining a minimum operating temperature margin among the plurality of operating temperature margins; - comparing the minimum operating temperature margin to a predefined threshold operating temperature margin; and - setting at least one operating parameter of the wind turbine in accordance with a result of the comparison, wherein the at least one operating parameter of the wind turbine is modified by a modification value which is a function of a difference between the minimum operating temperature margin and the predefined threshold operating temperature margin. - measuring an operating temperature in a plurality of components (3, 4, 5) of the wind turbine yielding a plurality of measured operating temperatures; - for each measured operating temperature, subtracting the measured operating temperature from a predefined maximum allowable operating temperature for the corresponding component (3, 4, 5) of the wind turbine thereby yielding a plurality of operating temperature margins; - determining a minimum operating temperature margin among the plurality of operating temperature margins; - comparing the minimum operating temperature margin to a predefined threshold operating temperature margin; and - setting at least one operating parameter of the wind turbine in accordance with a result of the comparison, wherein the at least one operating parameter of the wind turbine is modified by a modification value which is a function of a difference between the minimum operating temperature margin and the predefined threshold operating temperature margin.
Lay-up method of composite aircraft parts comprising an opening, the opening comprising a perimeter, a major axis, a minor axis, a center and a first and a second semi-major axis departing from the center, the lay-up method comprising the steps of laying-up composite tows having an orientation of 0o, 90o or +/-45o forming plies which in turn form a composite laminate, the tows having an orientation of 0o being parallel to the mayor axis of the opening, the method being characterized in that at least each tow having an orientation of 0o and being within the perimeter of the opening comprises: - a first gap located at approximately 3/5 of the length of the first semi-major axis from the center, the first gap being configured as a first elongated gap longitudinally perpendicular to the orientation of the tow, and - a second gap located at approximately 3/5 of the length of the second semi-major axis from the center, the second gap being configured as a second elongated gap longitudinally perpendicular to the orientation of the tow. - a first gap located at approximately 3/5 of the length of the first semi-major axis from the center, the first gap being configured as a first elongated gap longitudinally perpendicular to the orientation of the tow, and - a second gap located at approximately 3/5 of the length of the second semi-major axis from the center, the second gap being configured as a second elongated gap longitudinally perpendicular to the orientation of the tow.
A reflective optical element for a wavelength range of roughly 5 nm to 20 nm with a reflective surface with an uppermost layer, wherein the uppermost layer comprising one or more organic silicon compounds with a carbon-silicon and/or silicon-oxygen bond to form a coherent layer on the surface of the reflective optical element.
Binocular loupes, in particular surgical loupes, with an optical arrangement, a holder connected to a frame of spectacles in the position of use of the loupes, wherein the optical arrangement has two similar optical systems (10, 10') arranged on the holder with an eye spacing transversely to their optical axis, wherein each of the optical systems (10, 10') is formed in the manner of a Galilean telescope and as an achromatic lens and has an objective and an eyepiece, wherein, in the case of each of the optical systems (10, 10'), - the objective is formed by an individual positive lens with a meniscus form (objective lens) and - the eyepiece has a negative compound member (eyepiece compound member) with at least two lenses (L2, L3), wherein the eyepiece compound member has a meniscus form, wherein the eyepiece compound member consists of two lenses (L2, L3) cemented together, characterised in that the front lens of the eyepiece compound member in the direction of light is formed in a biconvex manner and the rear lens in the direction of light is formed in a biconcave manner, in that the objective lens consists of an optical material with a refractive index n(e) = 1489 and an Abbe number v(e) = 70.2, in that the front lens of the eyepiece compound member in the direction of light consists of an optical material with a refractive index n(e) = 1585 and an Abbe number v(e) = 50.6 and in that the rear lens of the eyepiece compound member in the direction of light consists of an optical material with a refractive index n(e) = 1910 and an Abbe number v(e) = 31.1. - the objective is formed by an individual positive lens with a meniscus form (objective lens) and - the eyepiece has a negative compound member (eyepiece compound member) with at least two lenses (L2, L3), wherein the eyepiece compound member has a meniscus form, wherein the eyepiece compound member consists of two lenses (L2, L3) cemented together, characterised in that the front lens of the eyepiece compound member in the direction of light is formed in a biconvex manner and the rear lens in the direction of light is formed in a biconcave manner, in that the objective lens consists of an optical material with a refractive index n(e) = 1489 and an Abbe number v(e) = 70.2, in that the front lens of the eyepiece compound member in the direction of light consists of an optical material with a refractive index n(e) = 1585 and an Abbe number v(e) = 50.6 and in that the rear lens of the eyepiece compound member in the direction of light consists of an optical material with a refractive index n(e) = 1910 and an Abbe number v(e) = 31.1.
A cartridge, configured to facilitate processing and detecting of a nucleic acid, comprising: • a top layer comprising a sample port, a reagent port, a fluid port, and a detection chamber; • an intermediate substrate, coupled to the top layer and defining a waste chamber, wherein the waste chamber has a corrugated surface defining a region configured to receive an element external to the cartridge; • an elastomeric layer disposed at least partially between the intermediate substrate and the top layer; and • a fluidic pathway, formed by at least a portion of the top layer and a portion of the elastomeric layer, wherein the fluidic pathway is fluidically coupled to the sample port, the reagent port, the fluid port, and the detection chamber, and is configured to be occluded at a set of occlusion positions (141 - 149) upon manipulation of the elastomeric layer; • wherein a first truncated pathway is defined upon manipulation of the fluidic pathway at a first subset of the set of occlusion positions; and • wherein a second truncated pathway to the detection chamber is defined upon manipulation of the fluidic pathway at a second subset of the set of occlusion positions. • a top layer comprising a sample port, a reagent port, a fluid port, and a detection chamber; • an intermediate substrate, coupled to the top layer and defining a waste chamber, wherein the waste chamber has a corrugated surface defining a region configured to receive an element external to the cartridge; • an elastomeric layer disposed at least partially between the intermediate substrate and the top layer; and • a fluidic pathway, formed by at least a portion of the top layer and a portion of the elastomeric layer, wherein the fluidic pathway is fluidically coupled to the sample port, the reagent port, the fluid port, and the detection chamber, and is configured to be occluded at a set of occlusion positions (141 - 149) upon manipulation of the elastomeric layer; • wherein a first truncated pathway is defined upon manipulation of the fluidic pathway at a first subset of the set of occlusion positions; and • wherein a second truncated pathway to the detection chamber is defined upon manipulation of the fluidic pathway at a second subset of the set of occlusion positions.
A lipid nanoparticle formulation of an mRNA encoding an OX40L polypeptide for use in a method of reducing or decreasing a size of a tumor, inhibiting a tumor growth, or in a method of treating cancer, wherein the mRNA comprises one or more microRNA (miRNA) binding site(s) in a 3'UTR, wherein the microRNA binding site is a miR-122 binding site.
An automatically positionable joint (300, 700) for a workpiece transfer system, comprising: a first joint member (310, 312, 710, 712); a second joint member (320, 322, 720, 722) that is rotatably connected to the first joint member (310, 312, 710, 712); a motor for causing rotation of the first joint member (310, 312, 710, 712) with respect to the second joint member (310, 312, 710, 712); a first clutch (360, 760) that is movable between an engaged position in which the first clutch (360, 760) restrains rotation of the first joint member (310, 312, 710, 712) with respect to the second joint member (320, 322, 720, 722) and a disengaged position in which the first clutch (360, 760) permits rotation of the first joint member (310, 312, 710, 712) with respect to the second joint member (320, 322, 720, 722), characterised in that the first clutch (360, 760) is actuatable to cause movement of the first clutch (360, 760) between the engaged position and the disengaged position; and an absolute encoder (380, 780) to sense the position of the first joint member (310, 312, 710, 712) relative to the second joint member (320, 322, 720, 722). a first joint member (310, 312, 710, 712); a second joint member (320, 322, 720, 722) that is rotatably connected to the first joint member (310, 312, 710, 712); a motor for causing rotation of the first joint member (310, 312, 710, 712) with respect to the second joint member (310, 312, 710, 712); a first clutch (360, 760) that is movable between an engaged position in which the first clutch (360, 760) restrains rotation of the first joint member (310, 312, 710, 712) with respect to the second joint member (320, 322, 720, 722) and a disengaged position in which the first clutch (360, 760) permits rotation of the first joint member (310, 312, 710, 712) with respect to the second joint member (320, 322, 720, 722), characterised in that the first clutch (360, 760) is actuatable to cause movement of the first clutch (360, 760) between the engaged position and the disengaged position; and an absolute encoder (380, 780) to sense the position of the first joint member (310, 312, 710, 712) relative to the second joint member (320, 322, 720, 722).
A soft robot comprising: a flexible body having a plurality of embedded fluid channels wherein at least two of the plurality of embedded fluid channels are arranged concentrically around a central axis of the flexible body; and a pressurizing inlet coupled to the at least two of the plurality of embedded fluid channels, wherein the pressurizing inlet is configured to receive pressurized fluid to inflate a portion of the at least two of the plurality of embedded fluid channels, thereby causing a radial deflection of the flexible body. a flexible body having a plurality of embedded fluid channels wherein at least two of the plurality of embedded fluid channels are arranged concentrically around a central axis of the flexible body; and a pressurizing inlet coupled to the at least two of the plurality of embedded fluid channels, wherein the pressurizing inlet is configured to receive pressurized fluid to inflate a portion of the at least two of the plurality of embedded fluid channels, thereby causing a radial deflection of the flexible body.
Mass spectrometer for detecting leakages via a tracer gas, said spectrometer comprising: - ionisation means intended for ionising said tracer gas; - at least one magnetic field source generating a magnetic field B dependent on the electric current I supplying said source intended for sorting ionised elements; - means for detecting said ionised tracer gas; said spectrometer comprising means for setting the magnetic field B generated by said source, said setting means being configured to allow at least two distinct settings, said settings having different sensitivities, characterised in that said setting means comprises at least two setting controls (401 and 403), a combinatorial circuit configured to combine the values of said at least two controls (401 and 403), and a servo circuit for the current I flowing in said magnetic field source. - ionisation means intended for ionising said tracer gas; - at least one magnetic field source generating a magnetic field B dependent on the electric current I supplying said source intended for sorting ionised elements; - means for detecting said ionised tracer gas;
A method of controlling a combination boiler, the combination boiler having a primary heat exchanger connected to a boiler loop, a burner configured to provide heat to the primary heat exchanger, and a secondary heat exchanger configured to transfer heat energy from the boiler loop to a domestic water loop, the method comprising the step of: (a) storing heated water at the primary heat exchanger, the method characterized by the steps of: (b) obtaining a pre-heat initialization temperature threshold and a minimum outlet temperature threshold; (c) monitoring a primary heat exchanger, referred to hereinafter as PHE, inlet temperature and a domestic hot water, referred to hereinafter as DHW, output temperature; (d) detecting at least one of the PHE inlet temperature and the DHW output temperature falling below the pre-heat initialization temperature threshold; (e) initiating a pre-heat operation of the combination boiler by circulating the heated water from the primary heat exchanger to the secondary heat exchanger; (f) monitoring an outlet temperature of the primary heat exchanger; and (g) firing the burner when the outlet temperature falls below the minimum outlet temperature threshold. (a) storing heated water at the primary heat exchanger, the method characterized by the steps of: (b) obtaining a pre-heat initialization temperature threshold and a minimum outlet temperature threshold; (c) monitoring a primary heat exchanger, referred to hereinafter as PHE, inlet temperature and a domestic hot water, referred to hereinafter as DHW, output temperature; (d) detecting at least one of the PHE inlet temperature and the DHW output temperature falling below the pre-heat initialization temperature threshold; (e) initiating a pre-heat operation of the combination boiler by circulating the heated water from the primary heat exchanger to the secondary heat exchanger; (f) monitoring an outlet temperature of the primary heat exchanger; and (g) firing the burner when the outlet temperature falls below the minimum outlet temperature threshold.
A method comprising: receiving, by a router, a protocol independent multicast, PIM, join message indicating at least one requested multicast flow; determining, by the router, whether a number of installed multicast flows in a multicast state table stored at the router has reached a multicast flow limit associated with the router; based on the multicast flow limit being reached, comparing, by the router, a priority value for the requested multicast flow to a priority value for one of the installed multicast flows in the multicast state table; and based on the priority value for the requested multicast flow being higher than the priority value for the one of the installed multicast flows, deleting the one of the installed multicast flows from the multicast state table, and installing the requested multicast flow in the multicast state table. receiving, by a router, a protocol independent multicast, PIM, join message indicating at least one requested multicast flow; determining, by the router, whether a number of installed multicast flows in a multicast state table stored at the router has reached a multicast flow limit associated with the router; based on the multicast flow limit being reached, comparing, by the router, a priority value for the requested multicast flow to a priority value for one of the installed multicast flows in the multicast state table; and based on the priority value for the requested multicast flow being higher than the priority value for the one of the installed multicast flows, deleting the one of the installed multicast flows from the multicast state table, and installing the requested multicast flow in the multicast state table.
A biologically active cannabidiol analog, wherein the active cannabidiol analog is CBD-Di-Alaninate-Di-Hemisuccinate, CBD-Di-Valinate-Di-Hemisuccinate, CBD-Mono-Valinate-Mono-Hemisuccinate or CBD-Monovalinate-Di-Hemisuccinate, wherein the CBD-Mono-Valinate-Mono-Hemisuccinate has the formula:
A method of dicing a wafer of light emitting devices, the wafer comprising: a glass layer; a light emitting device layer comprising a plurality of light emitting devices separated by dielectric; and a wavelength converting layer disposed between the glass layer and the light emitting device layer; the method comprising: a first process of sawing the wafer in a region of dielectric with a first metal-bonded diamond grit blade, wherein sawing comprises sawing through an entire thickness of the wafer, and said first sawing process penetrates the light emitting device layer, the method further comprising a second process of sawing that penetrates the glass layer, wherein different blades are used for the first and second sawing processes. the wafer comprising: a glass layer; a light emitting device layer comprising a plurality of light emitting devices separated by dielectric; and a wavelength converting layer disposed between the glass layer and the light emitting device layer; a glass layer; a light emitting device layer comprising a plurality of light emitting devices separated by dielectric; and a wavelength converting layer disposed between the glass layer and the light emitting device layer; the method comprising: a first process of sawing the wafer in a region of dielectric with a first metal-bonded diamond grit blade, wherein sawing comprises sawing through an entire thickness of the wafer, and said first sawing process penetrates the light emitting device layer, the method further comprising a second process of sawing that penetrates the glass layer, wherein different blades are used for the first and second sawing processes. a first process of sawing the wafer in a region of dielectric with a first metal-bonded diamond grit blade, wherein sawing comprises sawing through an entire thickness of the wafer, and said first sawing process penetrates the light emitting device layer, the method further comprising a second process of sawing that penetrates the glass layer, wherein different blades are used for the first and second sawing processes.
A driving method of a liquid injection apparatus comprising a base plate on which a pressure chamber communicating with a nozzle which ejects liquid is formed, a piezoelectric body arranged corresponding to the pressure chamber and contracting in a direction orthogonal to a thickness direction by applying a voltage, and a volume variable plate arranged between the pressure chamber and the piezoelectric body and changing a volume of the pressure chamber by applying a voltage to the piezoelectric body, the method comprising: 1) applying a first voltage to the piezoelectric body in a rest period before the liquid is ejected from the nozzle; 2) applying a second voltage higher than the first voltage to the piezoelectric body to reduce the volume of the pressure chamber by contracting the piezoelectric body in a standby period before the liquid is ejected from the nozzle, wherein the rest period is arranged before the standby period; 3) applying the second voltage to the piezoelectric body after applying a third voltage lower than the second voltage to the piezoelectric body, in a printing period, to eject the liquid from the nozzle; and switching the first step, the second step and the third step according to ejection data indicating whether to eject the liquid. 1) applying a first voltage to the piezoelectric body in a rest period before the liquid is ejected from the nozzle; 2) applying a second voltage higher than the first voltage to the piezoelectric body to reduce the volume of the pressure chamber by contracting the piezoelectric body in a standby period before the liquid is ejected from the nozzle, wherein the rest period is arranged before the standby period; 3) applying the second voltage to the piezoelectric body after applying a third voltage lower than the second voltage to the piezoelectric body, in a printing period, to eject the liquid from the nozzle; and switching the first step, the second step and the third step according to ejection data indicating whether to eject the liquid.
A method for splicing a reserve nose wire to a running nose wire in a facemask production line, comprising: prior to depletion of the running nose wire, bringing the reserve nose wire up to a transport speed in a conveying direction of the running nose wire; at or near a zero relative speed between the running nose wire and the reserve nose wire, introducing a leading end of the reserve nose wire onto the running nose wire and forming a splice between the reserve nose wire and the running nose wire; cutting the running nose wire upstream of the splice location such that the reserve nose wire becomes a new running nose wire in the production line; wherein the reserve nose wire is supplied from a reserve roll of nose wire, the leading end of the reserve nose wire staged at a location for subsequent feeding onto the running nose wire at or near the zero relative speed, wherein one or more feed rollers (136, 138) draw the leading end of the reserve nose wire from the reserve roll and onto the running nose wire, and wherein the reserve roll is driven prior to the feed rollers (136, 138) to create an initial reserve supply for the feed rollers (136, 138) as the reserve roll comes up to an operating rotational speed. prior to depletion of the running nose wire, bringing the reserve nose wire up to a transport speed in a conveying direction of the running nose wire; at or near a zero relative speed between the running nose wire and the reserve nose wire, introducing a leading end of the reserve nose wire onto the running nose wire and forming a splice between the reserve nose wire and the running nose wire; cutting the running nose wire upstream of the splice location such that the reserve nose wire becomes a new running nose wire in the production line; wherein the reserve nose wire is supplied from a reserve roll of nose wire, the leading end of the reserve nose wire staged at a location for subsequent feeding onto the running nose wire at or near the zero relative speed, wherein one or more feed rollers (136, 138) draw the leading end of the reserve nose wire from the reserve roll and onto the running nose wire, and wherein the reserve roll is driven prior to the feed rollers (136, 138) to create an initial reserve supply for the feed rollers (136, 138) as the reserve roll comes up to an operating rotational speed.