mhurhangee/ep-ind-claims huggingface dataset:
A system for detecting or sensing moisture or wetness of an article to which the system is attached, the system comprising: a controller or processor, a sensor, the sensor being configured to store an electrical charge, and wherein the electrical charge storing capacity of the sensor is based on the moisture or wetness of the article, characterized in that the controller is configured to: charge the sensor for a first period of time, and after the first period of time partially discharge the sensor for a second period of time, and subsequently measure an output of the sensor, optionally at a predetermined time, wherein the controller is configured to determine an output of the sensor indicative of the moisture or wetness of the article based on the measured output of the sensor. a controller or processor, a sensor, the sensor being configured to store an electrical charge, and wherein the electrical charge storing capacity of the sensor is based on the moisture or wetness of the article, characterized in that the controller is configured to: charge the sensor for a first period of time, and after the first period of time partially discharge the sensor for a second period of time, and subsequently measure an output of the sensor, optionally at a predetermined time, wherein the controller is configured to determine an output of the sensor indicative of the moisture or wetness of the article based on the measured output of the sensor.
A packaging material according to the present invention, characterized in comprising; - A bottom layer made of nonwoven material composing the inner surface which is in contact with the packed product, - A resistance layer made of polypropylene braided woven fabric providing resistance to the packaging material, - A sticking layer located between the resistance layer and bottom layer, - A protecting layer located on the resistance layer. - A bottom layer made of nonwoven material composing the inner surface which is in contact with the packed product, - A resistance layer made of polypropylene braided woven fabric providing resistance to the packaging material, - A sticking layer located between the resistance layer and bottom layer, - A protecting layer located on the resistance layer.
A method of steaming noodle strings using a noodle strings steaming device including a conveyer on which the bunch of noodle strings is placed after being cut out and that transports the bunch of noodle strings, and a tunnel type of body portion provided so that the bunch of noodle strings passes through the body portion with the transportation of the conveyer, the method comprising: a process of carrying the cut-out bunch of noodle strings from an entrance portion of the body portion while transporting the cut-out bunch of noodle strings on the conveyer, steaming for a predetermined period of time by supplying steam to the bunch of noodle strings, steaming the bunch of noodle strings without supplying the steam, and then transporting the bunch of noodle strings to an exit portion, and transporting the bunch of noodle strings on the conveyer to pass the bunch of noodle strings through a first portion provided on the entrance side of the body portion for supplying steam to the bunch of noodle strings to steam the bunch of noodle strings, and then to pass the bunch of noodle strings through a second portion provided on an exit side and continuous with the first portion for steaming the bunch of noodle strings without supplying the steam, wherein the ratio of the volume of the second portion to the volume of the first portion is 1/4 or more, and the volume of the second portion is 4 times or less that of the first portion. a process of carrying the cut-out bunch of noodle strings from an entrance portion of the body portion while transporting the cut-out bunch of noodle strings on the conveyer, steaming for a predetermined period of time by supplying steam to the bunch of noodle strings, steaming the bunch of noodle strings without supplying the steam, and then transporting the bunch of noodle strings to an exit portion, and transporting the bunch of noodle strings on the conveyer to pass the bunch of noodle strings through a first portion provided on the entrance side of the body portion for supplying steam to the bunch of noodle strings to steam the bunch of noodle strings, and then to pass the bunch of noodle strings through a second portion provided on an exit side and continuous with the first portion for steaming the bunch of noodle strings without supplying the steam, wherein the ratio of the volume of the second portion to the volume of the first portion is 1/4 or more, and the volume of the second portion is 4 times or less that of the first portion.
A vehicle lighting device comprising at least one light-emitting device and at least one optical element in an optical path of the light-emitting device for generating output illumination having at least one directional characteristic, wherein the vehicle lighting device further comprises a screen-like member formed as a plate or a film for changing at least one physical property of light passing through it and an optical device for generating an intermediate image on the screen-like member, both located in the optical path between the light-emitting device and the optical element, and wherein the optical element is an optical element for projecting said image, characterized in that, the plate or the film is made of phosphor, and the phosphor composition of the phosphor plate or phosphor film is made spacially variable as a function of the space coordinates across the phosphor plate of phosphor film.
A High-Dynamic-Range pixel comprising: - a photo-sensitive element for generating majority and minority carriers in response to incident radiation during an integration time; - a detector node connected to the photo-sensitive element; - a reset switch (M RST) connected to the detector node for resetting the detector node to a predetermined voltage; - a buffer amplifier (M SF) having an input connected to the detector node; - a selecting transistor (M SEL) configured to select said pixel during a read out process; - an intrinsic parasitic capacitance (C P) originated from at least one of the buffer amplifier (M SF), and the selecting transistor (M SEL), and configured to store minority carriers generated by the photo-sensitive element; and - a dual-mode capacitance (C HDR) comprising an input being connected to the detector node and being configured for storing the generated minority carriers while being in a storing mode and discharging the stored minority carriers into the parasitic capacitance, while being in a discharging mode; wherein the detector node is located between the photo-sensitive element and the dual-mode capacitance (C HDR) and characterized in that the HDR pixel further comprises a switch connected between the dual-mode capacitance (C HDR) and the detector node. - a photo-sensitive element for generating majority and minority carriers in response to incident radiation during an integration time; - a detector node connected to the photo-sensitive element; - a reset switch (M RST) connected to the detector node for resetting the detector node to a predetermined voltage; - a buffer amplifier (M SF) having an input connected to the detector node; - a selecting transistor (M SEL) configured to select said pixel during a read out process; - an intrinsic parasitic capacitance (C P) originated from at least one of the buffer amplifier (M SF), and the selecting transistor (M SEL), and configured to store minority carriers generated by the photo-sensitive element; and - a dual-mode capacitance (C HDR) comprising an input being connected to the detector node and being configured for storing the generated minority carriers while being in a storing mode and discharging the stored minority carriers into the parasitic capacitance, while being in a discharging mode; wherein the detector node is located between the photo-sensitive element and the dual-mode capacitance (C HDR) and characterized in that the HDR pixel further comprises a switch connected between the dual-mode capacitance (C HDR) and the detector node.
A method of generating a power schedule for a wind turbine, the power schedule indicating how the turbine maximum power level varies over time, the method comprising: receiving input indicative of a target minimum wind turbine lifetime; determining a value indicative of the current remaining fatigue lifetime of the wind turbine or one or more turbine components, based on measured wind turbine site and/or operating data; receiving an initial predefined power schedule which specifies how the turbine maximum power level varies over time; and calculating an adjusted power schedule by varying a parameter of the initial predefined power schedule by performing the following steps: i) adjusting the parameter of the initial predefined power schedule; ii) estimating the future fatigue lifetime consumed by the wind turbine or the one or more turbine components, over the duration of the adjusted power schedule, based upon the adjusted power schedule; and iii) repeating steps (i) and (ii) until the estimated future fatigue lifetime consumed by the wind turbine or each of the one or more turbine components, based on the adjusted power schedule, is sufficient to allow the target minimum wind turbine life to be reached, thereby to calculate a determined power schedule and, providing the determined power schedule to a wind turbine controller to control the power output of a wind turbine. receiving input indicative of a target minimum wind turbine lifetime; determining a value indicative of the current remaining fatigue lifetime of the wind turbine or one or more turbine components, based on measured wind turbine site and/or operating data; receiving an initial predefined power schedule which specifies how the turbine maximum power level varies over time; and i) adjusting the parameter of the initial predefined power schedule; ii) estimating the future fatigue lifetime consumed by the wind turbine or the one or more turbine components, over the duration of the adjusted power schedule, based upon the adjusted power schedule; and iii) repeating steps (i) and (ii) until the estimated future fatigue lifetime consumed by the wind turbine or each of the one or more turbine components, based on the adjusted power schedule, is sufficient to allow the target minimum wind turbine life to be reached, thereby to calculate a determined power schedule
Sealing arrangement for a gas turbine, comprising: a first component and a second component, with the first component having a first boundary section with a first overlap section and a first fixation section connected to the boundary section and held out therefrom, with the second component having a second boundary section with a second overlap section and a second fixation section connected to and held out from the boundary section, the first overlap section and the second overlap section being configured so that they overlap at least partially, such that the first boundary section and the second boundary section form a substantially continuous boundary surface, where a distance, which is at least partially sealed by at least one sealing element (40, 60), is provided between the first attachment section and the second attachment section, characterized in that the first component and the second component are made of a fiber reinforced composite material, and that the sealing element (40, 60) comprises at least one first sheet metal element arranged along the first fixation section, which at least partially bridges the distance from the first fixation section to the second fixation section.
A liquid composition comprising an essential oil from peel, limonin, and rutin, wherein a content of the essential oil from peel is in a range of 0.2-3.5% by volume based on the total amount of the composition; wherein a concentration of the limonin with respect to acidity is in the range of 10-300 mg/kg/Acid as defined in the description wherein a concentration of the rutin with respect to acidity is in the range of 10-50 mg/kg/Acid; wherein a rutin to limonin weight ratio (rutin/limonin) is 1 or less; wherein the acidity is 2.0% or less; wherein the essential oil from peel is obtained by using one or more citrus fruits having juice with an acidity of at least 2.0%; and wherein the liquid composition is obtained by a method comprising removing the super surface layer (within 1 mm from the outer surface) by slicing the peel thinly enough not to rupture oil sacs in the peel.
Method for changing a provided vehicle route (14, 16, 18) to a first destination for a vehicle, in which a module of the vehicle which is designed to change the provided vehicle route (14, 16, 18) is provided with information relating to a known position and a second destination (10, 18) of at least one special vehicle, the module in the vehicle determining at least one special vehicle route (12, 20) which runs between the known position and the second destination (10, 18) of the at least one special vehicle and is to be covered by the at least one special vehicle, and the provided vehicle route (14, 16, 18) to the first destination being changed taking into account the at least one special vehicle route (12, 20) calculated for the at least special vehicle.
A process for producing a waterproof membrane for waterproofing a building or a part of a building, wherein the waterproof membrane comprises at least one support carrier and at least one topcoat layer of a cross-linked two component polyurethane coating composition, the process comprising the steps of: (a) providing at least one support carrier, wherein the support carrier can be composed of a single layer or multiple layers; (b) applying a layer of a coating composition comprising at least one compound having hydroxyl-functional groups, and at least one polyisocyanate cross-linking agent with free isocyanate groups to form at least one topcoat layer of a two component polyurethane coating composition on said support carrier; (c) curing the layer of the coating composition at temperatures in the range of 50° to 160 °C to produce a cross-linked waterproof membrane; and (d) applying the cross-linked waterproof membrane to the building or part of the building. (a) providing at least one support carrier, wherein the support carrier can be composed of a single layer or multiple layers; (b) applying a layer of a coating composition comprising at least one compound having hydroxyl-functional groups, and at least one polyisocyanate cross-linking agent with free isocyanate groups to form at least one topcoat layer of a two component polyurethane coating composition on said support carrier; (c) curing the layer of the coating composition at temperatures in the range of 50° to 160 °C to produce a cross-linked waterproof membrane; and (d) applying the cross-linked waterproof membrane to the building or part of the building.
A pneumatic tire comprising a sound-damping body fixed to a tire inner cavity surface by a fixing layer, wherein a thickness of the fixing layer is not uniform and is made appropriate in a tire width direction, thereby improving resistance to peeling of the sound-damping body, wherein thicknesses (Ta, Tb) of end-adjacent portions (10a, 10b) in the tire width direction of the fixing layer and a thickness (Tc) of a center portion of the fixing layer satisfy the following formulas,, and, Ta < Tc Tb < Tc Ta / Tb = 0.25 to 4.00, characterized in that the thicknesses (Ta, Tb) of the end-adjacent portions (10a, 10b) of the fixing layer 10 are 0.10 to 1.50 mm and the thickness (Tc) of the center portion is 0.50 to 2.50 mm, wherein the end-adjacent portions (10a, 10b) and the center portion, when, in a width in the tire width direction of the fixing layer from one end to another end, a position, corresponding to k% of the width, from the one end is defined as Tk, the end-adjacent portions (10a, 10b) of the fixing layer are a portion from T0 to T25 and a portion from T75 to T100, respectively, and the center portion of the fixing layer is a portion from T25 to T75, and wherein the thicknesses (Ta, Tb) of the end-adjacent portions (10a, 10b) of the fixing layer are the averages of the thicknesses in ranges T0 to T25 and T75 to T100, respectively, and the thickness (Tc) of the center portion is the average of the thicknesses in the range T25 to T75. a thickness of the fixing layer is not uniform and is made appropriate in a tire width direction, thereby improving resistance to peeling of the sound-damping body, wherein thicknesses (Ta, Tb) of end-adjacent portions (10a, 10b) in the tire width direction of the fixing layer and a thickness (Tc) of a center portion of the fixing layer satisfy the following formulas,, and, Ta < Tc Tb < Tc Ta / Tb = 0.25 to 4.00, characterized in that the thicknesses (Ta, Tb) of the end-adjacent portions (10a, 10b) of the fixing layer 10 are 0.10 to 1.50 mm and the thickness (Tc) of the center portion is 0.50 to 2.50 mm, wherein the end-adjacent portions (10a, 10b) and the center portion, when, in a width in the tire width direction of the fixing layer from one end to another end, a position, corresponding to k% of the width, from the one end is defined as Tk, the end-adjacent portions (10a, 10b) of the fixing layer are a portion from T0 to T25 and a portion from T75 to T100, respectively, and the center portion of the fixing layer is a portion from T25 to T75, and wherein the thicknesses (Ta, Tb) of the end-adjacent portions (10a, 10b) of the fixing layer are the averages of the thicknesses in ranges T0 to T25 and T75 to T100, respectively, and the thickness (Tc) of the center portion is the average of the thicknesses in the range T25 to T75.
A turbomachine casing assembly, comprising: a first casing element configured to be located radially outward of one or more rotating aerofoil elements of a turbomachine; a second casing element located radially outward of the first casing element; and a void, provided between the first casing element and the second casing element, at a first end of the first casing element; wherein the first end of the first casing element is located against a corresponding first end of the second casing element by a plurality of resilient leaf elements, the leaf elements being biased towards a radially proximal face of the first casing element, and the first casing element comprises a cantilever, the cantilever being arranged in a region extending along the first casing element from the first end and having a pivot axis at a mid portion of the first casing element; whereby upon release of one of the rotating aerofoil elements, the cantilever is configured to bend into the void provided between the first and second casing elements (310,120), which causes the resilient leaf elements to deform and to thereby absorb at least some of the impact energy resulting from the released rotating aerofoil element, wherein the first casing element comprises an infill element disposed between the proximal face and the distal face thereof, and wherein the plurality of leaf elements are each bonded to a first end of the infill element. a first casing element configured to be located radially outward of one or more rotating aerofoil elements of a turbomachine; a second casing element located radially outward of the first casing element; and a void, provided between the first casing element and the second casing element, at a first end of the first casing element; wherein the first end of the first casing element is located against a corresponding first end of the second casing element by a plurality of resilient leaf elements, the leaf elements being biased towards a radially proximal face of the first casing element, and the first casing element comprises a cantilever, the cantilever being arranged in a region extending along the first casing element from the first end and having a pivot axis at a mid portion of the first casing element; whereby upon release of one of the rotating aerofoil elements, the cantilever is configured to bend into the void provided between the first and second casing elements (310,120), which causes the resilient leaf elements to deform and to thereby absorb at least some of the impact energy resulting from the released rotating aerofoil element, wherein the first casing element comprises an infill element disposed between the proximal face and the distal face thereof, and wherein the plurality of leaf elements are each bonded to a first end of the infill element.
A method for producing a disulfonylamine alkali metal salt, the method comprising: a step of subjecting a disulfonylamine onium salt represented by formula: wherein each of R 1 and R 2 independently represents a fluorine atom, each of R 3, R 4, R 5 and R 6 independently represents a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, or an alkoxyalkyl group having 1 to 6 carbon atoms, and two groups among R 3, R 4, R 5 and R 6 may be combined to form a 5- to 8-membered ring in which a nitrogen atom to which the groups are bonded functions as one of the ring atoms, to a cation exchange reaction in isopropyl acetate, thereby producing a disulfonylamine alkali metal salt represented by formula: wherein M + represents an alkali metal cation, and R 1 and R 2 are as defined in formula; a step of filtering isopropyl acetate solution containing the disulfonylamine alkali metal salt through a filter having a particle retention size of 0.1 to 10 μm to obtain a filtrate; a step of concentrating the filtrate at a temperature of 0°C or higher but less than 50°C; and after the concentration step, a step of precipitating the disulfonylamine alkali metal salt.
Straddle-type vehicle comprising: an engine, a fuel tank, and a canister being connected with the fuel tank and the engine, said engine is arranged under a seat of the vehicle, wherein said canister is facing the engine, and an outer surface of said canister is covered in a forward and/or upward direction of the straddle-type vehicle, the canister and the engine are overlapping in side view of the straddle-type vehicle, wherein said outer surface of the canister is covered in a forward direction of the vehicle by means of the fuel tank.
5-[2-tert-butyl-5-(4-fluoro-phenyl)-1H-imidazol-4-yl]-3-(2,2-dimethyl-propyl)-3H-imidazo[4,5-b]pyridin-2-ylamine, or a pharmaceutically acceptable salt thereof, for use in combination therapy with gemcitabine and a platinum agent selected from cisplatin and carboplatin in the treatment of ovarian cancer.