mhurhangee/ep-ind-claims huggingface dataset:
Process for the manufacture of a lignocellulosic fibre-based composite material comprising the steps of: • obtaining a fibrous mix comprising a defibrated lignocellulosic material and defibrated plant seeds; • blending the fibrous mix with a resin to form a composite mixture; and • curing the composite mixture, thereby forming the lignocellulosic fibre-based composite material. • obtaining a fibrous mix comprising a defibrated lignocellulosic material and defibrated plant seeds; • blending the fibrous mix with a resin to form a composite mixture; and • curing the composite mixture, thereby forming the lignocellulosic fibre-based composite material.
A device for mounting a suspension member on the casing of a turbine engine comprising a yoke with at least one lug, to be secured to the casing, a pin fixed to said yoke to support said member via a ring surrounding the pin, said device comprising a rotation-prevention means comprising a counter-rotation plate attached to the lug, characterized in that said plate and the pin comprise an assembly consisting of a peg and of a cutout or a hole, into which said peg fits in order to prevent the pin from rotating in the yoke.
A raising device for scissor lifts, comprising: - at least two scissor arms (60, 70) crossing each other; - a linear actuator for lifting said scissor arms (60,70); - a double lever joint pivotably supported on a scissor arm, - wherein said double lever joint couples the lifting movement of said linear actuator to at least one scissor arm, and wherein a first lever element and a second lever element of said double lever joint are pivotably supported about an axle and an extendable portion of said linear actuator is directly connected to said axle, and said scissor arm is pivotably connected to said first lever element at a first location and is pivotably connected to said second lever element at a second location, characterized in that said pivot axle is supported in an elongated hole of said first lever element, wherein extending said linear actuator into a first extension position displaces said pivot axle along said elongated hole. - at least two scissor arms (60, 70) crossing each other; - a linear actuator for lifting said scissor arms (60,70); - a double lever joint pivotably supported on a scissor arm, - wherein said double lever joint couples the lifting movement of said linear actuator to at least one scissor arm, and wherein
Use as an additive improving the resistance to cold and filterability without degrading the filter blocking tendency of the middle distillates of motor fuels, of at least one copolymer comprising - from 78 to 87% in moles of at least one alpha-olefin, preferably at least ethylene, - from 12 to 18% in moles of at least one vinyl ester, preferably at least vinyl acetate, - from 1 to 4% in moles of at least one alpha-beta unsaturated mono carboxylic acid ester, preferably at least ethyl-2,hexyl acrylate. - from 78 to 87% in moles of at least one alpha-olefin, preferably at least ethylene, - from 12 to 18% in moles of at least one vinyl ester, preferably at least vinyl acetate, - from 1 to 4% in moles of at least one alpha-beta unsaturated mono carboxylic acid ester, preferably at least ethyl-2,hexyl acrylate.
A thermoplastic resin composition comprising 100 parts by weight of a thermoplastic resin containing at least one element selected from nitrogen, sulfur and chlorine, and 0.5 to 20 parts by weight of an acrylic-modified polyorganosiloxane obtained from emulsion/graft polymerization of a mixture comprising (i) a polyorganosiloxane, (ii) a (meth)acrylate monomer, and (iii) an unsaturated bond-bearing monomer having a carboxyl, amide, hydroxyl or vinyl group, the polyorganosiloxane (i) being obtainable by copolymerizing a cyclic organosiloxane with a silane coupling agent and the polyorganosiloxane (i) having the general formula: wherein R is each independently a substituted or unsubstituted C 1 -C 20 alkyl or C 6 -C 20 aryl group, X is each independently a substituted or unsubstituted C 1 -C 20 alkyl, C 6 -C 20 aryl, C 1 -C 20 alkoxy or hydroxyl group, Y is each independently a group: X or -[O-Si 2] c -X, at least two of X and Y are hydroxyl, a is a number of 0 to 1,000, b is a positive number of 100 to 10,000, and c is a positive number of 1 to 1,000, and the silane coupling agent having the general formula: R 3 (4-d-e) R 5 e Si(OR 4) d wherein R 3 is a monovalent organic group having an acryloxy or methacryloxy- substituted C 1 -C 6 alkyl group, R 4 is C 1 -C 4 alkyl, R 5 is C 1 -C 4 alkyl, d is an integer of 1 to 3, e is an integer of 0 to 2, e+d = 1 to 3. 100 parts by weight of a thermoplastic resin containing at least one element selected from nitrogen, sulfur and chlorine, and 0.5 to 20 parts by weight of an acrylic-modified polyorganosiloxane obtained from emulsion/graft polymerization of a mixture comprising (i) a polyorganosiloxane, (ii) a (meth)acrylate monomer, and (iii) an unsaturated bond-bearing monomer having a carboxyl, amide, hydroxyl or vinyl group, the polyorganosiloxane (i) being obtainable by copolymerizing a cyclic organosiloxane with a silane coupling agent and the polyorganosiloxane (i) having the general formula:
A mailpiece feed device comprising a mailpiece-receiving deck for receiving a stack of mailpieces for printing, selector means (20A, 20B, 20C) for extracting the mailpieces for printing one-by-one from said stack, and superposed conveyor rollers (22A, 22B; 24A, 24B) including movable upper rollers (22B, 24B) for conveying downstream the mailpieces extracted one-by-one in this way, characterized in that said mailpiece feed device further comprises movable optical read means comprising a linear sensor that are placed downstream from said selector means and that move synchronously with said movable upper conveyor rollers, and processor means configured for, in cooperation with said movable optical read means, scanning and recognizing automatically the data printed on said mailpieces, said linear sensor being supported by at least one suspension arm (40A, 40B) that is caused to move synchronously with said movable upper rollers by means of a transverse support pin that is secured to said movable upper rollers, and against which said at least one suspension arm comes to rest, said linear sensor being mounted between an upstream deflector and a downstream deflector and is fastened to said deflectors via two side cheek plates (38A, 38B), said at least one suspension arm being hinged at a first end to a pivot pin (42A, 42B) secured to said upstream deflector and at a second end to a common transverse hinge pin secured to the frame of said feed device, and in that said mailpiece feed device further comprises two bridges (48A, 48B), each of which passes over said linear sensor and comes to be fastened via tabs to said upstream and downstream deflectors, the top face of each of said bridges being designed to receive a spring bearing against said frame, in such a manner as to guarantee that said linear sensor remains constantly in contact with the top surfaces of the mailpieces.
A method for controlling brake forces of a working machine, the working machine comprising a frame and two front wheels and two rear wheels mounted to the frame, the working machine further comprising a front wheel brake arranged to brake at least one of the front wheels, and a rear wheel brake arranged to brake at least one of the rear wheels, the front wheel brake being controllable independently of the rear wheel brake, and vice versa, the working machine further comprising an implement connected to the frame so as to be movable in relation to the frame, characterized by - determining a position of the implement in relation to the frame, - determining a friction coefficient between the rear wheels and an element supporting the working machine, - determining a normal force acting on the rear wheels, - determining a maximum rear wheel brake force based at least partly on the determined friction coefficient and normal force, - determining a demanded rear wheel brake force, - distributing, during braking of the working machine, the brake forces between the front and rear wheel brakes (501, 502) at least partly based on the determined implement position and the determined maximum rear wheel brake force, and - increasing the brake force on the front wheel brakes when the demanded rear wheel brake force is higher than the maximum rear wheel brake force. - determining a position of the implement in relation to the frame, - determining a friction coefficient between the rear wheels and an element supporting the working machine, - determining a normal force acting on the rear wheels, - determining a maximum rear wheel brake force based at least partly on the determined friction coefficient and normal force, - determining a demanded rear wheel brake force, - distributing, during braking of the working machine, the brake forces between the front and rear wheel brakes (501, 502) at least partly based on the determined implement position and the determined maximum rear wheel brake force, and - increasing the brake force on the front wheel brakes when the demanded rear wheel brake force is higher than the maximum rear wheel brake force.
A semiconductor device fabrication process comprising: forming a first oxide layer on top of a first metal layer; forming a photoresist layer on top of the first oxide layer; removing the photoresist layer at a plurality of approximately equally spaced locations; etching trenches into the first oxide layer unprotected by the photoresist layer, using a plasma etching process wherein the trenches occur at the plurality of approximately equally spaced locations; rounding top and bottom corners of the trenches using the plasma etching process, wherein the rounding comprises adjusting parameters used for the plasma etching process on the oxide layer within the trenches; stripping the photoresist layer; depositing a combination of layers comprising a bottom metal layer, a dielectric layer and a top metal layer in the trenches to form a metal-insulator-metal capacitor with an oscillating pattern; etching the top metal layer and the dielectric layer, in a first location where there is no said combination of layers in the trenches; forming a second oxide layer; etching the second oxide layer in a second location different from the first location where there is no said combination of layers in the trenches; placing a first via at the second location creating contact with the top metal layer; placing a second via at the first location creating contact with the bottom metal layer; and placing a first metal of a second metal layer over the first via and a second metal of the second metal layer over the second via creating nodes for the MIM capacitor. forming a first oxide layer on top of a first metal layer; forming a photoresist layer on top of the first oxide layer; removing the photoresist layer at a plurality of approximately equally spaced locations; etching trenches into the first oxide layer unprotected by the photoresist layer, using a plasma etching process wherein the trenches occur at the plurality of approximately equally spaced locations; rounding top and bottom corners of the trenches using the plasma etching process, wherein the rounding comprises adjusting parameters used for the plasma etching process on the oxide layer within the trenches; stripping the photoresist layer; depositing a combination of layers comprising a bottom metal layer, a dielectric layer and a top metal layer in the trenches to form a metal-insulator-metal capacitor with an oscillating pattern; etching the top metal layer and the dielectric layer, in a first location where there is no said combination of layers in the trenches; forming a second oxide layer; etching the second oxide layer in a second location different from the first location where there is no said combination of layers in the trenches; placing a first via at the second location creating contact with the top metal layer; placing a second via at the first location creating contact with the bottom metal layer; and placing a first metal of a second metal layer over the first via and a second metal of the second metal layer over the second via creating nodes for the MIM capacitor.
A guide vane for a turbomachine, in particular for a compressor or a turbine of an aircraft engine, the guide vane being axially pivotally coupled to a radially outwardly disposed flow-limiting wall and being coupled to a radially inwardly disposed inner ring of the turbomachine, and a trailing edge gap being formed between an upper trailing edge of the guide vane and the flow-limiting wall and/or between a lower trailing edge of the guide vane and the inner ring, the upper trailing edge and/or the lower trailing edge of the guide vane having at least one air outlet opening for air to exit in order to form an air curtain for sealing the trailing edge gap, at least in part, in the area of the upper trailing edge and/or the trailing edge gap in the area of the lower trailing edge, characterized in that the air outlet opening communicates air-conductively, via at least one channel with at least one air inlet opening on a blade surface of an airfoil of the guide vane.
A method for displaying video data, applicable to a client for remote display in multimedia redirection, comprising: receiving playing-window filling data sent from a server, the playing-window filling data carrying player information, playing window information and a data channel identifier, wherein the player information comprises player interface dimensions and player coordinates; displaying, by the client, a player interface corresponding to the player information; determining, based on the player interface, a playing window corresponding to the playing window information; displaying video data corresponding to the data channel identifier in the playing window; sending, to the server, operation information regarding an operation a user performs on the player interface that changes the player interface dimensions, player coordinates and player window information; receiving playing-window filling data regenerated by the server based on changed player interface dimensions, player coordinates and player window information; and displaying video data according to the regenerated playing-window filling data. receiving playing-window filling data sent from a server, the playing-window filling data carrying player information, playing window information and a data channel identifier, wherein the player information comprises player interface dimensions and player coordinates; displaying, by the client, a player interface corresponding to the player information; determining, based on the player interface, a playing window corresponding to the playing window information; displaying video data corresponding to the data channel identifier in the playing window; sending, to the server, operation information regarding an operation a user performs on the player interface that changes the player interface dimensions, player coordinates and player window information; receiving playing-window filling data regenerated by the server based on changed player interface dimensions, player coordinates and player window information; and displaying video data according to the regenerated playing-window filling data.
A method for producing a superconducting wire material lengthened by joining end portions of superconducting wire materials each having an oxide superconducting film (14; 24), the end portions serving as joining surfaces, the method comprising: a step of disposing a micro-crystal of an oxide superconducting material on each of the joining surfaces of the oxide superconducting films; a pasting step of overlapping and pasting together the joining surfaces on which the micro-crystal is disposed; and a heat-joining step of heating the overlapped joining surfaces to grow the micro-crystal, thereby forming, as a joining layer, a superconducting layer of the oxide superconducting material to join the joining surfaces to each other. a step of disposing a micro-crystal of an oxide superconducting material on each of the joining surfaces of the oxide superconducting films; a pasting step of overlapping and pasting together the joining surfaces on which the micro-crystal is disposed; and a heat-joining step of heating the overlapped joining surfaces to grow the micro-crystal, thereby forming, as a joining layer, a superconducting layer of the oxide superconducting material to join the joining surfaces to each other.
A timepiece containing a case, a pusher mounted in a case middle of the case and a locking device adapted to lock the pusher, this pusher being arranged in such a way as to be capable of undergoing a translation in an axis of actuation of the pusher by a user, the locking device containing a blocking means and a control means arranged to control the displacement of the blocking means between a locking position and an unlocking position, in which positions the pusher is respectively blocked and free in translation, the control means extending in a general plane parallel to said actuation axis and being arranged movably in this general plane between a first position and a second position which correspond respectively to the locking and unlocking positions for the blocking means driven by the control means; characterized in that said blocking means is arranged movably in a translational manner along the actuation axis and with the ability to be displaced by the control means along this actuation axis between said locking position, where it forms an axial abutment for the pusher, and said unlocking position set back from the locking position, the control means containing for this purpose means for driving the blocking means in the actuation axis.
A method for a command center configured to teleoperate a vehicle, the method comprising receiving input data from the vehicle; estimating a current uplink delay based on the input data from the vehicle; determining an estimated downlink and uplink delay based on the input data and the estimated current uplink delay; determining control information for teleoperating the vehicle which allows to at least partly compensate the estimated downlink and uplink delay; and transmitting the control information to the vehicle, wherein the determining of the control information comprises determining the control information for a future time point to at least partly compensate the estimated downlink and uplink delay and wherein the control information comprises at least one time stamp of a predefined time clock as time reference for the control information receiving input data from the vehicle; estimating a current uplink delay based on the input data from the vehicle; determining an estimated downlink and uplink delay based on the input data and the estimated current uplink delay; determining control information for teleoperating the vehicle which allows to at least partly compensate the estimated downlink and uplink delay; and transmitting the control information to the vehicle, wherein the determining of the control information comprises determining the control information for a future time point to at least partly compensate the estimated downlink and uplink delay and wherein the control information comprises at least one time stamp of a predefined time clock as time reference for the control information
A method of measuring blood oxygen saturation, the method comprising: irradiating a radiation light containing a plurality of rays of light with wavelengths onto a predetermined part of a human body by a light source and measuring an intensity of each of the plurality of rays of light with wavelengths contained in the radiation light by a spectroscope when the radiation light is reflected by or transmits through the predetermined part of the human body; calculating a measured ratio of a pulsatile component absorbance at each of the wavelengths except for a reference wavelength to a pulsatile component absorbance at the reference wavelength based on an intensity I d and an intensity I s of the each of the plurality of rays of light, the intensity I s defined as an intensity obtained when an optical path length is maximized in systole, the intensity I d defined as an intensity obtained when the optical path length is minimized in diastole; calculating a theoretical ratio of the pulsatile component absorbance at the each of the wavelengths except for the reference wavelength to the pulsatile component absorbance at the reference wavelength based on giving an arbitrary initial value to a parameter required to calculate the blood oxygen saturation; determining a numeric value of the parameter with an optimization algorithm such that the theoretical ratio and the measured ratio are matched; and thereafter calculating the blood oxygen saturation based on the intensity I d and the intensity I s. irradiating a radiation light containing a plurality of rays of light with wavelengths onto a predetermined part of a human body by a light source and measuring an intensity of each of the plurality of rays of light with wavelengths contained in the radiation light by a spectroscope when the radiation light is reflected by or transmits through the predetermined part of the human body; calculating a measured ratio of a pulsatile component absorbance at each of the wavelengths except for a reference wavelength to a pulsatile component absorbance at the reference wavelength based on an intensity I d and an intensity I s of the each of the plurality of rays of light, the intensity I s defined as an intensity obtained when an optical path length is maximized in systole, the intensity I d defined as an intensity obtained when the optical path length is minimized in diastole; calculating a theoretical ratio of the pulsatile component absorbance at the each of the wavelengths except for the reference wavelength to the pulsatile component absorbance at the reference wavelength based on giving an arbitrary initial value to a parameter required to calculate the blood oxygen saturation; determining a numeric value of the parameter with an optimization algorithm such that the theoretical ratio and the measured ratio are matched; and thereafter calculating the blood oxygen saturation based on the intensity I d and the intensity I s.
A curable resin, preferably formaldehyde-free, in the form of an aqueous dispersion, comprising components a), b) and c), wherein: a) is water-insoluble native starch, b) is non-polymeric polycarboxylic compound of molecular weight ≤ 400 g/mol, and c) is a polyol with a molecular weight < 1000 g/mol, preferably < 500 g/mol, and optionally further comprising an addition polymer from unsaturated carboxylic monomers in a concentration, if present, ≤ 1 wt.-% related to the sum of the weights of the components a), b) and c). a) is water-insoluble native starch, b) is non-polymeric polycarboxylic compound of molecular weight ≤ 400 g/mol, and c) is a polyol with a molecular weight < 1000 g/mol, preferably < 500 g/mol, and