mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a biomass-derived thermosetting polymer material, said method comprising: feeding a biomass feed material to an infeed of a twin screw extruder; operating mixing elements and reversing elements within the twin screw extruder, wherein the twin screw extruder having a length between the infeed and an outlet; injecting water with a temperature of 230 °C or above from a water heater into at least one inlet along the length of the twin screw extruder, wherein the at least one inlet generally corresponds with a pressure boundary within the twin screw extruder; and adjusting a pressure-sustaining valve connected between the length of the twin screw extruder and the outlet to produce the biomass-derived thermosetting polymer material; and wherein the pressure in the twin screw extruder exceeds 172 bar (2500 psi). feeding a biomass feed material to an infeed of a twin screw extruder; operating mixing elements and reversing elements within the twin screw extruder, wherein the twin screw extruder having a length between the infeed and an outlet; injecting water with a temperature of 230 °C or above from a water heater into at least one inlet along the length of the twin screw extruder, wherein the at least one inlet generally corresponds with a pressure boundary within the twin screw extruder; and adjusting a pressure-sustaining valve connected between the length of the twin screw extruder and the outlet to produce the biomass-derived thermosetting polymer material; and wherein the pressure in the twin screw extruder exceeds 172 bar (2500 psi).
A window, door, or façade element comprising a frame made of frame spars and comprising a sash made of sash spars, wherein one or more of the frame spars and/or the sash spars has/have at least the following features: - a main profile (300, 400), on which two fastening grooves (20b, 21b) open in the same direction are formed for fixing a corresponding fastening means of a fitting assembly bridging the intermediate space between the fastening grooves (20b, 21b), - wherein the two fastening grooves (20b, 21b) have at least one catch means for at least one corresponding counter catch means, which is attachable in a latching manner without tools, of the fitting assembly, - and wherein the fitting assembly has a functional fitting on a fitting plate (73, 55) and at least one carrier element for carrying the fitting plate, wherein the carrier element is designed for the direct or indirect locking in the fastening grooves (20b, 21b) with the counter catch means, characterized in that - the fitting assembly has a frame-like fitting screen (67, 71), - two of the carrier elements are formed on the fitting plate (73, 55), and - the respective carrier element is formed as a profile section of a metal profile. - a main profile (300, 400), on which two fastening grooves (20b, 21b) open in the same direction are formed for fixing a corresponding fastening means of a fitting assembly bridging the intermediate space between the fastening grooves (20b, 21b), - wherein the two fastening grooves (20b, 21b) have at least one catch means for at least one corresponding counter catch means, which is attachable in a latching manner without tools, of the fitting assembly, - and wherein the fitting assembly has a functional fitting on a fitting plate (73, 55) and at least one carrier element for carrying the fitting plate, wherein the carrier element is designed for the direct or indirect locking in the fastening grooves (20b, 21b) with the counter catch means, - the fitting assembly has a frame-like fitting screen (67, 71), - two of the carrier elements are formed on the fitting plate (73, 55), and - the respective carrier element is formed as a profile section of a metal profile.
A cutter tool (1A, 1B, 1C), comprising: a shank releasably retainable within an aperture in a tool holder; a head fixed to the shank, the head having a tip at one end to contact the material to be engaged during use, and the head being larger than the shank where the head is fixed to the shank to define an interface between the shank and the head such that the head abuts a seating surface of the tool holder and limits the penetration of the cutter tool (1A, 1B, 1C) into the aperture of the tool holder; and a zone of weakness defining a frangible portion at a location other than the interface between the shank and the head, characterized in that the force required to break the frangible portion when the force is an impact load applied to the tip of the cutter tool (1A, 1B, 1C) is at least about ten percent less than the force required to break the interface between the shank and the head when the force is an impact load applied to the tip of the cutter tool (1A, 1B, 1C). a shank releasably retainable within an aperture in a tool holder; a head fixed to the shank, the head having a tip at one end to contact the material to be engaged during use, and the head being larger than the shank where the head is fixed to the shank to define an interface between the shank and the head such that the head abuts a seating surface of the tool holder and limits the penetration of the cutter tool (1A, 1B, 1C) into the aperture of the tool holder; and a zone of weakness defining a frangible portion at a location other than the interface between the shank and the head, characterized in that the force required to break the frangible portion when the force is an impact load applied to the tip of the cutter tool (1A, 1B, 1C) is at least about ten percent less than the force required to break the interface between the shank and the head when the force is an impact load applied to the tip of the cutter tool (1A, 1B, 1C).
Deployable structure (10, 20, 40, 50) comprising: • a mount comprising a first point and a second point opposite and a third point, • a storage reel able to rotate about an axis Z, • a tape spring able to switch from a configuration in which it is wound about the axis Z in the storage reel into a configuration in which it is deployed along an axis X substantially perpendicular to the axis Z, the first and second points (12, 13) forming a double support with the tape spring so as to keep the tape spring in the deployed configuration, the third point being able to form a simple support with the tape spring, the storage reel being able to move with respect to the third point, the storage reel being pressed against the third point so as to guide the deployment of the tape spring, characterized in that the deployable structure comprises • a guide lever comprising two ends (18, 19), a first of the two ends being pivot connected with respect to the mount, a second of the two ends being secured to the centre of the guide reel, • an elastic element arranged between the guide lever and the mount, and intended to push the guide lever so as to press the storage reel against the third point. • a mount comprising a first point and a second point opposite and a third point, • a storage reel able to rotate about an axis Z, • a tape spring able to switch from a configuration in which it is wound about the axis Z in the storage reel into a configuration in which it is deployed along an axis X substantially perpendicular to the axis Z, the first and second points (12, 13) forming a double support with the tape spring so as to keep the tape spring in the deployed configuration, the third point being able to form a simple support with the tape spring, the storage reel being able to move with respect to the third point, the storage reel being pressed against the third point so as to guide the deployment of the tape spring, characterized in that the deployable structure comprises • a guide lever comprising two ends (18, 19), a first of the two ends being pivot connected with respect to the mount, a second of the two ends being secured to the centre of the guide reel, • an elastic element arranged between the guide lever and the mount, and intended to push the guide lever so as to press the storage reel against the third point. • a guide lever comprising two ends (18, 19), a first of the two ends being pivot connected with respect to the mount, a second of the two ends being secured to the centre of the guide reel, • an elastic element arranged between the guide lever and the mount, and intended to push the guide lever so as to press the storage reel against the third point.
The use of the trifluoroacetic acid salt of a photocleavable compounds, so called "caged compounds" of the general formula wherein R 1 stands for a nitro group; R 2 stands for a hydrogen atom, bromo atom or unsubstituted straight or branched, alkoxy, cycloalkoxy, preferably C 1 -C 6 alkoxy group, or a straight or branched substituted alkoxy, cycloalkoxy, preferably C 1 -C 6 alkoxy group which substituent(s) are unsubstituted amino group, or an amino group substituted with one C 1 -C 6 alkyl group or cycloalkyl group, or two identical or different C 1 -C 6 alkyl groups, aryl group, heteroaryl group or cycloalkyl group; or an aryl group; R 3 stands for a hydrogen atom; R 4 stands for a hydrogen atom; R 5 is an acid residue of an amino acid or a group of the general formula in which the nitrogen atom and the attached R 6 and R 7 substituents together stand for an amine residue of a neurotransmitter and X stands for an oxygen or sulphur atom capable of releasing amino acids, neuroactive amines, neurotransmitters, hormones, DNA, RNA, or DNA or RNA fragments, peptides, lipids, in mono- or multi-photon irradiation experiments in combination with enzymes, selected from acetylcholine esterase, glutamate dehydrogenase, monoamine oxidase, fatty acid amide hydrolase (FAAH), gaba-decarboxylase, of nuclease enzymes (DNAases or RNAases), fatty acid dehydrogenase enzyme, NAD + kinases, thiolysis CoA enzymes, as reagents for the neutralisation of the compounds formed by the spontaneous degradation of photocleavable compounds, so called "caged compounds". R 1 stands for a nitro group; R 2 stands for a hydrogen atom, bromo atom or unsubstituted straight or branched, alkoxy, cycloalkoxy, preferably C 1 -C 6 alkoxy group, or a straight or branched substituted alkoxy, cycloalkoxy, preferably C 1 -C 6 alkoxy group which substituent(s) are unsubstituted amino group, or an amino group substituted with one C 1 -C 6 alkyl group or cycloalkyl group, or two identical or different C 1 -C 6 alkyl groups, aryl group, heteroaryl group or cycloalkyl group; or an aryl group; R 3 stands for a hydrogen atom; R 4 stands for a hydrogen atom; R 5 is an acid residue of an amino acid or a group of the general formula
A fuse comprising: a pair of conductive terminals; a fuse element including a fusing part provided between the conductive terminals; and an insulating housing covering the fusing part and at least part of the conductive terminals wherein the insulating housing of the fuse has an open end between the pair of conductive terminals, with the pair of conductive terminals being incorporated in the insulating housing, without a flap which closes the open end, wherein the insulating housing has inner wall surfaces extending from the open end, characterized in that, only two projections (60; 60a, 60c, 60c, 60d) are provided on the inner wall (41, 42) surface at each side in a thickness direction of the insulating housing and the projections (60; 60a, 60c, 60c, 60d) are provided from an open surface to an upper end of the inner wall surfaces of the insulating housing; the distance between the apexes of the projections opposite to each other in the thickness direction is set to be less than the lateral width of the conductive terminal, the distance between the projections (60; 60a, 60c, 60c, 60d) provided on the same inner wall surface is set to be less than the vertical width of the conductive terminal. a pair of conductive terminals; a fuse element including a fusing part provided between the conductive terminals; and an insulating housing covering the fusing part and at least part of the conductive terminals wherein the insulating housing of the fuse has an open end between the pair of conductive terminals, with the pair of conductive terminals being incorporated in the insulating housing, without a flap which closes the open end, wherein the insulating housing has inner wall surfaces extending from the open end, characterized in that, only two projections (60; 60a, 60c, 60c, 60d) are provided on the inner wall (41, 42) surface at each side in a thickness direction of the insulating housing and the projections (60; 60a, 60c, 60c, 60d) are provided from an open surface to an upper end of the inner wall surfaces of the insulating housing; the distance between the apexes of the projections opposite to each other in the thickness direction is set to be less than the lateral width of the conductive terminal, the distance between the projections (60; 60a, 60c, 60c, 60d) provided on the same inner wall surface is set to be less than the vertical width of the conductive terminal.
A coil component comprising: a magnetic core which is formed by a magnetic material and which has a top surface, a bottom surface facing the top surface and a side surface continuous perpendicularly to the top surface and the bottom surface; a coil which is buried inside the magnetic core and whose end portion protrudes from the side surface of the magnetic core; a flat-shaped terminal which protrudes from the side surface of the magnetic core, is bent toward the bottom surface of the magnetic core and is connected with the end portion of the coil, wherein there is present an opening portion in the flat-shaped terminal at a position corresponding to the place where the flat-shaped terminal is bent from the side surface to the bottom surface of the magnetic core, wherein a filling member fills the opening portion of the then bent terminal. a magnetic core which is formed by a magnetic material and which has a top surface, a bottom surface facing the top surface and a side surface continuous perpendicularly to the top surface and the bottom surface; a coil which is buried inside the magnetic core and whose end portion protrudes from the side surface of the magnetic core; a flat-shaped terminal which protrudes from the side surface of the magnetic core, is bent toward the bottom surface of the magnetic core and is connected with the end portion of the coil, wherein there is present an opening portion in the flat-shaped terminal at a position corresponding to the place where the flat-shaped terminal is bent from the side surface to the bottom surface of the magnetic core, wherein a filling member fills the opening portion of the then bent terminal.
A video display device comprising: a display unit; an enhanced service management unit configured to obtain content information based on a part of an audio-visual content and obtain an enhanced service based on the content information; and a play controlling unit configured to play the audio-visual content and the enhanced service on the display unit, wherein the play controlling unit is configured to play the audio-visual content on a first layer, and the enhanced service management unit is configured to play the enhanced service on an input region included in a second layer, wherein the enhanced service management unit changes a size of the input region, if an input representing that selection is performed by a pointer is received within the input region. a display unit; an enhanced service management unit configured to obtain content information based on a part of an audio-visual content and obtain an enhanced service based on the content information; and a play controlling unit configured to play the audio-visual content and the enhanced service on the display unit, wherein the play controlling unit is configured to play the audio-visual content on a first layer, and the enhanced service management unit is configured to play the enhanced service on an input region included in a second layer, wherein the enhanced service management unit changes a size of the input region, if an input representing that selection is performed by a pointer is received within the input region.
A moldable sheet material comprising: a first layer comprising a first polyester; and a second layer comprising a second polyester, which is polyethylene naphthalate,, wherein the second polyester is different from the first polyester; and, a third layer comprising a third polyester, wherein the third polyester is same as or different from each of the first polyester and the second polyester, and wherein the second layer is disposed between the first layer and the third layer when the third layer is present; wherein the sheet material excludes one or more of adhesives, ethylene vinyl alcohol, polyvinyl alcohol, polyvinylidene chloride, polyamides, polyolefins, and polystyrenes; and wherein the sheet material, when molded into a cup having a surface area, has an oxygen transmission rate equal to or less than a comparative oxygen transmission rate, and a water vapor transmission rate equal to or less than a comparative water vapor transmission rate, for a comparative cup having the same surface area and comprising about 73.1 volume percent of polystyrene, about 2.4 volume percent of ethylene vinyl alcohol (EVOH), and about 7.7 volume percent of polyethylene, by volume of the comparative cup. a first layer comprising a first polyester; and a second layer comprising a second polyester, which is polyethylene naphthalate,, wherein the second polyester is different from the first polyester; and, a third layer comprising a third polyester, wherein the third polyester is same as or different from each of the first polyester and the second polyester, and wherein the second layer is disposed between the first layer and the third layer when the third layer is present; wherein the sheet material excludes one or more of adhesives, ethylene vinyl alcohol, polyvinyl alcohol, polyvinylidene chloride, polyamides, polyolefins, and polystyrenes; and wherein the sheet material, when molded into a cup having a surface area, has an oxygen transmission rate equal to or less than a comparative oxygen transmission rate, and a water vapor transmission rate equal to or less than a comparative water vapor transmission rate, for a comparative cup having the same surface area and comprising about 73.1 volume percent of polystyrene, about 2.4 volume percent of ethylene vinyl alcohol (EVOH), and about 7.7 volume percent of polyethylene, by volume of the comparative cup.
A method for imaging an object of interest using penetrating radiation, characterized in that said method comprises: (a) positioning a source of penetrating radiation and a radiation detector externally of the object of interest and with the object of interest positioned therebetween; (b) providing a plurality of measurements of the penetrating radiation generated by the source of penetrating radiation and passing through the object of interest for each of at least one linear path extending from the source of penetrating radiation to the radiation detector and intersecting the object of interest, by: (i) exposing the object of interest to the penetrating radiation, and (ii) detecting the penetrating radiation which passes through the object of interest along each of the at least one linear path, thereby to generate a plurality of measurements for each of the at least one linear path; (c) processing the plurality of measurements for each of the at least one linear path to obtain at least one statistical parameter capable of describing a width of a temporal distribution of the plurality of measurements for each of the at least one linear path, and (d) reconstructing the image of the object of interest based on the at least one parameter describing the distribution of the plurality of measurements, thereby obtaining images of the object of interest. (a) positioning a source of penetrating radiation and a radiation detector externally of the object of interest and with the object of interest positioned therebetween; (b) providing a plurality of measurements of the penetrating radiation generated by the source of penetrating radiation and passing through the object of interest for each of at least one linear path extending from the source of penetrating radiation to the radiation detector and intersecting the object of interest, by: (i) exposing the object of interest to the penetrating radiation, and (ii) detecting the penetrating radiation which passes through the object of interest along each of the at least one linear path, thereby to generate a plurality of measurements for each of the at least one linear path; (i) exposing the object of interest to the penetrating radiation, and (ii) detecting the penetrating radiation which passes through the object of interest along each of the at least one linear path, thereby to generate a plurality of measurements for each of the at least one linear path; (c) processing the plurality of measurements for each of the at least one linear path to obtain at least one statistical parameter capable of describing a width of a temporal distribution of the plurality of measurements for each of the at least one linear path, and (d) reconstructing the image of the object of interest based on the at least one parameter describing the distribution of the plurality of measurements, thereby obtaining images of the object of interest.
A servo controller for an actuator device for executing work on a circuit board when the actuator device is mounted to a manufacturing work machine, capable of, for each predetermined period (A/2), receiving an input signal from a drive circuit corresponding to the actuator device and transmitting an output signal to the drive circuit, wherein the servo controller computes an output signal based on an input signal which is received before the predetermined period (A/2), characterized in that the servo controller stores the output signal for a time greater than or equal to the predetermined period (A/2), and subsequently transmits the output signal to the drive circuit. wherein the servo controller computes an output signal based on an input signal which is received before the predetermined period (A/2), characterized in that the servo controller stores the output signal for a time greater than or equal to the predetermined period (A/2), and subsequently transmits the output signal to the drive circuit.
A magnetomotive imaging probe system comprising: a movable probe, a magnet (302, 303) arranged on said probe, an ultra sound transducer, wherein said magnet is arranged to generate a time-varying magnetic field at an imaging plane of said ultrasound transducer, distally of said ultra sound transducer and said probe, when said probe has a proximal first position adjacent said ultra sound transducer, wherein said probe is movable in relation to said ultra sound transducer and being a handheld probe, wherein said magnet is movably arranged on said probe and, whereby in use, said magnet is adapted to generate said time-varying magnetic field in response to a motion of said magnet relative said ultrasound transducer, and wherein said magnet is displaceable from a target location in said imaging plane with an oscillating motion, wherein the system comprises a control unit and a motor, said motor being coupled to the control unit and to the magnet to power said motion of said magnet, wherein said control unit is adapted to vary the speed of motion (w 1, w 2) of said magnet according to a predetermined pattern to thereby vary the frequency of said time-varying magnetic field as a predetermined frequency impulse to generate a frequency impulse response of magnetic nanoparticles at said target location, and wherein said control unit is adapted to set a constant speed of motion (w 1, w 2) of said magnet. a movable probe, a magnet (302, 303) arranged on said probe, an ultra sound transducer,