mhurhangee/ep-ind-claims huggingface dataset:
An element frame for holding monoliths containing catalysts in the flow of exhaust gases from a combustion source, the element frame comprising two pairs of opposing walls, wherein the walls form a rectangular or square shape, an interior formed by the walls, an inlet end, an outlet end, at least one locking element, at least one mat and at least one monolith comprising an inlet, an outlet, four sides and at least one catalyst effective in reducing the concentration of one or more gases in the exhaust gas, wherein the at least one mat and the at least one monolith being positioned in the interior of the element frame so that there is at least one mat between the monolith and each adjacent wall, each locking element extending across the inlet end or outlet end of the element frame and being connected to two opposite sides of the element frame, characterized in that one or more of the walls comprises a plurality of protrusions extending into the interior.
An electrical resistance strain gage comprising: a strain sensitive metallic element having a chemical composition on a weight basis of approximately 63% to 84% nickel and approximately 16% to 37% iron, characterized in that the material of the strain sensitive metallic element forms a face-centered-cubic crystal lattice with nickel atoms occupying face positions and iron atoms occupying corner positions, and whereby the electrical resistance strain gage has a gage factor of at least 5.
The use of a composition comprising a solvent, a fullerene derivative having a hydrophilic group, and a polymer, selected from phenolic resins, polyhydroxystyrene, polyvinyl alcohol, polyacrylic acid, polymethacrylic acid, polyacrylic esters, polymethacrylic esters, polyvinyl acetate, and polyvinylpyrrolidone, for forming a topcoat layer.
A method of calculating a single, fused sensor glucose value based on respective sensor glucose values of a plurality of redundant working electrodes (WE1,WE2) of a glucose sensor, comprising: performing respective electrochemical impedance spectroscopy procedures for each of the plurality of redundant working electrodes to obtain values of membrane resistance (Rmem) for each said working electrode; calculating a respective Rmem fusion weight for each said working electrode based on the respective Rmem value for each of the plurality of working electrodes; measuring a noise value for each of the plurality of working electrodes; calculating a respective noise fusion weight for each said working electrode based on the respective noise value for each of the plurality of working electrodes; measuring a calibration factor value for each of the plurality of working electrodes; calculating a respective CF fusion weight for each said working electrode based on the respective CF value for each of the plurality of working electrodes; for each of the plurality of electrodes, calculating an overall fusion weight based on said electrode's Rmem fusion weight, noise fusion weight, and CF fusion weight; and calculating said single, fused sensor glucose value based on the respective overall fusion weight and sensor glucose value of each of the plurality of redundant working electrodes. performing respective electrochemical impedance spectroscopy procedures for each of the plurality of redundant working electrodes to obtain values of membrane resistance (Rmem) for each said working electrode; calculating a respective Rmem fusion weight for each said working electrode based on the respective Rmem value for each of the plurality of working electrodes; measuring a noise value for each of the plurality of working electrodes; calculating a respective noise fusion weight for each said working electrode based on the respective noise value for each of the plurality of working electrodes; measuring a calibration factor value for each of the plurality of working electrodes; calculating a respective CF fusion weight for each said working electrode based on the respective CF value for each of the plurality of working electrodes; for each of the plurality of electrodes, calculating an overall fusion weight based on said electrode's Rmem fusion weight, noise fusion weight, and CF fusion weight; and calculating said single, fused sensor glucose value based on the respective overall fusion weight and sensor glucose value of each of the plurality of redundant working electrodes.
A composition for use in the treatment of hair loss and baldness, for combined, sequential or simultaneous administration, in the form of a lotion, comprising Urea, Methyl Sulphonyl Methane, L-Arginine, Oleoresin Capsicum, Magnesium, Ginger Oil and D-Panthenol.
A method of fabricating a turbine engine blade out of composite material comprising fiber reinforcement densified by a matrix, the method comprising: • performing three-dimensional weaving to make a single-piece fiber blank; • shaping the fiber blank to obtain a single-piece fiber preform having a first portion forming a preform for a blade root and an airfoil, at least one second portion forming a preform for a blade inner platform or for wipers of a blade outer platform, and at least one third portion forming a preform for reinforcing a blade inner platform or for overhangs of a blade outer platform; and • densifying the fiber preform with a matrix in order to obtain a composite material blade having fiber reinforcement constituted by the preform and densified by the matrix, and forming a single piece with an inner and/or outer platform(s) incorporated therein. • performing three-dimensional weaving to make a single-piece fiber blank; • shaping the fiber blank to obtain a single-piece fiber preform having a first portion forming a preform for a blade root and an airfoil, at least one second portion forming a preform for a blade inner platform or for wipers of a blade outer platform, and at least one third portion forming a preform for reinforcing a blade inner platform or for overhangs of a blade outer platform; and • densifying the fiber preform with a matrix in order to obtain a composite material blade having fiber reinforcement constituted by the preform and densified by the matrix, and forming a single piece with an inner and/or outer platform(s) incorporated therein.
Method for producing a fine coal feed from raw coal associated with accompanying rock as feed material for a fixed-bed pressure gasifier, comprising the following steps: (a) provision of the comminuted raw coal, (b) introduction of the comminuted raw coal into a first density separation stage suitable for separating solid particles into fractions having densities which are less than and greater than a first fixed delimiting density, (c) discharge of a solid fraction having a density less than the first fixed delimiting density as first light material enriched with carbon and a solid fraction having a density greater than the first fixed delimiting density as heavy material enriched with accompanying rock, (d) introduction of the first light material into a second density separation stage suitable for separating solid particles into fractions having densities which are less than and greater than a second fixed delimiting density, (e) discharge of a solid fraction having a density less than the second fixed delimiting density as second light material further enriched with carbon and a solid fraction having a density greater than the second fixed delimiting density as intermediate material, (f) introduction of the heavy material into a heavy material work-up comprising at least one treatment step selected from the group: intermediate storage, comminution, homogenisation, classification; discharge of a treated heavy material from the heavy material workup, (g) mixing of at least a part of the treated heavy material with the second light material to yield the fine coal feed. (a) provision of the comminuted raw coal, (b) introduction of the comminuted raw coal into a first density separation stage suitable for separating solid particles into fractions having densities which are less than and greater than a first fixed delimiting density, (c) discharge of a solid fraction having a density less than the first fixed delimiting density as first light material enriched with carbon and a solid fraction having a density greater than the first fixed delimiting density as heavy material enriched with accompanying rock, (d) introduction of the first light material into a second density separation stage suitable for separating solid particles into fractions having densities which are less than and greater than a second fixed delimiting density, (e) discharge of a solid fraction having a density less than the second fixed delimiting density as second light material further enriched with carbon and a solid fraction having a density greater than the second fixed delimiting density as intermediate material, (f) introduction of the heavy material into a heavy material work-up comprising at least one treatment step selected from the group: intermediate storage, comminution, homogenisation, classification; discharge of a treated heavy material from the heavy material workup, (g) mixing of at least a part of the treated heavy material with the second light material to yield the fine coal feed.
An electronic percussion instrument comprising: a body part having an opening on at least one end side of the body part; a head that covers the opening of the body part; a hoop for applying tension to the head, a rim; and a rim sensor that detects vibration generated when the rim is struck and is disposed in the body part, the electronic percussion instrument characterized in that: wherein the rim is disposed on an inner circumferential side of the hoop, and an upper end of the rim is positioned above an upper end of the hoop, and a bottom surface of the rim is supported on an edge of the opening of the body part via the head. a body part having an opening on at least one end side of the body part; a head that covers the opening of the body part; a hoop for applying tension to the head, a rim; and a rim sensor that detects vibration generated when the rim is struck and is disposed in the body part, the electronic percussion instrument characterized in that: wherein the rim is disposed on an inner circumferential side of the hoop, and an upper end of the rim is positioned above an upper end of the hoop, and a bottom surface of the rim is supported on an edge of the opening of the body part via the head.
A fully protected drone, comprising a drone body and a rotary wing connected to the drone body, wherein the fully protected drone further comprises a protection housing connected to the drone body, the protection housing is a meshed closed housing and has a hollow cavity, and the rotary wing is mounted in the hollow cavity, characterized in that the protection housing comprises a top plate, a bottom plate and a middle frame, the middle frame is configured to have a U shape, when being viewed from the top, and is connected to the drone body through an open end of the U shape; and the top plate and the bottom plate are respectively mounted on a top surface and a bottom surface of the middle frame, to enclose the middle frame to form the hollow cavity.
A double-flow turbojet engine including a central shaft coaxially surrounded, on the one hand, by a low-pressure rotor and, on the other hand, by a high-pressure spool, coaxial with each other, the high-pressure spool being rotatably independent of the low-pressure rotor and of the central shaft, this turbojet engine including from upstream to downstream according to the direction of circulation of the flow that passes therethrough when it is operating: - a fan driven by the central shaft; - a low-pressure compressor carried by the low-pressure rotor; - an inter-compressor casing; - a high-pressure compressor and a high-pressure turbine belonging to the high-pressure spool; - an inter-turbine casing; - a low-pressure turbine carried by the low-pressure rotor; - an exhaust casing; this turbojet engine further including: - an upstream rotor bearing carried by the inter-compressor casing and which rotatably guides the low-pressure rotor; - a downstream rotor bearing carried by the exhaust casing, and which rotatably guides the low-pressure rotor; characterized by: - a gearbox (22, 22') through which the low-pressure rotor drives the central shaft, this gearbox being located downstream of the downstream rotor bearing; - a downstream shaft bearing which rotatably guides the central shaft while being located downstream of the downstream rotor bearing. - a fan driven by the central shaft; - a low-pressure compressor carried by the low-pressure rotor; - an inter-compressor casing; - a high-pressure compressor and a high-pressure turbine belonging to the high-pressure spool; - an inter-turbine casing; - a low-pressure turbine carried by the low-pressure rotor; - an exhaust casing; - an upstream rotor bearing carried by the inter-compressor casing and which rotatably guides the low-pressure rotor; - a downstream rotor bearing carried by the exhaust casing, and which rotatably guides the low-pressure rotor; - a gearbox (22, 22') through which the low-pressure rotor drives the central shaft, this gearbox being located downstream of the downstream rotor bearing; - a downstream shaft bearing which rotatably guides the central shaft while being located downstream of the downstream rotor bearing.
Beverage dispensing equipment comprising an article having a polyamide surface, said polyamide surface comprising the following functionality: wherein: R 1 is -OH, a monosaccharide sugar or a disaccharide sugar; R 2 is -H, -CH 3 or -CH 2 OH; R 3 is -H or -CH 2 OH; R 4 is -OH or -NH 2; and wherein: represents the polyamide or part thereof, wherein R 5 and R 6 are each independently selected from a C 4 -C 12 alkyl group, or a C 6 -C 12 aryl group, wherein R 5 and R 6 are each independently optionally substituted with one or more C 1 -C 6 alkyl groups, one or more halogen atoms, one or more oxo groups and one or more amine groups. R 1 is -OH, a monosaccharide sugar or a disaccharide sugar; R 2 is -H, -CH 3 or -CH 2 OH; R 3 is -H or -CH 2 OH; R 4 is -OH or -NH 2; and
A method for transmitting signaling information of an IP profile for receiving a broadcast service in a digital broadcasting system, the method comprising: generating (510, 530, 550) service guide information including broadcast service data, Upper Layer Information, ULI, including network information from a data layer to an application layer of a transmission network where the broadcast service data is transmitted, and Neighboring Multiplexes Information, NMI, including information about a transmission network neighboring the transmission network, the ULI and NMI including the signaling information of an IP profile; and transmitting the service guide information in an upper layer of an Internet Protocol, IP, layer, wherein the information about the transmission network where the broadcast service data is transmitted includes information for mapping broadcast service components to Physical Layer Pipes (PLPs) associated with the broadcast service data and physical parameters of the PLPs. generating (510, 530, 550) service guide information including broadcast service data, Upper Layer Information, ULI, including network information from a data layer to an application layer of a transmission network where the broadcast service data is transmitted, and Neighboring Multiplexes Information, NMI, including information about a transmission network neighboring the transmission network, the ULI and NMI including the signaling information of an IP profile; and transmitting the service guide information in an upper layer of an Internet Protocol, IP, layer,
A system for handling rotational information of an internal combustion engine, characterized in that the arrangement comprises an encoder that is capable of receiving a pulse train signal from a crank shaft of the engine and a phase signal from a cam shaft of the engine, and arranged to combine the position pulse train signal having a low level and a high level, and the phase signal for forming a common signal in such a way that the common signal has two top levels and two bottom levels, voltage values of said two top levels and two bottom levels, in the common signal depend on the phase signal, which common signal is distributed to at least one control device, such as an electronic fuel injection control or a speed and load controller.
A lighting device (100, 200, 300, 400), comprising: a light source; a base arranged to extend along a nominal optical axis; and an at least partly light-transmitting envelope arranged to at least partly enclose the light source; characterized in that the at least partly light-transmitting envelope comprises: a first portion comprising an optical structure and adapted to output at least part of light emitted by the light source; and a second portion being elastic such that its extension and orientation relative to the nominal optical axis is adjustable, said second portion being attached to the base of the lighting device and arranged between the base and the first portion, as seen along the nominal optical axis, and in that the second portion is extendible and compressible such that a focal point (f) of the first portion is moveable at least along the nominal optical axis. a light source; a base arranged to extend along a nominal optical axis; and an at least partly light-transmitting envelope arranged to at least partly enclose the light source; a first portion comprising an optical structure and adapted to output at least part of light emitted by the light source; and a second portion being elastic such that its extension and orientation relative to the nominal optical axis is adjustable, said second portion being attached to the base of the lighting device and arranged between the base and the first portion, as seen along the nominal optical axis, and in that the second portion is extendible and compressible such that a focal point (f) of the first portion is moveable at least along the nominal optical axis.
MEMS-transducer (10 1; 10 2; 20 1; 20 2, 30; 40 1; 40 2) comprising: a membrane structure having a first main surface and a second main surface opposing the first main surface; a substrate structure configured to hold the membrane structure, wherein the substrate structure overlaps with the first main surface of the membrane structure in a first edge region being adjacent to a first inner region of the first main surface; a gap (22; 22 1; 22 2) formed between the membrane structure and the substrate structure in the first edge region and extending from the first inner region into the first edge region; characterized in comprising a carbon layer comprising a carbon material and arranged on the first main surface in an outer region of the first main surface adjacent to the gap; wherein the gap extends from the inner region towards the outer region. a membrane structure having a first main surface and a second main surface opposing the first main surface; a substrate structure configured to hold the membrane structure, wherein the substrate structure overlaps with the first main surface of the membrane structure in a first edge region being adjacent to a first inner region of the first main surface; a gap (22; 22 1; 22 2) formed between the membrane structure and the substrate structure in the first edge region and extending from the first inner region into the first edge region; characterized in comprising a carbon layer comprising a carbon material and arranged on the first main surface in an outer region of the first main surface adjacent to the gap; wherein the gap extends from the inner region towards the outer region.
A cathode active material for secondary batteries, in which a carboxymethyl cellulose derivative is coated on surfaces of particles of a lithium transition metal oxide represented by Formula 1 below: <Formula 1> Li x M y O 2 wherein M is Ni a Mn b Co c where 0≤a≤0.9, 0≤b≤0.9, 0≤c≤0.5, and 0.85≤a+b+c≤1.05; and x+y = 2, wherein 0.95≤x≤1.15, wherein the carboxymethyl cellulose derivative is a material represented by Formula 2 below: wherein at least one selected from the group consisting of R1, R2, and R3 is CH 2 CO 2 X and the remaining group is CH 2 CO 2 H or OH, wherein X is Na; and characterized in that n is an integer of 1 or more and is determined within a range within which the carboxymethyl cellulose derivative has a weight average molecular weight Mw of 1,000,000 to 2,300,000, and wherein a rate to which R1, R2, and R3 are CH 2 CO 2 X is 0.8 to 1.2. wherein M is Ni a Mn b Co c where 0≤a≤0.9, 0≤b≤0.9, 0≤c≤0.5, and 0.85≤a+b+c≤1.05; and x+y = 2, wherein 0.95≤x≤1.15, wherein the carboxymethyl cellulose derivative is a material represented by Formula 2 below: wherein at least one selected from the group consisting of R1, R2, and R3 is CH 2 CO 2 X and the remaining group is CH 2 CO 2 H or OH, wherein X is Na; and characterized in that n is an integer of 1 or more and is determined within a range within which the carboxymethyl cellulose derivative has a weight average molecular weight Mw of 1,000,000 to 2,300,000, and wherein a rate to which R1, R2, and R3 are CH 2 CO 2 X is 0.8 to 1.2. wherein at least one selected from the group consisting of R1, R2, and R3 is CH 2 CO 2 X and the remaining group is CH 2 CO 2 H or OH, wherein X is Na; and characterized in that n is an integer of 1 or more and is determined within a range within which the carboxymethyl cellulose derivative has a weight average molecular weight Mw of 1,000,000 to 2,300,000, and wherein a rate to which R1, R2, and R3 are CH 2 CO 2 X is 0.8 to 1.2.
A construction machine comprising: an engine room provided with an intake opening and a discharge opening; a fan for sucking cooling air into the engine room through the intake opening; a duct provided in the engine room so as to communicate with the discharge opening and discharging the cooling air sucked into the engine room to an outside of the engine room through the discharge opening; and an exhaust gas pipe guiding exhaust gas discharged from the engine into the duct, wherein a portion on a distal end side of the exhaust gas pipe is inserted into the duct, and the inserted portion of the exhaust gas pipe inserted into the duct is formed with an exhaust hole which causes the exhaust gas to be discharged so as to be dispersed in a longitudinal direction of the inserted portion through the exhaust hole, characterized in that the inserted portion of the exhaust gas pipe is inserted into the duct so as to pass through a side wall of the duct and to extend in a direction intersecting an extension direction of the duct. an engine room provided with an intake opening and a discharge opening; a fan for sucking cooling air into the engine room through the intake opening; a duct provided in the engine room so as to communicate with the discharge opening and discharging the cooling air sucked into the engine room to an outside of the engine room through the discharge opening; and an exhaust gas pipe guiding exhaust gas discharged from the engine into the duct, wherein a portion on a distal end side of the exhaust gas pipe is inserted into the duct, and the inserted portion of the exhaust gas pipe inserted into the duct is formed with an exhaust hole which causes the exhaust gas to be discharged so as to be dispersed in a longitudinal direction of the inserted portion through the exhaust hole, characterized in that the inserted portion of the exhaust gas pipe is inserted into the duct so as to pass through a side wall of the duct and to extend in a direction intersecting an extension direction of the duct.
A cyclone device (1, 2) based on inlet particle regulation, comprised of an inlet particle distribution regulator and a cyclone, wherein the outlet of the inlet particle distribution regulator is connected to the inlet of the cyclone, and the inlet particle distribution regulator is arranged to distribute the particles at its outlet by centrifugal force to achieve distribution of particles in the inlet cross-section of the cyclone from large to small or from small to large inwardly.