mhurhangee/patent-ind-claim-en huggingface dataset:
A gas-barrier film comprising: a substrate film comprising a vapor-deposited inorganic layer; and a cured resin layer; the gas-barrier film comprising the cured resin layer on a surface of the vapor-deposited inorganic layer side of the substrate film; the cured resin layer being a cured product of an epoxy resin composition including an epoxy resin, an epoxy resin curing agent, and non-spherical inorganic particles, wherein the non-spherical inorganic particles are plate-shaped, scale-shaped, column-shaped, chain-shaped or fibrous inorganic particles, and the content of the non-spherical inorganic particles in the epoxy resin composition is from 3.0 to 7.0 parts by mass per 100 parts by mass of a total amount of the epoxy resin and the epoxy resin curing agent; and the epoxy resin curing agent being a reaction product of the following components (A) and (B): (A) at least one selected from the group consisting of meta-xylylenediamine and para-xylylenediamine; (B) at least one selected from the group consisting of unsaturated carboxylic acids represented by the following general formula and derivatives thereof, where R 1 and R 2 each independently represent a hydrogen atom, an alkyl group having from 1 to 8 carbons, an aryl group having from 6 to 12 carbons, or an aralkyl group having from 7 to 13 carbons. the gas-barrier film comprising the cured resin layer on a surface of the vapor-deposited inorganic layer side of the substrate film; the cured resin layer being a cured product of an epoxy resin composition including an epoxy resin, an epoxy resin curing agent, and non-spherical inorganic particles, wherein the non-spherical inorganic particles are plate-shaped, scale-shaped, column-shaped, chain-shaped or fibrous inorganic particles, and the content of the non-spherical inorganic particles in the epoxy resin composition is from 3.0 to 7.0 parts by mass per 100 parts by mass of a total amount of the epoxy resin and the epoxy resin curing agent; and the epoxy resin curing agent being a reaction product of the following components (A) and (B): (A) at least one selected from the group consisting of meta-xylylenediamine and para-xylylenediamine; (B) at least one selected from the group consisting of unsaturated carboxylic acids represented by the following general formula and derivatives thereof, (A) at least one selected from the group consisting of meta-xylylenediamine and para-xylylenediamine; (B) at least one selected from the group consisting of unsaturated carboxylic acids represented by the following general formula and derivatives thereof, where R 1 and R 2 each independently represent a hydrogen atom, an alkyl group having from 1 to 8 carbons, an aryl group having from 6 to 12 carbons, or an aralkyl group having from 7 to 13 carbons.
A laminated sheet , wherein the laminated sheet has a polyvinyl chloride resin sheet comprising a polyvinyl chloride resin and, with respect to 100 parts by mass of the polyvinyl chloride resin, 40-70 parts by mass of a trimellitic acid ester-based plasticizer, 1-35 parts by mass of a phthalic acid ester-based plasticizer, and 0.5-15 parts by mass of a hydrotalcite-based compound, and a sheet-like base material laminated to at least one surface of the polyvinyl chloride resin sheet , wherein the sheet-like base material comprises a non-woven fabric and the non-woven fabric comprises at least one fiber selected from polyesters, polyamides, polyurethanes, and polyolefins. a polyvinyl chloride resin sheet comprising a polyvinyl chloride resin and, with respect to 100 parts by mass of the polyvinyl chloride resin, 40-70 parts by mass of a trimellitic acid ester-based plasticizer, 1-35 parts by mass of a phthalic acid ester-based plasticizer, and 0.5-15 parts by mass of a hydrotalcite-based compound, and a sheet-like base material laminated to at least one surface of the polyvinyl chloride resin sheet , wherein the sheet-like base material comprises a non-woven fabric and the non-woven fabric comprises at least one fiber selected from polyesters, polyamides, polyurethanes, and polyolefins.
A variable displacement exhaust turbocharger which is equipped with a variable nozzle mechanism and is driven by exhaust gas from an engine, the variable displacement exhaust turbocharger comprising: a plurality of nozzle vanes supported rotatably by a nozzle mount which is fixed to a case including a turbine casing of the variable displacement exhaust turbocharger; a drive ring which is interlocked with an actuator and is fitted to an annular guide part protruding from a center part of the nozzle mount in an axial direction; a plurality of lever plates each of which is fitted to a groove formed in the drive ring at one end via a connection pin and is connected to the nozzle vane at the other end; the variable nozzle mechanism configured to swing the plurality of lever plates by rotation of the drive ring so as to change a vane angle of the plurality of nozzle vanes ; and a press-fitting pin being press-fit to a press-fitting hole , the press-fitting hole being formed in the annular guide part along a rotation axis of the nozzle mount at a position slightly closer to a rotation axis than the annular guide part , characterised in that a bulge suppressing portion is provided in at least one of the press-fitting pin or the press-fitting hole , the bulge suppressing portion including a space formed in a section corresponding to the thickness of the drive ring in the direction of the rotation axis so as to absorb and suppress a bulge of an outer peripheral surface of the annular guide part generated when the press-fitting pin is press-fit in the press-fitting hole . a plurality of nozzle vanes supported rotatably by a nozzle mount which is fixed to a case including a turbine casing of the variable displacement exhaust turbocharger; a drive ring which is interlocked with an actuator and is fitted to an annular guide part protruding from a center part of the nozzle mount in an axial direction; a plurality of lever plates each of which is fitted to a groove formed in the drive ring at one end via a connection pin and is connected to the nozzle vane at the other end; the variable nozzle mechanism configured to swing the plurality of lever plates by rotation of the drive ring so as to change a vane angle of the plurality of nozzle vanes ; and a press-fitting pin being press-fit to a press-fitting hole , the press-fitting hole being formed in the annular guide part along a rotation axis of the nozzle mount at a position slightly closer to a rotation axis than the annular guide part , characterised in that a bulge suppressing portion is provided in at least one of the press-fitting pin or the press-fitting hole , the bulge suppressing portion including a space formed in a section corresponding to the thickness of the drive ring in the direction of the rotation axis so as to absorb and suppress a bulge of an outer peripheral surface of the annular guide part generated when the press-fitting pin is press-fit in the press-fitting hole .
Motor vehicle rear axle assembly comprising a body, a rear cradle connected to said body by fastening members (25a, 25b, 26a and 26b) and wheel clevises to which wheel connecting rods are fastened, characterized in that it comprises a reinforcing member fastened respectively directly between a wheel clevis and a corresponding fastening member , the reinforcing members comprising a first part matching the shape of a fastening part of the corresponding wheel clevis and a second part matching the shape of the corresponding fastening member , the first part having a U shape and the second part having a U shape.
A refrigeration cycle apparatus using a flammable refrigerant, the refrigeration cycle apparatus comprising: an outdoor unit including at least a compressor and an outdoor pipe (8a to 8d); an indoor unit including at least an indoor heat exchanger and an indoor pipe ; an extension pipe connecting the outdoor pipe (8a to 8d) and the indoor pipe to each other; a pipe connection chamber disposed in a casing constituting the indoor unit and housing a connection portion connecting the indoor pipe and the extension pipe ; and a pipe draw-out chamber disposed in the casing constituting the indoor unit , the extension pipe drawn out from the pipe connection chamber passing through the pipe draw-out chamber , characterized in that the pipe connection chamber and the pipe draw-out chamber being partitioned from each other by a partition having a through hole (31a to 31d, 631a, 631b), the extension pipe penetrating the through hole (31a to 31d, 631a, 631b), a part of the pipe draw-out chamber being constituted by a part of the casing constituting the indoor unit , the extension pipe penetrating a through hole formed in the part of the casing . an outdoor unit including at least a compressor and an outdoor pipe (8a to 8d); an indoor unit including at least an indoor heat exchanger and an indoor pipe ; an extension pipe connecting the outdoor pipe (8a to 8d) and the indoor pipe to each other; a pipe connection chamber disposed in a casing constituting the indoor unit and housing a connection portion connecting the indoor pipe and the extension pipe ; and a pipe draw-out chamber disposed in the casing constituting the indoor unit , the extension pipe drawn out from the pipe connection chamber passing through the pipe draw-out chamber , characterized in that the pipe connection chamber and the pipe draw-out chamber being partitioned from each other by a partition having a through hole (31a to 31d, 631a, 631b), the extension pipe penetrating the through hole (31a to 31d, 631a, 631b), a part of the pipe draw-out chamber being constituted by a part of the casing constituting the indoor unit , the extension pipe penetrating a through hole formed in the part of the casing .
A method of aligning an upper and a lower changeable tool in a device for processing workpiece sheets , in particular of paper, cardboard or plastic for packaging, characterized by the following steps: providing at least one digital camera , inserting the lower changeable tool into a holder on the device side, moving a sheet into the device until it lies above the lower changeable tool , inserting the upper changeable tool into a holder on the device side, aligning the upper changeable tool in relation to the sheet with the aid of the at least one camera and of marks provided on the sheet or edges of the sheet , removing the sheet , and aligning the lower changeable tool in relation to the upper changeable tool with the aid of the at least one camera . providing at least one digital camera , inserting the lower changeable tool into a holder on the device side, moving a sheet into the device until it lies above the lower changeable tool , inserting the upper changeable tool into a holder on the device side, aligning the upper changeable tool in relation to the sheet with the aid of the at least one camera and of marks provided on the sheet or edges of the sheet , removing the sheet , and aligning the lower changeable tool in relation to the upper changeable tool with the aid of the at least one camera .
A material comprising a transparent substrate coated with a stack of thin layers comprising, starting from the substrate: - a lower coating comprising: - at least one dielectric layer, - at least one absorbent layer, which absorbs solar radiation in the visible part of the spectrum, exhibiting a thickness of between 0.2 and 9 nm, - at least one dielectric layer, - a single silver-based functional metal layer, - optionally a blocking layer, - an upper coating comprising at least one dielectric layer, - optionally a protective layer, characterized in that : - the absorbent layer is separated from the substrate and from the functional layer by one or more dielectric layers, - the thickness of all the dielectric layers interposed between the absorbent layer and the functional metal layer is between 3 and 18 nm, when the material is used in a double glazing with a configuration: 4-16(Ar-90%)-4, that is to say a configuration consisting of a material comprising one substrate and of another substrate of glass of 4 mm, the two substrates are separated by an inserted gas-filled cavity comprising 90% of argon and 10% of air with a thickness of 16 mm, the stack positioned on face 2, the face 1 being the outermost face of the glazing, it exhibits a light transmission of greater than or equal 50%. - a lower coating comprising: - at least one dielectric layer, - at least one absorbent layer, which absorbs solar radiation in the visible part of the spectrum, exhibiting a thickness of between 0.2 and 9 nm, - at least one dielectric layer, - at least one dielectric layer, - at least one absorbent layer, which absorbs solar radiation in the visible part of the spectrum, exhibiting a thickness of between 0.2 and 9 nm, - at least one dielectric layer, - a single silver-based functional metal layer, - optionally a blocking layer, - an upper coating comprising at least one dielectric layer, - optionally a protective layer, - the absorbent layer is separated from the substrate and from the functional layer by one or more dielectric layers, - the thickness of all the dielectric layers interposed between the absorbent layer and the functional metal layer is between 3 and 18 nm,
Cleaning installation of a heat exchanger, comprising: - at least one heat exchanger linked, on the one hand, upstream to an intake duct for a fluid and, on the other hand, downstream to an outlet duct for the fluid , - a system for recovering cleaning bodies in the fluid outlet duct after cleaning of said at least one exchanger by said cleaning bodies and for reinjecting said cleaning bodies into the fluid intake duct, characterized in that the system forms a unitary assembly comprising at least one member which is capable of being moved between several positions, including: - a first position in which the system is configured to recover and contain cleaning bodies in said at least one mobile member, and - a second position in which the system is configured, on the one hand, to take fluid from the fluid intake duct and, on the other hand, reinject, into said fluid intake duct , via said at least one mobile member and under the action of the fluid taken, cleaning bodies contained in said at least one member. - at least one heat exchanger linked, on the one hand, upstream to an intake duct for a fluid and, on the other hand, downstream to an outlet duct for the fluid , - a system for recovering cleaning bodies in the fluid outlet duct after cleaning of said at least one exchanger by said cleaning bodies and for reinjecting said cleaning bodies into the fluid intake duct, characterized in that the system forms a unitary assembly comprising at least one member which is capable of being moved between several positions, including: - a first position in which the system is configured to recover and contain cleaning bodies in said at least one mobile member, and - a second position in which the system is configured, on the one hand, to take fluid from the fluid intake duct and, on the other hand, reinject, into said fluid intake duct , via said at least one mobile member and under the action of the fluid taken, cleaning bodies contained in said at least one member. - a first position in which the system is configured to recover and contain cleaning bodies in said at least one mobile member, and - a second position in which the system is configured, on the one hand, to take fluid from the fluid intake duct and, on the other hand, reinject, into said fluid intake duct , via said at least one mobile member and under the action of the fluid taken, cleaning bodies contained in said at least one member.
Vibration therapy device , including: - a lying surface , arranged along a longitudinal axis (A), for a human body, which lying surface comprises a plurality of support surfaces and is configured at least in part as an oscillating support, - a trunk module which supports a trunk support surface , - a leg module which supports a lower leg support surface , and - an oscillation-generating mechanism, characterised in that the oscillation-generating mechanism generates linear lateral oscillations transversely to the longitudinal axis (A) in the plane of the lying surface and is positively coupled with the trunk support surface and/or the lower leg support surface for transmitting the lateral oscillations, wherein at least one non-driven support surface is configured to be able to freely oscillate laterally. - a lying surface , arranged along a longitudinal axis (A), for a human body, which lying surface comprises a plurality of support surfaces and is configured at least in part as an oscillating support, - a trunk module which supports a trunk support surface , - a leg module which supports a lower leg support surface , and - an oscillation-generating mechanism,
20-O-β-D-glucopyranosyl-20(S)-protopanaxadiol for use in reducing mutant HTT protein aggregate formation in the striatum of a subject with Huntington's disease (HD), wherein the subject expresses a mutant HTT protein; and wherein the 20-O-β-D glucopyranosyl-20(S)-protopanaxadiol is administered orally in a dosage of 10 to 1,000 mg/kg daily for at least 15 days.
A method for processing a multi-fiber ferrule for a multi-fiber fiber optic connector, the multi-fiber ferrule including a ferrule body having a distal end and a proximal end , the ferrule body also defining a plurality of openings that extend through the ferrule body from the proximal end to the distal end , the ferrule body having a plurality of optical fibers potted within the openings , the method comprising: polishing a distal end face of the ferrule before using a micro-machining process; removing a portion of a distal end face of the ferrule using the micro-machining process in which a plurality of laser beam pulses are directed at the distal end face of the ferrule to cause removal of the portion of the distal end face such that the optical fibers protrude outwardly from the distal end face of the ferrule ; wherein the plurality of laser beam pulses overlapping in a moving direction (D) and in a line-to-line direction, wherein in the line-to-line direction, a line spacing is defined by the distance between two laser lines and the line-to-line direction is perpendicular to the moving direction (D); wherein each of the laser beam pulses defines a pulse spot on the distal end face of the ferrule , the pulse spot having a spot diameter such that adjacent pulse spots have a first spot size overlap of at least 50 percent in the moving direction (D); wherein adjacent pulse spots in the line-to-line direction are spaced apart from one another by the line spacing which is less than the spot diameter of the pulse spots such that adjacent pulse spots have a second spot size overlap of between 20 percent and 40 percent in the line-to-line direction; and polishing the distal end face of the ferrule after the micro-machining process. polishing a distal end face of the ferrule before using a micro-machining process; removing a portion of a distal end face of the ferrule using the micro-machining process in which a plurality of laser beam pulses are directed at the distal end face of the ferrule to cause removal of the portion of the distal end face such that the optical fibers protrude outwardly from the distal end face of the ferrule ; wherein the plurality of laser beam pulses overlapping in a moving direction (D) and in a line-to-line direction, wherein in the line-to-line direction, a line spacing is defined by the distance between two laser lines and the line-to-line direction is perpendicular to the moving direction (D); wherein each of the laser beam pulses defines a pulse spot on the distal end face of the ferrule , the pulse spot having a spot diameter such that adjacent pulse spots have a first spot size overlap of at least 50 percent in the moving direction (D); wherein adjacent pulse spots in the line-to-line direction are spaced apart from one another by the line spacing which is less than the spot diameter of the pulse spots such that adjacent pulse spots have a second spot size overlap of between 20 percent and 40 percent in the line-to-line direction; and polishing the distal end face of the ferrule after the micro-machining process.
Circuitry (300'; 500; 500') for generating a clock signal (CLK), comprising: a high reference voltage (Vh) and a low reference voltage (Vl); toggle circuitry configured to produce the clock signal (CLK), wherein the toggle circuitry is configured to set the clock signal (CLK) to a first logic state when a feedback voltage (Vfb) is lower than the low reference voltage (Vl), and wherein the toggle circuitry is configured to set the clock signal (CLK) to a second logic state when the feedback voltage (Vfb) is higher than the high reference voltage (Vh); and an RC circuit configured to produce the feedback voltage (Vfb), wherein the feedback voltage (Vfb) charges when the clock signal (CLK) is in one of the first or second logic states, and discharges when the clock signal (CLK) is in the other of the first or second logic states, characterized in that the high and low reference voltages (Vh, Vl) are adjustable to adjust a frequency of the clock signal (CLK) by shifting both the high reference voltage (Vh) and the low reference voltage (Vl). a high reference voltage (Vh) and a low reference voltage (Vl); toggle circuitry configured to produce the clock signal (CLK), wherein the toggle circuitry is configured to set the clock signal (CLK) to a first logic state when a feedback voltage (Vfb) is lower than the low reference voltage (Vl), and wherein the toggle circuitry is configured to set the clock signal (CLK) to a second logic state when the feedback voltage (Vfb) is higher than the high reference voltage (Vh); and an RC circuit configured to produce the feedback voltage (Vfb), wherein the feedback voltage (Vfb) charges when the clock signal (CLK) is in one of the first or second logic states, and discharges when the clock signal (CLK) is in the other of the first or second logic states, characterized in that the high and low reference voltages (Vh, Vl) are adjustable to adjust a frequency of the clock signal (CLK) by shifting both the high reference voltage (Vh) and the low reference voltage (Vl).
Disc brake for a commercial vehicle, with a brake calliper engaging over a brake disc on the vehicle side, in which an application device is arranged, which comprises a pivotable brake lever which acts on a bridge supporting at least one brake plunger, which brake lever on the other hand is directly or indirectly supported on the inside of a wall of the brake calliper , wherein the contact region of the bridge on the brake lever or of the brake lever on the brake calliper is formed as a pivot bearing, with a bearing shell forming a part of a sliding bearing and which is configured as a circular arc in cross-section and lies in a seating , characterised in that the bearing shell , locked in the pivot direction of the brake lever , with its longitudinal edges located opposite one another lies against stop edges, which delimit the trough-like seating longitudinally.
Continuous process for the synthesis of 4,6-dinitrobenzofuroxane comprising nitration of benzofuroxane and/or 4-nitrobenzofuroxane and/or 6-nitrobenzofuroxane in concentrated nitric acid at a temperature of 42 to 90°C, wherein the concentrated nitric acid contains 60 to 100% by weight nitric acid, characterised in that no sulphuric acid is used for nitration.