mhurhangee/ep-ind-claims huggingface dataset:
Device for return actioning a door handle, comprising: - a body with a central hole, to be mounted on a door; - a driving disk, placed in said body and having a central hole apt to receive a pin linked to at least one handle located on one side of the door and passing in a hole provided in the door, said driving disk being able to rotate through a limited angle inside said body; - a spring interposed between said body and the driving element, which acts on the latter to return said at least one handle; - means (5, 24) apt to restrain said driving disk and said spring to said body, wherein said spring is an axial planar coil spring housed in an annular seat of said body, which spring, during use, is placed completely outside the plane of the door, without requiring further processing of said hole of the door, said hole of the driving disk being shaped so as to couple with said pin, or with a hub of said at least one handle, wherein said hole of the body is a shaped hole, in which a plurality of radial projections of the body oriented radially towards the interior of the hole are provided, so that between adjacent projections seats are formed, said driving disk having an annular edge and teeth projecting axially from the annular edge to be placed in said seats in the hole, which teeth abut with said radial projections to determine the limited angle of rotation of the driving disk and repositioning at rest, characterized in that said annular edge of said driving disk is axially resting on said radial projections of said body. - a body with a central hole, to be mounted on a door; - a driving disk, placed in said body and having a central hole apt to receive a pin linked to at least one handle located on one side of the door and passing in a hole provided in the door, said driving disk being able to rotate through a limited angle inside said body; - a spring interposed between said body and the driving element, which acts on the latter to return said at least one handle; - means (5, 24) apt to restrain said driving disk and said spring to said body, wherein said spring is an axial planar coil spring housed in an annular seat of said body, which spring, during use, is placed completely outside the plane of the door, without requiring further processing of said hole of the door, said hole of the driving disk being shaped so as to couple with said pin, or with a hub of said at least one handle, wherein said hole of the body is a shaped hole, in which a plurality of radial projections of the body oriented radially towards the interior of the hole are provided, so that between adjacent projections seats are formed, said driving disk having an annular edge and teeth projecting axially from the annular edge to be placed in said seats in the hole, which teeth abut with said radial projections to determine the limited angle of rotation of the driving disk and repositioning at rest, characterized in that said annular edge of said driving disk is axially resting on said radial projections of said body.
A secondary battery, comprising: a first electrode assembly (110, 110', 110") including at least two electrode plates (10, 20; 101, 201; 102, 202), named first and second electrode plates, said electrode plates being stacked on each other; and a second electrode assembly (120, 120', 120") including at least two electrode plates (30, 40; 301, 401; 302, 402), named third and fourth electrode plates, wherein the second electrode assembly (120, 120', 120") is wound along an outer circumference of the first electrode assembly (110, 110', 110"); wherein the first electrode assembly (110, 110', 110") further comprises a first separator (51, 511, 512) interposed between the first and second electrode plates (10, 20; 101, 201; 102, 202), and the second electrode assembly (120, 120', 120") further comprises a second separator (52, 521, 522) wound together with the third and fourth electrode plates (30, 40; 301, 401; 302, 402); wherein the second separator (52, 521, 522) is the only barrier between the electrode plates (10, 20; 101, 201; 102, 202) facing each other of the first electrode assembly (110, 110', 110") and the second electrode assembly (120, 120', 120") and wherein the second separator (52, 521, 522) is comprised of a material selected from a group consisting of polyethylene and polypropylene, characterized in that the second separator (52, 521, 522) forms an innermost turn in the second electrode assembly (120, 120', 120") to surround the outer circumferential surface of the first electrode assembly (110, 110', 110"), and the third electrode plate and the fourth electrode plate (30, 40; 301, 401; 302, 402) are sequentially disposed on the outside of the second separator (52, 521, 522), wherein the second electrode assembly (120, 120', 120") further comprises a third separator (531, 532) interposed between the third and fourth electrode plates (30, 40; 301, 401; 302, 402). a first electrode assembly (110, 110', 110") including at least two electrode plates (10, 20; 101, 201; 102, 202), named first and second electrode plates, said electrode plates being stacked on each other; and a second electrode assembly (120, 120', 120") including at least two electrode plates (30, 40; 301, 401; 302, 402), named third and fourth electrode plates,
A computer implemented method for adjusting a fastener setting tool, the method comprising: measuring a first parameter associated with a first characteristic of the fastener setting tool, wherein the first characteristic comprises one of a torque of a motor of the fastener setting tool or a velocity of a setting portion of the fastener setting tool; comparing the first parameter to a predetermined parameter, wherein the difference between the first parameter and the predetermined parameter represents a condition of the fastener setting tool; calculating an adjustment based on the comparison, wherein the adjustment is to a second characteristic of the fastener setting tool, the second characteristic comprising the other of a torque of a motor of the fastener setting tool or a velocity of a setting portion of the fastener setting tool, the adjustment configured to compensate for the condition of the tool; and applying said adjustment to the fastener setting tool. measuring a first parameter associated with a first characteristic of the fastener setting tool, wherein the first characteristic comprises one of a torque of a motor of the fastener setting tool or a velocity of a setting portion of the fastener setting tool; comparing the first parameter to a predetermined parameter, wherein the difference between the first parameter and the predetermined parameter represents a condition of the fastener setting tool; calculating an adjustment based on the comparison, wherein the adjustment is to a second characteristic of the fastener setting tool, the second characteristic comprising the other of a torque of a motor of the fastener setting tool or a velocity of a setting portion of the fastener setting tool, the adjustment configured to compensate for the condition of the tool; and applying said adjustment to the fastener setting tool.
A method of determining an initial phase of each output signal generated by a plurality of radio frequency front-end circuits, each of said RF front-end circuits comprising a mixer configured to mix an input signal S I with a mixing signal S mix ( m) to generate the output signal S out ( m) for that RF front-end circuit, the method comprising: generating a reference signal S R common to the plurality of RF front-end circuits; for each of the plurality of RF front-end circuits, measuring a time difference Δ t ( m) between a start edge of the reference signal t edge ( S R) and a stop edge of the corresponding mixing signal t edge ( S mix ( m)), wherein the start edge defines a beginning of a measurement period and wherein each stop edge defines an end of the measurement period for the corresponding RF front-end circuit; and determining the initial phase Δ φ i ( m) of each output signal from the time difference measured for the corresponding RF front-end circuit. generating a reference signal S R common to the plurality of RF front-end circuits; for each of the plurality of RF front-end circuits, measuring a time difference Δ t ( m) between a start edge of the reference signal t edge ( S R) and a stop edge of the corresponding mixing signal t edge ( S mix ( m)), wherein the start edge defines a beginning of a measurement period and wherein each stop edge defines an end of the measurement period for the corresponding RF front-end circuit; and determining the initial phase Δ φ i ( m) of each output signal from the time difference measured for the corresponding RF front-end circuit.
A compound of Formula, wherein Ar is a phenyl group substituted by 1, 2, or 3 identical or different substituents selected from chlorine, bromine, fluorine, iodine, C 1 -C 4 -alkyl and trifluoromethyl; or a pharmaceutically acceptable salt, a solvate, a stereoisomer or a diastereoisomer thereof, for use in the prevention, treatment or reduction in severity of oral mucositis in a subject undergoing cancer therapy.
A non-halogen flame retardant and high rigidity polycarbonate resin composition comprising a polycarbonate resin; a phosphorous compound; a glass fiber; an ethylene-containing acrylic resin; and at least one core-shell type resin selected from the group consisting of an acrylic resin and a butadiene based resin; wherein the polycarbonate resin and the phosphorous compound are used as aromatic type, wherein a content of the polycarbonate resin is 30 to 80% by weight based on the total weight of the composition, wherein a content of the phosphorous compound is 5 to 20% by weight based on the total weight of the composition, wherein a content of the glass fiber is 10 to 50% by weight based on the total weight of the composition, wherein a content of the ethylene-containing acrylic resin is 0.5 to 10% by weight based on the total weight of the composition, wherein a content of the core-shell type resin is 1 to 10% by weight based on the total weight of the composition, wherein the glass fiber has a length of 2 to 5 mm and a cross-sectional aspect ratio of 2 to 10, wherein the glass fiber is a cocoon-type glass fiber or a flat-type glass fiber, wherein the glass fiber is surface-treated with epoxy silane, and wherein the ethylene-containing acrylic resin is ethylene-methyl acrylate copolymer.
A method of measuring intraocular pressure of an eye, the methods using a tonometer having an actuator that presses a prism with a variable and determinable electromagnetic force against a cornea of the eye being examined while a detector receives reflected light representing a varying size of an applanated area of the cornea and produces a detected light signal delivered to a programmed microprocessor, the method begins with initial contact of the prism with the cornea producing a preliminary value of the detected light signal, applying an electromagnetic force to press the prism against the eye after the initial contact to enlarge the applanated area, determining the electromagnetic force applied to the prism and the respective detected light signal produced, the method being characterized by: using surface tension of tears in the eye being examined to supply a force pulling the freely movable applanation surface against the eye to produce the preliminary value whose size is a function of thickness and curvature of the cornea of the eye being examined; determining IOP by proceeding with increasing prism pressure force for a predetermined number of increments or for a predetermined time interval resulting in a predetermined increase in prism pressing force above the preliminary value, from which microprocessor is programmed to determine IOP from the signal change reached at the end value of the predetermined range of prism force change values; or determining IOP from force change values that are continued until the detected light signal reaches a predetermined departure from the preliminary value, from which the microprocessor determines IOP from the total pressure force required to reach the end signal value. using surface tension of tears in the eye being examined to supply a force pulling the freely movable applanation surface against the eye to produce the preliminary value whose size is a function of thickness and curvature of the cornea of the eye being examined; determining IOP by proceeding with increasing prism pressure force for a predetermined number of increments or for a predetermined time interval resulting in a predetermined increase in prism pressing force above the preliminary value, from which microprocessor is programmed to determine IOP from the signal change reached at the end value of the predetermined range of prism force change values; or determining IOP from force change values that are continued until the detected light signal reaches a predetermined departure from the preliminary value, from which the microprocessor determines IOP from the total pressure force required to reach the end signal value.
A bracket member (150, 300, 400) made of a composite or plastic material for a gas turbine engine comprising: a mounting flange (156, 166, 304) having a first and second section (162, 164, 310), each section having a bore (172, 174, 312, 404) for receiving a fastener; a main section (158, 306) integral with the mounting flange (156, 166, 304), the main section (158, 306) extending along a longitudinal axis from the mounting flange (156, 166, 304), the main section (158, 306) having a reinforced rib shaped section (186, 322) extending along the longitudinal axis, a molded in nut is part of the main section (158, 306); a cross support member (160, 324) extending between the mounting flange (156, 304) and a distal portion of the main section (158, 306); and at least one opening (206, 208, 326) provided in a top surface (180, 316) of the main section (158, 306), wherein the at least one opening (206, 208, 326) is disposed between the cross support member (160, 324) and the reinforced rib shaped section (186, 322). a mounting flange (156, 166, 304) having a first and second section (162, 164, 310), each section having a bore (172, 174, 312, 404) for receiving a fastener; a main section (158, 306) integral with the mounting flange (156, 166, 304), the main section (158, 306) extending along a longitudinal axis from the mounting flange (156, 166, 304), the main section (158, 306) having a reinforced rib shaped section (186, 322) extending along the longitudinal axis, a molded in nut is part of the main section (158, 306); a cross support member (160, 324) extending between the mounting flange (156, 304) and a distal portion of the main section (158, 306); and at least one opening (206, 208, 326) provided in a top surface (180, 316) of the main section (158, 306), wherein the at least one opening (206, 208, 326) is disposed between the cross support member (160, 324) and the reinforced rib shaped section (186, 322).
Anchor rail (12, 12A, 12B) for an aircraft floor, comprising: - an upper flange comprising a guideway (140A, 140B) intended for anchoring fixing elements, and two flange wings arranged one on each side of the guideway and intended to support floor panels, and - a lower stiffening structure connected to the upper flange, the rail being formed: - of a beam formed at least of a body made of a first material and defining the lower stiffening structure and an upper platform; and - of an anti-corrosion protection wholly covering an upper face of the upper platform so that the anti-corrosion protection and the upper platform together constitute the upper flange of the rail, characterized in that the anti-corrosion protection is at least formed of a protective sheet, a hard and rigid solid element placed on the upper platform, made of a second material more resistant to corrosion than the first material and extending continuously from one lateral free end of one of the flange wings as far as a lateral free end of the other flange wing and by means of which the protective sheet covers a bottom and two mutually opposite side walls of the guideway (140A, 140B). - an upper flange comprising a guideway (140A, 140B) intended for anchoring fixing elements, and two flange wings arranged one on each side of the guideway and intended to support floor panels, and - a lower stiffening structure connected to the upper flange, the rail being formed: - of a beam formed at least of a body made of a first material and defining the lower stiffening structure and an upper platform; and - of an anti-corrosion protection wholly covering an upper face of the upper platform so that the anti-corrosion protection and the upper platform together constitute the upper flange of the rail, - of a beam formed at least of a body made of a first material and defining the lower stiffening structure and an upper platform; and - of an anti-corrosion protection wholly covering an upper face of the upper platform so that the anti-corrosion protection and the upper platform together constitute the upper flange of the rail, characterized in that the anti-corrosion protection is at least formed of a protective sheet, a hard and rigid solid element placed on the upper platform, made of a second material more resistant to corrosion than the first material and extending continuously from one lateral free end of one of the flange wings as far as a lateral free end of the other flange wing and by means of which the protective sheet covers a bottom and two mutually opposite side walls of the guideway (140A, 140B).
A bio impedance measurement apparatus comprising: a current applicator configured to provide, to terminals contacting a body, a current based on a first control signal; a modulator configured to modulate a voltage generated as the current flows through the body, based on a second control signal; an amplifier configured to amplify the modulated voltage; and a demodulator configured to demodulate the amplified voltage based on a third control signal, wherein the second control signal has a second frequency that is determined so that a frequency obtained by subtracting the second frequency from a first frequency of the first control signal is in a bandwidth of the amplifier, thereby changing the central frequency of the voltage from the first frequency to said frequency obtained by subtracting the second frequency from the first frequency. a current applicator configured to provide, to terminals contacting a body, a current based on a first control signal; a modulator configured to modulate a voltage generated as the current flows through the body, based on a second control signal; an amplifier configured to amplify the modulated voltage; and a demodulator configured to demodulate the amplified voltage based on a third control signal, wherein the second control signal has a second frequency that is determined so that a frequency obtained by subtracting the second frequency from a first frequency of the first control signal is in a bandwidth of the amplifier, thereby changing the central frequency of the voltage from the first frequency to said frequency obtained by subtracting the second frequency from the first frequency.
An arrangement for detecting the jamming of an electromechanical switch in a current supply device controlled by the electromechanical switch and connected to a circuit, wherein electrical power is supplied to the current supply device through a residual-current device and the electromechanical switch provided after the residual-current device in the circuit, and the circuit being provided with a controller, wherein when the electromechanical switch is jammed, i.e. the terminals of the switch are latched at an unwanted point of time, the residual-current device is connected so as to trip and the circuit to open by driving the current past the residual-current device, characterized in that a separately connecting resistor is arranged, coupled between two phases, to drive the current past the residual-current device.
A turbine engine comprising: a frame defining a central aperture; a shaft extending in a fore to aft direction through the central aperture; a bearing assembly rotationally supporting the shaft; a spring assembly (150, 160) comprising an inner ring (144, 164) circumscribing the bearing assembly and an outer ring (146, 166) mounted to the frame; and a damper circumscribing the inner ring and separating the inner ring from the frame, characterised in that the spring assembly (150, 160) comprises a first and second set of circumferentially arranged spring fingers (148, 168), having differing stiffnesses, and extending between the inner ring (144, 164) and the outer ring (146, 166). a frame defining a central aperture; a shaft extending in a fore to aft direction through the central aperture; a bearing assembly rotationally supporting the shaft; a spring assembly (150, 160) comprising an inner ring (144, 164) circumscribing the bearing assembly and an outer ring (146, 166) mounted to the frame; and a damper circumscribing the inner ring and separating the inner ring from the frame, characterised in that the spring assembly (150, 160) comprises a first and second set of circumferentially arranged spring fingers (148, 168), having differing stiffnesses, and extending between the inner ring (144, 164) and the outer ring (146, 166).
A generator comprising: a generator frame; frame rings extending from an inside surface of the generator frame; stacked laminations forming a stator core disposed within the generator frame; a spring bar spanning a distance between at least two frame rings, a first spring bar end attached to a first frame ring and a second opposing spring bar end attached to a second frame ring; at least one bracket attached to the spring bar; and a first and a second keybar attached to the bracket, each keybar for engaging a corresponding groove within the stator core, wherein the first and second frame rings each define a notch therein for receiving a respective first and second clevis, the first and second clevis affixed to the respective first and second frame ring, the first and second spring bar ends affixed to the respective first and second clevis. a generator frame; frame rings extending from an inside surface of the generator frame; stacked laminations forming a stator core disposed within the generator frame; a spring bar spanning a distance between at least two frame rings, a first spring bar end attached to a first frame ring and a second opposing spring bar end attached to a second frame ring; at least one bracket attached to the spring bar; and a first and a second keybar attached to the bracket, each keybar for engaging a corresponding groove within the stator core, wherein the first and second frame rings each define a notch therein for receiving a respective first and second clevis, the first and second clevis affixed to the respective first and second frame ring, the first and second spring bar ends affixed to the respective first and second clevis.