mhurhangee/ep-ind-claims huggingface dataset:
A vehicle for load handling, which comprises: - a supporting chassis having a front section provided with a front axle equipped with a pair of front wheels and a rear section provided with a rear axle equipped with a pair of rear wheels; - a load lifting arm articulated to the rear section of the supporting chassis with the possibility of rotating around at least one swing axis and having a longitudinal axis parallel to a longitudinal axis of the supporting chassis; - a driver's cab supported by the supporting chassis and positioned on the side of an axial portion of the lifting arm; and - a powertrain supported inside an engine compartment of the supporting chassis at least partially positioned vertically below an axial portion of the lifting arm, wherein the powertrain comprises an engine equipped with a crankshaft positioned with a rotation axis orthogonal to the longitudinal axis of the supporting chassis, wherein the powertrain comprises a pumping unit equipped with at least one pump (52,53) equipped with a respective rotary shaft (520, 530) rotatably connected to the engine crankshaft; characterized in that the pumping unit is positioned on the side of the engine and wherein the rotary shaft (520, 530) of the pump (52,53) is parallel and eccentric with respect to the engine crankshaft. - a supporting chassis having a front section provided with a front axle equipped with a pair of front wheels and a rear section provided with a rear axle equipped with a pair of rear wheels; - a load lifting arm articulated to the rear section of the supporting chassis with the possibility of rotating around at least one swing axis and having a longitudinal axis parallel to a longitudinal axis of the supporting chassis; - a driver's cab supported by the supporting chassis and positioned on the side of an axial portion of the lifting arm; and - a powertrain supported inside an engine compartment of the supporting chassis at least partially positioned vertically below an axial portion of the lifting arm, wherein the powertrain comprises an engine equipped with a crankshaft positioned with a rotation axis orthogonal to the longitudinal axis of the supporting chassis, wherein the powertrain comprises a pumping unit equipped with at least one pump (52,53) equipped with a respective rotary shaft (520, 530) rotatably connected to the engine crankshaft;
An image forming apparatus comprising: a driven unit (18, 600); and a drive transmitter including a drive source configured to drive the driven unit (18, 600); a drive gear configured to receive a driving force from the drive source; and a driven gear meshed with the drive gear, the drive transmitter being configured to transmit the driving force from the drive source to the driven unit (18, 600), the drive gear or the driven gear being a crowned gear crowning-processed, the crowned gear having a crowning amount less than 50 μm; characterised in that a face width of the crowned gear is 8 mm or greater. a driven unit (18, 600); and a drive transmitter including a drive source configured to drive the driven unit (18, 600); a drive gear configured to receive a driving force from the drive source; and a driven gear meshed with the drive gear, a drive source configured to drive the driven unit (18, 600); a drive gear configured to receive a driving force from the drive source; and a driven gear meshed with the drive gear, the drive transmitter being configured to transmit the driving force from the drive source to the driven unit (18, 600), the drive gear or the driven gear being a crowned gear crowning-processed, the crowned gear having a crowning amount less than 50 μm; characterised in that a face width of the crowned gear is 8 mm or greater.
Printer, comprising a memory, a colorant supply integrated with the printer so as to be a lifetime colourant supply that is non-exchangeable and non-refillable from an end user perspective and wherein the printer is arranged to be reused, the colorant supply arranged to transfer colorant to media; and printer circuitry, comprising a first authentication circuit to authenticate an entered media authorization code; a second authentication circuit to verify if the printer and colorant supply correspond; and a colorant level sensing circuit connected to the second authentication circuit, wherein a colorant level as signalled by the colorant level sensing circuit is to be stored by the printer circuitry, and the second authentication circuit is to authenticate the colorant supply by verifying if the colorant level approximately matches an expected colorant level; wherein the printer circuitry is further configured to, upon authentication by the first authentication circuit, instruct a counter to count printed media units, and authorize the colorant supply to print as long as the counter does not exceed a predetermined amount of authorized media units; and, upon verification by the second authentication circuit, inhibit printing if the printer and the installed colorant supply do not correspond. a first authentication circuit to authenticate an entered media authorization code; a second authentication circuit to verify if the printer and colorant supply correspond; and
Dispensing device for dispensing a fertiliser, comprising - a receptacle for receiving a supply of fertiliser and - at least one dispensing opening for dispensing the fertiliser, wherein - the fertiliser in the receptacle is a paste-like fertiliser, - a lance-like output device is provided, which comprises a metering chamber for paste-like fertiliser and is connected via a supply line to the receptacle, - provided on the receptacle or the output device is a pumping device, which is configured to generate a output pressure on the paste-like fertiliser in the metering chamber, wherein a flowability of the paste-like fertiliser under pressure is facilitated, - the output device comprises a lance tip on which the at least one dispensing opening is arranged for outputing a metered quantity of paste-like fertiliser, - the supply of paste-like fertiliser is contained in an exchangeable container, namely in a flexible pressure-tight pouch, which can be inserted into the receptacle, - the container comprises a connection, which can be connected detachably to the supply line, and - the dispensing device is configured to be portable, wherein the receptacle for the paste-like fertiliser is arranged on a backpack and the lance-like output device is provided with a hand and/or arm mount. - a receptacle for receiving a supply of fertiliser and - at least one dispensing opening for dispensing the fertiliser, wherein - the fertiliser in the receptacle is a paste-like fertiliser, - a lance-like output device is provided, which comprises a metering chamber for paste-like fertiliser and is connected via a supply line to the receptacle, - provided on the receptacle or the output device is a pumping device, which is configured to generate a output pressure on the paste-like fertiliser in the metering chamber, wherein a flowability of the paste-like fertiliser under pressure is facilitated, - the output device comprises a lance tip on which the at least one dispensing opening is arranged for outputing a metered quantity of paste-like fertiliser, - the supply of paste-like fertiliser is contained in an exchangeable container, namely in a flexible pressure-tight pouch, which can be inserted into the receptacle, - the container comprises a connection, which can be connected detachably to the supply line, and - the dispensing device is configured to be portable, wherein the receptacle for the paste-like fertiliser is arranged on a backpack and the lance-like output device is provided with a hand and/or arm mount.
A hand-operable surgical clip applicator, the applicator comprising: a barrel, the barrel having a first end and a second end, the second end formed to accommodate a surgical clip; a crimping lever; a trigger; and a handle; wherein the handle includes: a first lever having a first end and a second end, the first end of the first lever being pivotally connected at the handle, the second end of the first lever being slidably connected to the trigger; and a second lever having a first end, a second end and a centre region, the centre region of the second lever being pivotally connected to the handle, the first end of the second lever being configured to slide along the length of the first lever, the second end of the second lever being adapted to operate the crimping lever; the first lever and the second lever being configured to provide a mechanical advantage between the trigger and the crimping lever, movement of the trigger in use causing movement of the crimping lever, resulting in a surgical clip being urged from an open position to a closed position; the surgical clip applicator being characterised in that the handle further includes a locating plate, the locating plate being secured to the barrel by a retaining pin, the locating plate being further secured to the handle by a locating plate fastener, the locating plate being adapted to limit the movement of the trigger at a position matching the closed position. a barrel, the barrel having a first end and a second end, the second end formed to accommodate a surgical clip; a crimping lever; a trigger; and a handle; wherein the handle includes: a first lever having a first end and a second end, the first end of the first lever being pivotally connected at the handle, the second end of the first lever being slidably connected to the trigger; and a second lever having a first end, a second end and a centre region, the centre region of the second lever being pivotally connected to the handle, the first end of the second lever being configured to slide along the length of the first lever, the second end of the second lever being adapted to operate the crimping lever; the first lever and the second lever being configured to provide a mechanical advantage between the trigger and the crimping lever, movement of the trigger in use causing movement of the crimping lever, resulting in a surgical clip being urged from an open position to a closed position; the surgical clip applicator being characterised in that the handle further includes a locating plate, the locating plate being secured to the barrel by a retaining pin, the locating plate being further secured to the handle by a locating plate fastener, the locating plate being adapted to limit the movement of the trigger at a position matching the closed position.
An optical glass comprising 2-18 wt.-% B 2 O 3, 0-18 wt. - % SiO 2, with the content of B 2 O 3 being higher than that of SiO 2, 10-50 wt. - % La 2 O 3, 1-30 wt.-% TiO 2, 0-15 wt.-% ZnO, 0-15 wt. - % ZrO 2, 1-35 wt.-% Nb 2 O 5, 1-35 wt.-% BaO, and 0 to < 2 wt. - % Sb 2 O 3, wherein the total content of B 2 O 3, SiO 2, La 2 O 3, ZnO, ZrO 2, Nb 2 O 5, TiO 2, BaO and Sb 2 O 3 is 99 wt. -% or more, and optionally any of SrO, CaO, MgO, Gd 2 O 3, Y 2 O 3, Ta 2 O 5, WO 3, Na 2 O, K 2 O, Li 2 O, GeO 2, Bi 2 O 3, Yb 2 O 3, Al 2 O 3 and SnO 2; with the amount of WO 3 being less than 0.5 wt.-%, which optical glass (a) has an Abbe's number (vd) of 20-40, (b) has a refractive index (nd) of 1.85-2.1; and (c) exhibits λ 70 at 440 nm or less, determined by measuring the spectral transmittance of a 10 mm thick lapped sample and taking the wavelength (nm) at which the sample exhibited a transmittance of 70 % as λ 70. (a) has an Abbe's number (vd) of 20-40, (b) has a refractive index (nd) of 1.85-2.1; and (c) exhibits λ 70 at 440 nm or less, determined by measuring the spectral transmittance of a 10 mm thick lapped sample and taking the wavelength (nm) at which the sample exhibited a transmittance of 70 % as λ 70.
A sealable container for cryopreservation comprising: a body comprising a proximal open end and a sealed distal end and a variable diameter lumen extending there between, the lumen having an external surface and an internal surface, the internal surface tapering generally radially inwardly from the proximal open end to the distal end and forming a sealing portion and a sample receiving portion, a closure configured for removable attachment to the body wherein the closure comprises a capping member adapted for engagement with the proximal open end and a deformable member having a tapered external surface configured for sealing engagement with the sealing portion of the lumen internal surface, at least two projections extending radially outwardly from the external surface of the lumen, the projections comprising a radially outward-most surface extending between the proximal open end and the sealed distal end of the body, wherein the outward-most surface has a substantially constant diameter. a body comprising a proximal open end and a sealed distal end and a variable diameter lumen extending there between, the lumen having an external surface and an internal surface, the internal surface tapering generally radially inwardly from the proximal open end to the distal end and forming a sealing portion and a sample receiving portion, a closure configured for removable attachment to the body wherein the closure comprises a capping member adapted for engagement with the proximal open end and a deformable member having a tapered external surface configured for sealing engagement with the sealing portion of the lumen internal surface, at least two projections extending radially outwardly from the external surface of the lumen, the projections comprising a radially outward-most surface extending between the proximal open end and the sealed distal end of the body, wherein the outward-most surface has a substantially constant diameter.
Method for producing an electrode (16, 18) for the electrochemical machining of a workpiece comprising the steps of: providing an electrically conducting graphite substrate; applying at least one thin film at least in part on at least one surface of the graphite substrate; characterized in the formation of grooves before applying the thin film; mechanical stripping of the thin film at a predetermined section of the graphite substrate wherein the predetermined section does not comprise the grooves. providing an electrically conducting graphite substrate; applying at least one thin film at least in part on at least one surface of the graphite substrate; formation of grooves before applying the thin film; mechanical stripping of the thin film at a predetermined section of the graphite substrate wherein the predetermined section does not comprise the grooves.
A power station with (a) an furnace with (i) a combustion chamber for generating steam and (ii) an air supply line for feeding supply air into the combustion chamber, (b) a turboset with (i) a turbine with a rotor and (ii) a generator, (c) a lubricant circuit for lubricating and cooling the turboset, wherein a coolant circulates in the lubricant circuit, and (d) a heat exchanger for cooling the coolant, wherein (e) the heat exchanger is arranged to heat the supply air. (a) an furnace with (i) a combustion chamber for generating steam and (ii) an air supply line for feeding supply air into the combustion chamber, (i) a combustion chamber for generating steam and (ii) an air supply line for feeding supply air into the combustion chamber, (b) a turboset with (i) a turbine with a rotor and (ii) a generator, (i) a turbine with a rotor and (ii) a generator, (c) a lubricant circuit for lubricating and cooling the turboset, wherein a coolant circulates in the lubricant circuit, and (d) a heat exchanger for cooling the coolant, wherein (e) the heat exchanger is arranged to heat the supply air.
A computer-implemented method of adjusting a treatment plan for irradiating a target area with a proton beam, the method comprising: accessing a target radiation plan, the target radiation plan comprising a temporal and spatial sequence for administering a target dosage to a target area using a plurality of applications of a directed beam of protons; monitoring a movement of the target area, wherein the movement of the target area comprises a plurality of phases of periodic movement delineated by a plurality of transition periods between the plurality of phases of periodic movement; and adjusting the target radiation plan to align the plurality of applications of the directed beam of protons with a movement of the target area to generate an adjusted target radiation plan, wherein the adjusting comprises adjusting a number of raster scans to conform to the plurality of phases of periodic movement and achieve the target dosage; characterized in that: the adjusting of the target radiation plan further comprises aligning a scanning direction of an application of the directed beam of protons to conform to a direction of the motion exhibited by the target area during a phase of periodic movement. accessing a target radiation plan, the target radiation plan comprising a temporal and spatial sequence for administering a target dosage to a target area using a plurality of applications of a directed beam of protons; monitoring a movement of the target area, wherein the movement of the target area comprises a plurality of phases of periodic movement delineated by a plurality of transition periods between the plurality of phases of periodic movement; and adjusting the target radiation plan to align the plurality of applications of the directed beam of protons with a movement of the target area to generate an adjusted target radiation plan, wherein the adjusting comprises adjusting a number of raster scans to conform to the plurality of phases of periodic movement and achieve the target dosage; characterized in that: the adjusting of the target radiation plan further comprises aligning a scanning direction of an application of the directed beam of protons to conform to a direction of the motion exhibited by the target area during a phase of periodic movement.
A face seal arrangement for a gas turbine engine, the face seal arrangement comprising: a seal seat configured for rotating with a shaft; a seal housing; and a non-rotating face seal, said non-rotating face seal including a sealing ring mounted to said seal housing, said sealing ring including a mount portion mounted to said seal housing and a sealing face biased into contact with said seal seat, said sealing ring also having a groove defined remote from said seal face relative to said seal seat, and said groove providing a pressure face that will be exposed to high pressure air, and a coil spring biasing said seal housing towards said seal seat, such that said sealing face of said sealing ring is biased into contact with seal seat by air pressure against said pressure face, and said coil spring; and a balance ratio defined between an area (A 1) of said pressure face created by the groove against which high pressure air biases said sealing face of said sealing ring into contact with said seal seat, and an area (A 2) of said sealing face, which is the contact area of the sealing face, characterized in that: said balance ratio is between 0.5 and 0.64; and a width quantity is defined as the balance ratio multiplied by a radial width of the sealing face divided by an outer diameter of the sealing ring at the sealing face, and said width quantity being between 0.009 and 0.013 or between 0.0135 and 0.0160. a seal seat configured for rotating with a shaft; a seal housing; and a non-rotating face seal, said non-rotating face seal including a sealing ring mounted to said seal housing, said sealing ring including a mount portion mounted to said seal housing and a sealing face biased into contact with said seal seat, said sealing ring also having a groove defined remote from said seal face relative to said seal seat, and said groove providing a pressure face that will be exposed to high pressure air, and a coil spring biasing said seal housing towards said seal seat, such that said sealing face of said sealing ring is biased into contact with seal seat by air pressure against said pressure face, and said coil spring; and a balance ratio defined between an area (A 1) of said pressure face created by the groove against which high pressure air biases said sealing face of said sealing ring into contact with said seal seat, and an area (A 2) of said sealing face, which is the contact area of the sealing face, characterized in that: said balance ratio is between 0.5 and 0.64; and a width quantity is defined as the balance ratio multiplied by a radial width of the sealing face divided by an outer diameter of the sealing ring at the sealing face, and said width quantity being between 0.009 and 0.013 or between 0.0135 and 0.0160. said balance ratio is between 0.5 and 0.64; and a width quantity is defined as the balance ratio multiplied by a radial width of the sealing face divided by an outer diameter of the sealing ring at the sealing face, and said width quantity being between 0.009 and 0.013 or between 0.0135 and 0.0160.
A device for converting a reciprocating motion into a rotary motion comprising an input element and an output element designed to move, under the effect of the intermittent application of an external drive force to said input element, according to a reciprocating motion and a rotary motion, respectively, said input and output elements being provided with respective effort transmission means (5, 6) mechanically interacting in an effort transmission area to at least convert the reciprocating movement of said input element into a continuous rotation of said output element according to an axis of rotation (Y-Y'), said device being characterized in that it is designed so that the distance between said axis of rotation (Y-Y') and said effort transmission area varies automatically so as to be greater when said external drive force is exerted on said input element than when said external drive force is not exerted on said input element.
A Ceramic Matrix Composite component for a gas turbine engine comprising a CMC airfoil having a CMC root section which extends to form a CMC airfoil section, said CMC root section defining a bore along a non-linear axis; and a CMC forward platform segment and a CMC aft platform segment that axially trap the CMC airfoil therebetween, the forward and aft platform segments (86,88) each including an aperture (86A,88A) within a flange (86F,88F), the apertures (86A,88A) forming a curved path with the bore of the CMC airfoil.
A method for detecting a target molecule in a sample, comprising: contacting a sample with a first antibody that binds to the target molecule; contacting the sample with a second antibody conjugated to one or more enzyme molecules, wherein the enzyme molecules are capable to produce at least one product capable of reducing metal ions to metal in a zero oxidation state, and wherein the second antibody specifically binds to the first antibody; contacting the sample with a third antibody, wherein the third antibody is an antibody-nanoparticle conjugate comprising two or more nanoparticles directly linked to an antibody through a metal-thiol bond, and specifically binds to the second antibody; contacting the sample with a substrate of the enzyme molecules and a metal ion, such that a metal precipitate forms and colocalizes with the target molecule; and detecting the metal precipitate, thereby detecting the target molecule. contacting a sample with a first antibody that binds to the target molecule; contacting the sample with a second antibody conjugated to one or more enzyme molecules, wherein the enzyme molecules are capable to produce at least one product capable of reducing metal ions to metal in a zero oxidation state, and wherein the second antibody specifically binds to the first antibody; contacting the sample with a third antibody, wherein the third antibody is an antibody-nanoparticle conjugate comprising two or more nanoparticles directly linked to an antibody through a metal-thiol bond, and specifically binds to the second antibody; contacting the sample with a substrate of the enzyme molecules and a metal ion, such that a metal precipitate forms and colocalizes with the target molecule; and detecting the metal precipitate, thereby detecting the target molecule.