mhurhangee/ep-ind-claims huggingface dataset:
A composition for depositing a silicon nitride or silicon oxide film, the composition comprising: at least one silicon precursor compound having the following Formula IIA: wherein substituent R is independently selected from a hydrogen, a halide atom, a linear C 1 to C 10 alkyl group; a branched C 3 to C 10 alkyl group; a linear or branched C 3 to C 12 alkenyl group; a linear or branched C 3 to C 12 alkynyl group; a C 4 to C 10 cyclic alkyl group; and a C 6 to C 10 aryl group.
Device for generating a compressed air pulse, with - a compressed air tank that can be filled with compressed air via a supply line, - an outlet valve for emitting the compressed air pulse via an outlet and - a pneumatic drive for opening and closing the outlet valve, wherein - the drive for opening or closing the outlet valve can be driven by means of the compressed air present in the compressed air tank, - and the drive can be controlled via a control valve, - and wherein the drive and/or the control valve are arranged within the compressed air tank. - a compressed air tank that can be filled with compressed air via a supply line, - an outlet valve for emitting the compressed air pulse via an outlet and - a pneumatic drive for opening and closing the outlet valve, wherein - the drive for opening or closing the outlet valve can be driven by means of the compressed air present in the compressed air tank, - and the drive can be controlled via a control valve, - and wherein the drive and/or the control valve are arranged within the compressed air tank.
An inner bearing race for use in an integrated drive generator comprising: a body extending from a first end to a second end; and an inner bearing race surface defined between a pair of lands (146,148) extending radially outwardly of said inner bearing race surface, with one of said lands extending to said second end, and the said bearing race surface defined by inner face surfaces of said lands (146, 148), and said inner bearing race surface extending for an axial distance between said inner face surfaces along a central axis of said body, and defining a first distance, an outer diameter of said inner bearing race surface being defined as a second distance and a boss extends from a second of said lands (146, 148) spaced away from said second end and to said first end; characterised in that a ratio of said first distance to said second distance is between 0.20 and 0.30; a third distance is defined to an outer diameter of said land at said second end and a ratio of said second distance to said third distance is between 0.85 and 0.95; an inner bore formed radially inwardly of said inner bearing race surface, and an inner diameter of said inner bore defining a fourth distance and a ratio of said first distance to said fourth distance being between 0.25 and 0.30; and an outer diameter of said boss defining a fifth distance, and a ratio of said first distance to said fifth distance being between 0.25 and 0.30. a body extending from a first end to a second end; and an inner bearing race surface defined between a pair of lands (146,148) extending radially outwardly of said inner bearing race surface, with one of said lands extending to said second end, and the said bearing race surface defined by inner face surfaces of said lands (146, 148), and said inner bearing race surface extending for an axial distance between said inner face surfaces along a central axis of said body, and defining a first distance, an outer diameter of said inner bearing race surface being defined as a second distance and a boss extends from a second of said lands (146, 148) spaced away from said second end and to said first end; characterised in that a ratio of said first distance to said second distance is between 0.20 and 0.30; a third distance is defined to an outer diameter of said land at said second end and a ratio of said second distance to said third distance is between 0.85 and 0.95; an inner bore formed radially inwardly of said inner bearing race surface, and an inner diameter of said inner bore defining a fourth distance and a ratio of said first distance to said fourth distance being between 0.25 and 0.30; and an outer diameter of said boss defining a fifth distance, and a ratio of said first distance to said fifth distance being between 0.25 and 0.30.
A vehicle with a headlight unit and a periphery monitoring apparatus comprising: a light source configured to be provided in the vehicle for illuminating the periphery of the vehicle; and a camera, characterized in that said camera is provided within the headlight unit of the vehicle having the light source, the camera photographing a condition of the periphery of the vehicle with an optical axis changed by a mirror toward the underside of the circumferential edge of the vehicle, the underside of the circumferential edge of the vehicle being illuminated by at least a portion of light irradiated from the light source reflected by the mirror configured to be disposed on the outer side of the circumferential edge of the vehicle. a light source configured to be provided in the vehicle for illuminating the periphery of the vehicle; and a camera, characterized in that said camera is provided within the headlight unit of the vehicle having the light source, the camera photographing a condition of the periphery of the vehicle with an optical axis changed by a mirror toward the underside of the circumferential edge of the vehicle, the underside of the circumferential edge of the vehicle being illuminated by at least a portion of light irradiated from the light source reflected by the mirror configured to be disposed on the outer side of the circumferential edge of the vehicle.
A compound defined by Formula I, or a pharmaceutically acceptable salt thereof: wherein Q is a dicarba-closo-dodecaborane cluster, and R 1 are attached to Q in a para configuration; X is OH; and R 1 is C 4 -C 20 alkyl substituted with one or more groups chosen from hydroxy, aryl, or ketone. Q is a dicarba-closo-dodecaborane cluster, and R 1 are attached to Q in a para configuration; X is OH; and R 1 is C 4 -C 20 alkyl substituted with one or more groups chosen from hydroxy, aryl, or ketone.
A method to control an electrically-operated turbocharger in a supercharged internal combustion engine; the turbocharger comprises: a turbine, which is inserted into an exhaust pipe to rotate because of the thrust of the exhaust gases and operates an electric generator, and a compressor, which is mechanically independent of the turbine, is inserted into an intake pipe to increase the pressure of the air and is operated by an electric motor; the control method is characterized in that it comprises the further steps of: establishing when the intensity of the acoustic emission in the exhaust of the internal combustion engine needs to be increased; and reducing the mechanical power actually absorbed by the electric generator relative to the available mechanical power to increase the intensity of the acoustic emission in the exhaust of the internal combustion engine. establishing when the intensity of the acoustic emission in the exhaust of the internal combustion engine needs to be increased; and reducing the mechanical power actually absorbed by the electric generator relative to the available mechanical power to increase the intensity of the acoustic emission in the exhaust of the internal combustion engine.
Cable comprising a cable core and a cable sheath, wherein a material which forms the cable sheath comprises at least one first region (4, 6) and at least one second region, wherein the material of the first region (4, 6) is cross-linked, and wherein the material of the second region is not cross-linked or is cross-linked to a less pronounced extent than the material of the first region (4, 6), characterized in that the cable sheath has an additional reinforcement element in a boundary region, in which the cross-linked region (4, 6) merges into the region which is not cross-linked.
Mixer for an exhaust system for mixing reactant injected into an exhaust gas stream with exhaust gas, comprising a mixer body with a one-piece configuration made of a sheet metal part with a reactant passage body area with a reactant passage opening, with a mixer plate body area adjoining the reactant passage body area on one side in a mixer longitudinal direction, and with a mixer main body area adjoining the reactant passage body area on another side opposed to the one side in the mixer longitudinal direction, wherein the mixer plate body area is bent in relation to the reactant passage body area in a first bending area in a first bending direction, and the mixer main body area is bent in a second bending area in relation to the reactant passage body area in a second bending direction opposed to the first bending direction, and wherein the mixer body has a deflecting rear area located facing the reactant passage opening in the mixer main body area and a respective mixing surface area (48, 50) each extending in the direction away from the reactant passage opening starting from the deflecting rear area transverse to the mixer longitudinal direction on both sides of the deflecting rear area.
A connector comprising a male-side connector and a female-side connector (10; 60) connecting a first infusion tube and a second infusion tube (3; 63), wherein: the male-side connector comprises a male-side coupling flow path which is connected at a base end side thereof to the first infusion tube, and which includes at a leading end side thereof a conical outer surface in which a diameter gradually decreases toward the leading end, and a male-side lock portion which is cylindrical and is held rotatably to an outer periphery of the conical outer surface, and which includes a female screw at an inner periphery surface; and the female-side connector (10, 60) comprises a female-side coupling flow path (11; 61) which is connected at a base end side thereof with the second infusion tube (3; 63), and which includes at a leading-end side with a conical inner surface corresponding to the conical outer surface, and a female-side lock portion which includes a male screw (12; 62) corresponding to the female screw; characterized in that a central axis (14; 67) of a thread (16; 65) and a central axis (13, 66) of a root (15; 64) of the male screw (12; 62) intersect at a predetermined angle. the male-side connector comprises a male-side coupling flow path which is connected at a base end side thereof to the first infusion tube, and which includes at a leading end side thereof a conical outer surface in which a diameter gradually decreases toward the leading end, and a male-side lock portion which is cylindrical and is held rotatably to an outer periphery of the conical outer surface, and which includes a female screw at an inner periphery surface; and the female-side connector (10, 60) comprises a female-side coupling flow path (11; 61) which is connected at a base end side thereof with the second infusion tube (3; 63), and which includes at a leading-end side with a conical inner surface corresponding to the conical outer surface, and a female-side lock portion which includes a male screw (12; 62) corresponding to the female screw; characterized in that a central axis (14; 67) of a thread (16; 65) and a central axis (13, 66) of a root (15; 64) of the male screw (12; 62) intersect at a predetermined angle.
Condensing boiler (1; 101; 201; 301) comprising: at least one heat exchanger; a combustion chamber; a burner arranged inside said combustion chamber, a flow path for the fumes generated by the burner crossing a hot side of said heat exchanger; and a collecting vessel in fluid connection with the hot side of said heat exchanger and designed to collect a condensate formed thereon, characterized in that it comprises a discharge pump, configured to transport said condensate from the collecting vessel to an evaporation station external to said flow path of the fumes, but heated by said burner in an operating condition; as well as control means configured to activate said discharge pump in predefined conditions.
A process for producing an amide compound, comprising: reacting a ketone and hydroxylamine in the presence of an organic solvent to give an oxime (hereinafter, referred to as an oxime-forming step), conducting Beckmann rearrangement of the oxime using a Beckmann rearrangement catalyst to give an amide compound (hereinafter, referred to as a rearrangement step), and separating the amide compound thus produced and the solvent, and recycling the separated solvent into the oxime-forming step (hereinafter, referred to as a solvent-recycling step); wherein an amount of each of a halide, an aldehyde compound, an alcohol compound and a nitrile compound contained in the solvent separated by distillation in the solvent-recycling step and recycled into the oxime-forming step is controlled to an amount of 0.4 mol% or less based on the ketone as the starting material, whereby an amount of each of an aldoxime compound and an amidoxime compound contained in the reaction solution in the oxime-forming step is controlled to an amount of 0.4 mol% or less based on the oxime. reacting a ketone and hydroxylamine in the presence of an organic solvent to give an oxime (hereinafter, referred to as an oxime-forming step), conducting Beckmann rearrangement of the oxime using a Beckmann rearrangement catalyst to give an amide compound (hereinafter, referred to as a rearrangement step), and separating the amide compound thus produced and the solvent, and recycling the separated solvent into the oxime-forming step (hereinafter, referred to as a solvent-recycling step); wherein an amount of each of a halide, an aldehyde compound, an alcohol compound and a nitrile compound contained in the solvent separated by distillation in the solvent-recycling step and recycled into the oxime-forming step is controlled to an amount of 0.4 mol% or less based on the ketone as the starting material, whereby an amount of each of an aldoxime compound and an amidoxime compound contained in the reaction solution in the oxime-forming step is controlled to an amount of 0.4 mol% or less based on the oxime.
A cover (20;52) for a cylinder arrangement having at least one cylinder (10; 80, 82, 84), the cover (20; 52) being suitable for covering a cylinder opening in the cylinder (10; 82, 82, 84) so as to seal it and at least one sensor unit for capturing a measured value inside the cylinder (10; 82, 82, 84) being at least partially integrated in the cover (20; 52), the sensor unit having a coil which is accommodated in the cover (20; 52), the coil being arranged in such a manner that it at least partially surrounds a recess (26; 60) provided in the cover (20; 52), the recess (26; 60) having a fixing device.
A pressure control valve assembly for containers adapted to contain compressed and liquefied gases, comprising a valve body that can be applied to a cylinder for gases defining a cylinder axis, in which there are defined a first duct for the gas in output from said container and a multistage pressure piston regulator device connected to said first duct and to the inside of the cylinder when the valve body is applied thereto, said pressure regulator device being fully placeable within said container, said regulator device comprising a multistage piston regulator extending axially, the valve assembly further comprising a second duct for connection between said pressure regulator device and the environment that lies outside said container wherein each stage of the multistage piston regulator comprises a piston that can slide within a seat formed in said valve body, said piston comprising two axially adjacent portions (13a,b) of different diameters, which are connected by means of a shoulder on which a spring is active, characterized in that said second duct connects the shoulder of the piston of each stage of the regulator device to the environment that lies outside said container so that an external atmospheric reference pressure acts on the shoulder of the piston of each stage of the multistage regulator and in that the piston of each stage has axis corresponding to the cylinder axis when the valve assembly is applied to the cylinder.
Method for determining or estimating a load weight of a load lifted by a commercial vehicle, in particular by an industrial truck, such as a forklift, comprising: a) ascertaining a speed ratio between a first speed of at least one first wheel loaded by a load that is lifted in a load lifter of the vehicle and a second speed of at least one second wheel of the moving vehicle which is loaded less heavily or is not loaded by a load that is lifted in the load lifter or is relieved by a load that is lifted in the load lifter, which second wheel has lifted the load in the load lifter; characterised by: b) determining or estimating the load weight of the lifted load on the basis of the ascertained speed ratio and predetermined reference data; the method further comprising ascertaining a state of wear of the wheels (12, 14), which is taken into account when determining or estimating the load weight, and the state of wear of the wheels (12, 14) on the vehicle without a lifted load being ascertained by directly or indirectly measuring or ascertaining a number of revolutions of the at least one first wheel that occur when driving the vehicle without a lifted load over a defined distance and a number of revolutions of the at least one second wheel that occur when driving over the defined distance. a) ascertaining a speed ratio between a first speed of at least one first wheel loaded by a load that is lifted in a load lifter of the vehicle and a second speed of at least one second wheel of the moving vehicle which is loaded less heavily or is not loaded by a load that is lifted in the load lifter or is relieved by a load that is lifted in the load lifter, which second wheel has lifted the load in the load lifter; b) determining or estimating the load weight of the lifted load on the basis of the ascertained speed ratio and predetermined reference data;
A boiling cooler comprising: a boiling part including a heat receiving surface thermally connected to a heat source, the boiling part boiling a refrigerant contained in an internal space thereof; a condensing part arranged in a horizontal direction with respect to the boiling part, the condensing part condensing a refrigerant gas by heat exchange with an external fluid; and a connecting pipe that connects the boiling part to the condensing part and circulates the refrigerant; wherein the condensing part includes: a plurality of stages of refrigerant passages aligned in a height direction perpendicular to the horizontal direction; and a first external passage for the external fluid provided between the plurality of stages of refrigerant passages, and a second external passage for the external fluid provided on an outer surface of at least one of an uppermost refrigerant passage and a lowermost refrigerant passage; and wherein the boiling cooler is characterized in that the condensing part further includes: a range in the height direction in which the internal space of the boiling part is formed overlaps, in the height direction, a range in the height direction in which the lowermost refrigerant passage of the condensing part is formed.
Motor-fan unit for a motor vehicle comprising an electric motor and a control circuit board for controlling said electric motor, said control circuit board comprising: - an acquisition device for acquiring at least one characteristic quantity of said motor-fan unit; - a driver device configured to drive said electric motor via a primary pulse width modulation signal; said driver device being further configured to send, to said acquisition device, a trigger signal for triggering said acquisition, said trigger signal being offset and synchronous with respect to said primary pulse width modulation signal, characterized in that, if said primary pulse width modulation signal comprises a primary duty cycle (α1) lower than or equal to fifty percent, said triggering of said acquisition takes place at an instant (t) equal to the primary duty cycle (αl) divided by two plus fifty percent. - an acquisition device for acquiring at least one characteristic quantity of said motor-fan unit; - a driver device configured to drive said electric motor via a primary pulse width modulation signal;
An interventional medical device connector including an implant having at least one locking ring provided at a closure head of the implant, and a pusher provided with at least one control wire, the control wire arranged to slide along the axial direction of the pusher, a lock arranged at a distal end of the pusher and having at least one locking opening for receiving said locking ring, wherein a distal end of the control wire, when moved axially, can reach at least one of the locking openings, wherein the control wire, the locking ring and the locking opening together form a connection means having a lock-pin structure, and an end surface of the closure head facing the lock is spherical, characterized in that the lock has a cylindrical shape with a sealed distal end and an outer surface of the sealed distal end is recessed so as to form a conjugate spherical surface with respect to the spherical end surface of the closure head of the implant.
A method for estimating color separation misregistration of a printing system, the method comprising: Marking a substrate to form a misregistration estimation patch, the misregistration estimation patch being formed by first and second color separations in the printing system, the first color separation marking the substrate with a first halftone pattern having a first halftone-frequency vector in a first direction and a second halftone-frequency vector in a second direction, the second color separation marking the substrate with a second halftone pattern having a first halftone-frequency vector in a first direction and a second halftone-frequency vector in a second direction, wherein the first and second halftone patterns are frequency shifted and form a moiré pattern, wherein deviation in at least one of the halftone frequency vectors and the moiré pattern is indicative of a color separation misregistration; and Estimating the color separation misregistration of the printing system using the misregistration estimation patch, characterized in that the step of estimating the color separation misregistration of the printing system using the misregistration estimation patch includes measuring a spatial shift of the moiré pattern of said misregistration estimation patch in comparison to a misregistration estimation patch with no color separation misregistration. Marking a substrate to form a misregistration estimation patch, the misregistration estimation patch being formed by first and second color separations in the printing system, the first color separation marking the substrate with a first halftone pattern having a first halftone-frequency vector in a first direction and a second halftone-frequency vector in a second direction, the second color separation marking the substrate with a second halftone pattern having a first halftone-frequency vector in a first direction and a second halftone-frequency vector in a second direction, wherein the first and second halftone patterns are frequency shifted and form a moiré pattern, wherein deviation in at least one of the halftone frequency vectors and the moiré pattern is indicative of a color separation misregistration; and Estimating the color separation misregistration of the printing system using the misregistration estimation patch,