mhurhangee/ep-ind-claims huggingface dataset:
A syringe comprising: a tip provided at one end of a barrel body to be filled with a medicine; a peripheral wall provided around the tip concentrically with the tip; and a helical rib formed on an inner face of the peripheral wall, wherein a protrusion length of the peripheral wall from the barrel body is smaller than a protrusion length of the tip from the barrel body so that an outer end of the tip is exposed from peripheral wall in a side view, characterized in that the tip has an outer diameter of 4.315 mm to 6 mm and that the helical rib extends from a position corresponding to an outer end of the peripheral wall to a position corresponding to an end of the peripheral wall opposite to the outer end so as to turn around a central axis only once. a tip provided at one end of a barrel body to be filled with a medicine; a peripheral wall provided around the tip concentrically with the tip; and a helical rib formed on an inner face of the peripheral wall, wherein a protrusion length of the peripheral wall from the barrel body is smaller than a protrusion length of the tip from the barrel body so that an outer end of the tip is exposed from peripheral wall in a side view, characterized in that the tip has an outer diameter of 4.315 mm to 6 mm and that the helical rib extends from a position corresponding to an outer end of the peripheral wall to a position corresponding to an end of the peripheral wall opposite to the outer end so as to turn around a central axis only once.
Parking-lock arrangement for a motor-vehicle transmission, having a parking-lock wheel which is mounted such that it can be rotated about a first axis, having a parking-lock pawl which is mounted such that it can be moved between a locking position and a release position and having an actuating arrangement which actuates the parking-lock pawl and is mounted such that it can be rotated about a second axis over an angular range, wherein the angular range has a first angular section, within which the parking-lock pawl can be actuated, and a second angular section, within which the parking-lock pawl is held in a position, and wherein the parking-lock pawl is held in the release position within the second angular section, characterized in that the second angular section is greater than the first angular section.
An evacuation apparatus for removing gaseous byproducts or noxious vapors comprising: a head adapted to be operatively coupled to a vacuum source by a nozzle, said head substantially defining a plenum constructed of a generally non-porous material, said plenum having an inner periphery defining a generally central opening, a generally open facing adjacent to the inner periphery, and a bottom wall including an adhesive layer for adhesive attachment of the head around a surgical site; and a plenum support for preventing the plenum from collapsing when a low pressure is established therein, wherein the apparatus further comprises a fluid source nozzle adapted to be operatively coupled to a fluid source for supplying air or ultra-clean air or an inert or other gas or combinations thereof through said head, characterised in that said fluid source nozzle is disposed generally opposite to said nozzle to be coupled to said vacuum source to provide a flow of said air or ultra-clean air or inert or other gas or combinations thereof through said plenum. a head adapted to be operatively coupled to a vacuum source by a nozzle, said head substantially defining a plenum constructed of a generally non-porous material, said plenum having an inner periphery defining a generally central opening, a generally open facing adjacent to the inner periphery, and a bottom wall including an adhesive layer for adhesive attachment of the head around a surgical site; and a plenum support for preventing the plenum from collapsing when a low pressure is established therein, wherein the apparatus further comprises a fluid source nozzle adapted to be operatively coupled to a fluid source for supplying air or ultra-clean air or an inert or other gas or combinations thereof through said head, characterised in that said fluid source nozzle is disposed generally opposite to said nozzle to be coupled to said vacuum source to provide a flow of said air or ultra-clean air or inert or other gas or combinations thereof through said plenum.
A current detecting device configured to be connected to a motor device that includes a motor and a motor drive unit to drive the motor, the current detecting device comprising: a motor-use power supply device; a drive-use power supply device; a third wire configured to carry flow of a motor current (Im) that has been passed through the motor, the third wire interconnects an output of the motor-use power supply device; a third harness configured to connect to the third wire so that the output of the motor-use power supply device is applied to the motor; a second wire configured to carry flow of a drive current (Id) that is passed through the motor drive unit, the second wire interconnects an output of the drive-use power supply device; a second harness configured to connect to the second wire so that the output of the drive-use power supply device is applied to the motor drive unit; a current leveling unit being configured to level the drive current on the second wire; a first wire being configured to carry flow of the motor current after flowing through the motor and the drive current that has been leveled by the current leveling unit; a first harness configured to connect to the first wire and a GND of the motor device; and a current detecting unit, wherein when the motor device is rotating, the current detecting unit is configured to mainly detect the sum of the motor current on the first wire and the drive current that has been leveled flowing on the first wire, and when the motor device is not rotating, the current detecting unit is configured to only detect the drive current that has been leveled flowing on the first wire. a motor-use power supply device; a drive-use power supply device; a third wire configured to carry flow of a motor current (Im) that has been passed through the motor, the third wire interconnects an output of the motor-use power supply device; a third harness configured to connect to the third wire so that the output of the motor-use power supply device is applied to the motor; a second wire configured to carry flow of a drive current (Id) that is passed through the motor drive unit, the second wire interconnects an output of the drive-use power supply device; a second harness configured to connect to the second wire so that the output of the drive-use power supply device is applied to the motor drive unit; a current leveling unit being configured to level the drive current on the second wire; a first wire being configured to carry flow of the motor current after flowing through the motor and the drive current that has been leveled by the current leveling unit; a first harness configured to connect to the first wire and a GND of the motor device; and a current detecting unit, wherein when the motor device is rotating, the current detecting unit is configured to mainly detect the sum of the motor current on the first wire and the drive current that has been leveled flowing on the first wire, and when the motor device is not rotating, the current detecting unit is configured to only detect the drive current that has been leveled flowing on the first wire.
Method for plausibilizing a current flowing through a consumer wherein the method comprises the following steps: - determining a dither current on the basis of a dither signal and a present point in time, - wherein the dither signal is determined by a frequency, an amplitude and a signal waveform; - wherein the dither signal is divided into a number of dither steps and the dither current is kept constant in each case during a dither step; - driving a current valve in order to bring about the sum of a desired current and the determined dither current through the consumer; - determining an actual current flowing through the consumer; - reducing the determined actual current by the dither current; and - comparing the desired current with the reduced actual current; wherein - determining the dither current and determining the actual current are synchronized with one another in such a way that the determined actual current and the determined dither current relate to the same dither step. - determining a dither current on the basis of a dither signal and a present point in time, - wherein the dither signal is determined by a frequency, an amplitude and a signal waveform; - wherein the dither signal is divided into a number of dither steps and the dither current is kept constant in each case during a dither step; - driving a current valve in order to bring about the sum of a desired current and the determined dither current through the consumer; - determining an actual current flowing through the consumer; - reducing the determined actual current by the dither current; and - comparing the desired current with the reduced actual current; - determining the dither current and determining the actual current are synchronized with one another in such a way that the determined actual current and the determined dither current relate to the same dither step.
A mattress cover comprising: (i) a base layer; (ii) a top layer; and (iii) an internal volume defined between the respective base and top layers; wherein the internal volume contains a fluid permeable spacer material, and the base and top layers are connected around the perimeter of the internal volume; a fluid inlet being provided in the mattress cover to allow a driven fluid to enter the internal volume and move through the fluid permeable spacer material; and wherein a plurality of fluid outlets are provided in the top layer to allow a driven fluid introduced via the fluid inlet to escape from the mattress cover; wherein the fluid outlets are distributed on the top layer in a non-uniform pattern and/or are non-uniform in size; and characterised in that the distribution of fluid outlets is such that the spacing between adjacent outlets decreases with increasing distance from the fluid inlet. (i) a base layer; (ii) a top layer; and (iii) an internal volume defined between the respective base and top layers; wherein the internal volume contains a fluid permeable spacer material, and the base and top layers are connected around the perimeter of the internal volume; a fluid inlet being provided in the mattress cover to allow a driven fluid to enter the internal volume and move through the fluid permeable spacer material; and wherein a plurality of fluid outlets are provided in the top layer to allow a driven fluid introduced via the fluid inlet to escape from the mattress cover; wherein the fluid outlets are distributed on the top layer in a non-uniform pattern and/or are non-uniform in size; and characterised in that the distribution of fluid outlets is such that the spacing between adjacent outlets decreases with increasing distance from the fluid inlet.
Forest machine for transport of payload in forest terrain, comprising a frame on which a payload holding device (3, 4) is mountable, which is adapted to hold the payload, a drive unit for driving the forest machine, at least six wheels of which at least four are arranged in form of a bogie (11, 12) comprising two bogie arms, which each carries two or more rotatable wheels, are positioned on each side of the forest machine with a longitudinal axis in the driving direction of the forest machine and are via a pivot joint pivotal connected to the frame in an area between the at least two wheels, a payload weighing device for detecting the weight of the payload on the forest machine which comprises at least one deflection gauge attached on a surface of at least one of the bogie arms for detecting the magnitude of a deflection of the bogie arm due to loading of the same with the payload on the forest machine, and a signal processing unit, which is in communication with the deflection gauge for transforming of the measure signal to a corresponding weight indication, characterized in that the deflection gauge is attached such that it measures the deflection of the bogie arm in an angle (α) of between 20-70° in relation to a longitudinal axis (x) of the bogie arm which in a horizontal plane is defined by an imaginary line in the longitudinal direction of the bogie arm perpendicular to the pivot axis of the pivot joint and in a vertical plane by an imaginary line extending through the respective rotary axis of the wheels of the bogie arm and the pivot axis of the pivot joint.
Method for processing and activating steelworks slags, preferably LD slags, as hydraulic composite materials for the cement industry, characterized in that fluid steelworks slags are cooled, wherein they solidify at the earliest after four hours, at least 30 mass percent mineral crystalline belite phase is present in the solidified steelworks slags, the solidified steelworks slags are communited to a fineness of from at least 5,500 Blaine to 7,000 Blaine, wherein the crystals of the belite phase are freed from the non-reactive phases surrounding them, and the communited steelworks slags are fed to a use as hydraulic composite material for the cement industry.
A composition comprising: A) a polypropylene, a propylene copolymer or a crystalline polyalpha-olefin possessing a first order transition or crystalline melting point as determined by differential scanning calorimetry as described in the description, that is selected from the group consisting of polybutylene and poly(4-methylpentene), B) a high density polyethylene HDPE, and C) at least one polymer compatibilizer being a crystalline block composite comprising: i) a crystalline ethylene based polymer; ii) a crystalline alpha-olefin based polymer selected from polypropylene, polybutylene and poly(4-methylpentene); and iii) a block copolymer comprising a crystalline ethylene block and a crystalline alpha-olefin block selected from polypropylene, polybutylene and poly(4-methylpentene), wherein component C) possesses a first order transition or crystalline melting point as determined by differential scanning calorimetry as described in the description, wherein component C) is present in an amount of from 0.5 wt% to 15 wt% based on total weight of the composition, and wherein component C) has a Crystalline Block Composite Index of 0.1 to 0.9, wherein the Crystalline Block Composite Index is determined using high temperature liquid chromatography according to the method in the experimental part of the description. A) a polypropylene, a propylene copolymer or a crystalline polyalpha-olefin possessing a first order transition or crystalline melting point as determined by differential scanning calorimetry as described in the description, that is selected from the group consisting of polybutylene and poly(4-methylpentene), B) a high density polyethylene HDPE, and C) at least one polymer compatibilizer being a crystalline block composite comprising: i) a crystalline ethylene based polymer; ii) a crystalline alpha-olefin based polymer selected from polypropylene, polybutylene and poly(4-methylpentene); and iii) a block copolymer comprising a crystalline ethylene block and a crystalline alpha-olefin block selected from polypropylene, polybutylene and poly(4-methylpentene), i) a crystalline ethylene based polymer; ii) a crystalline alpha-olefin based polymer selected from polypropylene, polybutylene and poly(4-methylpentene); and iii) a block copolymer comprising a crystalline ethylene block and a crystalline alpha-olefin block selected from polypropylene, polybutylene and poly(4-methylpentene),
A water gas shift reaction (WGSR) catalyst for the production of hydrogen from an input gas stream comprising H 2 O and carbon monoxide comprising a catalytically effective amount of nickel and copper, or an oxide thereof, dispersed on a support, wherein the support comprises a suitable mixed bi-metal oxide and the support is prepared using a surfactant templating method, said support comprising: (a) CeO 2 as a first oxide and ZrO 2 as a second oxide wherein the ratio of amount of first oxide to second oxide is in the range of 50:50 to 70:30; and (b) 1 to 10 wt % of one or more metals, or oxides thereof, dispersed on the support, wherein the one or more metals are copper and nickel, wherein the catalyst is represented by the formula Ni y Cu z [A x B (1-x)]O 2, wherein x is in the range of 0.5 to 0.7, y and z represent the weight percent of Ni and Cu, respectively, and are each, independently, in the range of 1 to 5% and A is Ce and B is Zr; and wherein the support is prepared using a surfactant templating method comprising: (a) (i) combining aqueous solutions of cerium and zirconium oxide precursors, with an aqueous solution of at least one surfactant; (ii) stirring the combination for a suitable time; (iii) adding a suitable base to adjust the pH of the combined solutions to 10 to 13 to produce a slurry comprising precipitated support; (iv) allowing said slurry to sit at elevated temperatures for a suitable time; (v) isolating the precipitated support from the slurry; and (vi) optionally washing said isolated support to remove residual solvent; and (b) dispersing a catalytically effective amount of nickel and copper, or an oxide thereof, on the support. (a) CeO 2 as a first oxide and ZrO 2 as a second oxide wherein the ratio of amount of first oxide to second oxide is in the range of 50:50 to 70:30; and (b) 1 to 10 wt % of one or more metals, or oxides thereof, dispersed on the support, wherein the one or more metals are copper and nickel, (a) (i) combining aqueous solutions of cerium and zirconium oxide precursors, with an aqueous solution of at least one surfactant; (ii) stirring the combination for a suitable time; (iii) adding a suitable base to adjust the pH of the combined solutions to 10 to 13 to produce a slurry comprising precipitated support; (iv) allowing said slurry to sit at elevated temperatures for a suitable time; (v) isolating the precipitated support from the slurry; and (vi) optionally washing said isolated support to remove residual solvent; and (i) combining aqueous solutions of cerium and zirconium oxide precursors, with an aqueous solution of at least one surfactant; (ii) stirring the combination for a suitable time; (iii) adding a suitable base to adjust the pH of the combined solutions to 10 to 13 to produce a slurry comprising precipitated support; (iv) allowing said slurry to sit at elevated temperatures for a suitable time; (v) isolating the precipitated support from the slurry; and (vi) optionally washing said isolated support to remove residual solvent; and (b) dispersing a catalytically effective amount of nickel and copper, or an oxide thereof, on the support.
A power transmission fluid composition, including: (a) a base oil, and (b) an additive composition including: an ashless dispersant that includes one or more of a hydrocarbyl succinimide, a hydrocarbyl succinamide, a polyol ester, a mixed ester/amide of hydrocarbyl substituted succinic acid, and a Mannich condensation product of hydrocarbyl-substituted phenols; a formaldehyde; and a polyamine, and 0.5 to 8 weight percent of an oil-soluble aliphatic tertiary amine component, based on the weight of the power transmission fluid composition, wherein the oil-soluble aliphatic tertiary amine component includes an oil-soluble aliphatic tertiary amine of the formula wherein R1 is selected from an alkyl group and an alkenyl group, each R1 group having 1 to 4 carbon atoms; and the R2 and R3 groups are independently selected from C 12 -C 30 alkyl groups. (a) a base oil, and (b) an additive composition including: an ashless dispersant that includes one or more of a hydrocarbyl succinimide, a hydrocarbyl succinamide, a polyol ester, a mixed ester/amide of hydrocarbyl substituted succinic acid, and a Mannich condensation product of hydrocarbyl-substituted phenols; a formaldehyde; and a polyamine, and 0.5 to 8 weight percent of an oil-soluble aliphatic tertiary amine component, based on the weight of the power transmission fluid composition, wherein the oil-soluble aliphatic tertiary amine component includes an oil-soluble aliphatic tertiary amine of the formula wherein R1 is selected from an alkyl group and an alkenyl group, each R1 group having 1 to 4 carbon atoms; and the R2 and R3 groups are independently selected from C 12 -C 30 alkyl groups. an ashless dispersant that includes one or more of a hydrocarbyl succinimide, a hydrocarbyl succinamide, a polyol ester, a mixed ester/amide of hydrocarbyl substituted succinic acid, and a Mannich condensation product of hydrocarbyl-substituted phenols; a formaldehyde; and a polyamine, and 0.5 to 8 weight percent of an oil-soluble aliphatic tertiary amine component, based on the weight of the power transmission fluid composition, wherein the oil-soluble aliphatic tertiary amine component includes an oil-soluble aliphatic tertiary amine of the formula wherein R1 is selected from an alkyl group and an alkenyl group, each R1 group having 1 to 4 carbon atoms; and the R2 and R3 groups are independently selected from C 12 -C 30 alkyl groups.
A processor-implemented method with battery state estimation, comprising: estimating a current state of charge, SOC, of a target battery by correcting a first electrochemical model corresponding to the target battery using a first voltage difference between a measured voltage of the target battery and an estimated voltage of the target battery that is estimated by the first electrochemical model; estimating an end SOC of the target battery by correcting a second electrochemical model using a second voltage difference between an estimated voltage of a virtual battery that is estimated by the second electrochemical model and a preset voltage; and estimating a relative SOC, RSOC, of the target battery based on the current SOC and the end SOC of the target battery, wherein the second electrochemical model is based on the virtual battery corresponding to the target battery being discharged to reach the preset voltage. estimating a current state of charge, SOC, of a target battery by correcting a first electrochemical model corresponding to the target battery using a first voltage difference between a measured voltage of the target battery and an estimated voltage of the target battery that is estimated by the first electrochemical model; estimating an end SOC of the target battery by correcting a second electrochemical model using a second voltage difference between an estimated voltage of a virtual battery that is estimated by the second electrochemical model and a preset voltage; and estimating a relative SOC, RSOC, of the target battery based on the current SOC and the end SOC of the target battery, wherein the second electrochemical model is based on the virtual battery corresponding to the target battery being discharged to reach the preset voltage.