mhurhangee/ep-ind-claims huggingface dataset:
A compound of the formula, wherein R 1 represents phenyl which is unsubstituted or mono-substituted with halogen, (C 1 -C 4)alkyl, (C 1 -C 4)alkoxy, (C 1 -C 2)fluoroalkyl or (C 1 -C 2)fluoroalkoxy; R 2 represents hydrogen, methyl or cyclopropyl; R 3 and R 4 both represent methyl; or R 3 and R 4 form, together with the carbon atom to which they are attached, a cyclopropyl ring; and Q represents O, or S; or a salt of such a compound. R 1 represents phenyl which is unsubstituted or mono-substituted with halogen, (C 1 -C 4)alkyl, (C 1 -C 4)alkoxy, (C 1 -C 2)fluoroalkyl or (C 1 -C 2)fluoroalkoxy; R 2 represents hydrogen, methyl or cyclopropyl; R 3 and R 4 both represent methyl; or R 3 and R 4 form, together with the carbon atom to which they are attached, a cyclopropyl ring; and Q represents O, or S; or a salt of such a compound.
A terminal connection structure configured to be mounted to a printing apparatus which includes an apparatus side terminal unit, wherein the apparatus side terminal unit includes a positioning portion and an apparatus side terminal group, the apparatus side terminal unit is in an intersection direction (X, Z) movable that is orthogonal to a mounting direction, in which a cartridge can be mounted into the printing apparatus and brought in contact with the apparatus side terminal unit, and the terminal connection structure comprising: a concave portion of the cartridge, a cartridge side terminal group configured and adapted to be electrically connectable with the apparatus side terminal group; and characterized in that, a restriction portion is provided in the concave portion of the cartridge,which restricts the positioning portion from moving in the intersection direction (X, Z), wherein the apparatus side terminal group is tilted with respect to the mounting direction in a state that the cartridge is mounted to the printing apparatus, and the cartridge side terminal group is provided in the concave portion which is configured and adapted to receive insertion of the apparatus side terminal unit, wherein the restriction portion comprises a groove provided in the concave portion configured and adapted to receive insertion of the positioning portion of the apparatus side terminal unit. a concave portion of the cartridge, a cartridge side terminal group configured and adapted to be electrically connectable with the apparatus side terminal group; and characterized in that, a restriction portion is provided in the concave portion of the cartridge,which restricts the positioning portion from moving in the intersection direction (X, Z), wherein the apparatus side terminal group is tilted with respect to the mounting direction in a state that the cartridge is mounted to the printing apparatus, and the cartridge side terminal group is provided in the concave portion which is configured and adapted to receive insertion of the apparatus side terminal unit, wherein the restriction portion comprises a groove provided in the concave portion configured and adapted to receive insertion of the positioning portion of the apparatus side terminal unit.
A method of delivering a biological sample into a mass cytometry system, the method comprising: focusing a first laser spot onto a film supporting the biological sample to heat the film, wherein heating of the film lifts the biological sample into a gas phase without complete vaporization of the lifted biological sample, the gas phase configured to deliver the biological sample to the mass cytometry system.
A control system for an internal combustion engine for driving a vehicle, which controls an output torque of said engine, said control system comprising: torque change detecting means for detecting a rapid change in a demand torque of said engine; feedforward correction amount generating means for generating a feedforward correction amount during a correction period which is substantially equal to a resonance period of a powertrain of said vehicle, from a time when the rapid change in the demand torque is detected; and feedforward torque correcting means for correcting an output torque control amount of said engine with the feedforward correction amount. torque change detecting means for detecting a rapid change in a demand torque of said engine; feedforward correction amount generating means for generating a feedforward correction amount during a correction period which is substantially equal to a resonance period of a powertrain of said vehicle, from a time when the rapid change in the demand torque is detected; and feedforward torque correcting means for correcting an output torque control amount of said engine with the feedforward correction amount.
A competence diagnosis system for a urea water temperature sensor comprising a competence diagnosis unit configured to diagnose a failure of the urea water temperature sensor provided in a urea tank by comparing a temperature of urea water measured by the urea water temperature sensor with an ambient temperature, wherein the competence diagnosis system for the urea water temperature sensor comprises a cold start condition determination unit, characterized in that the competence diagnosis system is configured to obtain a difference between an engine cooling water temperature and an ambient temperature, a difference between an engine cooling water temperature and a fuel temperature, and a difference between an ambient temperature and a fuel temperature by using an engine cooling water temperature, an ambient temperature, and a fuel temperature measured immediately after engine starting, the competence diagnosis unit is configured to allow a diagnosis when the temperature differences are less than or equal to a predetermined threshold value and when any of the engine cooling water temperature, the ambient temperature, or the fuel temperature is in a predetermined range; and not to allow the diagnosis, and to end the determination of the diagnosis allowance condition when the respective temperature differences are more than the predetermined threshold value or when the engine cooling water temperature is not in the predetermined range.
A method for manufacturing cellulose material, the method comprising: - introducing cellulose fibers as raw material pulp to a system, - adding an alkalizing agent into the system in order to absorb the alkalizing agent into the cellulose fibers, - adding an anionic agent into the system in order to absorb said agent into the cellulose fibers, said anionic agent being monochloracetic acid or a salt thereof, such as sodium monochloracetate, - feeding the cellulose fibers to a sieve plate press, - performing a reaction between the cellulose fibers and the anionic agent at least partly in the sieve plate press in order to produce water-insoluble carboxymethylated cellulose fibers having a degree of substitution between 0.05 and 0.35 carboxymethyl groups per anhydroglucose unit, wherein the reaction is performed at least partly at a consistency of at least 50%. - introducing cellulose fibers as raw material pulp to a system, - adding an alkalizing agent into the system in order to absorb the alkalizing agent into the cellulose fibers, - adding an anionic agent into the system in order to absorb said agent into the cellulose fibers, said anionic agent being monochloracetic acid or a salt thereof, such as sodium monochloracetate, - feeding the cellulose fibers to a sieve plate press, - performing a reaction between the cellulose fibers and the anionic agent at least partly in the sieve plate press in order to produce water-insoluble carboxymethylated cellulose fibers having a degree of substitution between 0.05 and 0.35 carboxymethyl groups per anhydroglucose unit, wherein the reaction is performed at least partly at a consistency of at least 50%.
A method for making graphenic carbon particles, having a B.E.T. specific surface area of from 70 to 1000 square meters per gram and an average aspect ratio of greater than 3:1, comprising: introducing an inert carrier gas and a hydrocarbon precursor material capable of forming a two-carbon-fragment species or a hydrocarbon precursor material comprising methane, said hydrocarbon precursor material comprising n-propanol, ethane, ethylene, acetylene, vinyl chloride, 1,2-dichloroethane, allyl alcohol, propionaldehyde, vinyl bromide or methane into a thermal zone, wherein the carrier gas and the hydrocarbon precursor material form a gaseous stream and the thermal zone comprises a plasma towards which the gaseous stream flows so that the inert gas and hydrocarbon precursor material are introduced into the plasma together; heating the hydrocarbon precursor material in the thermal zone to a temperature of at least 1,000 °C and then contacting the gaseous stream with one or more quench streams that are either injected into the plasma chamber through at least one quench stream injection port or introduced at or near the transition of a converging portion to a straight portion positioned within the outlet of a chamber to form the graphenic carbon particles from the hydrocarbon precursor material; and collecting the graphenic carbon particles. introducing an inert carrier gas and a hydrocarbon precursor material capable of forming a two-carbon-fragment species or a hydrocarbon precursor material comprising methane, said hydrocarbon precursor material comprising n-propanol, ethane, ethylene, acetylene, vinyl chloride, 1,2-dichloroethane, allyl alcohol, propionaldehyde, vinyl bromide or methane into a thermal zone, wherein the carrier gas and the hydrocarbon precursor material form a gaseous stream and the thermal zone comprises a plasma towards which the gaseous stream flows so that the inert gas and hydrocarbon precursor material are introduced into the plasma together; heating the hydrocarbon precursor material in the thermal zone to a temperature of at least 1,000 °C and then contacting the gaseous stream with one or more quench streams that are either injected into the plasma chamber through at least one quench stream injection port or introduced at or near the transition of a converging portion to a straight portion positioned within the outlet of a chamber to form the graphenic carbon particles from the hydrocarbon precursor material; and collecting the graphenic carbon particles.
A lateral protective element that is applicable on a base of a cylinder of a sleeve for flexographic printing and that is equipped with a register slot that can be engaged by an abutment provided on a mandrel on which said sleeve is mounted, said lateral protective element and said register slot being made as a single piece with the same type of material, said lateral protective element being a flat ring forming a primary portion of said piece and having an internal flat base adjacent to said base of said cylinder and an external flat base opposite to said base of said cylinder, said internal and external flat bases (13, 14) being in the form of circular crowns parallel to each other, characterized in that said register slot projects orthogonally and externally to said flat ring from said internal flat base, said register slot extending in a secondary portion of said piece housed in a complementarily-shaped notch present at an internal perimetrical edge of said base of said cylinder, said internal flat base of said flat ring matching said base of said cylinder.
A high-pressure gas container with an inner layer configured such that high-pressure gas is filled inside, a boss part (13-1, 13-2) provided at least at one position of the inner layer and configured to cause the gas to flow in and out, and an outer layer configured to cover an outer periphery of the inner layer to reinforce the inner layer and having a higher gas barrier property than the inner layer, wherein: a gas discharge port (15-1, 15-2) is provided between the boss part (13-1, 13-2) and the outer layer and a gas ventilation part is formed between the inner layer and the outer layer such that the gas having permeated from the inner layer to the outer layer is discharged into atmosphere through the gas discharge port; the outer layer is formed of a fiber material impregnated with resin; and the gas ventilation part is configured as a porous body formed of a fiber material; characterized in that the fiber material of which the porous body is formed is not impregnated with resin, the gas ventilation part is formed by winding the fiber material not impregnated with resin on the inner layer liner, and the fiber material of the gas ventilation part is the same as the fiber material forming the outer layer. a gas discharge port (15-1, 15-2) is provided between the boss part (13-1, 13-2) and the outer layer and a gas ventilation part is formed between the inner layer and the outer layer such that the gas having permeated from the inner layer to the outer layer is discharged into atmosphere through the gas discharge port; the outer layer is formed of a fiber material impregnated with resin; and the gas ventilation part is configured as a porous body formed of a fiber material; characterized in that the fiber material of which the porous body is formed is not impregnated with resin, the gas ventilation part is formed by winding the fiber material not impregnated with resin on the inner layer liner, and the fiber material of the gas ventilation part is the same as the fiber material forming the outer layer.
A radio device, comprising: a reconfigurable component; an information transmitter configured to transmit information identifying the radio device and information about a certification associated with a configuration of the reconfigurable component to a server; a test case information receiver configured to receive information about a pre-determined test case from the server responsive to the transmitted information identifying the radio device and the information about the certification; and a permission information receiver configured to receive, from the server, information indicating whether the radio device is permitted to use the configuration of the reconfigurable component. a reconfigurable component; an information transmitter configured to transmit information identifying the radio device and information about a certification associated with a configuration of the reconfigurable component to a server; a test case information receiver configured to receive information about a pre-determined test case from the server responsive to the transmitted information identifying the radio device and the information about the certification; and a permission information receiver configured to receive, from the server, information indicating whether the radio device is permitted to use the configuration of the reconfigurable component.
An electrical conductor comprising: a metallic substrate having a surface; and a coating deposited on the surface, the coating comprising a graphene or carbon nanotubes or a blend of graphene and carbon nanotubes, the coating defining a separable interface of the electrical conductor configured to be mated to and unmated from a mating conductor, the coating being electrically conductive and having a lower friction coefficient than the surface of the metallic substrate, characterised in that the coating comprises multiple coating layers of said graphene, CNT or blend thereof with flash metallic layers interspersed therebetween. a metallic substrate having a surface; and a coating deposited on the surface, the coating comprising a graphene or carbon nanotubes or a blend of graphene and carbon nanotubes, the coating defining a separable interface of the electrical conductor configured to be mated to and unmated from a mating conductor, the coating being electrically conductive and having a lower friction coefficient than the surface of the metallic substrate, characterised in that the coating comprises multiple coating layers of said graphene, CNT or blend thereof with flash metallic layers interspersed therebetween.
A firebreak device configured to arrest a flow of medical gas capable of combustion or of supporting combustion, said device comprising: a housing having a body portion, an inlet and an outlet, said inlet and outlet being linked by a conduit; a valve assembly located within said body portion, said valve assembly being movable between an open position, in which gas can flow between said inlet and outlet along said conduit, and a closed position in which gas flow between said inlet and said outlet is arrested; a biasing assembly arranged within said body portion to move said valve assembly into said closed position; and a heat activatable stop located between said biasing assembly and said outlet to hold said valve assembly in said open position against said biasing assembly, and adapted to release said valve assembly to allow said biasing assembly to move said valve assembly to said closed position at an activation temperature, to close flow of gas through the device if said heat activatable stop is activated; said heat activatable stop being arranged to prevent obstruction of said flow of gas adjacent an inner surface of said device, and the firebreak device characterized in that the said inner surface of said device includes one or more burn rib formed on said inner surface of said device, said burn rib being located between said heat activatable stop and said outlet and said burn rib extends along the inner surface in an axial direction between said heat activatable stop and said outlet. a housing having a body portion, an inlet and an outlet, said inlet and outlet being linked by a conduit; a valve assembly located within said body portion, said valve assembly being movable between an open position, in which gas can flow between said inlet and outlet along said conduit, and a closed position in which gas flow between said inlet and said outlet is arrested; a biasing assembly arranged within said body portion to move said valve assembly into said closed position; and a heat activatable stop located between said biasing assembly and said outlet to hold said valve assembly in said open position against said biasing assembly, and adapted to release said valve assembly to allow said biasing assembly to move said valve assembly to said closed position at an activation temperature, to close flow of gas through the device if said heat activatable stop is activated; said heat activatable stop being arranged to prevent obstruction of said flow of gas adjacent an inner surface of said device, and the firebreak device characterized in that the said inner surface of said device includes one or more burn rib formed on said inner surface of said device, said burn rib being located between said heat activatable stop and said outlet and said burn rib extends along the inner surface in an axial direction between said heat activatable stop and said outlet.
A device for moving the oscillating arms of the suspension system of vehicles, of the type comprising for each wheel of a same axle a wheel knuckle associated with an oscillating arm pivoted to the chassis of the vehicle, comprising a cross-member supporting abutment means adapted to be arranged below the chassis of a vehicle and at least one assembly for moving a corresponding oscillating arm with respect to the chassis, which comprises a lever that is associated in an articulated manner with said cross-member, connection means that can be associated with said arm and are associated with said lever and means for rotational actuation of said lever with respect to said cross-member, characterized in that it comprises two of said assemblies each for moving a corresponding oscillating arm with respect to the chassis, which are associated on opposite sides of said cross-member.
A method for treating vapour generated during pyrolysis of composites of carbon fibre that comprises passing said vapours through a reactor filled with a solid bed which is at a high temperature comprised between 500 °C and 1000 °C.
A pesticidal microemulsion composition comprising: (a) an oil phase comprising a lipophilic component; (b) an aqueous phase comprising an aqueous solution comprising a salt of a weak-acid, ionic pesticide; and (c) a stabilizing surfactant comprising an oil-soluble or oil-dispersible anionic surfactant, wherein the microemulsion composition has a non-water-continuous microemulsion microstructure, wherein the oil phase is dielectricity-modified with a dielectricity modifier selected from the group consisting of an alkylene glycol having a dielectric constant of from about 15 to about 26, a glycol ether having a dielectric constant of from about 6.5 to about 11, a branched alcohol having a dielectric constant of from about 7 to about 10, an alkylene carbonate, and mixtures thereof, wherein the dielectric constant is measured at 20°C, and wherein the volume fraction of the oil phase based on the total volume of the composition, excluding the volume of the stabilizing surfactant, is from 0.5 to about 0.9. (a) an oil phase comprising a lipophilic component; (b) an aqueous phase comprising an aqueous solution comprising a salt of a weak-acid, ionic pesticide; and (c) a stabilizing surfactant comprising an oil-soluble or oil-dispersible anionic surfactant, wherein the microemulsion composition has a non-water-continuous microemulsion microstructure, wherein the oil phase is dielectricity-modified with a dielectricity modifier selected from the group consisting of an alkylene glycol having a dielectric constant of from about 15 to about 26, a glycol ether having a dielectric constant of from about 6.5 to about 11, a branched alcohol having a dielectric constant of from about 7 to about 10, an alkylene carbonate, and mixtures thereof, wherein the dielectric constant is measured at 20°C, and wherein the volume fraction of the oil phase based on the total volume of the composition, excluding the volume of the stabilizing surfactant, is from 0.5 to about 0.9.
A measurement device comprising: a first linear motion mechanism (13, 14) that has a contacting part contacting a back of a hand and linearly moves along a longitudinal direction, the back of the hand serving as reference of measurement; a second linear motion mechanism (16, 17) that moves together with a finger targeted for the measurement and linearly moves along a longitudinal direction; and a rotation mechanism that rotatably connects one end of the first linear motion mechanism (13, 14) and one end of the second linear motion mechanism (16, 17) and has a sensor detecting a rotation amount of the second linear motion mechanism (16, 17), the second linear motion mechanism (16, 17) rotating with respect to the first linear motion mechanism (13, 14). a first linear motion mechanism (13, 14) that has a contacting part contacting a back of a hand and linearly moves along a longitudinal direction, the back of the hand serving as reference of measurement; a second linear motion mechanism (16, 17) that moves together with a finger targeted for the measurement and linearly moves along a longitudinal direction; and a rotation mechanism that rotatably connects one end of the first linear motion mechanism (13, 14) and one end of the second linear motion mechanism (16, 17) and has a sensor detecting a rotation amount of the second linear motion mechanism (16, 17), the second linear motion mechanism (16, 17) rotating with respect to the first linear motion mechanism (13, 14).