mhurhangee/ep-ind-claims huggingface dataset:
A steering apparatus, comprising: a steering column that supports a steering shaft on the inside thereof such that the steering shaft can rotate freely; a column-side bracket that supports part of the steering column; and a vehicle-side bracket that is supported by and fastened to the vehicle body, and comprises a stationary-side support plate section that is provided only on one side in the width direction of the column-side bracket; a portion of the column-side bracket being supported by the stationary-side support plate section so as to be able to displace in the forward direction due to an impact load during a secondary collision; characterized in that a portion of the column-side bracket that is on the opposite side in the width direction of the column-side bracket of the steering column from the stationary-side support plate section is supported by the vehicle-side bracket so as to be able to displace in the forward direction due to an impact load during a secondary collision. a steering column that supports a steering shaft on the inside thereof such that the steering shaft can rotate freely; a column-side bracket that supports part of the steering column; and a vehicle-side bracket that is supported by and fastened to the vehicle body, and comprises a stationary-side support plate section that is provided only on one side in the width direction of the column-side bracket; a portion of the column-side bracket being supported by the stationary-side support plate section so as to be able to displace in the forward direction due to an impact load during a secondary collision; a portion of the column-side bracket that is on the opposite side in the width direction of the column-side bracket of the steering column from the stationary-side support plate section is supported by the vehicle-side bracket so as to be able to displace in the forward direction due to an impact load during a secondary collision.
An injection arrangement for injection of a reducing agent into an exhaust line of a combustion engine, wherein the injection arrangement comprises an injection unit comprising a housing (18, 19), a piston member dividing an inner space of the housing in a first chamber and a second chamber, and an orifice arranged in the second chamber via which reducing agent is injected into the exhaust line, and wherein the injection arrangement further comprises a pump, an inlet line via which reducing agent is directed by the pump to the first chamber, a return line via which reducing agent leaves the first chamber, characterized in that the injection arrangement comprises at least one flow channel (25a, 25b) allowing a reducing agent flow with a specific pressure drop between the first chamber and the second chamber, and a valve member arranged in the return line which in an open position creates a first ratio between the pressures in the first chamber and in the second chamber at which the piston member is moved to a first position in which injection of reducing agent via the orifice is prevented and which in a closed position creates a second ratio between the pressures in the first chamber and in the second chamber at which the piston member is moved to a second position in which the injection of reducing agent via the orifice is allowed.
A method for preparing a zwitterionic co-polymer comprising the steps of: a) providing a solution of at least one ethylenically unsaturated polymerizable zwitterionic monomer dissolved in a solvent; b) combining said solution of zwitterionic monomer with at least one co-monomer being selected from cationic, anionic and non-ionic ethylenically unsaturated monomers; c) polymerizing the zwitterionic monomer and said at least one co-monomer in the presence of said solvent to form a solution or dispersion of co-polymer; and, d) replacing at least part of said solvent with a further solvent in which said co-polymer shows sufficient solubility to form a solution of said co-polymer in that further solvent, wherein step b) and step c) may be performed sequentially or concurrently. a) providing a solution of at least one ethylenically unsaturated polymerizable zwitterionic monomer dissolved in a solvent; b) combining said solution of zwitterionic monomer with at least one co-monomer being selected from cationic, anionic and non-ionic ethylenically unsaturated monomers; c) polymerizing the zwitterionic monomer and said at least one co-monomer in the presence of said solvent to form a solution or dispersion of co-polymer; and, d) replacing at least part of said solvent with a further solvent in which said co-polymer shows sufficient solubility to form a solution of said co-polymer in that further solvent,
A luminaire with a housing formed by a profiled element, which housing has a light exit opening, a plurality of light sources arranged in the housing in the form of LEDs, as well as lenses (32, 132) assigned to the LEDs, wherein a plurality of lenses (32, 132) are combined to form one optical element (30, 130), which closes the housing in the light emission direction, wherein the LEDs are arranged on a carrier, which extends substantially perpendicularly to a light emission direction of the luminaire through the housing, wherein the profiled element is designed substantially H-shaped and accordingly has two side walls (3, 4) running parallel to one another as well as a central leg connecting both side walls (3, 4), wherein the carrier is formed by the central leg, wherein the carrier is connected integrally with the side walls (3, 4) of the housing, characterized in that means for the power supply and for the operation of the LEDs are arranged spaced apart from the carrier on the sides of the carrier opposite the LEDs, wherein between the carrier and the means for the power supply and for the operation of the LEDs a free space is formed, in such a manner that a heat transfer from the LEDs to the means for the power supply and for the operation of the LEDs is reduced. wherein a plurality of lenses (32, 132) are combined to form one optical element (30, 130), which closes the housing in the light emission direction, wherein the LEDs are arranged on a carrier, which extends substantially perpendicularly to a light emission direction of the luminaire through the housing, wherein the profiled element is designed substantially H-shaped and accordingly has two side walls (3, 4) running parallel to one another as well as a central leg connecting both side walls (3, 4), wherein the carrier is formed by the central leg, wherein the carrier is connected integrally with the side walls (3, 4) of the housing, characterized in that means for the power supply and for the operation of the LEDs are arranged spaced apart from the carrier on the sides of the carrier opposite the LEDs, wherein between the carrier and the means for the power supply and for the operation of the LEDs a free space is formed, in such a manner that a heat transfer from the LEDs to the means for the power supply and for the operation of the LEDs is reduced.
Defatted extract from spent hops for use in antithrombotic treatment or antithrombotic prophylaxis in human or animal subjects, wherein from said extract lipophilic compounds, including prenylated flavonoids, have been removed.
A composition for the formation of electrically conductive polymers on the surface of a dielectric substrate, the composition comprising at least one polymerizable heterocyclic aromatic monomer having the structure: wherein: X is O, S, or N; and R1 and R2 are each independently hydrogen, a halogen, a substituted or unsubstituted alkyl group having from 1 to 8 carbon atoms, a substituted or unsubstituted alkoxy group having 1 to 8 carbon atoms, which is capable to form an electrically conductive polymer, an emulsifier and an acid, wherein the composition comprises at least one metal-ion selected from the group consisting of lithium-ions, sodium-ions, aluminum-ions, beryllium-ions, boron-ions, indium-ions, characterized in that the acid is a polymeric sulfonic acid or a salt of a polymeric sulfonic acid and that the metal-ion is present in a concentration of between 0.002 mol/L and 0.8 mol/L and the emulsifier is a sulfopropylated polyalkoxylated β-naphthole or a salt thereof.
A liquid level indicator for a liquid container comprising a hollow cylindrical shell having a top end and a bottom end; and a plurality of floating pushrods disposed within the shell, and comprising an indicator flag cap; wherein the floating pushrods (6a, 6b) are implemented such that the indicator flag cap (3a, 3b) of each pushrod is pushed towards the top end when the liquid container is filled to different levels; and wherein the plurality of floating pushrods comprises a first floating pushrod and a second floating pushrod, characterized in that each of the floating pushrods (6a, 6b) is made from a buoyant material, and that the floating pushrods fit within the shell as subdivisions of a cylinder, such that they can all rise to the top end of the shell when the liquid container is full. a hollow cylindrical shell having a top end and a bottom end; and a plurality of floating pushrods disposed within the shell, and comprising an indicator flag cap; wherein the floating pushrods (6a, 6b) are implemented such that the indicator flag cap (3a, 3b) of each pushrod is pushed towards the top end when the liquid container is filled to different levels; and wherein the plurality of floating pushrods comprises a first floating pushrod and a second floating pushrod, characterized in that each of the floating pushrods (6a, 6b) is made from a buoyant material, and that the floating pushrods fit within the shell as subdivisions of a cylinder, such that they can all rise to the top end of the shell when the liquid container is full.
A vehicle lower portion structure comprising: a resinous floor panel (10; 60) constituting a vehicle cabin floor surface; and a metallic reinforcing member (12; 50, 52; 82, 84) bridging vehicle skeleton members (21; 62, 66) on a lower side of the floor panel (10; 60) and configured to support a vehicle-mounted object disposed on the lower side of the floor panel (10; 60), a cross member bridging between the vehicle skeleton members on a front side or a rear side of the reinforcing member; and a support member connected to the cross member and to the reinforcing member, wherein the reinforcing member (12; 50, 52) bridges a pair of vehicle skeleton members which extend in a vehicle front-rear direction at both sides of the floor panel in a vehicle width direction and said support member is configured to support the vehicle-mounted object, said support member being disposed on the lower side of the floor panel, and wherein the reinforcing member (12; 50, 52, 82, 84) is an elongated member with a longitudinal direction corresponding to a bridged direction of the reinforcing member; and at least a part of the reinforcing member (12; 50, 52, 82, 84) is formed in a hat shape that opens upwards in section when seen from the longitudinal direction. a resinous floor panel (10; 60) constituting a vehicle cabin floor surface; and a metallic reinforcing member (12; 50, 52; 82, 84) bridging vehicle skeleton members (21; 62, 66) on a lower side of the floor panel (10; 60) and configured to support a vehicle-mounted object disposed on the lower side of the floor panel (10; 60), a cross member bridging between the vehicle skeleton members on a front side or a rear side of the reinforcing member; and a support member connected to the cross member and to the reinforcing member, wherein the reinforcing member (12; 50, 52) bridges a pair of vehicle skeleton members which extend in a vehicle front-rear direction at both sides of the floor panel in a vehicle width direction and said support member is configured to support the vehicle-mounted object, said support member being disposed on the lower side of the floor panel, and wherein the reinforcing member (12; 50, 52, 82, 84) is an elongated member with a longitudinal direction corresponding to a bridged direction of the reinforcing member; and at least a part of the reinforcing member (12; 50, 52, 82, 84) is formed in a hat shape that opens upwards in section when seen from the longitudinal direction. the reinforcing member (12; 50, 52, 82, 84) is an elongated member with a longitudinal direction corresponding to a bridged direction of the reinforcing member; and at least a part of the reinforcing member (12; 50, 52, 82, 84) is formed in a hat shape that opens upwards in section when seen from the longitudinal direction.
A method of positioning a part with a conveyor, characterized in that the method comprises the step of: manually loading a part onto a conveyor locating element in an unoriented position; dragging the part with a conveyor member along a conveyor friction bar to an oriented position, wherein the conveyor member is a sprocket-driven continuous chain, and a support bar is arranged beneath the chain adjacent to the sprocket; positioning the conveyor locating element with the support bar as the locating element approaches an end of the conveyor; and picking up the part robotically from the oriented position at the end of the conveyor. manually loading a part onto a conveyor locating element in an unoriented position; dragging the part with a conveyor member along a conveyor friction bar to an oriented position, wherein the conveyor member is a sprocket-driven continuous chain, and a support bar is arranged beneath the chain adjacent to the sprocket; positioning the conveyor locating element with the support bar as the locating element approaches an end of the conveyor; and picking up the part robotically from the oriented position at the end of the conveyor.
A pharmaceutical composition comprising a compound with a formula: in which: - R 1 = OH or NH 2; - R 2, R 3, R 4 and R 5 being identical or different, are: H; an alkyl, haloalkyl or heteroalkyl group containing between 1 and 30 carbon atoms in a linear or branched chain; or an alkaryl or aralkyl group containing between 1 and 30 carbon atoms; • if R 5 = H - if R 2 = R 3 = R 4, then R 2, R 3 and R 4 ≠ H; - if R 2 = H, then R 3 ≠ H and R 4 ≠ H; - if R 3 = H, then R 2 ≠ H and R 4 ≠ H; - if R 4 = H, then R 2 ≠ H and R 3 ≠ H; • if R 5 - if R 2 = H, then R 3 ≠ H and R 4 ≠ H; - if R 3 = H, then R 2 ≠ H and R 4 ≠ H; - if R 4 = H, then R 2 ≠ H and R 3 ≠ H. - R 1 = OH or NH 2; - R 2, R 3, R 4 and R 5 being identical or different, are: H; an alkyl, haloalkyl or heteroalkyl group containing between 1 and 30 carbon atoms in a linear or branched chain; or an alkaryl or aralkyl group containing between 1 and 30 carbon atoms; • if R 5 = H - if R 2 = R 3 = R 4, then R 2, R 3 and R 4 ≠ H; - if R 2 = H, then R 3 ≠ H and R 4 ≠ H; - if R 3 = H, then R 2 ≠ H and R 4 ≠ H; - if R 4 = H, then R 2 ≠ H and R 3 ≠ H; • if R 5 - if R 2 = H, then R 3 ≠ H and R 4 ≠ H; - if R 3 = H, then R 2 ≠ H and R 4 ≠ H; - if R 4 = H, then R 2 ≠ H and R 3 ≠ H. • if R 5 = H - if R 2 = R 3 = R 4, then R 2, R 3 and R 4 ≠ H; - if R 2 = H, then R 3 ≠ H and R 4 ≠ H; - if R 3 = H, then R 2 ≠ H and R 4 ≠ H; - if R 4 = H, then R 2 ≠ H and R 3 ≠ H; - if R 2 = R 3 = R 4, then R 2, R 3 and R 4 ≠ H; - if R 2 = H, then R 3 ≠ H and R 4 ≠ H; - if R 3 = H, then R 2 ≠ H and R 4 ≠ H; - if R 4 = H, then R 2 ≠ H and R 3 ≠ H; • if R 5 - if R 2 = H, then R 3 ≠ H and R 4 ≠ H; - if R 3 = H, then R 2 ≠ H and R 4 ≠ H; - if R 4 = H, then R 2 ≠ H and R 3 ≠ H. - if R 2 = H, then R 3 ≠ H and R 4 ≠ H; - if R 3 = H, then R 2 ≠ H and R 4 ≠ H; - if R 4 = H, then R 2 ≠ H and R 3 ≠ H.
Method for testing a surface using a test apparatus comprising a holding plane onto which holding plane the surface to be tested may be arranged, and where at least two different nozzles (30, 31) are arranged in a gantry distanced from the holding plane and directed such that the nozzles can direct a flow of test fluids towards and impacting the holding plane, where the method comprises the following steps: - determining a geographical location where said surface to be tested is to be placed or used; - retrieving samples of debris present at said geographical location; - creating at least two test fluids (44, 46) in a liquid and/or gas form by suspending at least part of the retrieved samples of debris in the shape of particles, crystals, granules, fibers or organic matter in the test fluids, - arranging a sample of the surface to be tested in the holding plane; - connecting the first nozzle to the first test fluid via a first pump and a first conduit and the second nozzle via a second pump and a second conduit to the second test fluid, - directing the first and second nozzles (30, 31) such that the nozzles will issue the first and the second test fluids (44, 46) impacting against the surface, and - activating the gantry and the first and second pumps (34, 35) such that the first and second nozzles (30, 31) will traverse the surface while issuing the first and the second test fluids (44, 46). - determining a geographical location where said surface to be tested is to be placed or used; - retrieving samples of debris present at said geographical location; - creating at least two test fluids (44, 46) in a liquid and/or gas form by suspending at least part of the retrieved samples of debris in the shape of particles, crystals, granules, fibers or organic matter in the test fluids, - arranging a sample of the surface to be tested in the holding plane; - connecting the first nozzle to the first test fluid via a first pump and a first conduit and the second nozzle via a second pump and a second conduit to the second test fluid, - directing the first and second nozzles (30, 31) such that the nozzles will issue the first and the second test fluids (44, 46) impacting against the surface, and - activating the gantry and the first and second pumps (34, 35) such that the first and second nozzles (30, 31) will traverse the surface while issuing the first and the second test fluids (44, 46).
A stage light having an unlockable brake motor, comprising a controlled component; and a braking motor that drives the controlled component to move, wherein the braking motor comprises a motor unit; and a braking unit for braking the motor unit, and the braking motor being a power-off locking motor, the stage light further comprising a controller; characterized in that the stage light comprises an auxiliary power source that supplies backup power to the braking unit;and an input unit that controls the auxiliary power source on and off, wherein the motor unit and the braking unit are connected in parallel with each other and are both electrically connected to the controller, and wherein the auxiliary power source is configured to power the braking unit by the input unit to achieve an unlocking of the controlled component, and to power off the braking unit by the input unit to recover locking of the controlled component. a controlled component; and a braking motor that drives the controlled component to move, wherein the braking motor comprises a motor unit; and a braking unit for braking the motor unit, and the braking motor being a power-off locking motor, the stage light further comprising a controller; characterized in that the stage light comprises an auxiliary power source that supplies backup power to the braking unit;and an input unit that controls the auxiliary power source on and off, wherein the motor unit and the braking unit are connected in parallel with each other and are both electrically connected to the controller, and wherein the auxiliary power source is configured to power the braking unit by the input unit to achieve an unlocking of the controlled component, and to power off the braking unit by the input unit to recover locking of the controlled component. a motor unit; and a braking unit for braking the motor unit, and the braking motor being a power-off locking motor, the stage light further comprising a controller; characterized in that the stage light comprises an auxiliary power source that supplies backup power to the braking unit;and an input unit that controls the auxiliary power source on and off, wherein the motor unit and the braking unit are connected in parallel with each other and are both electrically connected to the controller, and wherein the auxiliary power source is configured to power the braking unit by the input unit to achieve an unlocking of the controlled component, and to power off the braking unit by the input unit to recover locking of the controlled component.
A compound based on 1-Aza-3,7-dioxabicyclo[3.3.0]octane substituted with 2-phenylpropyl represented by formula wherein R a is hydrogen or a C 1-20 alkyl which can be optionally substituted with hydroxyl groups and/or amine groups and/or in which up to 8 -CH 2 - groups which are not adjacent to each other can be substituted by -O-, preferably R a is hydrogen or C 1-6 alkyl, more preferably R a is hydrogen or methyl, most preferably R a is hydrogen; and R b and R c are independently selected from hydrogen or C 1-6 alkyl, preferably R b and R c are independently selected from hydrogen and methyl, more preferably R b and R c are both hydrogen. R a is hydrogen or a C 1-20 alkyl which can be optionally substituted with hydroxyl groups and/or amine groups and/or in which up to 8 -CH 2 - groups which are not adjacent to each other can be substituted by -O-, preferably R a is hydrogen or C 1-6 alkyl, more preferably R a is hydrogen or methyl, most preferably R a is hydrogen; and R b and R c are independently selected from hydrogen or C 1-6 alkyl, preferably R b and R c are independently selected from hydrogen and methyl, more preferably R b and R c are both hydrogen.
Process for drawing a steel wire, characterized in that the wire has a carbon content by weight C such that 0.4% ≤ C ≤ 0.74%, the process comprising: - an uninterrupted series of steps (400 1 - 400 n) of drawing of the wire from a diameter D greater than or equal to 5 mm to a diameter d' greater than or equal to 1 mm and less than or equal to 2.2 mm, d' and D being expressed in mm, in which the true strain ε=2.ln(D/d') is such that ε ≤ 3, - a step in which the wire of diameter d' is heat treated, - an uninterrupted series of steps (700 1 - 700 m) of drawing of the wire of diameter d' to a diameter d greater than or equal to 0.10 mm and less than or equal to 0.25 mm, d' and d being expressed in mm, in which the true strain ε'=2.ln(d'/d) is such that ε' ≥ 4.3, and - in which the true strain εT=2.ln(D/d) is such that εT ≥ 6.5. - an uninterrupted series of steps (400 1 - 400 n) of drawing of the wire from a diameter D greater than or equal to 5 mm to a diameter d' greater than or equal to 1 mm and less than or equal to 2.2 mm, d' and D being expressed in mm, in which the true strain ε=2.ln(D/d') is such that ε ≤ 3, - a step in which the wire of diameter d' is heat treated, - an uninterrupted series of steps (700 1 - 700 m) of drawing of the wire of diameter d' to a diameter d greater than or equal to 0.10 mm and less than or equal to 0.25 mm, d' and d being expressed in mm, in which the true strain ε'=2.ln(d'/d) is such that ε' ≥ 4.3, and - in which the true strain εT=2.ln(D/d) is such that εT ≥ 6.5.