mhurhangee/ep-ind-claims huggingface dataset:
An assembly for operating a device, said assembly comprising: an arm; a stem to which said arm is connected; said stem having a slot; and a member having a tab which fits into said slot and a first portion which overlaps said arm, characterised in that said member has a second portion extending at a right angle to said first portion and connecting said first portion and said tab. an arm; a stem to which said arm is connected; said stem having a slot; and a member having a tab which fits into said slot and a first portion which overlaps said arm, characterised in that said member has a second portion extending at a right angle to said first portion and connecting said first portion and said tab.
A retrievable downhole packer for use in tubing in a well bore, said packer comprising: mandrel means having a first inlet and a first outlet for connection in a workstring to thereby provide a first fluid flow path through the packer; a sealing element on said mandrel means for releasably, sealingly engaging said tubing; slip means on said mandrel means for releasably, grippingly engaging said tubing; and wherein said mandrel means includes a plurality of ports and wherein at least one port is arranged at the slip means to provide a second fluid flow path from the slip means to the first fluid flow path at the slip means. mandrel means having a first inlet and a first outlet for connection in a workstring to thereby provide a first fluid flow path through the packer; a sealing element on said mandrel means for releasably, sealingly engaging said tubing; slip means on said mandrel means for releasably, grippingly engaging said tubing; and wherein said mandrel means includes a plurality of ports and wherein at least one port is arranged at the slip means to provide a second fluid flow path from the slip means to the first fluid flow path at the slip means.
A method of performing a compare operation comprising: charging a pair of differential input/output IO lines (266-1, 266-2) of a memory array (130, 330) to a voltage and an inverse voltage respectively; selectively activating a row line (204, 304) of the memory array (130, 330); sensing a number N, N being a natural number equal or larger than 2, of memory cells coupled to the activated row line by a corresponding number N of sense amplifiers; selectively activating a corresponding number N of column decode lines of the array (130, 330) to transfer a plurality of data values from the N sense amplifiers (206-1 to 206-P) to the pair of differential IO lines (266-1 and 266-2), wherein the N selected column decode lines are activated at the same time; and determining whether at least one of the N sensed memory cells coupled to the row line matches a compare value by sensing whether the voltage of the pair of differential IO lines (266-1, 266-2) changes in response to activation of the N selected column decode lines. charging a pair of differential input/output IO lines (266-1, 266-2) of a memory array (130, 330) to a voltage and an inverse voltage respectively; selectively activating a row line (204, 304) of the memory array (130, 330); sensing a number N, N being a natural number equal or larger than 2, of memory cells coupled to the activated row line by a corresponding number N of sense amplifiers; selectively activating a corresponding number N of column decode lines of the array (130, 330) to transfer a plurality of data values from the N sense amplifiers (206-1 to 206-P) to the pair of differential IO lines (266-1 and 266-2), wherein the N selected column decode lines are activated at the same time; and determining whether at least one of the N sensed memory cells coupled to the row line matches a compare value by sensing whether the voltage of the pair of differential IO lines (266-1, 266-2) changes in response to activation of the N selected column decode lines.
Method for determining a pressure/volume characteristic curve (V i (p)) of a wheel brake (6a-6d) in a brake system for motor vehicles having • an electrically controllable pressure supply device which is or can be connected hydraulically to wheel brakes (6a-6d) and can output a pressure medium volume (V DQ) for activating the wheel brakes (6a-6d), wherein the pressure medium volume which is output by the pressure supply device can be determined, and • an electrically actuable inlet valve (28a-28d) per wheel brake for disconnecting the connection between the wheel brake and the pressure supply device, characterized in that during one or more service braking operations of the motor vehicle wheel brakes are activated by the pressure supply device, the pressure medium volume (V DQm) which is output by the pressure supply device in order to activate the wheel brakes is determined, and the pressure/volume characteristic curves (V i (p)) of the wheel brakes (6a-6d) are determined on the basis of pressure medium volumes (V DQ1, V DQ2, V DQ3, V DQ4, V DQ5) which are output by the pressure supply device during one or more service braking operations. • an electrically controllable pressure supply device which is or can be connected hydraulically to wheel brakes (6a-6d) and can output a pressure medium volume (V DQ) for activating the wheel brakes (6a-6d), wherein the pressure medium volume which is output by the pressure supply device can be determined, and • an electrically actuable inlet valve (28a-28d) per wheel brake for disconnecting the connection between the wheel brake and the pressure supply device,
An antibody for use in treating acute myeloid leukemia in a subject, wherein the antibody is capable of specifically binding to interleukin -3Rα chain, wherein the antibody is humanized and wherein the antibody comprises: (i) a light chain variable region (V L) comprising an amino acid sequence according to SEQ ID NO: 8; (ii) a heavy chain variable region (V H) comprising an amino acid sequence according to SEQ ID NO: 9; and (iii) a heavy chain constant region comprising amino acid substitutions S239D and I332E according to the EU numbering system of Kabat. (i) a light chain variable region (V L) comprising an amino acid sequence according to SEQ ID NO: 8; (ii) a heavy chain variable region (V H) comprising an amino acid sequence according to SEQ ID NO: 9; and (iii) a heavy chain constant region comprising amino acid substitutions S239D and I332E according to the EU numbering system of Kabat.
A reusable drug delivery device for selecting and dispensing a number of user variable doses of a medicament, comprising a housing (10, 20), a cartridge holder for retaining a cartridge containing the medicament, a piston rod displaceable relative to the cartridge holder, a driver coupled to the piston rod, a display member for indicating a set dose and being coupled to the housing (10, 20) and to the driver, characterized in that the reusable drug delivery device further comprises a clutch for rotationally coupling the driver to the housing (10, 20) or the display member and a button rotationally coupled to the clutch and to the driver, - wherein the driver is in threaded engagement with the piston rod, permanently rotationally locked to the button, axially displaceable relative to the button and comprises at least two separate components (41, 42) which are rotationally coupled during dose setting and during dose dispensing and which are rotationally decoupled during resetting of the device, - the button comprises fingers which engage corresponding slots of the driver for rotationally coupling the button to the driver and which comprise snap features engaging corresponding snap features of the clutch for axially coupling the button to the clutch,and - wherein the piston rod is a double threaded piston rod having a first outer thread engaging an internal thread of the housing and a second outer thread engaging an internal thread of the driver, wherein the first and second outer threads (32, 33) overlap each other at least partially. - wherein the driver is in threaded engagement with the piston rod, permanently rotationally locked to the button, axially displaceable relative to the button and comprises at least two separate components (41, 42) which are rotationally coupled during dose setting and during dose dispensing and which are rotationally decoupled during resetting of the device, - the button comprises fingers which engage corresponding slots of the driver for rotationally coupling the button to the driver and which comprise snap features engaging corresponding snap features of the clutch for axially coupling the button to the clutch,and - wherein the piston rod is a double threaded piston rod having a first outer thread engaging an internal thread of the housing and a second outer thread engaging an internal thread of the driver, wherein the first and second outer threads (32, 33) overlap each other at least partially.
A pump having an undulating diaphragm mounted on a support for undulating between two end plates under drive from at least one electromagnetic actuator in order to transfer a fluid between an inlet of the pump and an outlet of the pump, the pump being characterized in that it includes adapter means (6; 20; 30) connecting the diaphragm support to a movable portion of the actuator in order to shorten the stroke of the movable mass of the actuator such that its stroke is shorter than the stroke of the diaphragm support.
Suction robot for autonomously cleaning a vehicle interior of a motor vehicle, having a housing with a housing underside, a propulsion unit, a suction nozzle arranged on the housing underside, a suction motor and a control unit, wherein the housing has a compact housing main body and the suction nozzle is arranged on the housing underside of the housing main body, and the distance of an edge of an intake opening of the suction nozzle, which edge faces a second edge of the housing, from a first edge of the housing, the first edge lying opposite the second edge of the housing, is at least four times, preferably at least six times, particularly preferably at least nine times a distance of the edge of the suction nozzle from the second edge of the housing, characterized in that the suction robot takes up an area of less than 200 cm 2.
A method of manufacturing an article of footwear (18, 18A) having a sole assembly with a midsole and an outsole (76A, 76B), and having an upper, the method comprising: etching an etched feature (12A, 12B, 12C) on a surface of a first polymeric sheet; disposing the first polymeric sheet in a mold assembly; forming a fluid-filled bladder element (10, 10A) at least partially from the first polymeric sheet; wherein the bladder element has a sealable internal cavity that retains fluid; wherein said forming the fluid-filled bladder element (10, 10A) includes conforming the first polymeric sheet to a mold surface (34A, 34AA, 34B) of the mold assembly to at least partially form the fluid-filled bladder element (10, 10A); wherein said etching the etched feature (12A, 12B, 12C) in the surface of the first polymeric sheet is prior to conforming the first polymeric sheet to the mold surface (34A, 34AA, 34B) or after the fluid-filled bladder element (10, 10A) is formed; and assembling the bladder element in the midsole so that a first portion of the fluid-filled bladder element (10, 10A) having the etched feature (12A, 12B, 12C) is exposed to view through an opening (72A, 72B, 72C) in one of the midsole, the outsole (76A, 76B), and the upper, and a second portion of the fluid-filled bladder element (10, 10A) is blocked from view by said one of the midsole, the outsole (76A, 76B), and the upper. etching an etched feature (12A, 12B, 12C) on a surface of a first polymeric sheet; disposing the first polymeric sheet in a mold assembly; forming a fluid-filled bladder element (10, 10A) at least partially from the first polymeric sheet; wherein the bladder element has a sealable internal cavity that retains fluid; wherein said forming the fluid-filled bladder element (10, 10A) includes conforming the first polymeric sheet to a mold surface (34A, 34AA, 34B) of the mold assembly to at least partially form the fluid-filled bladder element (10, 10A); wherein said etching the etched feature (12A, 12B, 12C) in the surface of the first polymeric sheet is prior to conforming the first polymeric sheet to the mold surface (34A, 34AA, 34B) or after the fluid-filled bladder element (10, 10A) is formed; and assembling the bladder element in the midsole so that a first portion of the fluid-filled bladder element (10, 10A) having the etched feature (12A, 12B, 12C) is exposed to view through an opening (72A, 72B, 72C) in one of the midsole, the outsole (76A, 76B), and the upper, and a second portion of the fluid-filled bladder element (10, 10A) is blocked from view by said one of the midsole, the outsole (76A, 76B), and the upper.
Process for treating ash from refuse incineration plants by wet classification, wherein: - ash is mixed with liquid in a slurrying vessel and, after sieving off a coarse fraction, is fed as feed stream to a first classification stage; - the feed stream is separated in the first classification stage into a pollutant-free good fraction and a polluted residual fraction; - the good fraction is dewatered by means of a first sieve apparatus, giving a sieve residue having a minimum particle size of more than 150 pm; - the residual fraction is separated in a second classification stage into a fine mineral fraction and a polluted residue, where the residue has an upper limit to the particle size in the range from 20 μm to 50 pm; - the fine mineral fraction is dewatered by means of a second sieve apparatus; - metals (12, 23) are separated from the sieve residue of the first sieve apparatus and/or from the sieve residue of the second sieve apparatus. - ash is mixed with liquid in a slurrying vessel and, after sieving off a coarse fraction, is fed as feed stream to a first classification stage; - the feed stream is separated in the first classification stage into a pollutant-free good fraction and a polluted residual fraction; - the good fraction is dewatered by means of a first sieve apparatus, giving a sieve residue having a minimum particle size of more than 150 pm; - the residual fraction is separated in a second classification stage into a fine mineral fraction and a polluted residue, where the residue has an upper limit to the particle size in the range from 20 μm to 50 pm; - the fine mineral fraction is dewatered by means of a second sieve apparatus; - metals (12, 23) are separated from the sieve residue of the first sieve apparatus and/or from the sieve residue of the second sieve apparatus.
A solar receiver configuration, comprising: a plurality of receiver heat transfer passes, each pass having a plurality of panels enabling fluid flow therefrom; and each panel having a plurality of tubes, tangentially arranged, vertically extending between horizontally placed lower and upper headers, wherein the headers, pipe assemblies with closed ends, of adjacent panels are horizontally and vertically offset one to another to form a substantially continuous tube surface to enable solar heating of fluid flow therefrom in at least a parallel flow arrangement and a serpentine flow arrangement; wherein each panel having a vertically offset header is adjacent to, on each side, a panel having a horizontally offset header to form horizontally and vertically offset adjacent headers, one to another; wherein at least one of the panels having the upper header vertically offset is adapted to comprise the lower header horizontally offset, to balance the characteristic pressure drop of the adjacent panels having a similar combination of vertically and horizontally offset headers for each panel assembly. a plurality of receiver heat transfer passes, each pass having a plurality of panels enabling fluid flow therefrom; and each panel having a plurality of tubes, tangentially arranged, vertically extending between horizontally placed lower and upper headers, wherein the headers, pipe assemblies with closed ends, of adjacent panels are horizontally and vertically offset one to another to form a substantially continuous tube surface to enable solar heating of fluid flow therefrom in at least a parallel flow arrangement and a serpentine flow arrangement; wherein each panel having a vertically offset header is adjacent to, on each side, a panel having a horizontally offset header to form horizontally and vertically offset adjacent headers, one to another; wherein at least one of the panels having the upper header vertically offset is adapted to comprise the lower header horizontally offset, to balance the characteristic pressure drop of the adjacent panels having a similar combination of vertically and horizontally offset headers for each panel assembly.
A method of confining a plasma comprising a plurality of ions and electrons, the method comprising: applying a magnetic field within a containment structure, injecting ion beams neutralized with electrons into said containment structure, magnetically confining said plurality of plasma ions within said confinement structure using a field reversed configuration magnetic field, characterized in that it further comprises the steps of generating an electrostatic potential energy well inside the plasma at a well magnitude dependent of the magnetic field magnitude of said applied magnetic field and of the velocity of the injected ion beams, whereby said electrostatic potential well is induced by the surplus of positive charges created when the Lorentz force, generated by the plasma rotating in said FRC magnetic field, justes the most energetic electrons to leave the plasma, electrostatically confining a plurality of remaining plasma electrons within said electrostatic potential energy well formed within the confinement structure, and tuning the electrostatic field of said electrostatic potential energy well by adjusting a magnitude of said applied magnetic field. applying a magnetic field within a containment structure, injecting ion beams neutralized with electrons into said containment structure, magnetically confining said plurality of plasma ions within said confinement structure using a field reversed configuration magnetic field, characterized in that it further comprises the steps of generating an electrostatic potential energy well inside the plasma at a well magnitude dependent of the magnetic field magnitude of said applied magnetic field and of the velocity of the injected ion beams, whereby said electrostatic potential well is induced by the surplus of positive charges created when the Lorentz force, generated by the plasma rotating in said FRC magnetic field, justes the most energetic electrons to leave the plasma, electrostatically confining a plurality of remaining plasma electrons within said electrostatic potential energy well formed within the confinement structure, and tuning the electrostatic field of said electrostatic potential energy well by adjusting a magnitude of said applied magnetic field.
A wind turbine control method, the wind turbine comprising: - a rotor having at least two blades; - a wind turbine control system; - a heating system having at least one heating element connected to the control system and configured to carry out a heating of at least one of the blades; wherein the method comprises a stage wherein the presence of ice or conditions given to the formation of ice on the blades are detected, a heating system effectiveness estimation stage and, a heating system activation stage, wherein if the presence of ice or conditions given to the formation of ice on the blades are detected, the heating system effectiveness estimation stage is carried out, and wherein the heating system activation stage is carried out after the heating system effectiveness estimation stage only if the heating system effectiveness estimation stage gives as result that the heating system is effective for preventing the formation of ice in an anti-icing mode or for removing the ice in an de-icing mode of the wind turbine, wherein the heating system is effective when wind speed and ambient temperature values currently measured are above one curve representing ambient temperature values in accordance with wind speed values predetermined as envisaged for preventing the formation of ice in the anti-icing mode or for removing the ice in the de-icing mode of the wind turbine. - a rotor having at least two blades; - a wind turbine control system; - a heating system having at least one heating element connected to the control system and configured to carry out a heating of at least one of the blades;
Use of a catalyst for fixed bed aniline rectification residue recycling, characterized in that said catalyst comprises the components described below based on the total weight of the catalyst: 5-40 wt% of NiO as an active component, 2-30 wt% of one or more selected from oxides of Fe, oxides of Mo, oxides of Cr and oxides of Co as a first cocatalyst component, 10-30 wt% of one or more selected from oxides of La, oxides of Zr, oxides of Y and oxides of Ce as a second cocatalyst component, the remaining portion being the support. 5-40 wt% of NiO as an active component, 2-30 wt% of one or more selected from oxides of Fe, oxides of Mo, oxides of Cr and oxides of Co as a first cocatalyst component, 10-30 wt% of one or more selected from oxides of La, oxides of Zr, oxides of Y and oxides of Ce as a second cocatalyst component, the remaining portion being the support.
Dispenser suitable for enclosing liquid until the content is to be ingested by a person via the mouth, said dispenser being comprised of at least one reservoir with at least one inner space, in which liquid such as oral preparations are suitable to be enclosed in, at least one spout, including at least one channel through which liquid may be conveyed out from the dispenser and at least one detachable part with which the dispenser may be opened and that the dispenser is comprised of at least one first side, at least one second side and a bottom part formed by at least one sheet-shaped material layer which is folded together via at least one fold, a folding zone or the like and is joined at its edges and that the channel is formed adjacent to the folding zone, the fold or similar and that the channel runs along the fold from the vicinity of the detachable part to the vicinity of the bottom part characterized in that the spout is angled in a range between 65 to 75 degrees relative the dispenser's bottom part.
Aircraft undercarriage having a leg (2; 102) provided with means for pivoting on a structure of the aircraft about a pivot axis between a deployed position and a retracted position, the undercarriage including a strut (3a, 3b; 103a, 103b) comprising two brace elements articulated to one another, one of which is articulated to the leg and the other of which is provided with means for articulating it to the structure of the aircraft, so that when the leg is in the deployed position, the two brace elements of the strut are locked in a substantially aligned position, the undercarriage also being provided with a rotary actuator (10; 110) having an output shaft acting on one of the brace elements of the strut in order to cause the leg to pivot between the two positions, the actuator being provided with means for pivoting on the structure of the aircraft about a rotation axis of the output shaft, characterized in that the actuator has a casing (12; 112) connected by a reaction rod (13; 113) to the leg in order to take up a torque developed by the actuator when manoeuvring the undercarriage.