mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a foamed extrudate, comprising a main melting device and an auxiliary melting device, wherein a first melt is generated in the main melting device, wherein a second melt is generated in the auxiliary melting device from a meltable starting material, wherein at least one reactive additive is added to the meltable starting material the at least one reactive additive being selected from the group consisting of a chemical blowing agent and an active nucleating agent, or the reactive additive is contained in the meltable starting material, wherein the meltable starting material and the reactive additive are melted in the auxiliary melting device to form the second melt, so that an additive-containing second melt containing the reactive additive is obtained in the auxiliary melting device, which is added to the first melt produced in the main melting device.
A de-icer, comprising: first and second structural layers each having a trapezoidal shape and comprising wide and narrow ends, a centerline which extends between the wide and narrow ends at a normal angle to each, and a tapered non-inflatable edge, which extends between the wide and narrow ends and is angled with respect to the centerline; edge sealing material disposed to adhere the first and second structural layers together to form a non-inflatable edge area extending along at least the tapered non-inflatable edge and surrounding a central area; and stitching disposed to stitch the first and second structural layers together in the central area to form tubes comprising an outermost tube (161 1) which is closest to and parallel with the tapered non-inflatable edge. first and second structural layers each having a trapezoidal shape and comprising wide and narrow ends, a centerline which extends between the wide and narrow ends at a normal angle to each, and a tapered non-inflatable edge, which extends between the wide and narrow ends and is angled with respect to the centerline; edge sealing material disposed to adhere the first and second structural layers together to form a non-inflatable edge area extending along at least the tapered non-inflatable edge and surrounding a central area; and stitching disposed to stitch the first and second structural layers together in the central area to form tubes comprising an outermost tube (161 1) which is closest to and parallel with the tapered non-inflatable edge.
A multi-qubit device comprising: a first layer structure disposed on a substrate in a vertical direction of the multi-qubit device and comprising an array of a plurality of qubits (QB10, QB11); and a second layer structure disposed between the substrate and the first layer structure and comprising a plurality of flux generating elements (FG10, FG11) that apply flux to the plurality of qubits in the vertical direction, wherein each of the plurality of qubits and each of the plurality of flux generating elements corresponding to the plurality of qubits have centers that are aligned on substantially a same axis in the vertical direction, wherein each of the plurality of qubits includes a closed loop structure and at least one Josephson junction disposed on the closed loop structure, and characterized in that each of the plurality of flux generating elements includes a partially open loop structure having a size less than or equal to a size of the closed loop structure. a first layer structure disposed on a substrate in a vertical direction of the multi-qubit device and comprising an array of a plurality of qubits (QB10, QB11); and a second layer structure disposed between the substrate and the first layer structure and comprising a plurality of flux generating elements (FG10, FG11) that apply flux to the plurality of qubits in the vertical direction, wherein each of the plurality of qubits and each of the plurality of flux generating elements corresponding to the plurality of qubits have centers that are aligned on substantially a same axis in the vertical direction, wherein each of the plurality of qubits includes a closed loop structure and at least one Josephson junction disposed on the closed loop structure, and characterized in that each of the plurality of flux generating elements includes a partially open loop structure having a size less than or equal to a size of the closed loop structure.
An automatic analyzer for analyzing samples, comprising an immersion tube configured to retrieve a reagent stored in a reagent vessel, a lifting device configured to lift and to lower the immersion tube, wherein the lifting device comprises - a guide rail on which the immersion tube is slidably moveable between a lowered position, in which the immersion tube is configured to be immersed into the reagent vessel, and a lifted position, in which the immersion tube is configured to be retracted from the reagent vessel, and - at least one biasing member configured to bias the immersion tube towards the lowered position with a predetermined biasing force, a detector configured to detect an identity of the reagent, and a locking device configured to lock the immersion tube in the lifted position and to allow the immersion tube to be moved towards the lowered position only if the identity of the reagent detected by the detector corresponds to a target identity of the reagent. a lifting device configured to lift and to lower the immersion tube, wherein the lifting device comprises - a guide rail on which the immersion tube is slidably moveable between a lowered position, in which the immersion tube is configured to be immersed into the reagent vessel, and a lifted position, in which the immersion tube is configured to be retracted from the reagent vessel, and - at least one biasing member configured to bias the immersion tube towards the lowered position with a predetermined biasing force, - a guide rail on which the immersion tube is slidably moveable between a lowered position, in which the immersion tube is configured to be immersed into the reagent vessel, and a lifted position, in which the immersion tube is configured to be retracted from the reagent vessel, and - at least one biasing member configured to bias the immersion tube towards the lowered position with a predetermined biasing force, a detector configured to detect an identity of the reagent, and a locking device configured to lock the immersion tube in the lifted position and to allow the immersion tube to be moved towards the lowered position only if the identity of the reagent detected by the detector corresponds to a target identity of the reagent.
A ventilation unit, comprising: - a casing having two EPS shells (211, 212) - an indoor fresh air connection and an indoor extract air connection, both of which are disposed on one side with respect to a longitudinal direction of the ventilation unit, and an outdoor fresh air connection and an outdoor extract air connection, both of which are disposed on the opposite side with respect to the longitudinal direction of the ventilation unit, - an accommodating space for a heat exchanger, - at least one accommodating space for an air filter, - a heat exchanger disposed in the accommodating space, - two radial fans (231, 232), each accommodated in an accommodating space within the casing and arranged to route the fresh air and the extract air through the heat exchanger in a countercurrent, - a condensate pump for removing condensate accumulating within the ventilation unit, characterised in that the condensate pump is disposed at the outside of the casing and is connected to carry fluid to a condensate drain, which is in turn connected to carry fluid to the interior of the casing, and the condensate pump is coupled in a signal-conducting manner with a float module disposed in the interior of the casing. - a casing having two EPS shells (211, 212) - an indoor fresh air connection and an indoor extract air connection, both of which are disposed on one side with respect to a longitudinal direction of the ventilation unit, and an outdoor fresh air connection and an outdoor extract air connection, both of which are disposed on the opposite side with respect to the longitudinal direction of the ventilation unit, - an accommodating space for a heat exchanger, - at least one accommodating space for an air filter, - a heat exchanger disposed in the accommodating space, - two radial fans (231, 232), each accommodated in an accommodating space within the casing and arranged to route the fresh air and the extract air through the heat exchanger in a countercurrent, - a condensate pump for removing condensate accumulating within the ventilation unit,
A method for configuring a key e-node B, KeNB, by a first eNB associated with a primary cell, PCell, in a communication system, comprising: determining a KeNB which is different from a KeNB used by the first eNB; transmitting, to a second eNB associated with secondary cells, SCells, only, a first message for adding a first SCell of the SCells associated with the second eNB, wherein the first message includes the determined KeNB to be used by the first SCell of the SCells associated with the second eNB; transmitting, to the second eNB, a second message for adding a second SCell of the SCells associated with the second eNB; transmitting, to a terminal, a third message for reconfiguration including configuration information on the first SCell associated with the second eNB; and transmitting, to the terminal, a fourth message for reconfiguration including configuration information on the second SCell associated with the second eNB, wherein a KeNB to be used by the second SCell associated with the second eNB is the same as the determined KeNB to be used by the first SCell associated with the second eNB, wherein each of the third message and the fourth message is a Radio Resource Control, RRC, ConnectionReconfiguration message. determining a KeNB which is different from a KeNB used by the first eNB; transmitting, to a second eNB associated with secondary cells, SCells, only, a first message for adding a first SCell of the SCells associated with the second eNB, wherein the first message includes the determined KeNB to be used by the first SCell of the SCells associated with the second eNB; transmitting, to the second eNB, a second message for adding a second SCell of the SCells associated with the second eNB; transmitting, to a terminal, a third message for reconfiguration including configuration information on the first SCell associated with the second eNB; and transmitting, to the terminal, a fourth message for reconfiguration including configuration information on the second SCell associated with the second eNB, wherein a KeNB to be used by the second SCell associated with the second eNB is the same as the determined KeNB to be used by the first SCell associated with the second eNB, wherein each of the third message and the fourth message is a Radio Resource Control, RRC, ConnectionReconfiguration message.
A build platform comprising: a build plate with a metal upper surface; and a build assembly removably secured to the build plate, the build assembly including a powder bed working surface having a non-metallic barrier layer and a metal bonding surface, the non-metallic barrier layer disposed over the metal upper surface of the build plate, and the metal bonding surface flush with the non-metallic barrier layer; and wherein the metal bonding surface comprises a surface of at least one anchor recessed below the metal upper surface of the build plate, and wherein the anchor comprises: an anchor pin removably secured to the build plate during a build process, the anchor pin including a body, an upper surface, a lower surface, and a notch at least partially circumscribing the body between the upper and lower surfaces; and wherein the anchor further comprises: a sacrificial localized support structure metallurgically bonded to the upper surface of the anchor pin. a build plate with a metal upper surface; and a build assembly removably secured to the build plate, the build assembly including a powder bed working surface having a non-metallic barrier layer and a metal bonding surface, the non-metallic barrier layer disposed over the metal upper surface of the build plate, and the metal bonding surface flush with the non-metallic barrier layer; and wherein the metal bonding surface comprises a surface of at least one anchor recessed below the metal upper surface of the build plate, and wherein the anchor comprises: an anchor pin removably secured to the build plate during a build process, the anchor pin including a body, an upper surface, a lower surface, and a notch at least partially circumscribing the body between the upper and lower surfaces; and wherein the anchor further comprises: a sacrificial localized support structure metallurgically bonded to the upper surface of the anchor pin. an anchor pin removably secured to the build plate during a build process, the anchor pin including a body, an upper surface, a lower surface, and a notch at least partially circumscribing the body between the upper and lower surfaces; and wherein the anchor further comprises: a sacrificial localized support structure metallurgically bonded to the upper surface of the anchor pin.
A method for separating oil and water in a stream comprising a mixture of oil and water, the method comprising: introducing an effective amount of a single-phase microemulsion additive to the stream to separate the oil from the water in the stream, where the single-phase microemulsion additive comprises: at least one demulsifier, wherein the demulsifier is selected from a group consisting of an anionic demulsifier, a cationic demulsifier, a non-ionic demulsifier, a crosslinked demulsifier, an acid-based demulsifier, an amphoteric demulsifier, and combinations thereof; at least one water clarifier, wherein the water clarifier is selected from a group consisting of a polycondensate derived from N,N'-bis[3-(dimethylamino)propyl]urea, a polyacrylate copolymer, a polyacrylamide copolymer, a poly(acrylate/acrylamide) copolymer, a polycondensate derived from an alkanolamine, a dithiocarbamate, and combinations thereof; or is an anionic or cationic starch selected from the group consisting of a biopolymer, a plant starch, a potato starch, a corn starch, a rice starch, a tapioca starch, and combinations thereof; at least one surfactant, wherein the surfactant is selected from a group consisting of a non-ionic surfactant, an anionic surfactant, a cationic surfactant, a zwitterionic surfactant, an amphoteric surfactant, and combinations thereof; and optionally at least one solvent; wherein the at least one demulsifier and the at least one water clarifier are immiscible with each other. at least one demulsifier, wherein the demulsifier is selected from a group consisting of an anionic demulsifier, a cationic demulsifier, a non-ionic demulsifier, a crosslinked demulsifier, an acid-based demulsifier, an amphoteric demulsifier, and combinations thereof; at least one water clarifier, wherein the water clarifier is selected from a group consisting of a polycondensate derived from N,N'-bis[3-(dimethylamino)propyl]urea, a polyacrylate copolymer, a polyacrylamide copolymer, a poly(acrylate/acrylamide) copolymer, a polycondensate derived from an alkanolamine, a dithiocarbamate, and combinations thereof; or is an anionic or cationic starch selected from the group consisting of a biopolymer, a plant starch, a potato starch, a corn starch, a rice starch, a tapioca starch, and combinations thereof; at least one surfactant, wherein the surfactant is selected from a group consisting of a non-ionic surfactant, an anionic surfactant, a cationic surfactant, a zwitterionic surfactant, an amphoteric surfactant, and combinations thereof; and optionally at least one solvent; wherein the at least one demulsifier and the at least one water clarifier are immiscible with each other.
A method of finishing a first target material and a second target material without an intervening cleaning process, the method comprising: applying a first material finish to a first target material, comprising: positioning the first target material in a pressure vessel; introducing carbon dioxide ("CO 2 ") within the pressure vessel; increasing an internal temperature of the pressure vessel to an operating temperature; increasing a flow rate to a non-zero rate, wherein the flow rate is increased to the non-zero rate prior to the CO 2 achieving a supercritical fluid ("SCF") state; increasing a pressure within the pressure vessel to an operating pressure, wherein the CO 2 achieves a SCF state when at the operating temperature and the operating pressure; perfusing, using SCF CO 2, the first target material with the first finishing material; subsequent to perfusing the first target material with the first finishing material, reducing the pressure from the operating pressure to a transition pressure while maintaining the temperature above a threshold temperature and maintaining the flow rate above a threshold rate; and applying a second material finish to a second target material in the pressure vessel without applying the first material finish to a sacrificial cleaning material in a step between the applying the first material finish to the first target material and the applying of the second material finish to the second target material in the pressure vessel.
An electric power steering apparatus that produces steering auxiliary power if a steering auxiliary power starting condition is satisfied, comprising: an electric motor that generates output for exerting steering auxiliary power on a steering system; a power source that supplies electric power to the motor; and a control apparatus that controls output of the motor, characterized in that if the steering auxiliary power starting condition is not being satisfied and there exists no abnormality in the power source, the control apparatus controls output of the motor in such a way that through operation of a driver, limited steering auxiliary power that is limited to be smaller than normal steering auxiliary power is exerted on the steering system. an electric motor that generates output for exerting steering auxiliary power on a steering system; a power source that supplies electric power to the motor; and a control apparatus that controls output of the motor,
A cover adapted to be attached to a container comprising a top wall having a generally centrally located aperture, a sidewall extending downwardly from said top wall, and a single vane extending downwardly from said top wall and inwardly from said sidewall, and extending near to, but not all the way to, said aperture.
Cone bearing arrangement having a first tapered roller bearing, comprising a first inner ring, a first outer ring and a plurality of tapered rollers which roll between the first inner ring and the first outer ring, having a second tapered roller bearing, comprising a second inner ring, a second outer ring and a plurality of tapered rollers which roll between the second inner ring and the second outer ring, having a connector construction which is provided with a bore, into which the two outer rings (5, 9) of the two tapered roller bearings (3, 4) are inserted, and having a shaft which is guided through the inner rings (5, 8) of the two tapered roller bearings (3, 4) and is connected fixedly to them so as to rotate with them, an outer circumferential edge of a second outer ring, which outer circumferential edge extends in the axial direction, encloses an angle α with the rotational axis of the cone bearing arrangement, and the bore in the connector construction also having a conical part in addition to a cylindrical part, the smaller diameter of the conical part adjoining the cylindrical part, and the circumferential face of the conical part enclosing an angle with the rotational axis of the cone bearing arrangement, which angle corresponds to the angle α, characterized in that at least the second outer ring, the circumferential edge of which encloses the angle α with the rotational axis of the cone bearing arrangement, is provided on the circumferential edge with a first guide means which interacts with a second guide means which is complementary with respect to the first guide means and is provided on the conical part of the bore of the connector construction, the first guide means being a rib which projects radially from the circumferential edge, and the second guide means being a groove.
Process for the purification of saturated linear aliphatic dicarboxylic acids with a number of carbon atoms of between 4 and 18, or mixtures thereof, obtained from a fermentation broth, comprising the following steps: a) removal of cells and/or cellular residues from the fermentation broth; b) lowering the pH of the fermentation broth with precipitation of saturated linear aliphatic dicarboxylic acids and separation thereof from said broth; c) dissolution of the crude mixture obtained in step b) containing one or more saturated linear aliphatic dicarboxylic acids and impurities in an oxidizing solution of nitric acid at a concentration of between 45 and 68% by weight at a temperature of between 60 and 100 °C for a time ranging between 0.1 and 4 hours; d) recovery of saturated linear aliphatic dicarboxylic acids from the oxidizing solution of step c); e) redissolution of saturated linear aliphatic dicarboxylic acids in an aqueous mixture comprising activated carbon at a temperature of between 60 and 100 °C; f) recovery of saturated linear aliphatic dicarboxylic acids from the aqueous mixture. a) removal of cells and/or cellular residues from the fermentation broth; b) lowering the pH of the fermentation broth with precipitation of saturated linear aliphatic dicarboxylic acids and separation thereof from said broth; c) dissolution of the crude mixture obtained in step b) containing one or more saturated linear aliphatic dicarboxylic acids and impurities in an oxidizing solution of nitric acid at a concentration of between 45 and 68% by weight at a temperature of between 60 and 100 °C for a time ranging between 0.1 and 4 hours; d) recovery of saturated linear aliphatic dicarboxylic acids from the oxidizing solution of step c); e) redissolution of saturated linear aliphatic dicarboxylic acids in an aqueous mixture comprising activated carbon at a temperature of between 60 and 100 °C; f) recovery of saturated linear aliphatic dicarboxylic acids from the aqueous mixture.
An implantable device for osteo and osteochondral or connective tissue repair comprising a resorbable matrix that is a textile structure comprising braided resorbable polymeric fibers with the axis of the braids aligned substantially parallel to the axis of the device and including a series of channels communicating between the upper and lower surface of the device which are effective to allow passage of cells and nutrients through the device.
Plug-in connection with a plug-in connector and mating plug-in connector, which are arranged in a plug-in housing and mating plug-in housing and have plug-in contacts and mating plug-in contacts, with at least one sealing element, which is connectable to the housings, and with locking units (3, 4), optionally with preliminary locking, which are operatively connected to the housings, wherein the plug-in contacts and mating plug-in contacts and plug inserts and also the sealing element and the locking units (3, 4) are designed in such a manner and arranged in such a manner that, when the plug-in connection is joined together, first of all the contacting/contact pairing and optionally preliminary locking take place, followed by the sealing and/or locking, characterized in that the plug-in contacts and/or mating plug-in contacts are arranged in plug inserts, and in that the plug inserts are arranged displaceably in the assigned housings.