mhurhangee/ep-ind-claims huggingface dataset:
A method of processing a stream comprising liquid chlorine containing nitrogen trichloride, comprising the steps of: (a) receiving the stream comprising liquid chlorine containing nitrogen trichloride from a chlorine production train of a chlorine production process; (b) vaporizing the liquid stream of step (a) to produce a stream comprising chlorine gas and nitrogen trichloride gas; (c) processing the stream produced by step (b) by destroying the nitrogen trichloride gas therein by means of: (i) heating the stream of step (b) to a temperature in the range of 30 to 300 degrees C at a pressure in the range of 0.5 to 100 bar for a residence time in the range of 0.5 seconds to 5 minutes, and / or (ii) introducing the stream of step (b) into a catalytic bed containing a nitrogen trichloride-destroying catalyst, producing a stream comprising chlorine gas and nitrogen gas; and (d) recycling the stream produced by step (c) to the chlorine production train. (a) receiving the stream comprising liquid chlorine containing nitrogen trichloride from a chlorine production train of a chlorine production process; (b) vaporizing the liquid stream of step (a) to produce a stream comprising chlorine gas and nitrogen trichloride gas; (c) processing the stream produced by step (b) by destroying the nitrogen trichloride gas therein by means of: (i) heating the stream of step (b) to a temperature in the range of 30 to 300 degrees C at a pressure in the range of 0.5 to 100 bar for a residence time in the range of 0.5 seconds to 5 minutes, and / or (ii) introducing the stream of step (b) into a catalytic bed containing a nitrogen trichloride-destroying catalyst, producing a stream comprising chlorine gas and nitrogen gas; and (i) heating the stream of step (b) to a temperature in the range of 30 to 300 degrees C at a pressure in the range of 0.5 to 100 bar for a residence time in the range of 0.5 seconds to 5 minutes, and / or (ii) introducing the stream of step (b) into a catalytic bed containing a nitrogen trichloride-destroying catalyst, producing a stream comprising chlorine gas and nitrogen gas; and (d) recycling the stream produced by step (c) to the chlorine production train.
A therapeutic agent or prophylactic agent for use in a method of treatment or prevention of a tauopathy, wherein the therapeutic agent or prophylactic agent comprises, as an active ingredient, a monoclonal antibody that binds specifically to a tau protein phosphorylated at the amino acid residue corresponding to Ser413 of SEQ ID NO: 1, wherein the binding is defined by affinity represented by an equilibrium dissociation constant of at most 1 x 10 -6 M, and wherein said binding to the phosphorylated tau protein is at least 10 times stronger than the binding to a tau protein that has not been phosphorylated at said Ser413.
A screen element for use in a screen assembly (10, 52, 80), comprising: parallel screen element end portions; parallel screen element side portions perpendicular to the screen element end portions; and a screen element screening surface having elongated screen surface elements running parallel to the screen element end portions and forming a series of screening openings which are elongated slots, wherein the screening openings have a distance of between 43 μm and 2000 μm between inner surfaces of the screen surface elements, wherein the screen surface elements have a thickness of between 43 μm and 100 μm and wherein the screen element is an injection molded piece. parallel screen element end portions; parallel screen element side portions perpendicular to the screen element end portions; and a screen element screening surface having elongated screen surface elements running parallel to the screen element end portions and forming a series of screening openings which are elongated slots, wherein the screening openings have a distance of between 43 μm and 2000 μm between inner surfaces of the screen surface elements, wherein the screen surface elements have a thickness of between 43 μm and 100 μm and wherein the screen element is an injection molded piece.
A zoom lens system comprising: an objective lens group that is axially stationary and that has a positive optical power; an axially movable zoom lens group positioned on an image side of the objective lens group; an axially stationary rear lens group positioned on an image side of the axially movable zoom lens group, the axially stationary rear lens group comprising at least one liquid lens cell, the at least one liquid lens cell comprising a first and a second contacting liquids, a contacting optical surface between the contacting liquids having a variable shape; an axially stationary optical stop positioned between the axially movable zoom lens group and the axially stationary rear lens group; and an optical element that redirects the radiation axis, the optical element positioned within the axially stationary rear lens group; wherein the objective lens group and the axially movable zoom lens group are aligned on a common optical axis and arranged to collect radiation emanating from an object side space of the zoom lens system and deliver the radiation to an image side space. an objective lens group that is axially stationary and that has a positive optical power; an axially movable zoom lens group positioned on an image side of the objective lens group; an axially stationary rear lens group positioned on an image side of the axially movable zoom lens group, the axially stationary rear lens group comprising at least one liquid lens cell, the at least one liquid lens cell comprising a first and a second contacting liquids, a contacting optical surface between the contacting liquids having a variable shape; an axially stationary optical stop positioned between the axially movable zoom lens group and the axially stationary rear lens group; and an optical element that redirects the radiation axis, the optical element positioned within the axially stationary rear lens group; wherein the objective lens group and the axially movable zoom lens group are aligned on a common optical axis and arranged to collect radiation emanating from an object side space of the zoom lens system and deliver the radiation to an image side space.
A wall-mounted drum-type washing machine comprising: a rear panel configured to be mounted on a wall surface; a tub configured to contain wash water, supported by the rear panel; a front panel on the tub, the front panel having an opening therein; a control unit on or in the front panel; and a bypass unit located over the control unit bypassing wash water which drops toward the control unit, characterized in that the bypass unit comprises a bypass rib between the control unit and the opening in the front panel, and wherein the bypass rib is elongated in a side-to-side direction, and opposed ends of the bypass rib are bent while forming a curved surface downward. a rear panel configured to be mounted on a wall surface; a tub configured to contain wash water, supported by the rear panel; a front panel on the tub, the front panel having an opening therein; a control unit on or in the front panel; and a bypass unit located over the control unit bypassing wash water which drops toward the control unit,
Clamp for a cable-drawn transporting means, having clamping jaws (3, 5) with a clamp spine and clamp tongues adjoining the same, wherein the clamp spine and the clamp tongues have running surfaces (8, 9) for sheaves, wherein, in the longitudinal direction, the clamp tongues have a running surface which is curved in an essentially S shaped manner and merges continuously, and with a continuous curvature, into the running surface of the clamp spine, and wherein the running surface of the clamp tongues has a positive curvature (Kp) in the region of their free ends and a negative curvature (Kn) following the same, characterized in that the running surface on the clamp spine has a negative curvature (Kn) and in that the negative curvature (Kn) in the central region of the clamp spine has a maximum.
A compact respiratory therapy device suitable for use by a patient during sleep to provide respiratory pressure therapy at a pressure between 4-30 cmH 2 O, the device comprising: a housing; an inlet; an outlet; a motor including a rotor; and an impeller configured to be rotated by the rotor to deliver a flow of air from the inlet toward the outlet, the impeller comprising: a set of impeller blades, each impeller blade comprising a leading edge and a trailing edge; and a first shroud and a second shroud, each shroud at least partly defining a flow passage through the impeller, the first shroud comprising a wall defining a periphery of an impeller inlet; wherein the compact respiratory therapy device is configured to deliver the flow of air from the outlet for delivery to the patient at a pressure between 4-30 cmH 2 O at an overall sound power level of less than 50 dB thereby reducing any disturbance to a quality of sleep for the patient, and wherein: a diameter of the impeller is less than 50 mm; the first shroud and the second shroud are configured such that the flow passage is narrower in an axial direction at an outer portion of the impeller than at an inner portion of the impeller; and a diameter of the impeller inlet is at least 50 % of the diameter of the impeller. a housing; an inlet; an outlet; a motor including a rotor; and an impeller configured to be rotated by the rotor to deliver a flow of air from the inlet toward the outlet, the impeller comprising: a set of impeller blades, each impeller blade comprising a leading edge and a trailing edge; and a first shroud and a second shroud, each shroud at least partly defining a flow passage through the impeller, the first shroud comprising a wall defining a periphery of an impeller inlet; a set of impeller blades, each impeller blade comprising a leading edge and a trailing edge; and a first shroud and a second shroud, each shroud at least partly defining a flow passage through the impeller, the first shroud comprising a wall defining a periphery of an impeller inlet; wherein the compact respiratory therapy device is configured to deliver the flow of air from the outlet for delivery to the patient at a pressure between 4-30 cmH 2 O at an overall sound power level of less than 50 dB thereby reducing any disturbance to a quality of sleep for the patient, and wherein: a diameter of the impeller is less than 50 mm; the first shroud and the second shroud are configured such that the flow passage is narrower in an axial direction at an outer portion of the impeller than at an inner portion of the impeller; and a diameter of the impeller inlet is at least 50 % of the diameter of the impeller. a diameter of the impeller is less than 50 mm; the first shroud and the second shroud are configured such that the flow passage is narrower in an axial direction at an outer portion of the impeller than at an inner portion of the impeller; and a diameter of the impeller inlet is at least 50 % of the diameter of the impeller.
Soil-processing roller for a soil-processing machine, comprising: - a roller sleeve elongated in the direction of a roller axis of rotation surrounding the roller axis of rotation, - a first drive transmission element connected or connectable firmly so that it can rotate to a rotor region of a roller drive motor for joint rotation about the roller axis of rotation, - a first roller sleeve connecting element connected to the first drive transmission element by means of a plurality of first elastic suspension elements and connected to the roller sleeve for joint rotation about the roller axis of rotation, characterized by: - a second drive transmission element arranged at an axial distance to the first drive transmission element and connected by means of a drive transmission element connection arrangement to the first drive transmission element for torque transmission, - a second roller sleeve connecting element connected to the second drive transmission element by means of a plurality of second elastic suspension elements and connected to the roller sleeve for joint rotation about the roller axis of rotation. - a roller sleeve elongated in the direction of a roller axis of rotation surrounding the roller axis of rotation, - a first drive transmission element connected or connectable firmly so that it can rotate to a rotor region of a roller drive motor for joint rotation about the roller axis of rotation, - a first roller sleeve connecting element connected to the first drive transmission element by means of a plurality of first elastic suspension elements and connected to the roller sleeve for joint rotation about the roller axis of rotation, - a second drive transmission element arranged at an axial distance to the first drive transmission element and connected by means of a drive transmission element connection arrangement to the first drive transmission element for torque transmission, - a second roller sleeve connecting element connected to the second drive transmission element by means of a plurality of second elastic suspension elements and connected to the roller sleeve for joint rotation about the roller axis of rotation.
A well completion system for separately controlling and monitoring annuluses in a well, the well having a production tubing string, a production casing string surrounding the production tubing string and defining an "A" annulus therebetween, and an intermediate casing string surrounding the production casing string and defining a "B" annulus therebetween, the well completion system comprising: a tubing hanger suspension assembly including a tubing hanger lower assembly arranged and designed for insertion within the production casing string, the tubing hanger lower assembly extending around an upper length of the production tubing string and defining a production annulus between the tubing hanger lower assembly and the production tubing string, the production annulus in fluid communication with the "A" annulus; the tubing hanger lower assembly including a lower seal arranged and designed to provide sealed engagement between the tubing hanger lower assembly and the production casing string, the sealed engagement providing a separated area above the lower seal outside the lower assembly and inside the production casing string that is segregated from the "A" annulus and the production annulus; a "B" annulus access assembly comprising at least one port in the production casing string at a location above the lower seal and a moveable sleeve having an open position and a closed position, the moveable sleeve allowing the "B" annulus fluid communication with the separated area when in the open position, and preventing fluid communication of the "B" annulus with the separated area when in the closed position; and the tubing hanger suspension assembly including means (34, 35, 39) for moving the sleeve from the closed position to the open position. a tubing hanger suspension assembly including a tubing hanger lower assembly arranged and designed for insertion within the production casing string, the tubing hanger lower assembly extending around an upper length of the production tubing string and defining a production annulus between the tubing hanger lower assembly and the production tubing string, the production annulus in fluid communication with the "A" annulus; the tubing hanger lower assembly including a lower seal arranged and designed to provide sealed engagement between the tubing hanger lower assembly and the production casing string, the sealed engagement providing a separated area above the lower seal outside the lower assembly and inside the production casing string that is segregated from the "A" annulus and the production annulus; a "B" annulus access assembly comprising at least one port in the production casing string at a location above the lower seal and a moveable sleeve having an open position and a closed position, the moveable sleeve allowing the "B" annulus fluid communication with the separated area when in the open position, and preventing fluid communication of the "B" annulus with the separated area when in the closed position; and the tubing hanger suspension assembly including means (34, 35, 39) for moving the sleeve from the closed position to the open position.
Photoactivable rhodamine or carbopyronine derivatives of the following general formulae G1-G4 comprising UV light absorbing chromophores which in the course of photolysis by irradiation at 254-490 nm eliminate nitrogen or nitrogen oxide and generate fluorescent rhodamine or carbopyronine dyes G1: A1 = 0, A2 = N, A3 = C; G2: A1 = S, A2 = N, A3 = C; G3: A1 = O, A2 = O, A3 = N; G4: A1 = S, A2 = O, A3 = N; wherein R 1, R 2, (R 1 -R 2), R 3, R 4, (R 3 -R 4), R 5, R 6, (R 5 -R 6), R 7, R 8, (R 7 -R 8) = H, unsubstituted or substituted alkyl (cycloalkyl), unsubstituted or substituted cycloalkenyl, unsubstituted or substituted heterocylic residue, unsubstituted or substituted aryl, unsubstituted or substituted hetaryl; and X = O, S, C(CH 3) 2; the chemical bond between C-2 and C-3 may be a single or cis- double bond; alternatively, C-2 and C-3 may be a part of any cyclic system, preferably the benzene ring; and the substituents Q and/or L are independently defined as follows (n = 0, 1, 2, 3 or 4): H, COOR 9, COCH=N=N, CH 2 COOR 9, N(R 1...R 2), NR 10 R 11, SR 12, F, Cl; wherein R 9 = H, unsubstituted or substituted alkyl, cycloalkyl, or heterocyclic residue, N -succinimidyl, N-sulfosuccinimidyl, unsubstituted or substituted phenyl, aryl or hetaryl; R 10, R 11 = C=S, C=O; R 12 = H, (CH 2) m COOR 9 ( m = 1 - 11), unsubstituted or substituted alkyl, cycloalkyl, heterocyclic residue, aryl or hetaryl. G1: A1 = 0, A2 = N, A3 = C; G2: A1 = S, A2 = N, A3 = C; G3: A1 = O, A2 = O, A3 = N; G4: A1 = S, A2 = O, A3 = N; wherein R 1, R 2, (R 1 -R 2), R 3, R 4, (R 3 -R 4), R 5, R 6, (R 5 -R 6), R 7, R 8, (R 7 -R 8) = H, unsubstituted or substituted alkyl (cycloalkyl), unsubstituted or substituted cycloalkenyl, unsubstituted or substituted heterocylic residue, unsubstituted or substituted aryl, unsubstituted or substituted hetaryl; and X = O, S, C(CH 3) 2; the chemical bond between C-2 and C-3 may be a single or cis- double bond; alternatively, C-2 and C-3 may be a part of any cyclic system, preferably the benzene ring; and the substituents Q and/or L are independently defined as follows (n = 0, 1, 2, 3 or 4): H, COOR 9, COCH=N=N, CH 2 COOR 9, N(R 1...R 2), NR 10 R 11, SR 12, F, Cl; wherein R 9 = H, unsubstituted or substituted alkyl, cycloalkyl, or heterocyclic residue, N -succinimidyl, N-sulfosuccinimidyl, unsubstituted or substituted phenyl, aryl or hetaryl; R 10, R 11 = C=S, C=O; R 12 = H, (CH 2) m COOR 9 ( m = 1 - 11), unsubstituted or substituted alkyl, cycloalkyl, heterocyclic residue, aryl or hetaryl.
An orthosis for correcting head deformities, the orthosis comprising a mesh layer, wherein regions of varying stiffness in the mesh layer are adapted to apply varying pressure to a wearer's head, so as to restrict undesirable growth and allow desired growth to correct the deformities, wherein the regions of varying stiffness comprises at least one region of increased flexibility, so as to allow growth of a wearer's head in an area corresponding to the at least one region of increased flexibility, characterised in that: the orthosis further comprises an outer layer that defines the exterior shape of the orthosis, wherein the mesh layer is disposed within the outer layer; the orthosis comprising at least one region which defines a void between the mesh layer and the outer layer, so as to accommodate growth in the wearer's head. the orthosis further comprises an outer layer that defines the exterior shape of the orthosis, wherein the mesh layer is disposed within the outer layer; the orthosis comprising at least one region which defines a void between the mesh layer and the outer layer, so as to accommodate growth in the wearer's head.
Polyamide moulding compound comprising: a polyamide matrix comprising one or more polyamides having at least 8 carbon atoms per amide unit, a flame retardant composition comprising: at least one metal-free aryl phosphate, at least one aryl phosphonate, a carbohydrate polyol, melamine cyanurate, optionally, non-phosphorus-containing flame retardants, wherein the content of phosphorus from the entire flame retardant composition is 0.5% to 1.5% by weight based on the polyamide moulding compound. a polyamide matrix comprising one or more polyamides having at least 8 carbon atoms per amide unit, a flame retardant composition comprising: at least one metal-free aryl phosphate, at least one aryl phosphonate, a carbohydrate polyol, melamine cyanurate, optionally, non-phosphorus-containing flame retardants, wherein the content of phosphorus from the entire flame retardant composition is 0.5% to 1.5% by weight based on the polyamide moulding compound. at least one metal-free aryl phosphate, at least one aryl phosphonate, a carbohydrate polyol, melamine cyanurate, optionally, non-phosphorus-containing flame retardants, wherein the content of phosphorus from the entire flame retardant composition is 0.5% to 1.5% by weight based on the polyamide moulding compound.
A method for structurally bonding an adhesive layer to an aluminum component without using an adhesive bond primer, the method comprising: removing contaminants from a surface of the aluminum component, wherein removing the contaminant forms a cleaned surface; depositing a conversion coating onto the cleaned surface of the aluminum component, wherein depositing the conversion coating forms a conversion layer on the cleaned surface of the aluminum component; depositing a sol-gel material comprising an organosilane and a zirconium alkoxide over the conversion layer, wherein depositing the sol-gel material forms a sol-gel layer on the conversion layer; and depositing an adhesive layer onto the sol-gel layer, further comprising contacting the adhesive layer with an aluminum patch and curing the adhesive layer, wherein a structural bond is formed between the aluminum patch and the aluminum component by the cured adhesive layer. removing contaminants from a surface of the aluminum component, wherein removing the contaminant forms a cleaned surface; depositing a conversion coating onto the cleaned surface of the aluminum component, wherein depositing the conversion coating forms a conversion layer on the cleaned surface of the aluminum component; depositing a sol-gel material comprising an organosilane and a zirconium alkoxide over the conversion layer, wherein depositing the sol-gel material forms a sol-gel layer on the conversion layer; and depositing an adhesive layer onto the sol-gel layer, further comprising contacting the adhesive layer with an aluminum patch and curing the adhesive layer, wherein a structural bond is formed between the aluminum patch and the aluminum component by the cured adhesive layer.