mhurhangee/patent-ind-claim-en huggingface dataset:
A method for continuously converting an aqueous salt containing sludge into gases and a solid residue, wherein the method comprises; - the aqueous salt containing sludge is dewatered to a water content of 20-60% by weight; and thereafter: - the dewatered sludge is heated to a temperature of 500 °C to 1000 °C by microwave radiation, wherein the microwave radiation generates heat and steam, thereby - partially or complete pyrolyzing the dewatered sludge to produce pyrolysis products, wherein the pyrolysis products inter alia are CO (g), CH 4 (g) and H 2 (g), CHO (oil) and solid C(s), and - gasifying the pyrolysis products, wherein inter alia the solid C (s) and CHO (oil) are gasified to CO(g) and H 2 (g), wherein the microwave enhanced pyrolysis and gasification takes place simultaneously in one reactor. - the aqueous salt containing sludge is dewatered to a water content of 20-60% by weight; and thereafter: - the dewatered sludge is heated to a temperature of 500 °C to 1000 °C by microwave radiation, wherein the microwave radiation generates heat and steam, thereby - partially or complete pyrolyzing the dewatered sludge to produce pyrolysis products, wherein the pyrolysis products inter alia are CO (g), CH 4 (g) and H 2 (g), CHO (oil) and solid C(s), and - gasifying the pyrolysis products, wherein inter alia the solid C (s) and CHO (oil) are gasified to CO(g) and H 2 (g), wherein the microwave enhanced pyrolysis and gasification takes place simultaneously in one reactor.
A polymer composition comprising a blend of two or more high density polyethylenes: (A) a first high density polyethylene having a density of at least 940 kg/m 3 and an MFR 2 of 0.25 g/lOmin or less; and (B) a second high density polyethylene having a density of at least 940 kg/m 3 and an MFR 2 of 1.0 g/lOmin to 20 g/lOmin; wherein said polymer composition has an MFR 2 of 0.3 to 15 g/lOmin and wherein the components (A) and (B) combined form at least 91 wt% of said polymer composition. (A) a first high density polyethylene having a density of at least 940 kg/m 3 and an MFR 2 of 0.25 g/lOmin or less; and (B) a second high density polyethylene having a density of at least 940 kg/m 3 and an MFR 2 of 1.0 g/lOmin to 20 g/lOmin;
Reaction product containing urethane groups, containing at least 40% by weight of one or more species of the general formula (I) (R 1 -X) p -Z 1 -(XH) y (I), where p + y = w and w is an integer from 2 to 10, p is an integer from 2 to 10, y is an integer from 0 to 8, and X is independently O, NH and/or NZ 2 and XH is independently a hydroxyl group OH, a primary amino group NH 2 and/or a secondary amino group NHZ 2 where Z 2 is independently a branched or unbranched, saturated or unsaturated organic radical G(U) a where U is independently a hydroxyl group, a primary amino group or a secondary amino group and a is an integer from 0 to 8, where w + a ≤ 10, and the p R 1 radicals are independently a radical of the general formula (II) Y-O-CO-NH-R 2 -NH-CO (II) in which the p Y radicals are independently a branched or unbranched, saturated or unsaturated organic radical which has 1 to 1000 carbon atoms and does not contain any hydroxyl groups, any primary amino groups or any secondary amino groups, the p R 2 radicals are independently a branched or unbranched, saturated or unsaturated organic radical having 6 to 20 carbon atoms, Z 1 is a branched or unbranched, saturated or unsaturated organic radical which contains at least one tertiary nitrogen group and is free of XH groups. w is an integer from 2 to 10, p is an integer from 2 to 10, y is an integer from 0 to 8, and X is independently O, NH and/or NZ 2 and XH is independently a hydroxyl group OH, a primary amino group NH 2 and/or a secondary amino group NHZ 2 where Z 2 is independently a branched or unbranched, saturated or unsaturated organic radical G(U) a where U is independently a hydroxyl group, a primary amino group or a secondary amino group and a is an integer from 0 to 8, where w + a ≤ 10, and in which the p Y radicals are independently a branched or unbranched, saturated or unsaturated organic radical which has 1 to 1000 carbon atoms and does not contain any hydroxyl groups, any primary amino groups or any secondary amino groups, the p R 2 radicals are independently a branched or unbranched, saturated or unsaturated organic radical having 6 to 20 carbon atoms, Z 1 is a branched or unbranched, saturated or unsaturated organic radical which contains at least one tertiary nitrogen group and is free of XH groups.
A sensor assembly , comprising a first member , at least one sensor positioned in or on the first member , and a cover member for covering the at least one sensor, the first member comprising at least a base portion and a first segment forming an encircling wall for the at least one sensor, and the cover member comprising at least a top portion and a second segment , the first segment comprising a bounding surface and the second segment comprising a further bounding surface , wherein the first segment and the second segment are adapted in shape and/or position so that, when the cover member is mounted to the first member , the first segment and the second segment are positioned adjacent and in contact with each other in a contact area , wherein at least one of the first segment and second segment are flexible so that tension is created to form a sealing region between the first member and the cover member based on a tight fit of the contacting bounding surfaces (112, 113; 512, 513) in the contact area between the first segment and the second segment , characterized in that the bounding surfaces of the first segment and second segment extend substantially perpendicular to the base portion and from the top portion .
Supersonic speed attenuator of an air intake of an aircraft propulsion assembly , said aircraft propulsion assembly extending longitudinally along an axis (X) oriented from upstream to downstream and comprising a turbomachine configured to enable the propulsion of the aircraft at supersonic speeds from the acceleration of a subsonic air flow (F) circulating from upstream to downstream in the turbomachine , said air intake comprising a duct of longitudinal axis (X) configured to guide the air flow (F) into the turbomachine , said supersonic speed attenuator being configured to extend fixed inside the duct along the longitudinal axis (X), said air intake comprising at least one support arm connecting the supersonic speed attenuator to the duct , said supersonic speed attenuator comprising: - upstream, a conical outer wall with a tapered end , - an inner partition delimiting a cavity with the conical outer wall , - supersonic speed attenuator characterized by the fact that it comprises a de-icing device comprising: - an inner wall mounted in the cavity opposite the conical outer wall so as to delimit together a calibrated de-icing volume (V), - at least one member for supplying with de-icing air flow (F D ) emerging into the de-icing volume (V), and - at least one member for discharging the de-icing air flow (F D ) from the de-icing volume (V). - upstream, a conical outer wall with a tapered end , - an inner partition delimiting a cavity with the conical outer wall , - supersonic speed attenuator characterized by the fact that it comprises a de-icing device comprising: - an inner wall mounted in the cavity opposite the conical outer wall so as to delimit together a calibrated de-icing volume (V), - at least one member for supplying with de-icing air flow (F D ) emerging into the de-icing volume (V), and - at least one member for discharging the de-icing air flow (F D ) from the de-icing volume (V). - an inner wall mounted in the cavity opposite the conical outer wall so as to delimit together a calibrated de-icing volume (V), - at least one member for supplying with de-icing air flow (F D ) emerging into the de-icing volume (V), and - at least one member for discharging the de-icing air flow (F D ) from the de-icing volume (V).
An interlock system for a circuit breaker assembly , said circuit breaker assembly structured to have a use current selectively passed therethrough, said circuit breaker assembly including a housing assembly , a separable contact assembly , a trip assembly and an operating mechanism , said housing assembly defining a substantially enclosed space , said separable contact assembly including a number of fixed contacts and a number of movable contacts , each said movable contact movable between an open, first position, wherein each said movable contact is spaced from, and is not in electrical communication with, an associated fixed contact , and, a second position, wherein each said movable contact is coupled to, and is in electrical communication with, the associated fixed contact, said trip assembly structured to detect an overcurrent condition and to provide an overcurrent signal when an overcurrent condition is detected, said operating mechanism structured to move said number of movable contacts between said first and second positions, said operating mechanism including an elongated crossbar , said operating mechanism crossbar rotatably coupled to said housing assembly , said operating mechanism crossbar structured to move between a first position and a second position corresponding to said movable contacts first position and said movable contacts second position, characterised in that said interlock system comprises: a rotary solenoid including a rotating output shaft ; said rotary solenoid output shaft structured to move between a first position and a second position; an actuator assembly including a primary first actuator , a primary second actuator and a linkage assembly ; said primary first actuator including a first actuator ; said first actuator including a body ; said primary second actuator including a second actuator ; said second actuator including a body; said rotary solenoid operatively coupled to said linkage assembly ; said linkage assembly operatively coupled to each of said rotary solenoid , said first actuator body and said second actuator body; and an interlock assembly structured to configure said rotary solenoid and at least one of said first actuator or said second actuator in a safe configuration. a rotary solenoid including a rotating output shaft ; said rotary solenoid output shaft structured to move between a first position and a second position; an actuator assembly including a primary first actuator , a primary second actuator and a linkage assembly ; said primary first actuator including a first actuator ; said first actuator including a body ; said primary second actuator including a second actuator ; said second actuator including a body; said rotary solenoid operatively coupled to said linkage assembly ; said linkage assembly operatively coupled to each of said rotary solenoid , said first actuator body and said second actuator body; and an interlock assembly structured to configure said rotary solenoid and at least one of said first actuator or said second actuator in a safe configuration.
A vehicle having a frame , wherein a receiving part for receiving a load is guided by means of linear guides arranged on the frame , which linear guides linearly guide the receiving part , so that the receiving part is movable toward or away from the frame , wherein a compression bar is rotatably mounted on the receiving part by means of a first pivot bearing and is mounted on a rocker framework part of a rocker by means of a second pivot bearing spaced apart from the first pivot bearing , which rocker is mounted on the frame by means of a third pivot bearing , wherein the third pivot bearing is spaced apart from the first pivot bearing and from the second pivot bearing , wherein the rotational axes of the first, second and third pivot bearing are oriented parallel to one another, wherein a drive unit having driving wheels is, by means of a fourth pivot bearing , rotatably mounted on a portion, acting as a rotary portion , of the rocker by means of a swing axle which is mounted on the rocker framework part via the fourth pivot bearing , wherein the rotational axes of the first, second and third pivot bearing are oriented horizontally and oriented parallel to that plane which is a common tangential plane of the steering rollers of the vehicle, wherein steering rollers, supportable by the ground and rollable, are arranged on the frame, wherein the driving wheels of the drive unit are driveable by an electric motor of the drive unit, wherein the driving wheels are each supportable on the ground and rollable thereon, wherein the steering rollers at the front in the direction of travel are at a greater distance from the centre of gravity of the drive unit than the back steering rollers, wherein the portion of the rocker is rotatable with respect to the rocker framework part by means of a fifth pivot bearing.
A thermally shrinkable suture for sewing a medical device comprising, a high-melting point component and a low-melting point component, wherein difference of melting points between said high-melting point component and low-melting point component is 30°C or more and the low-melting point component is exposed on the suture surface along its whole length.
An alkylation process, comprising: separating and recycling a hydrogen gas and a hydrogen chloride from an offgas of a hydrogenation reactor used to regenerate a used alkylation catalyst; wherein the hydrogen gas is recycled to the hydrogenation reactor ; wherein the hydrogen chloride is recycled to an alkylation reactor ; and wherein the hydrogen chloride is extracted from the offgas of the hydrogenation reactor using a hydrocarbon extraction solvent that comprises an olefin and an isoparaffin to be alkylated to make an alkylate gasoline blending component.
An autonomous mobile platform comprising means for moving the autonomous mobile platform through a designated environment, these means being coupled to a navigation and computing system for controlling the motion of the autonomous mobile platform and for detecting and identifying obstacles in the planned path in the environment in which it moves, characterized in that at least one active shield is rotatably mounted on the circumference of the autonomous mobile platform, the active shield being coupled to an actuator to cause the active shield to rotate so as to remove an inanimate easily movable obstacle identified and detected by the computing system out of the planned path of the autonomous mobile platform, wherein the obstacle is moved on the substrate of the environment on which the autonomous mobile platform is moving.
A catheter comprising: an inner layer , a coil body configured such that an element wire is wound around on an outer periphery of the inner layer , and an outer layer covering an outer periphery of the coil body , wherein the catheter has a rear end portion having gaps between axially adjacent portions of the element wire where the inner layer is joined to the outer layer through the gaps between the axially adjacent portions of the element wire ; and a distal end portion where the axially adjacent portions of the element wire come into contact with each other, the distal end portion being located at a distal end side relative to the rear end portion , characterised in that a cavity is formed between the inner layer and the coil body in the distal end portion . an inner layer , a coil body configured such that an element wire is wound around on an outer periphery of the inner layer , and an outer layer covering an outer periphery of the coil body , wherein the catheter has a rear end portion having gaps between axially adjacent portions of the element wire where the inner layer is joined to the outer layer through the gaps between the axially adjacent portions of the element wire ; and a distal end portion where the axially adjacent portions of the element wire come into contact with each other, the distal end portion being located at a distal end side relative to the rear end portion , characterised in that a cavity is formed between the inner layer and the coil body in the distal end portion .
A method of manufacturing a 7xxx-series aluminium alloy plate product having improved fatigue failure resistance, the method comprising the following steps: (a) casting an ingot of an aluminium alloy of the 7xxx-series, the aluminium alloy comprising (in wt.%): Zn 5 to 9, preferably 5.5% to 8.5%, Mg 1 to 3, Cu 0 to 3, preferably 0.3% to 3%, Fe up to 0.20, preferably up to 0.15%, Si up to 0.15, preferably up to 0.10%, Zr up to 0.5, preferably 0.03 to 0.20, and optionally one or more elements selected from the group consisting of: Ti up to 0.3% Cr up to 0.4% Sc up to 0.5% Hf up to 0.3% Mn up to 0.4% V up to 0.4% Ag up to 0.5%, balance aluminium and impurities; (b) homogenizing and/or preheating the cast ingot; (c) hot rolling the ingot into a plate product by rolling the ingot with multiple rolling passes, characterized in that , when at an intermediate thickness of the plate between 80 and 220 mm, at least one high reduction hot rolling pass is carried out with a thickness reduction of at least 25%; wherein the plate product has a final thickness of less than 75 mm, preferably less than 50 mm. (a) casting an ingot of an aluminium alloy of the 7xxx-series, the aluminium alloy comprising (in wt.%): Zn 5 to 9, preferably 5.5% to 8.5%, Mg 1 to 3, Cu 0 to 3, preferably 0.3% to 3%, Fe up to 0.20, preferably up to 0.15%, Si up to 0.15, preferably up to 0.10%, Zr up to 0.5, preferably 0.03 to 0.20, and optionally one or more elements selected from the group consisting of: Ti up to 0.3% Cr up to 0.4% Sc up to 0.5% Hf up to 0.3% Mn up to 0.4% V up to 0.4% Ag up to 0.5%, balance aluminium and impurities; (b) homogenizing and/or preheating the cast ingot; (c) hot rolling the ingot into a plate product by rolling the ingot with multiple rolling passes, characterized in that , when at an intermediate thickness of the plate between 80 and 220 mm, at least one high reduction hot rolling pass is carried out with a thickness reduction of at least 25%;
A computer-implemented method, comprising: ascertaining , by an orientation module an orientation of a computing device that includes a kickstand , the orientation being based on an angle of the kickstand relative to the computing device ; and performing, in response to the ascertaining: adjusting a hardware camera component of the computing device comprising a sensor based on the orientation; mapping the sensor to determine which portions of the sensor to use to generate image data based on the orientation of the computing device and, further, determining image tiles of the sensor that correspond to particular orientation angles by measuring light intensity on different regions of the sensor when the computing device is oriented at said orientation angles; said image tiles corresponding to a portion of the sensor that is used to capture an image when the computing device is positioned at said orientation angles; and further ignoring data generated from regions of the sensor that are external to said image tiles. ascertaining , by an orientation module an orientation of a computing device that includes a kickstand , the orientation being based on an angle of the kickstand relative to the computing device ; and performing, in response to the ascertaining: adjusting a hardware camera component of the computing device comprising a sensor based on the orientation; mapping the sensor to determine which portions of the sensor to use to generate image data based on the orientation of the computing device and, further, determining image tiles of the sensor that correspond to particular orientation angles by measuring light intensity on different regions of the sensor when the computing device is oriented at said orientation angles; said image tiles corresponding to a portion of the sensor that is used to capture an image when the computing device is positioned at said orientation angles; and further ignoring data generated from regions of the sensor that are external to said image tiles. adjusting a hardware camera component of the computing device comprising a sensor based on the orientation; mapping the sensor to determine which portions of the sensor to use to generate image data based on the orientation of the computing device and, further, determining image tiles of the sensor that correspond to particular orientation angles by measuring light intensity on different regions of the sensor when the computing device is oriented at said orientation angles; mapping the sensor to determine which portions of the sensor to use to generate image data based on the orientation of the computing device and, further, determining image tiles of the sensor that correspond to particular orientation angles by measuring light intensity on different regions of the sensor when the computing device is oriented at said orientation angles; said image tiles corresponding to a portion of the sensor that is used to capture an image when the computing device is positioned at said orientation angles; and further ignoring data generated from regions of the sensor that are external to said image tiles.
A method for diagnosing the occurrence or progress of a renal disease using a urine sample, comprising; (i) contacting an isolated urine sample with (a) a binding agent specific for acetylated α-tubulin and, optionally, with (b) a binding agent specific for ARL13B, and (ii) detecting the acetylated α-tubulin and, optionally, ARL13B; or the concentrations thereof from the isolated urine sample. (i) contacting an isolated urine sample with (a) a binding agent specific for acetylated α-tubulin and, optionally, with (b) a binding agent specific for ARL13B, and (ii) detecting the acetylated α-tubulin and, optionally, ARL13B; or the concentrations thereof from the isolated urine sample.
Ferric trimaltol for use in the treatment or prevention of iron deficiency with or without anaemia in patients presenting active inflammatory disease or acute chronic inflammation, wherein said ferric trimaltol is administered orally as a 30 mg elemental iron preparation on an empty stomach twice daily, wherein the percentage of ferric trimaltol is at least 60 % of the combined weight of ferric trimaltol and excipients, wherein iron deficiency is iron deficiency anaemia in inflammatory bowel disease or wherein iron deficiency is iron deficiency with or without anaemia in chronic kidney disease.