mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a martensitic stainless steel tube consisting of C: 0.15 - 0.22%, Si: 0.1 - 1.0%, Mn: 0.30 - 1.00% and Cr: 12.00 - 16.00% in mass %, optionally one or more of Al: 0.1% or less, Ni: 1.0% or less and Cu: 0.25% or less in mass %, optionally Ti: 0.2% or less in mass %, optionally V: 0.2% or less in mass % and Fe and impurities, characterized by comprising the following steps of: heating an in-process steel tube for a duration of from 5 min. to 30 min. at a temperature of from "A c3 point + 20°C" to 980°C in an atmosphere containing oxygen in an amount of 2.5 vol.% or less and water vapor in an amount of 15.0 vol.% or less; quenching the steel tube thus heated at a cooling rate of 1 - 40°C/sec. from 980°C to the A point, at a cooling rate of less than 1°C/sec. from the A point to the B point and at a cooling rate of 5 - 40°C/sec. from the B point to ambient temperature, where the A point is 680 - 350°C and the B point is 300 - 150°C; and spraying high-pressure water having a pressure of 490 N/mm 2 or higher onto the outer surface of the steel tube during at least a part of the cooling duration from 900°C up to the A point of said quenching. heating an in-process steel tube for a duration of from 5 min. to 30 min. at a temperature of from "A c3 point + 20°C" to 980°C in an atmosphere containing oxygen in an amount of 2.5 vol.% or less and water vapor in an amount of 15.0 vol.% or less; quenching the steel tube thus heated at a cooling rate of 1 - 40°C/sec. from 980°C to the A point, at a cooling rate of less than 1°C/sec. from the A point to the B point and at a cooling rate of 5 - 40°C/sec. from the B point to ambient temperature, where the A point is 680 - 350°C and the B point is 300 - 150°C; and spraying high-pressure water having a pressure of 490 N/mm 2 or higher onto the outer surface of the steel tube during at least a part of the cooling duration from 900°C up to the A point of said quenching.
An implant for treating and/or for replacing a diseased inflamed and/or infected heart valve, wherein the implant comprises a capture device able to be introduced into the body of a patient in a compressed state in minimally invasive manner and expanded at the site of implantation on the diseased heart valve, wherein the capture device is designed to compartmentalize tissue changes or tissue deposits in the form of heart valve vegetation or deposits at least when in the implanted and expanded state by way of the capture device at least partially grasping and/or capturing the tissue change or deposit, wherein the capture device has an anchoring structure for fixing and/or positioning the capture device at the implantation site, and wherein the capture device has a capturing structure connected to the anchoring structure which extends downstream from the anchoring structure, as viewed in the direction of blood flow, into a vessel connected in terms of flow to the diseased heart valve and comprises at least one clamping area in the expanded state which is designed to interact with at least one heart valve leaflet of the diseased heart valve in the expanded and implanted state of the capture device such that at least one heart valve leaflet is pressed toward a vascular wall and at least partially enclosed by the capture device.
A crucible for receiving a material that is to be evaporated using a CVD or PVD process, characterized in that the crucible is formed from a base plate element, from an inwardly hollow housing element open at two oppositely disposed end sides, and from at least one two-dimensional sealing element arranged between the base plate element and an end side of the housing element; and in that the housing element is preloaded against the base plate element by means of a holding apparatus (4, 5) exerting a compressive force on the base plate element.
Method of electron microscopy imaging of samples, using an electron microscope having a microscope column and a transfer device with a grid carriage, comprising the steps of - preparing multiple samples on a single electron microscopy grid, including dispensing the samples with a dispenser device on distinct positions on the grid, - introducing the grid with the transfer device into the microscope column, and - electron microscopy imaging of the samples, characterized in that - the preparing step includes holding the grid on the grid carriage of the transfer device and dispensing the samples on the grid while holding it on the grid carriage. - preparing multiple samples on a single electron microscopy grid, including dispensing the samples with a dispenser device on distinct positions on the grid, - introducing the grid with the transfer device into the microscope column, and - electron microscopy imaging of the samples, characterized in that - the preparing step includes holding the grid on the grid carriage of the transfer device and dispensing the samples on the grid while holding it on the grid carriage.
An ex vivo method for expanding an NK cell population, comprising the steps of: a) culturing an haematopoietic progenitor cell comprising sample obtained from a patient; b) contacting said sample with a compound which inhibits the action of REV-ERB; and c) expanding said cells in vitro to produce an NK cell population. a) culturing an haematopoietic progenitor cell comprising sample obtained from a patient; b) contacting said sample with a compound which inhibits the action of REV-ERB; and c) expanding said cells in vitro to produce an NK cell population.
A method for navigating in panoramic image data, comprising: creating a three-dimensional virtual model by matching identified features of a plurality of two-dimensional images, the three-dimensional virtual model associated to a plurality of geo-coded panoramic images in a panorama database and including a plurality of façade planes; determining an intersection of a ray, extended from a position on a camera viewport of a first geo-coded panoramic image of the plurality of panoramic images, and the three-dimensional virtual model, wherein the position is selected by a user; retrieving (308, 310) a second panoramic image of the plurality of panoramic images, the second geo-coded panoramic image being selected and located according to a location of the intersection; orienting (314, 316) the second panoramic image to face the intersection; and displaying the oriented second panoramic image to the user. creating a three-dimensional virtual model by matching identified features of a plurality of two-dimensional images, the three-dimensional virtual model associated to a plurality of geo-coded panoramic images in a panorama database and including a plurality of façade planes; determining an intersection of a ray, extended from a position on a camera viewport of a first geo-coded panoramic image of the plurality of panoramic images, and the three-dimensional virtual model, wherein the position is selected by a user; retrieving (308, 310) a second panoramic image of the plurality of panoramic images, the second geo-coded panoramic image being selected and located according to a location of the intersection; orienting (314, 316) the second panoramic image to face the intersection; and displaying the oriented second panoramic image to the user.
A external thread member including, in its shank portion, a normal thread area in which a complete screw thread to be fastened to an internal thread member including an internal screw is formed, a guide thread area which is provided on a shank portion tip end side with respect to the normal thread area and in which a guide screw thread having a diameter smaller than that of the complete screw thread and having a same pitch is formed, and a rising area in which a transition screw thread gradually rising from the guide screw thread to the complete screw thread is formed, characterized in that a tapered guide portion (30, 230) having a diameter that gradually decreases toward a tip end of the shank portion is provided on a tip end side of the normal thread area of the shank portion; the tapered guide portion (30, 230) includes at least the guide thread area; the guide screw thread is formed on an outer periphery of the tapered guide portion (30, 230); and a maximum diameter of the tapered guide portion (30, 230) can be equal to or smaller than an inner diameter of the internal screw and equal to or larger than a root diameter of the complete screw thread, wherein a diameter of the guide screw thread is constant, can be set to be equal to or smaller than the inner diameter of the internal screw and can be set to be equal to or larger than the maximum diameter portion of the tapered guide portion (30,230). characterized in that a tapered guide portion (30, 230) having a diameter that gradually decreases toward a tip end of the shank portion is provided on a tip end side of the normal thread area of the shank portion; the tapered guide portion (30, 230) includes at least the guide thread area; the guide screw thread is formed on an outer periphery of the tapered guide portion (30, 230); and a maximum diameter of the tapered guide portion (30, 230) can be equal to or smaller than an inner diameter of the internal screw and equal to or larger than a root diameter of the complete screw thread, wherein a diameter of the guide screw thread is constant, can be set to be equal to or smaller than the inner diameter of the internal screw and can be set to be equal to or larger than the maximum diameter portion of the tapered guide portion (30,230).
A wind-powered watercraft comprising: - a hull, - at least one buoyant body laterally attached at a distance to the stern section of the hull; - one frame rotatably connected to said hull over a first axis; - one arm rotatably attached to said frame over a second axis; - one drift rotatably connected to said hull; - an aerodynamic towing surface, which is attached to an attachment point at a distal end of said arm, wherein said first axis is orthogonal to the yaw plane of the hull and in that the said second axis is orthogonal to said first axis, and wherein in that the drift is rotatably connected to the hull over a third axis in the yaw plane of the hull, characterised - in that the second axis R2 and the third axis R3 are connected by means capable of linking the rotational movement of the arm around the second axis R2 to a rotation of the drift around axis R3 with respect to the hull, and - in that the projection onto the yaw plane of the pivot of the arm around the Z axis and the projection onto the yaw plane of the centre of hydrodynamic pressure on the drift are offset. - a hull, - at least one buoyant body laterally attached at a distance to the stern section of the hull; - one frame rotatably connected to said hull over a first axis; - one arm rotatably attached to said frame over a second axis; - one drift rotatably connected to said hull; - an aerodynamic towing surface, which is attached to an attachment point at a distal end of said arm, said first axis is orthogonal to the yaw plane of the hull and in that the said second axis is orthogonal to said first axis, and wherein in that the drift is rotatably connected to the hull over a third axis in the yaw plane of the hull, characterised - in that the second axis R2 and the third axis R3 are connected by means capable of linking the rotational movement of the arm around the second axis R2 to a rotation of the drift around axis R3 with respect to the hull, and - in that the projection onto the yaw plane of the pivot of the arm around the Z axis and the projection onto the yaw plane of the centre of hydrodynamic pressure on the drift are offset. - in that the second axis R2 and the third axis R3 are connected by means capable of linking the rotational movement of the arm around the second axis R2 to a rotation of the drift around axis R3 with respect to the hull, and - in that the projection onto the yaw plane of the pivot of the arm around the Z axis and the projection onto the yaw plane of the centre of hydrodynamic pressure on the drift are offset.
Silicon/graphite/carbon composite (Si/G/C composite), characterized in that graphite and nonaggregated, nanoscale silicon particles (Si), are present, where the silicon particles are embedded in an amorphous carbon matrix.
A structure comprising reinforced fibers, first plastic that exhibits no rubber elasticity at 25°C, and second plastic that exhibits rubber elasticity at 25°C, wherein a plastic that exhibits rubber elasticity at 25°C is a plastic that exhibits a dimensional change of 80% or more and 120% or less after a No. 1 dumbbell-shaped test piece described in JIS K6400 is subjected to extension and a stress required for the extension is released at 25°C, with the dimension before the extension defined as 100%, the reinforced fibers being discontinuous fibers having a tensile elongation at break in a range of 1% or more and 10% or less, as measured according to the method in the description, the reinforced fibers having a form of a non-woven fabric wherein strands and/or monofilaments of the reinforced fibers are dispersed irregularly and planarly, the reinforced fibers being impregnated with the first plastic and the second plastic, wherein a crossing point between the reinforced fibers in contact with each other is coated with the first plastic and then further coated with the second plastic, wherein the percentage of crossing points of the reinforced fibers coated is 50% or more, as measured according to the method in the examples, the structure comprising voids and having a density of 0.01 g/cm 3 or more and 1.3 g/cm 3 or less, as measured according to the method in the examples. the reinforced fibers being discontinuous fibers having a tensile elongation at break in a range of 1% or more and 10% or less, as measured according to the method in the description, the reinforced fibers having a form of a non-woven fabric wherein strands and/or monofilaments of the reinforced fibers are dispersed irregularly and planarly, the reinforced fibers being impregnated with the first plastic and the second plastic, wherein a crossing point between the reinforced fibers in contact with each other is coated with the first plastic and then further coated with the second plastic, wherein the percentage of crossing points of the reinforced fibers coated is 50% or more, as measured according to the method in the examples, the structure comprising voids and having a density of 0.01 g/cm 3 or more and 1.3 g/cm 3 or less, as measured according to the method in the examples.
A process for the production of chlorinated propanes from a feedstream comprising 1,2,3-trichloropropane, comprising at least one chlorination step and at least one dehydrochlorination step, wherein the chlorination step produces a mixture comprising tetrachloropropanes and pentachloropropanes, and the mixture is separated to provide a stream comprising 1,2,2,3-tetrachloropropane that is chlorinated at less than 80% conversion to 1,1,2,2,3-pentachloropropane; a stream comprising 1,1,2,3-tetrachloropropane; and a stream comprising pentachloropropane isomers and heavier byproducts; wherein the stream comprising 1,1,2,3-tetrachloropropane is dehydrochlorinated to produce a stream comprising trichloropropene, and the trichloropropene stream is chlorinated to produce a stream comprising 1,1,1,2,3-pentachloropropane and 1,1,2,2,3-pentachloropropane.
A method comprising: applying a selection criterion or criteria to a sound object; if the sound object satisfies the selection criterion or criteria then performing one of correct or incorrect rendering of the sound object; and if the sound object does not satisfy the selection criterion or criteria then performing the other of correct or incorrect rendering of the sound object, wherein correct rendering of the sound object comprises at least rendering the sound object so that the sound object has aligned positions in both a rendered sound scene and a recorded sound scene and wherein incorrect rendering of the sound object comprises at least rendering the sound object at a different position within the rendered sound scene compared to the recorded sound scene or not rendering the sound object in the rendered sound scene; characterized by the said selection criterion or criteria for incorrect rendering being that the sound object is moving within the recorded sound scene relative to static sound objects in the recorded sound scene; and/or the said selection criterion or criteria for incorrect rendering being that the position of the sound object does not satisfy a preferred position criterion or criteria wherein the position criterion or criteria defines a preferred position of the sound object relative to a listener. applying a selection criterion or criteria to a sound object; if the sound object satisfies the selection criterion or criteria then performing one of correct or incorrect rendering of the sound object; and if the sound object does not satisfy the selection criterion or criteria then performing the other of correct or incorrect rendering of the sound object, wherein correct rendering of the sound object comprises at least rendering the sound object so that the sound object has aligned positions in both a rendered sound scene and a recorded sound scene and wherein incorrect rendering of the sound object comprises at least rendering the sound object at a different position within the rendered sound scene compared to the recorded sound scene or not rendering the sound object in the rendered sound scene; characterized by the said selection criterion or criteria for incorrect rendering being that the sound object is moving within the recorded sound scene relative to static sound objects in the recorded sound scene; and/or the said selection criterion or criteria for incorrect rendering being that the position of the sound object does not satisfy a preferred position criterion or criteria wherein the position criterion or criteria defines a preferred position of the sound object relative to a listener.
A resource pool configuration method, comprising: obtaining, by a terminal device, a first configuration information, wherein the first configuration information is used for indicating that a first resource pool and a second resource pool are configured for the terminal device, the first resource pool is used for sending data and receiving feedback data, and the second resource pool is used for receiving data and sending feedback data, wherein the method further comprises: determining, by the terminal device, a type of data to be sent, and selecting, based on the type, whether the first resource pool or a third resource pool is used for sending the data, wherein the third resource pool is only used for sending data; in response to determining that the type of the data is data requiring feedback, sending the data by the terminal device by using the first resource pool; and in response to determining that the type of the data is data not requiring feedback, sending the data by the terminal device by using the third resource pool. obtaining, by a terminal device, a first configuration information, wherein the first configuration information is used for indicating that a first resource pool and a second resource pool are configured for the terminal device, the first resource pool is used for sending data and receiving feedback data, and the second resource pool is used for receiving data and sending feedback data, wherein the method further comprises: determining, by the terminal device, a type of data to be sent, and selecting, based on the type, whether the first resource pool or a third resource pool is used for sending the data, wherein the third resource pool is only used for sending data; in response to determining that the type of the data is data requiring feedback, sending the data by the terminal device by using the first resource pool; and in response to determining that the type of the data is data not requiring feedback, sending the data by the terminal device by using the third resource pool. determining, by the terminal device, a type of data to be sent, and selecting, based on the type, whether the first resource pool or a third resource pool is used for sending the data, wherein the third resource pool is only used for sending data; in response to determining that the type of the data is data requiring feedback, sending the data by the terminal device by using the first resource pool; and in response to determining that the type of the data is data not requiring feedback, sending the data by the terminal device by using the third resource pool.
A method for reducing power consumption in a telecommunication system, the method comprising: collecting system data from at least a part of a plurality of subsystems of the telecommunication system; determining a set of system constraints corresponding to the collected system data for at least the part of the plurality of subsystems; determining a configuration for at least the part of the plurality of subsystems based on the collected system data so that a total power consumption for at least the part of the plurality of subsystems is reduced and the determined set of system constraints is met; applying the determined configuration to at least the part of the plurality of subsystems to enforce the determined configuration; and. and wherein the determined configuration is only applied if the determined configuration meets a predefined stability criterion. collecting system data from at least a part of a plurality of subsystems of the telecommunication system; determining a set of system constraints corresponding to the collected system data for at least the part of the plurality of subsystems; determining a configuration for at least the part of the plurality of subsystems based on the collected system data so that a total power consumption for at least the part of the plurality of subsystems is reduced and the determined set of system constraints is met; applying the determined configuration to at least the part of the plurality of subsystems to enforce the determined configuration; and. and wherein the determined configuration is only applied if the determined configuration meets a predefined stability criterion.