mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: selecting two or more major constituents and at least one dopant, wherein the two or more major constituents consist of a first major constituent and at least one second major constituent, wherein the first major constituent is TiO 2 , wherein the second major constituent is selected from a group consisting essentially of a carbonate, an acetate, an oxalate, a propionate or combinations thereof, and wherein the dopant is selected from a group consisting essentially of a nanopowder, a gel, an alkoxide or combinations thereof and added in amounts from 0.5 to 10 % of the major constituents; mixing the first major constituent, the second major constituent and the dopant in a single mixing step to provide a mixture of constituents; drying the mixture of constituents to provide a dried mixture of constituents; calcining the dried mixture of constituents to provide a fully reacted mixture of constituents; pulverizing and separating the reacted mixture of constituents to provide a powder of constituents; hot-pressing the powder of constituents to form a target for physical vapor deposition; and performing physical vapor deposition by sputtering using the target to form a multicomponent dielectric thin film, wherein the physical vapor deposition is performed at a deposition rate of at least twelve nanometers per minute, and wherein the sputtering target has a density of at least 99%. selecting two or more major constituents and at least one dopant, wherein the two or more major constituents consist of a first major constituent and at least one second major constituent, wherein the first major constituent is TiO 2 , wherein the second major constituent is selected from a group consisting essentially of a carbonate, an acetate, an oxalate, a propionate or combinations thereof, and wherein the dopant is selected from a group consisting essentially of a nanopowder, a gel, an alkoxide or combinations thereof and added in amounts from 0.5 to 10 % of the major constituents; mixing the first major constituent, the second major constituent and the dopant in a single mixing step to provide a mixture of constituents; drying the mixture of constituents to provide a dried mixture of constituents; calcining the dried mixture of constituents to provide a fully reacted mixture of constituents; pulverizing and separating the reacted mixture of constituents to provide a powder of constituents; hot-pressing the powder of constituents to form a target for physical vapor deposition; and performing physical vapor deposition by sputtering using the target to form a multicomponent dielectric thin film, wherein the physical vapor deposition is performed at a deposition rate of at least twelve nanometers per minute, and wherein the sputtering target has a density of at least 99%.
An assembly of supported superconducting coils for use in an MRI system, comprising: - a support structure for a superconducting coil, comprising a continuous flexible mounting band (12; 52) attached to a surface of a coil (10; 50), which continuous flexible mounting band extends the full circumference of the coil and extends axially beyond the radially outer surface of the coil; - wherein the coil (10; 50) is attached to one or more other coils (10; 50) by the flexible mounting band (12; 52), and wherein the flexible mounting band extends the full circumference of the one or more other coils and extends axially beyond the radially outer surface of the one or more other coils or wherein the coil (10; 50) is mechanically connected to one or more other coils (10; 50), such other coil(s) being attached to one of one or more other continuous flexible mounting bands (12; 52) attached to a surface of the other coil(s), which other continuous flexible mounting band(s) extend(s) the full circumference of the other coil(s) and extend(s) axially beyond the radially outer surface of the coil (s) ; - wherein the flexible mounting band is attached to a support structure at multiple locations or wherein the flexible mounting bands are attached to annular connectors provided between the coils (10; 50) and providing a mechanical connection between the coils (10; 50). - a support structure for a superconducting coil, comprising a continuous flexible mounting band (12; 52) attached to a surface of a coil (10; 50), which continuous flexible mounting band extends the full circumference of the coil and extends axially beyond the radially outer surface of the coil; - wherein the coil (10; 50) is attached to one or more other coils (10; 50) by the flexible mounting band (12; 52), and wherein the flexible mounting band extends the full circumference of the one or more other coils and extends axially beyond the radially outer surface of the one or more other coils or wherein the coil (10; 50) is mechanically connected to one or more other coils (10; 50), such other coil(s) being attached to one of one or more other continuous flexible mounting bands (12; 52) attached to a surface of the other coil(s), which other continuous flexible mounting band(s) extend(s) the full circumference of the other coil(s) and extend(s) axially beyond the radially outer surface of the coil (s) ; - wherein the flexible mounting band is attached to a support structure at multiple locations or
A device for the automated high-pressure cleaning of the pipes of a heat exchanger, which comprises a mirror, with - a motor-driven positioning device, which comprises a) x-shaft , b) an x-carriage displaceable along the x-shaft by means of an x-electric motor , preferably a stepping motor, c) a y-shaft carried by the x-carriage , d) a y-carriage displaceable along the y-shaft by means of a y-electric motor , preferably a stepping motor, and a z-shaft carried by the y-carriage , - a high-pressure unit with more than one high-pressure hose , preferably with three high-pressure hoses , which can each be connected at one end to a high-pressure source and at their other end carry a nozzle , with a position sensor assigned to each high-pressure hose for detecting the hose movement, with a guide unit , which is arranged on the z-shaft and accommodates the high-pressure hose , - a camera which is arranged on the z-shaft , and - a control unit, which is connected to the camera , the high-pressure unit, the electric motors and the position sensors and to which a data processing system belongs, characterised in that - the motor-driven positioning device comprises an x=zero sensor and a y=zero sensor , wherein the control unit is connected to the zero sensors , - the high-pressure unit in each case comprises a lower stop collar for each high-pressure hose , which is arranged between the nozzle and the guide unit , - the high-pressure unit in each case comprises an upper stop collar , which is preferably arranged on the side of the guide unit lying opposite the nozzle , and - the camera is arranged detachably on the z-shaft . - a motor-driven positioning device, which comprises a) x-shaft , b) an x-carriage displaceable along the x-shaft by means of an x-electric motor , preferably a stepping motor, c) a y-shaft carried by the x-carriage , d) a y-carriage displaceable along the y-shaft by means of a y-electric motor , preferably a stepping motor, and a z-shaft carried by the y-carriage , - a high-pressure unit with more than one high-pressure hose , preferably with three high-pressure hoses , which can each be connected at one end to a high-pressure source and at their other end carry a nozzle , with a position sensor assigned to each high-pressure hose for detecting the hose movement, with a guide unit , which is arranged on the z-shaft and accommodates the high-pressure hose , - a camera which is arranged on the z-shaft , and - a control unit, which is connected to the camera , the high-pressure unit, the electric motors and the position sensors and to which a data processing system belongs, - the motor-driven positioning device comprises an x=zero sensor and a y=zero sensor , wherein the control unit is connected to the zero sensors , - the high-pressure unit in each case comprises a lower stop collar for each high-pressure hose , which is arranged between the nozzle and the guide unit , - the high-pressure unit in each case comprises an upper stop collar , which is preferably arranged on the side of the guide unit lying opposite the nozzle , and - the camera is arranged detachably on the z-shaft .
Axial piston pump comprising: a shaft having an axis of rotation, a cylinder drum connected to said shaft and having at least a cylinder parallel to said axis of rotation, a piston movable in said cylinder , a swash plate , a slide shoe pivotally mounted to said piston , and holding means holding said slide shoe against said swash plate , said holding means having a pressure plate and a number of coil springs arranged between said cylinder drum and said pressure plate wherein a coil spring of said number of coil springs is at least at one end fixed by a protrusion extending into said coil spring , wherein protrusions are located on a ring , characterized in that a stabilization ring is located at least in an axial middle part of said coil springs .
Cross member for the body of a public transport vehicle, in particular a railway vehicle, comprising: - a metal section extending substantially in a longitudinal direction (X) between a first opening and a second opening, the section comprising a longitudinal wall defining at least one bore passing through between the first and second openings , the bore defining at least one through cell of closed contour; and - at least one closure cap attached to one of the first and second openings of the profile , the cap sealing the cell at said first or second opening , characterised in that the end piece comprises a base extending in a main plane (P) and at least one skirt projecting with respect to face of the base , the skirt being received inside the cell of the profile when the end cap closes the cell . - a metal section extending substantially in a longitudinal direction (X) between a first opening and a second opening, the section comprising a longitudinal wall defining at least one bore passing through between the first and second openings , the bore defining at least one through cell of closed contour; and - at least one closure cap attached to one of the first and second openings of the profile , the cap sealing the cell at said first or second opening ,
A method, comprising: capturing images with an image-capturing subsystem; determining, with an indicia-reading device comprising the image-capturing subsystem, if a user's finger is in a captured image; and in response to determining that a user's finger is in a captured image, generating, with the indicia-reading device, a trigger signal ; wherein the indicia-reading device comprises supports so that when the supports are attached to the user's fingers, the indicia-reading device rests on the user's fingers. capturing images with an image-capturing subsystem; determining, with an indicia-reading device comprising the image-capturing subsystem, if a user's finger is in a captured image; and in response to determining that a user's finger is in a captured image, generating, with the indicia-reading device, a trigger signal ; wherein the indicia-reading device comprises supports so that when the supports are attached to the user's fingers, the indicia-reading device rests on the user's fingers.
A transport block generation method, wherein the method comprises: determining a transport block, TB size, TBS based on a modulation and coding scheme, MCS of a receiving device, a resource characteristic of a resource block, RB allocated to the receiving device, and a quantity of symbols, wherein the quantity of symbols is a quantity of symbols comprised in each RB, and each RB comprises a same quantity of symbols; and generating a TB based on the TBS, wherein the determining a TBS based on an MCS of a receiving device, a resource characteristic of an RB allocated to the receiving device, and a quantity of symbols specifically comprises: determining a TBS index value based on the MCS; and determining the TBS based on the TBS index value, the resource characteristic of the RB, and the quantity of symbols, characterized in that the resource characteristic of the RB is a quantity of equivalent RBs , the quantity of equivalent RBs is associated with resource utilization of the RB, and the resource utilization of the RB is a ratio of a quantity of resource elements REs occupied by data in the RB to a quantity of REs occupied by the RB. determining a transport block, TB size, TBS based on a modulation and coding scheme, MCS of a receiving device, a resource characteristic of a resource block, RB allocated to the receiving device, and a quantity of symbols, wherein the quantity of symbols is a quantity of symbols comprised in each RB, and each RB comprises a same quantity of symbols; and generating a TB based on the TBS, wherein the determining a TBS based on an MCS of a receiving device, a resource characteristic of an RB allocated to the receiving device, and a quantity of symbols specifically comprises: determining a TBS index value based on the MCS; and determining the TBS based on the TBS index value, the resource characteristic of the RB, and the quantity of symbols, characterized in that the resource characteristic of the RB is a quantity of equivalent RBs , the quantity of equivalent RBs is associated with resource utilization of the RB, and the resource utilization of the RB is a ratio of a quantity of resource elements REs occupied by data in the RB to a quantity of REs occupied by the RB. determining a TBS index value based on the MCS; and determining the TBS based on the TBS index value, the resource characteristic of the RB, and the quantity of symbols, characterized in that the resource characteristic of the RB is a quantity of equivalent RBs , the quantity of equivalent RBs is associated with resource utilization of the RB, and the resource utilization of the RB is a ratio of a quantity of resource elements REs occupied by data in the RB to a quantity of REs occupied by the RB.
A robotic assembly configured to service a turbine engine, wherein the robotic assembly comprises: an environmental capture device and one or more computing devices ; wherein the environmental capture device comprises a visual capture device, and is configured to capture information associated with an environment in which the turbine engine is disposed and to provide said information to the one or more computing devices; wherein the environmental capture device is further configured, for a service that has one or more repair operations associated therewith, to inspect the turbine engine before and after said repair operations and to provide information associated with the environment in which the turbine engine is disposed, both before and after said repair operations, to the one or more computing devices; and wherein the one or more computing device is configured to compare one or more portions of the information captured before performing the repair operation with one or more portions of the information captured after performing the repair operation, to check for repair equipment, or parts thereof, left in the turbine engine after the repair. an environmental capture device and one or more computing devices ; wherein the environmental capture device comprises a visual capture device, and is configured to capture information associated with an environment in which the turbine engine is disposed and to provide said information to the one or more computing devices; wherein the environmental capture device is further configured, for a service that has one or more repair operations associated therewith, to inspect the turbine engine before and after said repair operations and to provide information associated with the environment in which the turbine engine is disposed, both before and after said repair operations, to the one or more computing devices; and wherein the one or more computing device is configured to compare one or more portions of the information captured before performing the repair operation with one or more portions of the information captured after performing the repair operation, to check for repair equipment, or parts thereof, left in the turbine engine after the repair.
A method of diagnosing rheumatoid arthritis that is mediated by a T-helper cell that secretes a granulocyte colony-stimulating factor ("TH-GM") in a patient suffering from rheumatoid arthritis comprising: a) contacting a sample collected from a patient suffering from rheumatoid arthritis with a detecting agent that detects a polypeptide or nucleic acid level of STAT5; and b) quantifying the polypeptide or nucleic acid level of STAT5, wherein an increased level of STAT5 relative to a reference level indicates that the patient suffers from a T H -GM-mediated rheumatoid arthritis, thereby diagnosing a T H -GM-mediated rheumatoid arthritis in the patient suffering rheumatoid arthritis. a) contacting a sample collected from a patient suffering from rheumatoid arthritis with a detecting agent that detects a polypeptide or nucleic acid level of STAT5; and b) quantifying the polypeptide or nucleic acid level of STAT5, wherein an increased level of STAT5 relative to a reference level indicates that the patient suffers from a T H -GM-mediated rheumatoid arthritis, thereby diagnosing a T H -GM-mediated rheumatoid arthritis in the patient suffering rheumatoid arthritis.
A mobile robot adapted to traverse at least vertical obstacles, the robot comprising a frame structure having a front end and a back end, and further having a front section, a middle section and a back section, the robot comprising (a) at least one front wheel positioned in the front section of the robot and extending beyond it in the front, at least one back wheel positioned in the back section of the robot, and at least one middle wheel positioned in the middle section of the robot; (b) at least one further wheel positioned either in the front section, middle section and/or back section of the structure; characterized in that the robot further comprises (c) a motor-driven device for exerting a downward and/or upward force with respect to the ground, selectively on the at least one middle wheel ; (d) at least two motors, each of which being adapted to drive the wheels and/or the motor-driven device and; (e) a sensing device for sensing obstacles along the robot's forward direction of motion, wherein the sensing device is adapted to trigger the motor-driven device such that a downward force is applied to the at least one middle wheel of the robot to facilitate the movement of the at least one front wheel across the obstacles, wherein the sensing device comprises means for communicating with a central processing unit, wherein the central processing unit provides instructions to the motor-driven device based on information received from the sensing device. (a) at least one front wheel positioned in the front section of the robot and extending beyond it in the front, at least one back wheel positioned in the back section of the robot, and at least one middle wheel positioned in the middle section of the robot; (b) at least one further wheel positioned either in the front section, middle section and/or back section of the structure; characterized in that the robot further comprises (c) a motor-driven device for exerting a downward and/or upward force with respect to the ground, selectively on the at least one middle wheel ; (d) at least two motors, each of which being adapted to drive the wheels and/or the motor-driven device and; (e) a sensing device for sensing obstacles along the robot's forward direction of motion, wherein the sensing device is adapted to trigger the motor-driven device such that a downward force is applied to the at least one middle wheel of the robot to facilitate the movement of the at least one front wheel across the obstacles, wherein the sensing device comprises means for communicating with a central processing unit, wherein the central processing unit provides instructions to the motor-driven device based on information received from the sensing device.
Method for conveying fine solid powder material (c), in particular cement, from a first container through a conveying line into a second container in which the fine solid powder material (c) is conveyed by means of a conveying medium (a, b) through the conveying line , wherein only nitrogen is used as the conveying medium (a, b), characterized in that gaseous nitrogen (b) is mixed with liquid nitrogen (a) and used as a conveying medium.
A crosslinkable rubber composition comprising: a carboxyl group-containing nitrile rubber (A) containing a halogen or a halogen compound, and having an iodine value of 120 or less; a polyamine-based crosslinking agent (B); and a metal-based acid acceptor (C) selected from oxides of metals belonging to Group 2, 12 or 13 of the Periodic Table, hydroxides of metals belonging to Group 13 of the Periodic Table, hydrotalcites, and any combination thereof. a carboxyl group-containing nitrile rubber (A) containing a halogen or a halogen compound, and having an iodine value of 120 or less; a polyamine-based crosslinking agent (B); and a metal-based acid acceptor (C) selected from oxides of metals belonging to Group 2, 12 or 13 of the Periodic Table, hydroxides of metals belonging to Group 13 of the Periodic Table, hydrotalcites, and any combination thereof.
Rotor of a rotating electrical machine comprising a plurality of alternating north poles (N) and south poles (S) formed from a plurality of permanent magnets arranged in first gaps extending along an axis (X-X') of said rotor and evenly distributed between a circumferential part and a central part of the magnetic mass of said rotor so as to define a plurality of circumferential polar sections , said permanent magnets having a first polygonal radial section and a first axial plane of symmetry, and said circumferential part comprising axial grooves arranged between said polar sections facing said permanent magnets and forming an aperture of said first gaps , characterized in that an aperture ratio (g) of said circumferential part , equal to a first ratio of a first width (a) of said aperture to a second width (w) of said permanent magnets in a circumferential direction, lies substantially between 0.35 and 0.8, and in that said polar sections have a second, externally lobe-forming radial section and a second axial plane of symmetry and in that a second ratio of said second width (w) to a sum of said first width (a) and of a third width (p) of said lobe in said circumferential direction lies substantially between 0.25 and 0.6.