mhurhangee/ep-ind-claims huggingface dataset:
A method of fabricating a flat product of zirconium alloy, the method being characterized by: • preparing or casting a zirconium alloy ingot containing at least 95% by weight of zirconium, and including the usual impurities and alloying elements; • shaping said ingot in order to obtain a flat product; • subjecting said flat product to a β quenching operation, the cooling of the β quenching being performed at a speed of at least 1°C/s; • subjecting said flat product, after the β quenching, to a rolling operation performed in a single rolling sequence without intermediate annealing, said rolling being performed at a temperature between the ambient temperature and 200°C, with a reduction ratio lying in the range 2% to 20%; and • subjecting said rolled flat product to an annealing treatment in the α range or in the α + β range, performed in the temperature range 500°C to 800°C for 2 min to 10 h. • preparing or casting a zirconium alloy ingot containing at least 95% by weight of zirconium, and including the usual impurities and alloying elements; • shaping said ingot in order to obtain a flat product; • subjecting said flat product to a β quenching operation, the cooling of the β quenching being performed at a speed of at least 1°C/s; • subjecting said flat product, after the β quenching, to a rolling operation performed in a single rolling sequence without intermediate annealing, said rolling being performed at a temperature between the ambient temperature and 200°C, with a reduction ratio lying in the range 2% to 20%; and • subjecting said rolled flat product to an annealing treatment in the α range or in the α + β range, performed in the temperature range 500°C to 800°C for 2 min to 10 h.
A prosthetic liner defining a proximal end and a distal end, the prosthetic liner having a liner body defined between the proximal end and the distal end, and the liner body having a tubular shape, the liner comprising: a lattice structure defined as a plurality of layers monolithically formed as an inseparable and continuous structure; wherein the lattice structure includes a first layer of first filaments discretely formed from a first elastomeric material, and overlapping a second layer of second filaments discretely formed from a second elastomeric material, the first and second filaments (140, 142) of the first and second layers (122, 124), respectively, overlapping and forming a first set of interstices located therebetween in a predetermined pattern, wherein the first filaments are spaced apart from each other, and extend in a first direction oriented differently from a second direction in which the second filaments extend; wherein the first and second filaments extend continuously about the tubular shape of the liner body, and the first and second layers are relatively concentric to one another, characterized in that the first and second layers of the first and second filaments are permanently and chemically bonded to one another, the first and second layers are blended at least in part with one another in a blended region. a lattice structure defined as a plurality of layers monolithically formed as an inseparable and continuous structure; wherein the lattice structure includes a first layer of first filaments discretely formed from a first elastomeric material, and overlapping a second layer of second filaments discretely formed from a second elastomeric material, the first and second filaments (140, 142) of the first and second layers (122, 124), respectively, overlapping and forming a first set of interstices located therebetween in a predetermined pattern, wherein the first filaments are spaced apart from each other, and extend in a first direction oriented differently from a second direction in which the second filaments extend; wherein the first and second filaments extend continuously about the tubular shape of the liner body, and the first and second layers are relatively concentric to one another, characterized in that the first and second layers of the first and second filaments are permanently and chemically bonded to one another, the first and second layers are blended at least in part with one another in a blended region.
Root canal filling composition for placement in a dental root canal, comprising an elongated fibreglass post having a first end and a second end, an apical stop made from a physiological material arranged on the first end, a filling material which surrounds the entire surface of at least a portion of the fibreglass post, wherein the filling material comprises a dentin-adhesive filling material, characterized in that the apical stop has a length of not more than 1/10 of the total length of the fibreglass post.
An apparatus comprising: a valve stem; a valve plug having a bore, the valve stem passing through the bore; a first nut threadably engaged with the valve stem, the first nut including a first tapered surface; and a second nut threadably engaged with the valve stem, the second nut including a second tapered surface, characterised in that the bore engages the first and the second tapered surfaces, and in that the first nut and an end of the valve stem are disposed in a cavity of the valve plug, such that the first nut and the end of the valve stem are shielded from fluid flow. a valve stem; a valve plug having a bore, the valve stem passing through the bore; a first nut threadably engaged with the valve stem, the first nut including a first tapered surface; and a second nut threadably engaged with the valve stem, the second nut including a second tapered surface, characterised in that the bore engages the first and the second tapered surfaces, and in that the first nut and an end of the valve stem are disposed in a cavity of the valve plug, such that the first nut and the end of the valve stem are shielded from fluid flow.
A drilling tool for drilling in a formation, the drilling tool comprising: an optical fiber having a laser input end and a laser output end; a laser source optically connected to the laser input end; an activating agent conduit (9, 209) having an activating agent inlet (17, 217) and an activating agent outlet (19, 219); an activating agent source (7, 107, 207) connected to the activating agent inlet (17, 217) that supplies an activating agent comprising an activating material, the activating material comprising at least one of activated carbon, graphite, carbon black, carbon nanotubes, nanoparticles, paint, dye, molybdenum disulfide, a transition metal chalcogenide, or a metamaterial; and a drill head, comprising: a nozzle connected to the activating agent outlet (19, 219) that discharges the activating agent on an area of the formation, and a laser head optically connected to the laser output end and arranged to lase at least a portion of the area of the formation having the activating agent. an optical fiber having a laser input end and a laser output end; a laser source optically connected to the laser input end; an activating agent conduit (9, 209) having an activating agent inlet (17, 217) and an activating agent outlet (19, 219); an activating agent source (7, 107, 207) connected to the activating agent inlet (17, 217) that supplies an activating agent comprising an activating material, the activating material comprising at least one of activated carbon, graphite, carbon black, carbon nanotubes, nanoparticles, paint, dye, molybdenum disulfide, a transition metal chalcogenide, or a metamaterial; and a drill head, comprising: a nozzle connected to the activating agent outlet (19, 219) that discharges the activating agent on an area of the formation, and a laser head optically connected to the laser output end and arranged to lase at least a portion of the area of the formation having the activating agent. a nozzle connected to the activating agent outlet (19, 219) that discharges the activating agent on an area of the formation, and a laser head optically connected to the laser output end and arranged to lase at least a portion of the area of the formation having the activating agent.
A method, implemented at least in part by a computing device, for restarting an application using shared memory, the method comprising: associating the shared memory with the application; associating the shared memory with a holder process by passing shared memory identifiers to the holder process, wherein the holder process is dedicated to maintaining the shared memory for the application so that it is not released during a restart of the application; shutting down the application, wherein the holder process remains associated with the shared memory after the application has shut down; and after the application has been shut down, starting the application, comprising: checking whether the shared memory is usable by the re-started application; and when the shared memory is usable, re-associating the shared memory with the re-started application for use by the re-started application, wherein re-associating comprises passing, by the holder process, the shared memory identifiers to the re-started application. associating the shared memory with the application; associating the shared memory with a holder process by passing shared memory identifiers to the holder process, wherein the holder process is dedicated to maintaining the shared memory for the application so that it is not released during a restart of the application; shutting down the application, wherein the holder process remains associated with the shared memory after the application has shut down; and after the application has been shut down, starting the application, comprising: checking whether the shared memory is usable by the re-started application; and when the shared memory is usable, re-associating the shared memory with the re-started application for use by the re-started application, wherein re-associating comprises passing, by the holder process, the shared memory identifiers to the re-started application. checking whether the shared memory is usable by the re-started application; and when the shared memory is usable, re-associating the shared memory with the re-started application for use by the re-started application, wherein re-associating comprises passing, by the holder process, the shared memory identifiers to the re-started application.
Method for setting the clearance (L K1, L K2) of a directly actuable clutch device (K1, K2) with a housing and an actuating apparatus which is centred with respect to the clutch device (K1, K2), or is supported and can be mounted, in the housing via a cap bearing, with at least one piston (30, 31) which can be displaced axially in an actuating apparatus housing (29.1, 29.2) for applying an actuating force in a manner which is free from transmission ratios to an actuating element (19, 20) which acts on the clutch device (K1, K2), and with an end stop (E1, E2) which is provided on the piston (30, 31) and which interacts with a stop (34, 35) on the actuating apparatus housing (29.1, 29.2) in the open state of the clutch device (K1, K2), a predefinable setpoint clearance (L K1-soll, L K2-soll) being set on the clutch device (K1, K2) as a function of at least one variable which at least indirectly characterizes an actual clearance (L K1 - ist) and at least one variable which at least indirectly characterizes the geometry of the actuating apparatus by way of setting of the end stop (E1, E2) on the piston (30, 31) or the stop (34, 35) on the actuating apparatus housing (29.1, 29.2), characterized in that the end stop (E1, E2) on the piston (30, 31) or the stop (34, 35) on the actuating apparatus is formed by an axial spacing element (32, 33), in particular a floating element, which is arranged between the piston (30, 31) and the actuating apparatus housing (29.1, 29.2), and, if allocated to the piston (30, 31), forms an end stop face (39, 40) and, if allocated to the actuating apparatus housing (29.1, 29.2), forms a stop face (34, 35), and the thickness (d1, d2) of which spacing element (32, 33) is set as a function of a setpoint spacing between the actuating apparatus housing (29.1, 29.2) and the actuating element (19, 20) or of a standard dimension which at least indirectly describes with the said coupled actuating bearing (27, 28), in particular a dimension for the thickness (d1, d2) of the spacing element (32, 33), the position of the end stop (E1, E2) or stop (34, 35) being set by way of targeted selection of the spacing element or the connection in series of spacing elements of this type.
A washing machine comprising: a rotary drum; at least one balancer (100, 100a, 100b) arranged to counterbalance an unbalanced load generated in the rotary drum, the at least one balancer (100, 100a, 100b) including at least one balancer housing mounted to the rotary drum, and a balancing module (200, 200a, 200b, 300) having a movement motor arranged to enable the balancing module (200, 200a, 200b, 300) to move inside the balancer housing; a power supply unit arranged to supply electric power to the at least one balancer (100, 100a, 100b); a detection unit arranged to detect at least one signal of electric current and voltage of the electric power applied from the power supply unit to the balancer (100, 100a, 100b); a control unit arranged to determine whether the intensity of the detected signal is within a normal range, and determine a malfunction of the at least one balancer (100, 100a, 100b) upon determining that the intensity of the detected signal is outside the normal range; and a driving unit arranged to drive the movement motor of the balancing module (200, 200a, 200b, 300), characterised in that the control unit is arranged to stop driving of the movement motor upon determining the malfunction of the at least one balancer (100, 100a, 100b). a rotary drum; at least one balancer (100, 100a, 100b) arranged to counterbalance an unbalanced load generated in the rotary drum, the at least one balancer (100, 100a, 100b) including at least one balancer housing mounted to the rotary drum, and a balancing module (200, 200a, 200b, 300) having a movement motor arranged to enable the balancing module (200, 200a, 200b, 300) to move inside the balancer housing; a power supply unit arranged to supply electric power to the at least one balancer (100, 100a, 100b); a detection unit arranged to detect at least one signal of electric current and voltage of the electric power applied from the power supply unit to the balancer (100, 100a, 100b); a control unit arranged to determine whether the intensity of the detected signal is within a normal range, and determine a malfunction of the at least one balancer (100, 100a, 100b) upon determining that the intensity of the detected signal is outside the normal range; and a driving unit arranged to drive the movement motor of the balancing module (200, 200a, 200b, 300),
A polyimide-carbon-sulfur composite comprising porous carbon-based secondary particles formed by assembling and aggregating a plurality of carbon-based primary particles; characterized by a coating layer of polyimide coated on the inside and outside of the pores of the carbon-based secondary particles; and sulfur supported on the pores of the carbon-based secondary particles.
A capsule type medical apparatus that can receive, in a subject, an external signal transmitted from an outside of the subject and transmitted via a conductor existing in the subject, comprising: a cover member that is formed of a dielectric and covers components of the capsule type medical apparatus; a plurality of electrodes (30a, 30b) that are formed of conductors, characterized by the electrodes being provided within the cover member in tight contact with an inner wall side surface of the cover member, and receiving the external signal; by an inductor circuit (31a, 31b) that is connected in series to each of the plurality of electrodes (30a, 30b), and has an inductance value set to configure a resonant circuit having a frequency substantially equal to a carrier frequency of the external signal as a resonant frequency; and by a signal receiving circuit to which the external signal received by the plurality of electrodes (30a, 30b) and a potential difference of the external signal are inputted. a cover member that is formed of a dielectric and covers components of the capsule type medical apparatus; a plurality of electrodes (30a, 30b) that are formed of conductors, characterized by the electrodes being provided within the cover member in tight contact with an inner wall side surface of the cover member, and receiving the external signal; by an inductor circuit (31a, 31b) that is connected in series to each of the plurality of electrodes (30a, 30b), and has an inductance value set to configure a resonant circuit having a frequency substantially equal to a carrier frequency of the external signal as a resonant frequency; and by a signal receiving circuit to which the external signal received by the plurality of electrodes (30a, 30b) and a potential difference of the external signal are inputted.
Arched roof device intended for placing between a first and a second upstand, comprising: - an elongate first receiving structure, oriented in a longitudinal direction, on the first upstand; - an elongate second receiving structure, oriented in the longitudinal direction, on the second upstand; - at least a first and second transverse arch, oriented in a transverse direction, between the first and the second receiving structure, wherein each transverse arch is provided with an arched wire receiving channel extending in the transverse direction; - at least a first wire grid with a first transverse wire which is slid in the wire receiving channel of the first transverse arch and a second transverse wire which is slid in the wire receiving channel of the second transverse arch; - a covering arranged above the first wire grid. - an elongate first receiving structure, oriented in a longitudinal direction, on the first upstand; - an elongate second receiving structure, oriented in the longitudinal direction, on the second upstand; - at least a first and second transverse arch, oriented in a transverse direction, between the first and the second receiving structure, wherein each transverse arch is provided with an arched wire receiving channel extending in the transverse direction; - at least a first wire grid with a first transverse wire which is slid in the wire receiving channel of the first transverse arch and a second transverse wire which is slid in the wire receiving channel of the second transverse arch; - a covering arranged above the first wire grid.
An air dehumidifier, especially for air cooling or air conditioning machines, configured to be arranged inside a cooling chamber upstream of an air outlet from the cooling chamber, which comprises a body, a purifying cassette, an outer frame, an inner frame, flexible connectors, a metal sieve, an ultrasonic radiator and a snow and/or ice collector, wherein the purifying cassette is mounted in the body, wherein the purifying cassette comprises the outer frame in which the inner frame is accommodated by means of the flexible connectors, the space inside both frames (421, 423) being filled with the metal sieve and the inner frame is connected to the ultrasonic radiator, from which vibrations are transmitted to the metal sieve, from which solid particles of snow and/or ice fall off due to the vibrations and are transported by gravity to the snow and/or ice collector being arranged in the body of the air dehumidifier, wherein into the inner space of the snow and/or ice collector extends a snow and/or ice conveyor, which is configured to pass through a wall of the cooling chamber to an outer space, where it opens into a snow and/or ice collection container, which is configured to be disposed outside the cooling chamber.
A trackless ride system, comprising: a. a plurality of dynamically selectable predefined paths within a predefined ride vehicle path area; and b. a plurality of wireless, self-dispatching trackless ride vehicles maneuverable along the plurality of dynamically selectable predefined paths, at least one wireless, self-dispatching trackless ride vehicle comprising: i. a dynamically controllable trackless ride vehicle motive system; ii. a track navigator operatively in communication with the dynamically controllable trackless ride vehicle motive system; iii. an independent vehicle controller operatively in communication with the track navigator; iv. a spatial positional determinator operatively in communication with the independent vehicle controller; and v. a predetermined array of multi-dimensional peripheral object detection sensors operatively in communication with the independent vehicle controller. a. a plurality of dynamically selectable predefined paths within a predefined ride vehicle path area; and b. a plurality of wireless, self-dispatching trackless ride vehicles maneuverable along the plurality of dynamically selectable predefined paths, at least one wireless, self-dispatching trackless ride vehicle comprising: i. a dynamically controllable trackless ride vehicle motive system; ii. a track navigator operatively in communication with the dynamically controllable trackless ride vehicle motive system; iii. an independent vehicle controller operatively in communication with the track navigator; iv. a spatial positional determinator operatively in communication with the independent vehicle controller; and v. a predetermined array of multi-dimensional peripheral object detection sensors operatively in communication with the independent vehicle controller. i. a dynamically controllable trackless ride vehicle motive system; ii. a track navigator operatively in communication with the dynamically controllable trackless ride vehicle motive system; iii. an independent vehicle controller operatively in communication with the track navigator; iv. a spatial positional determinator operatively in communication with the independent vehicle controller; and v. a predetermined array of multi-dimensional peripheral object detection sensors operatively in communication with the independent vehicle controller.
Method for detecting traffic signs and their installation location by a moving vehicle, comprising: - periodically or continuously determining a geographical position of the vehicle, - recording images using a first camera directed backwards from the point of view of the vehicle, - performing traffic sign recognition for the images from the first camera, and - when a traffic sign has been recognized, storing information representing the recognized traffic sign and an associated geographical position in a database, characterized in that the method furthermore comprises: - recording images using a second camera directed forwards from the point of view of the vehicle, - performing image recognition in an image region lying in the region of the oncoming lane, wherein the image recognition marks objects that have a typical shape of traffic signs as candidates, - estimating the time at which a candidate enters the detection range of the first camera and at which point in the image the entry occurs. - periodically or continuously determining a geographical position of the vehicle, - recording images using a first camera directed backwards from the point of view of the vehicle, - performing traffic sign recognition for the images from the first camera, and - when a traffic sign has been recognized, storing information representing the recognized traffic sign and an associated geographical position in a database, characterized in that the method furthermore comprises: - recording images using a second camera directed forwards from the point of view of the vehicle, - performing image recognition in an image region lying in the region of the oncoming lane, wherein the image recognition marks objects that have a typical shape of traffic signs as candidates, - estimating the time at which a candidate enters the detection range of the first camera and at which point in the image the entry occurs.