mhurhangee/ep-ind-claims huggingface dataset:
Sleeve, in particular outer sleeve (AHÜ) for an elastomer bearing, with an annular sleeve part comprising a slit, which sleeve part forms a first, outer sleeve part and is arranged coaxially with a second, inner sleeve part, which likewise comprises a slit, the slits (S1, S2) of the sleeve parts (1, 2) being staggered in relation to one another, characterized in that the outer sleeve part is, on its inner peripheral surface, and the inner sleeve part is, on its inner peripheral surface and on its outer peripheral surface, provided in each case with a bonding-agent layer (HS1, HS2) in order to form a material connection by vulcanization with a free-flowing elastomer mixture
A method for use in a user equipment, UE, operable to transmit a sounding reference signal, SRS, on a plurality of carriers, the method comprising: obtaining an indication to perform SRS carrier-based switching for at least one carrier of the plurality of carriers; adapting at least one parameter for uplink transmit power control in response to the obtained indication; and transmitting an uplink signal using the adapted at least one parameter for uplink power control while meeting at least one predetermined uplink power control requirement.
A thermomagnetic apparatus for electric power production, comprising: a hollow toric vessel delimited by a wall having an outer toric surface having a toroidal direction, wherein the toric wall encloses a volume containing a ferrofluid which comprises magnetic nanoparticles dispersed or suspended in a fluid carrier; a plurality of hydraulic conduits (36, 37, 38, 39) in thermal contact with the outer toric surface and arranged thereon along directions transverse to the toroidal direction, wherein near adjacent hydraulic conduits are spaced from each other in the toroidal direction so as to define on the outer toric surface a respective plurality of intermediate surface zones, each intermediate surface zone extending transversely to the toroidal direction; a magnetic field source coupled to the outer toric surface to generate a magnetic flux thereon, and an extraction coil which comprises a plurality of turns of electrical conductor wire arranged on the outer toric surface, the turns of the extraction coil being wound along directions transverse to the toroidal direction and arranged at at least a first sub-plurality of the plurality of intermediate surface zones. a hollow toric vessel delimited by a wall having an outer toric surface having a toroidal direction, wherein the toric wall encloses a volume containing a ferrofluid which comprises magnetic nanoparticles dispersed or suspended in a fluid carrier; a plurality of hydraulic conduits (36, 37, 38, 39) in thermal contact with the outer toric surface and arranged thereon along directions transverse to the toroidal direction, wherein near adjacent hydraulic conduits are spaced from each other in the toroidal direction so as to define on the outer toric surface a respective plurality of intermediate surface zones, each intermediate surface zone extending transversely to the toroidal direction; a magnetic field source coupled to the outer toric surface to generate a magnetic flux thereon, and an extraction coil which comprises a plurality of turns of electrical conductor wire arranged on the outer toric surface, the turns of the extraction coil being wound along directions transverse to the toroidal direction and arranged at at least a first sub-plurality of the plurality of intermediate surface zones.
A non-linear double-motion circuit breaker comprising a primary movable contact and a secondary movable contact slidingly mounted within a primary holder and a secondary holder respectively, wherein the primary movable contact comprises a tulip and a contact cylinder attached thereto, and the secondary movable contact comprises a pin having a pin tip, the circuit breaker further comprising a linkage mechanism arranged to allow non-linear movement of the secondary movable contact in an opposite direction to the movement of the primary movable contact, wherein the secondary movable contact does not comprise a counter-contact for engaging the contact cylinder, characterised in that the secondary holder has a fixed dielectric shield at an end opposing the primary holder, and in that the linkage mechanism comprises a pivoted driving lever, a driving rod extending therefrom to the primary movable contact, a pivoted driven lever, and a driven rod extending therefrom to the secondary movable contact, the driving lever and driven lever being connected to each other through a pin and slot connection, the follower pin being provided on the driving lever and the slot being provided on the driven lever.
A piston ring with a wear indicator, comprising a piston ring body with an outer surface, wherein the outer surface of the piston ring body is provided with a structure projecting outwards by a height (h), an anti-wear layer being applied on the outer surface, which covers the projecting structure, characterized in that the anti-wear layer has a thickness, which is reduced by the height (h) of the projecting structure in the region of the projecting structure, wherein the projecting structure tapers outwards from the outer surface.
A method comprising: inserting a consolidated ultra-high molecular weight polyethylene (UHMWPE), in the form of a cylindrical bar of diameter from 2 inches (5.1 cm) to 4 inches (10.2 cm), into a rigid sleeve, wherein the sleeve has a diameter greater than that of the UHMWPE bar, and wherein upon insertion, an inner wall of the sleeve contacts some but not all of the UHMWPE bar; heating the UHMWPE in the sleeve to a temperature of 330°C or higher; cooling the UHMWPE, to provide a UHMWPE product; and removing the UHMWPE from the sleeve; wherein the sleeve is dimensioned so that the UHMWPE thermally expands and contacts the entire inner wall of the sleeve during the heating step to provide radial pressure to the UHMWPE while simultaneously leaving a longitudinal direction of the UHMWPE unconstrained, in the cooling step, the temperature of the UHMWPE is lowered to such an extent that the UHMWPE shrinks and loses contact with the inner wall of the sleeve, so that it can be removed from the sleeve, and the UHMWPE product has less cavitation than a UHMWPE product made by a corresponding method free of the radial pressure. inserting a consolidated ultra-high molecular weight polyethylene (UHMWPE), in the form of a cylindrical bar of diameter from 2 inches (5.1 cm) to 4 inches (10.2 cm), into a rigid sleeve, wherein the sleeve has a diameter greater than that of the UHMWPE bar, and wherein upon insertion, an inner wall of the sleeve contacts some but not all of the UHMWPE bar; heating the UHMWPE in the sleeve to a temperature of 330°C or higher; cooling the UHMWPE, to provide a UHMWPE product; and removing the UHMWPE from the sleeve; wherein the sleeve is dimensioned so that the UHMWPE thermally expands and contacts the entire inner wall of the sleeve during the heating step to provide radial pressure to the UHMWPE while simultaneously leaving a longitudinal direction of the UHMWPE unconstrained, in the cooling step, the temperature of the UHMWPE is lowered to such an extent that the UHMWPE shrinks and loses contact with the inner wall of the sleeve, so that it can be removed from the sleeve, and the UHMWPE product has less cavitation than a UHMWPE product made by a corresponding method free of the radial pressure. the sleeve is dimensioned so that the UHMWPE thermally expands and contacts the entire inner wall of the sleeve during the heating step to provide radial pressure to the UHMWPE while simultaneously leaving a longitudinal direction of the UHMWPE unconstrained, in the cooling step, the temperature of the UHMWPE is lowered to such an extent that the UHMWPE shrinks and loses contact with the inner wall of the sleeve, so that it can be removed from the sleeve, and the UHMWPE product has less cavitation than a UHMWPE product made by a corresponding method free of the radial pressure.
A hail and other impact simulation device for testing solar cell surfaces having a device for generating impact loads on a test surface, characterized in that the device comprises a plurality of balls, imitating hailstones, attached by a flexible joint to a rotating shaft connected to a motor.
A method comprising: receiving a plurality of trace points collected by a mobile device traveling along an established route on roadways or footpaths, wherein each of the plurality of trace points comprises location information, wherein the collected trace points are accumulated to establish a complete route; receiving a distance tolerance value for each trace point; generating a first portion of a route using a first subset of the plurality of trace points; generating a second portion of the route using a second subset of the plurality of trace points, wherein generating the first portion and the second portion of the route comprises determining a roadway or footpath that is within a respective distance tolerance value for each trace point; and concatenating the first portion of the route with the second portion of the route to generate the complete route; characterised in that concatenating the first portion of the route with the second portion of the route comprises removing at least a part of the first portion or the second portion in response to determining that the part of the first portion or the second portion comprises a redundant part of the route, wherein the redundant part of the route is a redundant portion of the route that was traveled multiple times, or a loop that did not bring the mobile device closer to its destination. receiving a plurality of trace points collected by a mobile device traveling along an established route on roadways or footpaths, wherein each of the plurality of trace points comprises location information, wherein the collected trace points are accumulated to establish a complete route; receiving a distance tolerance value for each trace point; generating a first portion of a route using a first subset of the plurality of trace points; generating a second portion of the route using a second subset of the plurality of trace points, wherein generating the first portion and the second portion of the route comprises determining a roadway or footpath that is within a respective distance tolerance value for each trace point; and concatenating the first portion of the route with the second portion of the route to generate the complete route; characterised in that concatenating the first portion of the route with the second portion of the route comprises removing at least a part of the first portion or the second portion in response to determining that the part of the first portion or the second portion comprises a redundant part of the route, wherein the redundant part of the route is a redundant portion of the route that was traveled multiple times, or a loop that did not bring the mobile device closer to its destination.
Machine device tool for processing saw disks, comprising at least one processor, a spindle unit comprising in turn at least one shank provided with a flange on which a semi-finished tool saw disk to be planarized is mounted, said device comprising at least one sensor assembly comprising at least one sensor mounted on a carriage to slide at least from the periphery of said disk to the centre of said disk, said sensor detecting the differences in planarity in at least each part of a disk face and communicating said data to said processor, said device further comprising at least one hammer assembly comprising at least one beating head and at least one preloading spring for giving said beating head the thrust for striking areas of discrepancy in planarity detected by said at least one sensor, said thrust or said processing being determined by said processor.
A method of forming a film by mono-extrusion of molten polymer material, by extruding said material through a flat-die in a direction out of a narrow exit slot, which is an integral part of a wider die chamber of which the major dimension of extension is parallel with the major dimension of the exit slot, whereby the molten polymer material is formed into one or more flows generally parallel with said major dimension of the exit slot, each said flow being pumped in a re-circulating arrangement from at least one chamber outlet to at least one chamber inlet through a conduit connecting the said at least one chamber inlet to the said at least one chamber outlet, while fresh molten polymer material is administered from a reservoir entering into the conduit for each re-circulating flow, characterised in that throughout the die the throughput of circulating polymer material exceeds the throughput of molten film forming material passing through the exit slot, this throughput of material passing through the exit slot is lower than 50% of the throughput of circulating material.
A method for operating a hearing system comprising a hearing device being worn by a hearing device user, at least one communication device (21, 31, 44) being used by a person (20, 30) or by a group of individuals (41, 42, 43), and a network, the method comprising the steps of: - establishing a connection between the hearing device and the at least one communication device (21, 31, 44) via the network, characterized by - identifying the person (20, 30) or the group of individuals (41, 42, 43) using the at least one communication device (21, 31, 44), wherein the person (20, 30) or the group of individuals (21, 42, 43) using the communication device (21, 31, 44) is identified by an identification number of the communication device (21, 31, 44); and - adjusting settings in the hearing device for adapting its acoustical behavior taking into account acoustic properties of at least one of the person (20, 30), the group of individuals (41, 42, 43) and the communication device (21, 31, 44). - establishing a connection between the hearing device and the at least one communication device (21, 31, 44) via the network, characterized by - identifying the person (20, 30) or the group of individuals (41, 42, 43) using the at least one communication device (21, 31, 44), wherein the person (20, 30) or the group of individuals (21, 42, 43) using the communication device (21, 31, 44) is identified by an identification number of the communication device (21, 31, 44); and - adjusting settings in the hearing device for adapting its acoustical behavior taking into account acoustic properties of at least one of the person (20, 30), the group of individuals (41, 42, 43) and the communication device (21, 31, 44).
A method comprising: detecting a first hop to a first frequency (f y) in a hopping sequence, the first hop being performed by a transmitter in accordance with the hopping sequence; identifying a weighting vector that corresponds to a second frequency (f z) in the hopping sequence; obtaining an equalizer vector for the second frequency (f z) based on the weighting vector and an equalizer matrix, the equalizer matrix including a plurality of M equalizer vectors, each equalizer vector of the plurality of M equalizer vectors corresponding to a different frequency in the hopping sequence, wherein M is a positive integer greater than or equal to one; detecting a second hop from the first frequency (f y) to the second frequency (f z), the second hop being performed by the transmitter in accordance with the hopping sequence; receiving a signal that is transmitted by the transmitter at the second frequency (f z); and equalizing the signal by using the equalizer vector for the second frequency (f z). detecting a first hop to a first frequency (f y) in a hopping sequence, the first hop being performed by a transmitter in accordance with the hopping sequence; identifying a weighting vector that corresponds to a second frequency (f z) in the hopping sequence; obtaining an equalizer vector for the second frequency (f z) based on the weighting vector and an equalizer matrix, the equalizer matrix including a plurality of M equalizer vectors, each equalizer vector of the plurality of M equalizer vectors corresponding to a different frequency in the hopping sequence, wherein M is a positive integer greater than or equal to one; detecting a second hop from the first frequency (f y) to the second frequency (f z), the second hop being performed by the transmitter in accordance with the hopping sequence; receiving a signal that is transmitted by the transmitter at the second frequency (f z); and equalizing the signal by using the equalizer vector for the second frequency (f z).
Process for producing a helium gas stream from a source gas stream comprising at least helium, methane and nitrogen, comprising at least the following steps: step a): introducing said source gas stream into a double-column nitrogen rejection unit, said double column comprising a high-pressure distillation column, a low-pressure distillation column and a condenser linking the high-pressure column with the low-pressure column; step b): extracting at the outlet of said condenser at least one part of a mixture produced at the top of the high-pressure column; step c): expanding said mixture resulting from step b) to an intermediate pressure of between 8 bar and 20 bar absolute; step d): separating the mixture resulting from step c) in a first phase separator vessel into a liquid phase and a helium-enriched gas phase; step e): at least partially condensing said helium-enriched gas phase in a heat exchanger; step f): separating the stream resulting from step e) in a second phase separator vessel into a liquid phase and a gas phase containing more than 50% by volume of helium. step a): introducing said source gas stream into a double-column nitrogen rejection unit, said double column comprising a high-pressure distillation column, a low-pressure distillation column and a condenser linking the high-pressure column with the low-pressure column; step b): extracting at the outlet of said condenser at least one part of a mixture produced at the top of the high-pressure column; step c): expanding said mixture resulting from step b) to an intermediate pressure of between 8 bar and 20 bar absolute; step d): separating the mixture resulting from step c) in a first phase separator vessel into a liquid phase and a helium-enriched gas phase; step e): at least partially condensing said helium-enriched gas phase in a heat exchanger; step f): separating the stream resulting from step e) in a second phase separator vessel into a liquid phase and a gas phase containing more than 50% by volume of helium.
A system, comprising: a handheld device having a sensing surface configured to be placed on a patient's skin, the handheld device including: an ultrasound sensor including an array of ultrasound transducers that are disposed on the sensing surface and placed on the patient's skin, forming a central portion of the sensing surface; an electrocardiogram sensor and an auscultation sensor positioned on portions of the sensing surface that extend outwardly from the central portion; and a processor and a memory coupled to the processor, wherein the processor is configured to implement a synchronization module within the handheld device, wherein the ultrasound sensor, the EKG sensor, and the auscultation sensor are configured to simultaneously acquire respective signals of a patient, and the synchronization module is configured to synchronize the signals acquired by two or more of the ultrasound sensor, the EKG sensor, and the auscultation sensor; and a computing device including a memory and a processor, wherein the processor of the computing device is configured to receive and process signals from the ultrasound sensor, the EKG sensor, and the auscultation sensor of the handheld device. a handheld device having a sensing surface configured to be placed on a patient's skin, the handheld device including: an ultrasound sensor including an array of ultrasound transducers that are disposed on the sensing surface and placed on the patient's skin, forming a central portion of the sensing surface; an electrocardiogram sensor and an auscultation sensor positioned on portions of the sensing surface that extend outwardly from the central portion; and a processor and a memory coupled to the processor, wherein the processor is configured to implement a synchronization module within the handheld device, wherein the ultrasound sensor, the EKG sensor, and the auscultation sensor are configured to simultaneously acquire respective signals of a patient, and the synchronization module is configured to synchronize the signals acquired by two or more of the ultrasound sensor, the EKG sensor, and the auscultation sensor; and an ultrasound sensor including an array of ultrasound transducers that are disposed on the sensing surface and placed on the patient's skin, forming a central portion of the sensing surface; an electrocardiogram sensor and an auscultation sensor positioned on portions of the sensing surface that extend outwardly from the central portion; and a processor and a memory coupled to the processor, wherein the processor is configured to implement a synchronization module within the handheld device, wherein the ultrasound sensor, the EKG sensor, and the auscultation sensor are configured to simultaneously acquire respective signals of a patient, and the synchronization module is configured to synchronize the signals acquired by two or more of the ultrasound sensor, the EKG sensor, and the auscultation sensor; and a computing device including a memory and a processor, wherein the processor of the computing device is configured to receive and process signals from the ultrasound sensor, the EKG sensor, and the auscultation sensor of the handheld device.
Pedicle screw system comprising a receiving sleeve for a longitudinal beam, a bone screw and a shank head element, wherein the bone screw has a bone thread formed as an external thread and a connection thread formed as an internal thread, and wherein the shank head element proximally has a head on which the receiving sleeve is mounted, and distally has a connection thread formed as an external thread by which it is screwed into the connection thread of the bone screw, characterised in that the connection threads (22, 27) are each formed as multiple threads each having a distal connection thread portion (28, 30) and a proximal connection thread portion (29, 31), wherein the distal connection thread portions (28, 30) and the proximal connection thread portions (29, 31) have an identical thread pitch; and the distal connection thread portions (28, 30) have a smaller diameter than the proximal connection thread portions (29, 31).