mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for agitating a container, the apparatus comprising: a carrier, wherein: 1) the carrier comprises a container, said container being removable from a cage structure, or 2) the carrier is configured to receive and retain a separate container that holds a sample to be agitated; a / the cage structure configured to constrain linear travel of the carrier to a path parallel to a central axis of the cage structure, wherein the carrier is at least partially inserted in the cage structure, and wherein the cage structure includes an internal helical track; the carrier comprising a circumferential outer surface and one or more track follower members extending from the outer surface, wherein the track follower members extend into the helical track and are configured to travel within the helical track when the carrier is displaced linearly with respect to the cage structure; and a return member installed between a bottom surface of the carrier and a distal surface of the apparatus, wherein the return member is configured to be compressed when the carrier is displaced toward the distal surface in response to a linear actuating force, and wherein the return member applies a return force to the carrier, which causes the carrier to be displaced away from the distal surface when the linear actuating force is removed or relaxed. a carrier, wherein: 1) the carrier comprises a container, said container being removable from a cage structure, or 2) the carrier is configured to receive and retain a separate container that holds a sample to be agitated; a / the cage structure configured to constrain linear travel of the carrier to a path parallel to a central axis of the cage structure, wherein the carrier is at least partially inserted in the cage structure, and wherein the cage structure includes an internal helical track; the carrier comprising a circumferential outer surface and one or more track follower members extending from the outer surface, wherein the track follower members extend into the helical track and are configured to travel within the helical track when the carrier is displaced linearly with respect to the cage structure; and a return member installed between a bottom surface of the carrier and a distal surface of the apparatus, wherein the return member is configured to be compressed when the carrier is displaced toward the distal surface in response to a linear actuating force, and wherein the return member applies a return force to the carrier, which causes the carrier to be displaced away from the distal surface when the linear actuating force is removed or relaxed.
A method for wireless communication by a user equipment, UE, comprising: establishing dual-connectivity communication with a master base station and a secondary base station; detecting radio link failure, RLF, of a connection with the secondary base station; transmitting an indication of the RLF to the master base station; and receiving a reconfiguration command from the master base station after transmitting the indication of the RLF, wherein the reconfiguration command comprises a command for data fallback including resuming data communication with the master base station on at least one bearer previously established with the secondary base station and simultaneously served by both the master base station and the secondary base station, wherein resuming data communication with the master base station for the data fallback is performed without a Packet Data Convergence Protocol, PDCP, re-configuration of the at least one bearer. establishing dual-connectivity communication with a master base station and a secondary base station; detecting radio link failure, RLF, of a connection with the secondary base station; transmitting an indication of the RLF to the master base station; and receiving a reconfiguration command from the master base station after transmitting the indication of the RLF, wherein the reconfiguration command comprises a command for data fallback including resuming data communication with the master base station on at least one bearer previously established with the secondary base station and simultaneously served by both the master base station and the secondary base station, wherein resuming data communication with the master base station for the data fallback is performed without a Packet Data Convergence Protocol, PDCP, re-configuration of the at least one bearer.
A tolerance ring comprising: an annular ring sidewall having a first and a second opposite major surfaces spaced apart by a thickness, wherein the first major surface defines an inner diameter of the tolerance ring at a first location of the sidewall and an outer diameter of the tolerance ring at a second location of the sidewall, wherein the sidewall comprises folded portions extending radially outward away from a central axis, wherein the folded portions form both an inner diameter and an outer diameter of the tolerance ring, wherein the tolerance ring has a cylindrical shape, wherein the tolerance ring further comprises a rib extending circumferentially around the tolerance ring at an axially central location, characterised in that, the tolerance ring further comprises a low friction material coupled to at least a portion of the sidewall comprising PTFE, wherein the rib is adapted to prevent a compression feature defined by at least one of the folded portions from translating in axial direction beyond the rib, and wherein ends of the at least one folded portions are not beyond the rib in a radial direction relative to the second major surface. an annular ring sidewall having a first and a second opposite major surfaces spaced apart by a thickness, wherein the first major surface defines an inner diameter of the tolerance ring at a first location of the sidewall and an outer diameter of the tolerance ring at a second location of the sidewall, wherein the sidewall comprises folded portions extending radially outward away from a central axis, wherein the folded portions form both an inner diameter and an outer diameter of the tolerance ring, wherein the tolerance ring has a cylindrical shape, wherein the tolerance ring further comprises a rib extending circumferentially around the tolerance ring at an axially central location, characterised in that, the tolerance ring further comprises a low friction material coupled to at least a portion of the sidewall comprising PTFE, wherein the rib is adapted to prevent a compression feature defined by at least one of the folded portions from translating in axial direction beyond the rib, and wherein ends of the at least one folded portions are not beyond the rib in a radial direction relative to the second major surface.
A method for producing nanowires from piezoelectric aluminium nitride, characterized in that in order to obtain nanowires from cubic AlN having a diameter of 10-20 Å and a length of 1000-1500 Å, said nanowires are obtained from a batch of Al+2-10 % by volume AlH 3 at a temperature of 1500-2300 °K in a gaseous environment of N 2 +(3-5% by volume NH 3) at a pressure of 200-2000 MPa.
Element of a lighting device having: - a cavity defined by a lateral wall and an end wall, said cavity housing at least one electrical connection element, the cavity having a free bearing edge shaped so as to receive a flat seal intended to be disposed substantially perpendicular to said lateral wall, - ribs as one with a face of the lateral wall that faces away from the cavity, these ribs extending substantially perpendicular to the lateral wall, each rib defining a bearing edge shaped so as to have said flat seal bearing against it when said seal is disposed substantially perpendicular to said lateral wall, characterized in that at least one of the ribs is a notched rib, of which the bearing edge has a notch extending along the lateral wall from the free bearing edge of the cavity. - a cavity defined by a lateral wall and an end wall, said cavity housing at least one electrical connection element, the cavity having a free bearing edge shaped so as to receive a flat seal intended to be disposed substantially perpendicular to said lateral wall, - ribs as one with a face of the lateral wall that faces away from the cavity, these ribs extending substantially perpendicular to the lateral wall, each rib defining a bearing edge shaped so as to have said flat seal bearing against it when said seal is disposed substantially perpendicular to said lateral wall,
An apparatus for the sterilization of container components (10, 20) with a conveying device which conveys a plurality of sterilization units along a pre-set conveying path, wherein each of these sterilization units has a radiation element which is designed in the manner of a rod, which is capable of being introduced into the container component at least in part through an opening in the container component (10, 20), and wherein the radiation element has at least one radiation source for the emission of ultraviolet light, characterized in that the radiation element has a conducting device for conducting a flowable medium and at least one opening (28, 28a, 28b...) by means of which the flowable medium can flow between the radiation element and the interior of the container component (10, 20), wherein the conducting device is designed at least in sections in the form of a channel extending in the interior of the radiation element.
An electric device comprising: at least one semiconductor element (104, 106); a drive circuit (107, 108) configured to receive a control signal for directing an on state or an off state of the semiconductor element (104, 106) to drive the semiconductor element (104, 106) on the basis of the control signal; a direct current voltage power supply configured to provide output power to the semiconductor element (104, 106); a detector configured to detect a high-frequency switching noise generated in the semiconductor element (104, 106) when it is turned off and on, and superimposed on a current flowing from the semiconductor element (104, 106); a deviation time measurement unit configured to measure a deviation time being a difference between timing at which the control signal directs the off state and timing at which start of the switching noise is detected; a relationship storage unit configured to store a relationship between the deviation time and an element temperature being a temperature of the semiconductor element (104, 106); and a temperature estimation unit configured to estimate the element temperature on the basis of the deviation time and a content stored in the relationship storage unit. a drive circuit (107, 108) configured to receive a control signal for directing an on state or an off state of the semiconductor element (104, 106) to drive the semiconductor element (104, 106) on the basis of the control signal; a direct current voltage power supply configured to provide output power to the semiconductor element (104, 106); a detector configured to detect a high-frequency switching noise generated in the semiconductor element (104, 106) when it is turned off and on, and superimposed on a current flowing from the semiconductor element (104, 106); a deviation time measurement unit configured to measure a deviation time being a difference between timing at which the control signal directs the off state and timing at which start of the switching noise is detected; a relationship storage unit configured to store a relationship between the deviation time and an element temperature being a temperature of the semiconductor element (104, 106); and a temperature estimation unit configured to estimate the element temperature on the basis of the deviation time and a content stored in the relationship storage unit.
An interleaving method, comprising: obtaining a to-be-interleaved bit sequence, wherein the to-be-interleaved bit sequence comprises L subsequences, the L subsequences being grouped into at least a first subsequence group and a second subsequence group, the first subsequence group comprises at least two subsequences, the second subsequence group comprises at least one subsequence, and L is a positive integer greater than 2; and bit interleaving the subsequences in the first subsequence group in a first interleaving manner, and skipping bit interleaving the subsequence in the second subsequence group or bit interleaving the subsequence in the second subsequence group in a second interleaving manner different from the first interleaving manner; characterized in that the L subsequences have respective consecutive subsequence numbers 1 to L and are assigned to the corresponding subsequence group based on a modulo-S operation on their subsequence number, wherein S is the determined quantity of subsequence groups. obtaining a to-be-interleaved bit sequence, wherein the to-be-interleaved bit sequence comprises L subsequences, the L subsequences being grouped into at least a first subsequence group and a second subsequence group, the first subsequence group comprises at least two subsequences, the second subsequence group comprises at least one subsequence, and L is a positive integer greater than 2; and bit interleaving the subsequences in the first subsequence group in a first interleaving manner, and skipping bit interleaving the subsequence in the second subsequence group or bit interleaving the subsequence in the second subsequence group in a second interleaving manner different from the first interleaving manner; characterized in that the L subsequences have respective consecutive subsequence numbers 1 to L and are assigned to the corresponding subsequence group based on a modulo-S operation on their subsequence number, wherein S is the determined quantity of subsequence groups.
A hollow guide shaft unit for an air-jet spinning device comprising: a hollow guide shaft body including a tip-end portion adapted to receive an insert of a twisted fiber bundle, and a fiber bundle passage adapted to receive a passing of the fiber bundle inserted from the tip-end portion; a base section adapted to support the hollow guide shaft body; and a coupling section adapted to mechanically couple the hollow guide shaft body with the base section; characterized by a displacement-force generating section adapted to generate a force to act upon the hollow guide shaft body so as to displace the tip-end portion of the hollow guide shaft body towards one side within a movable range under a state in which the hollow guide shaft body is mechanically coupled with the base section via the coupling section, the movable range being a range in which the tip-end portion of the hollow guide shaft body can be moved, wherein under the state in which the hollow guide shaft body is mechanically coupled with the base section via the coupling section, a play is formed around the hollow guide shaft body to enable movement of the tip-end portion of the hollow guide shaft body. a hollow guide shaft body including a tip-end portion adapted to receive an insert of a twisted fiber bundle, and a fiber bundle passage adapted to receive a passing of the fiber bundle inserted from the tip-end portion; a base section adapted to support the hollow guide shaft body; and a coupling section adapted to mechanically couple the hollow guide shaft body with the base section; characterized by a displacement-force generating section adapted to generate a force to act upon the hollow guide shaft body so as to displace the tip-end portion of the hollow guide shaft body towards one side within a movable range under a state in which the hollow guide shaft body is mechanically coupled with the base section via the coupling section, the movable range being a range in which the tip-end portion of the hollow guide shaft body can be moved, wherein under the state in which the hollow guide shaft body is mechanically coupled with the base section via the coupling section, a play is formed around the hollow guide shaft body to enable movement of the tip-end portion of the hollow guide shaft body.
An ejector (11, 61) comprising: a first nozzle to which a working fluid in a liquid phase is supplied; a second nozzle into which a working fluid in a gas phase is sucked; an atomization mechanism (44, 64, 84, 94) that is disposed at an end of the first nozzle and that atomizes the working fluid in a liquid phase while maintaining the liquid phase; and a mixer that generates a fluid mixture by mixing the atomized working fluid generated by the atomization mechanism (44, 64, 84, 94) with the working fluid in a gas phase sucked into the second nozzle, wherein the atomization mechanism (44, 64, 84, 94) includes an ejection section (51, 71, 91) that generates a jet of the working fluid in a liquid phase, characterized in that the atomization mechanism (44, 64, 84, 94) further includes a collision surface (56p, 73p, 92p, 93p) with which the jet from the ejection section (51, 71, 91) collides, and is atomized due to the impact of collision, wherein the collision surface (56p, 73p, 92p, 93p) is inclined with respect to a direction in which the jet flows. a first nozzle to which a working fluid in a liquid phase is supplied; a second nozzle into which a working fluid in a gas phase is sucked; an atomization mechanism (44, 64, 84, 94) that is disposed at an end of the first nozzle and that atomizes the working fluid in a liquid phase while maintaining the liquid phase; and a mixer that generates a fluid mixture by mixing the atomized working fluid generated by the atomization mechanism (44, 64, 84, 94) with the working fluid in a gas phase sucked into the second nozzle, wherein the atomization mechanism (44, 64, 84, 94) includes an ejection section (51, 71, 91) that generates a jet of the working fluid in a liquid phase, characterized in that the atomization mechanism (44, 64, 84, 94) further includes a collision surface (56p, 73p, 92p, 93p) with which the jet from the ejection section (51, 71, 91) collides, and is atomized due to the impact of collision, wherein the collision surface (56p, 73p, 92p, 93p) is inclined with respect to a direction in which the jet flows.
Radial damping device for oscillations of an oscillating unit of a washing machine, which comprises a lever arm with a coupling body having an internal passage, and is rotationally insertable into a support shaft fixable to a portion of the washing machine, a frictional damping element, which is inserted into the internal passage so that when the coupling body is inserted into the support shaft, a frictional resistance opposes the rotation of the lever arm on the support shaft, and retention elements (5, 6, 7, 8, 9, 10) axially provided on the frictional damping element and on the coupling body, which are associated with each other as a unit so as to retain the frictional damping element axially within the internal passage, wherein the external wall of the frictional damping element comprises a sliding friction internal surface over a peripheral surface of support shaft, and wherein the internal passage is surrounded by an internal wall of the coupling body that has a cylindrical form and is delimited between respective open ends, and the frictional damping element is a tubular element with respective free ends, has an internal axial passage that extends between respective open bases each surrounded by one of the free ends, and an external wall at least partially connected to the internal wall of the coupling body, characterized in that the retention elements (5, 6, 7, 8, 9, 10) comprise a plurality of arching recesses in each one of the free ends of the frictional damping element, so that each free end comprises crenellations disposed between respective recesses, and arching projections that emerge from the internal wall in each of the end areas of the internal passage inside the internal passage; each recess of each free end of the frictional damping element comprises a peripheral part that abuts one of the projections emerging from the internal wall of the coupling body so that the frictional damping element remains axially retained by its recesses between said projections; each crenellation from a free end of the frictional damping element protrudes between each of the projections from the open ends of the internal wall of the coupling body, so that the frictional damping element remains rotationally retained by its crenellations protruding between said projections. each recess of each free end of the frictional damping element comprises a peripheral part that abuts one of the projections emerging from the internal wall of the coupling body so that the frictional damping element remains axially retained by its recesses between said projections; each crenellation from a free end of the frictional damping element protrudes between each of the projections from the open ends of the internal wall of the coupling body, so that the frictional damping element remains rotationally retained by its crenellations protruding between said projections.
Electric drive for a press, having a drive train which repeatedly passes through a forming region, and having a first motor acting on the drive train directly or via a gear stage, and having a second motor acting on the drive train directly, wherein the second motor is a partly-loaded segment motor, characterised in that a subregion of the second motor corresponding to the forming region is loaded and the second motor is only powered during the forming.
A sleeving apparatus comprising: a worm gear, the worm gear having a plurality of threads, the worm gear receptive of a bead between adjacent threads of the plurality of threads; and characterized by a plurality of flexible diaphragms positioned along the worm gear, each diaphragm of the plurality of diaphragms configured to position a wire in alignment with a central bead opening of the bead; wherein with rotation of the worm gear about a worm gear axis the bead advances onto the wire with the wire passing into the central bead opening, the plurality of diaphragms configured to allow passage of the bead through each diaphragm of the plurality of diaphragms. a worm gear, the worm gear having a plurality of threads, the worm gear receptive of a bead between adjacent threads of the plurality of threads; and characterized by a plurality of flexible diaphragms positioned along the worm gear, each diaphragm of the plurality of diaphragms configured to position a wire in alignment with a central bead opening of the bead; wherein with rotation of the worm gear about a worm gear axis the bead advances onto the wire with the wire passing into the central bead opening, the plurality of diaphragms configured to allow passage of the bead through each diaphragm of the plurality of diaphragms.