mhurhangee/ep-ind-claims huggingface dataset:
A method in a user equipment for retransmitting a packet data unit, PDU, that has previously been transmitted in an uplink to a receiver in a network node, the previously transmitted PDU comprising one or more service data units, SDUs, the method comprising: receiving an uplink grant from the receiver for retransmission of the PDU, wherein the uplink grant for retransmission comprises a time transmission interval, TTI, duration associated therewith; determining whether a SDU of the one or more SDUs of the previously transmitted PDU comprises a TTI duration which is not suited to the TTI duration associated with the uplink grant for retransmission; and, if so repackaging the PDU for retransmission; transmitting the repacked PDU to the receiver; and signaling to the receiver that the PDU for retransmission has been repackaged, wherein the signaling includes information identifying the region of the uplink grant that is used for retransmission. receiving an uplink grant from the receiver for retransmission of the PDU, wherein the uplink grant for retransmission comprises a time transmission interval, TTI, duration associated therewith; determining whether a SDU of the one or more SDUs of the previously transmitted PDU comprises a TTI duration which is not suited to the TTI duration associated with the uplink grant for retransmission; and, if so repackaging the PDU for retransmission; transmitting the repacked PDU to the receiver; and signaling to the receiver that the PDU for retransmission has been repackaged, wherein the signaling includes information identifying the region of the uplink grant that is used for retransmission.
A method performed by a mobile terminal, said method comprising: establishing a virtual active set including a first closed subscriber group cell; measuring at least one parameter of the first closed subscriber group cell and the at least one parameter of a second closed subscriber group cell; updating the virtual active set by replacing the first closed subscriber group cell with the second closed subscriber group cell in response to the at least one parameter of the second closed subscriber group cell having a predefined relationship with respect to the at least one parameter of the first closed subscriber group cell for a time to trigger; and in response to said updating, resetting a timer, the timer being utilized to determine if an inter-frequency event reporting triggering condition has been met for a predefined period of time. establishing a virtual active set including a first closed subscriber group cell; measuring at least one parameter of the first closed subscriber group cell and the at least one parameter of a second closed subscriber group cell; updating the virtual active set by replacing the first closed subscriber group cell with the second closed subscriber group cell in response to the at least one parameter of the second closed subscriber group cell having a predefined relationship with respect to the at least one parameter of the first closed subscriber group cell for a time to trigger; and in response to said updating, resetting a timer, the timer being utilized to determine if an inter-frequency event reporting triggering condition has been met for a predefined period of time.
Method for operating a magnetic resonance apparatus, wherein MR images of a plurality of slices of an examination person are generated using a Slice Encoding for Metal Artifact Correction (SEMAC) sequence, wherein each slice is associated with a corresponding plurality of sections resolving actual slice signal locations in a slice-selection direction by phase encoding and a Fourier transform in the slice-selection direction, and wherein the method comprising: - for each slice, acquiring MR data from the corresponding sections, wherein the MR data is fully sampled in k-space in a reference region, which is located in a center of k-space in phase-encoding direction and in a central section in slice-selection direction, and wherein the MR-data outside the reference region is undersampled in k-space in phase-encoding direction; - combining the fully sampled MR data from the reference regions of each slice to generate a reference data set comprising attaching the fully sampled MR data of each reference region directly adjacent to each other in a matrix, wherein the MR data of each slice is located in the matrix according to the order of the corresponding slices in slice-selection direction; and - reconstructing an MR image of each slice using the MR data of the corresponding slice and the reference data set based on a GRAPPA or a CS/SENSE technique comprising determining GRAPPA kernels or coil sensitivities for CS/SENSE from the reference data set. - for each slice, acquiring MR data from the corresponding sections, wherein the MR data is fully sampled in k-space in a reference region, which is located in a center of k-space in phase-encoding direction and in a central section in slice-selection direction, and wherein the MR-data outside the reference region is undersampled in k-space in phase-encoding direction; - combining the fully sampled MR data from the reference regions of each slice to generate a reference data set comprising attaching the fully sampled MR data of each reference region directly adjacent to each other in a matrix, wherein the MR data of each slice is located in the matrix according to the order of the corresponding slices in slice-selection direction; and - reconstructing an MR image of each slice using the MR data of the corresponding slice and the reference data set based on a GRAPPA or a CS/SENSE technique comprising determining GRAPPA kernels or coil sensitivities for CS/SENSE from the reference data set.
An isolated and purified nucleic acid molecule selected from the group consisting of a) the nucleic acid molecule of SEQ ID No. 26 or SEQ ID No. 31, and b) a nucleic acid molecule with a degree of identity of more than 90% to the whole length nucleic acid molecule of any one of SEQ ID No. 26 and 31, wherein the nucleic acid molecule has a regulatory sequence which directs embryo sac-specific expression of genes of interest in plants. a) the nucleic acid molecule of SEQ ID No. 26 or SEQ ID No. 31, and b) a nucleic acid molecule with a degree of identity of more than 90% to the whole length nucleic acid molecule of any one of SEQ ID No. 26 and 31,
A wound closure device comprising: at least one fiber having a proximal end and a distal end, the at least one fiber defining a longitudinal axis (A-A); a plurality of segments disposed thereon the at least one fiber, wherein each of the plurality of segments comprises: at least one surface feature extending generally away from the longitudinal axis (A-A) and at least one compressible or expandable through-hole formed therethrough, the surface features being configured to interface with the through-holes of the segments; and at least one knot, bumper, or spacer disposed thereon the fiber and therebetween at least one of the plurality of segments, wherein the proximal end of the fiber is configured and dimensioned to pass through body tissue and thereafter be selectively passed through the at least one preformed through-hole, such that the at least one surface feature also passes through the at least one preformed through-hole and is secured therein via a frictional fit after tension is applied to the wound closure device. at least one fiber having a proximal end and a distal end, the at least one fiber defining a longitudinal axis (A-A); a plurality of segments disposed thereon the at least one fiber, wherein each of the plurality of segments comprises: at least one surface feature extending generally away from the longitudinal axis (A-A) and at least one compressible or expandable through-hole formed therethrough, the surface features being configured to interface with the through-holes of the segments; and at least one knot, bumper, or spacer disposed thereon the fiber and therebetween at least one of the plurality of segments, at least one surface feature extending generally away from the longitudinal axis (A-A) and at least one compressible or expandable through-hole formed therethrough, the surface features being configured to interface with the through-holes of the segments; and at least one knot, bumper, or spacer disposed thereon the fiber and therebetween at least one of the plurality of segments, wherein the proximal end of the fiber is configured and dimensioned to pass through body tissue and thereafter be selectively passed through the at least one preformed through-hole, such that the at least one surface feature also passes through the at least one preformed through-hole and is secured therein via a frictional fit after tension is applied to the wound closure device.
A device for removing air from a container, the container comprising a base and at least one wall extending there from to define an enclosure with an opening opposite the base, the device comprising: a support element configured to allow a user to hold and move the device within the enclosure in a push/pull mouvement; a flexible airtight sealing element attached to or part of the support element and projecting from the edges of the support element so that the sealing element is in continuous sealing contact with an inner surface of the at least one wall when the device is within the enclosure and generally perpendicular to the wall; a valve mechanism arranged such that air can pass through and/or around the device and the device can be put in motion within the enclosure only when actuated by a user; a handle to hold and move the device within a container in a push/pull movement, wherein the valve mechanism comprises valve apertures arranged within the support element and/or sealing element and wherein the handle is foldable flat onto the support element, characterized in that the handle is formed from foldable wings (41, 42) which define the handle in their open position, the wings exposing the apertures in their open position, but covering the apertures in their closed flat positions. a support element configured to allow a user to hold and move the device within the enclosure in a push/pull mouvement; a flexible airtight sealing element attached to or part of the support element and projecting from the edges of the support element so that the sealing element is in continuous sealing contact with an inner surface of the at least one wall when the device is within the enclosure and generally perpendicular to the wall; a valve mechanism arranged such that air can pass through and/or around the device and the device can be put in motion within the enclosure only when actuated by a user; a handle to hold and move the device within a container in a push/pull movement, wherein the valve mechanism comprises valve apertures arranged within the support element and/or sealing element and wherein the handle is foldable flat onto the support element, characterized in that the handle is formed from foldable wings (41, 42) which define the handle in their open position, the wings exposing the apertures in their open position, but covering the apertures in their closed flat positions.
A vehicle, preferably a working machine, comprising a wheel axle fluid circuit adapted to feed wheel axle fluid to one or more wheel axles (12, 14) of said vehicle, said vehicle comprising a control unit, said vehicle comprising a wheel axle fluid circuit adapted to feed wheel axle fluid to one or more wheel axles (12, 14) of said vehicle, said vehicle further comprising a propulsion assembly adapted to propel said vehicle, said control unit being adapted to, on the basis of at least the following: - information indicative of said propulsion assembly being inactive, - information indicative of an expected time range until an expected operation start time of said vehicle, and - information associated with a temperature of said wheel axle fluid, determine whether or not a conditioning procedure, during which the temperature of said wheel axle fluid is increased as compared to a present temperature of said wheel axle fluid, should be initiated for said wheel axle fluid, characterized in that said information associated with the temperature of said wheel axle fluid comprises information as regards a temperature ambient of said vehicle. - information indicative of said propulsion assembly being inactive, - information indicative of an expected time range until an expected operation start time of said vehicle, and - information associated with a temperature of said wheel axle fluid,
A mirror assembly for precise control of a light beam, comprising: a first mount including a first axis of rotation; a first mirror (104, 104a) coupled to the first mount that includes a reflective surface (106, 106a) having a surface plane that is nearly perpendicular to a plane of the first axis of rotation; wherein the surface plane is inclined up to approximately 4 degrees from a plane perpendicular to the axis of rotation; and a light source configured to aim a beam at the reflective surface (106, 106a), wherein rotation of the first mount translates the beam over a first controllable distance on a target surface (111a, 117), characterized in that the axis of rotation is offset from a center of the first mirror (104, 104a). a first mount including a first axis of rotation; a first mirror (104, 104a) coupled to the first mount that includes a reflective surface (106, 106a) having a surface plane that is nearly perpendicular to a plane of the first axis of rotation; wherein the surface plane is inclined up to approximately 4 degrees from a plane perpendicular to the axis of rotation; and a light source configured to aim a beam at the reflective surface (106, 106a), wherein rotation of the first mount translates the beam over a first controllable distance on a target surface (111a, 117), characterized in that the axis of rotation is offset from a center of the first mirror (104, 104a).
A method of manufacturing a packaging container, which comprises preparing a web-like laminated packaging material having the predetermined crease lines, punching the web-like laminated packaging material for every predetermined interval to form pouring holes, arranging a first mold having the predetermined cavity to cover the inner side of the pouring hole corresponding to the inner side of the container, arranging a second mold having the predetermined cavity to cover the outside of the pouring hole corresponding to the outside of the container, injecting melt resin from a cavity gate into the cavities to form a spout tube and a spout of a spout closure and a sealed partition, forming the web-like laminated packaging material into tube shape to form an overlap of both edges of the packaging material, longitudinal sealing to the longitudinal direction at the overlap to form a longitudinal seal zone, filling up with contents in the tube shaped packaging material, pressing the packaging material to the transverse direction for each predetermined interval, sealing with the transversal sealing to form a transversal seal zone, cutting the packaging material at the transversal seal zone to obtain a pillow-shaped preformed body, folding up along crease lines to obtain the packaging container, and arranging and sealing a cap to cover the spout, the spout closure having the spout having the spout tube provided in the pouring hole of the packaging container and a base integrated with the spout tube and joined to the container panel abound the pouring hole, characterized in that the spout closure has the breakable sealed partition provided with the bottom of the spout tube to seal the spout, the cap covering the spout is detachably inserted in the spout tube, and the cap has a bottom partition adhering to and sealed with the top face of the sealed partition on the undersurface of the cap in order to break the sealed partition, and a pull ring pulling up the inserted cap.
A solid-solution method for producing an iron-containing active material for a metal electrode of a rechargeable oxide-ion battery cell comprising the steps: i) providing iron-containing specie (α); ii) providing supporting specie (β) containing an element of X, where X is not iron; iii) mixing the Fe-containing specie (α) and the supporting specie (β) to produce a α+β mixture; iv) subjecting the mixture to a high temperature treatment for a period of time effective to produce a solid solution of Fe-X-O, where Fe and X are homogeneously distributed at the microscopic level, wherein the high temperature treatment is conducted in the temperature between 500°C and 2,500°C; and v) reducing the solid solution of Fe-X-O to provide metallic Fe interwoven with X oxide(s), where the reduction causes loss of oxygen to produce porous Fe-containing active material. i) providing iron-containing specie (α); ii) providing supporting specie (β) containing an element of X, where X is not iron; iii) mixing the Fe-containing specie (α) and the supporting specie (β) to produce a α+β mixture; iv) subjecting the mixture to a high temperature treatment for a period of time effective to produce a solid solution of Fe-X-O, where Fe and X are homogeneously distributed at the microscopic level, wherein the high temperature treatment is conducted in the temperature between 500°C and 2,500°C; and v) reducing the solid solution of Fe-X-O to provide metallic Fe interwoven with X oxide(s), where the reduction causes loss of oxygen to produce porous Fe-containing active material.
A lawn mower including a motor configured to rotate a cutter blade, the lawn mower comprising: a cutter housing including an inner hole through which an output shaft of the motor is inserted and which allows passage of water; and a motor cover disposed above the cutter housing with a space interposed therebetween, the motor cover covering the motor, wherein the motor cover has formed therein at least one cooling air exit port (84L, 84R) configured to discharge cooling air in the motor cover to outside, and the at least one cooling air exit port (84L, 84R) is positioned inside a peripheral wall of the motor cover in a radial direction of the motor, characterized in that the at least one cooling air exit port (84L, 84R) is positioned outside the inner hole of the cutter housing in the radial direction of the motor, thereby the at least one cooling air exit port (84L, 84R) being covered by the cutter housing from below. a cutter housing including an inner hole through which an output shaft of the motor is inserted and which allows passage of water; and a motor cover disposed above the cutter housing with a space interposed therebetween, the motor cover covering the motor, wherein the motor cover has formed therein at least one cooling air exit port (84L, 84R) configured to discharge cooling air in the motor cover to outside, and the at least one cooling air exit port (84L, 84R) is positioned inside a peripheral wall of the motor cover in a radial direction of the motor, characterized in that the at least one cooling air exit port (84L, 84R) is positioned outside the inner hole of the cutter housing in the radial direction of the motor, thereby the at least one cooling air exit port (84L, 84R) being covered by the cutter housing from below.
A pushing handle for shopping carts, which has a magnifying glass, wherein provision is made in the handle for a storage location, at which the magnifying glass is protected against environmental influences, characterized in that provision is made for a mechanism, by means of which the magnifying glass can be moved out of the storage location and in that the magnifying glass can only be moved when a deposit piece or a deposit coin is inserted into the mechanism.
Fixing element for anchoring in a drilled hole, - having a shank portion and an expansion element, - there being arranged on the shank portion an expander body for expanding the expansion element, - the expansion element having a plurality of arcuate expansion lobes, - each expansion lobe being formed by two bridging portions connected by a yoke, - the bridging portions of the expansion lobes together generating an envelope surface of the expansion element, which envelope surface has rotational symmetry about the longitudinal axis of the fixing element, characterised in that the yoke of at least one expansion lobe has an arcuate curvature, which projects beyond the envelope surface in the radial direction. - having a shank portion and an expansion element, - there being arranged on the shank portion an expander body for expanding the expansion element, - the expansion element having a plurality of arcuate expansion lobes, - each expansion lobe being formed by two bridging portions connected by a yoke, - the bridging portions of the expansion lobes together generating an envelope surface of the expansion element, which envelope surface has rotational symmetry about the longitudinal axis of the fixing element,
An air seal assembly for a gas turbine, the air seal assembly comprising: a flow path platform; a casing disposed radially outside the flow path platform; and an annular finger seal mounted to the casing and disposed between the flow path platform and the casing, the annular finger seal comprising a first circumferential portion mounted to the casing, a second circumferential portion extending from the first circumferential portion, and a third circumferential portion extending from the second circumferential portion and contacting an outer surface of the flow path platform, the third circumferential portion comprising a plurality of air cooling holes configured to direct a cooling air stream onto the flow path platform, wherein the annular finger seal further comprises a fillet disposed at an interface between the second circumferential portion and the third circumferential portion of the annular finger seal, the air seal assembly being characterised in that one or more of the fillet and the second circumferential portion contact a dogbone seal carrier disposed axially aft of the first circumferential portion. a flow path platform; a casing disposed radially outside the flow path platform; and an annular finger seal mounted to the casing and disposed between the flow path platform and the casing, the annular finger seal comprising a first circumferential portion mounted to the casing, a second circumferential portion extending from the first circumferential portion, and a third circumferential portion extending from the second circumferential portion and contacting an outer surface of the flow path platform, the third circumferential portion comprising a plurality of air cooling holes configured to direct a cooling air stream onto the flow path platform, wherein the annular finger seal further comprises a fillet disposed at an interface between the second circumferential portion and the third circumferential portion of the annular finger seal, the air seal assembly being characterised in that one or more of the fillet and the second circumferential portion contact a dogbone seal carrier disposed axially aft of the first circumferential portion.