mhurhangee/ep-ind-claims huggingface dataset:
A method, performed by a network node, for scheduling resources for a user equipment, UE, to transmit data in a communication network, the method comprising: determining a number of Transmission Time Interval, TTI, -bundles based at least on an amount of data to be transmitted from the UE, wherein the number of TTI-bundles is a plurality of TTI-bundles; and sending a single control message to the UE, the control message indicating a uplink scheduling grant for transmissions of the determined number of TTI-bundles, wherein the control message is one of a Downlink Control Information format 0, DCIO, and DCI format 4, DCI4, which includes a Resource Indication Value, RIV, field, wherein the RIV field provides a TTI-bundle Scheduling Number, TBSN, which indicates the number of determined TTI-bundles, and wherein the TBSN is provided by an unused range of values of the RIV field. determining a number of Transmission Time Interval, TTI, -bundles based at least on an amount of data to be transmitted from the UE, wherein the number of TTI-bundles is a plurality of TTI-bundles; and sending a single control message to the UE, the control message indicating a uplink scheduling grant for transmissions of the determined number of TTI-bundles, wherein the control message is one of a Downlink Control Information format 0, DCIO, and DCI format 4, DCI4, which includes a Resource Indication Value, RIV, field, wherein the RIV field provides a TTI-bundle Scheduling Number, TBSN, which indicates the number of determined TTI-bundles, and wherein the TBSN is provided by an unused range of values of the RIV field.
A method for operating with bandwidth parts, BWPs, in a wireless device operating in a wireless communication network and configured to selectively operate in one or more BWPs configured by the wireless communication network, the method comprising: monitoring an active BWP of the one or more BWPs for a downlink control channel the method is further characterized by: detecting a reset event triggering a reset of a Medium Access Control, MAC, entity in the wireless device; and responsive to detecting the reset event, switching the active BWP to a predetermined default BWP of the one or more BWPs. monitoring an active BWP of the one or more BWPs for a downlink control channel the method is further characterized by: detecting a reset event triggering a reset of a Medium Access Control, MAC, entity in the wireless device; and responsive to detecting the reset event, switching the active BWP to a predetermined default BWP of the one or more BWPs.
Vacuum-coating system for coating a strip-shaped material, in particular of metal, comprising a conveying section with transport means, in particular in the form of rollers, on which the strip-shaped material is movable in a transport direction, wherein the transport means of the conveying section are so constructed that the strip-shaped material of metal is movable thereon in the transport direction with its width dimension in horizontal orientation, and a coating chamber in which a vacuum can be generated, wherein the coating chamber has an inlet area and an outlet area and can thereby be transited by the strip-shaped material along or on the conveying section in the transport direction, wherein as viewed in the conveying direction of the strip-shaped material at least one trimming shears, by which the strip shaped material is trimmed at at least one strip edge, is arranged upstream of the coating chamber, characterised in that the trimming shears are arranged in such a way as to produce a constant width for the strip-shaped material over the length dimension thereof, and as viewed in transport direction of the strip-shaped material a strip position regulating device by which the strip-shaped material can be aligned with respect to the centre of the conveying section is arranged upstream of the trimming shears. a conveying section with transport means, in particular in the form of rollers, on which the strip-shaped material is movable in a transport direction, wherein the transport means of the conveying section are so constructed that the strip-shaped material of metal is movable thereon in the transport direction with its width dimension in horizontal orientation, and a coating chamber in which a vacuum can be generated, wherein the coating chamber has an inlet area and an outlet area and can thereby be transited by the strip-shaped material along or on the conveying section in the transport direction, wherein as viewed in the conveying direction of the strip-shaped material at least one trimming shears, by which the strip shaped material is trimmed at at least one strip edge, is arranged upstream of the coating chamber, characterised in that the trimming shears are arranged in such a way as to produce a constant width for the strip-shaped material over the length dimension thereof, and as viewed in transport direction of the strip-shaped material a strip position regulating device by which the strip-shaped material can be aligned with respect to the centre of the conveying section is arranged upstream of the trimming shears.
Holding device intended to hold, on an placement vessel of flexible line in a marine environment, a downstream connection fitting end of an underwater flexible line partially immersed, said flexible line having a longitudinal axis and said downstream connection fitting end having a shoulder extending radially with respect to said longitudinal axis, said holding device comprising: a holding table having a central passage through which said flexible line is intended to extend and, a plurality of stop members (70, 72) arranged about said central passage and movable between an open position where they are spaced apart from each other and a closed position where they are brought closer from each other, each one of said stop members (70, 72) having a bearing span on which said shoulder of said downstream connection fitting end is intended to rest when said stop members (70, 72) are in a closed position so as to hold said downstream connection fitting end through said central passage; further comprising at least a driving assembly configured to drive said stop members (70, 72) between said open position and said closed position; characterized in that said holding table has a plurality of radial cylindrical housings opening into said central passage in which said stop members (70, 72) are arranged, the stop members (70, 72) being movable in translation along radial directions about the central passage, and parallel to the middle plan Pm of the holding table. a holding table having a central passage through which said flexible line is intended to extend and, a plurality of stop members (70, 72) arranged about said central passage and movable between an open position where they are spaced apart from each other and a closed position where they are brought closer from each other, each one of said stop members (70, 72) having a bearing span on which said shoulder of said downstream connection fitting end is intended to rest when said stop members (70, 72) are in a closed position so as to hold said downstream connection fitting end through said central passage; further comprising at least a driving assembly configured to drive said stop members (70, 72) between said open position and said closed position; characterized in that said holding table has a plurality of radial cylindrical housings opening into said central passage in which said stop members (70, 72) are arranged, the stop members (70, 72) being movable in translation along radial directions about the central passage, and parallel to the middle plan Pm of the holding table.
A method for a user equipment, UE, multiplexing uplink control information, UCI, the method comprising: grouping physical uplink control channel, PUCCH, resources for Channel State Information, CSI, and a Scheduling Request, SR, with a low priority and PUCCH resources for a slot-based hybrid automatic repeat request acknowledgement, HARQ-ACK, into a first group of PUCCH resources; grouping PUCCH resources for CSI and a SR with a high priority and PUCCH resources for a sub-slot based HARQ-ACK into a second group of PUCCH resources; determining a first set of PUCCH resources in a slot from the first group of PUCCH resources; obtaining first multiplexed UCI of a first PUCCH resource by performing a first UCI multiplexing procedure for UCI corresponding to the first set of PUCCH resources in the slot; determining a second set of PUCCH resources in a sub-slot of the slot from the second group of PUCCH resources; obtaining second multiplexed UCI of a second PUCCH resource by performing a second UCI multiplexing procedure for UCI corresponding to the second set of PUCCH resources in the sub-slot of the slot; and transmitting the first multiplexed UCI of the first PUCCH resource in response to the first PUCCH resource not overlapping the second PUCCH resource. grouping physical uplink control channel, PUCCH, resources for Channel State Information, CSI, and a Scheduling Request, SR, with a low priority and PUCCH resources for a slot-based hybrid automatic repeat request acknowledgement, HARQ-ACK, into a first group of PUCCH resources; grouping PUCCH resources for CSI and a SR with a high priority and PUCCH resources for a sub-slot based HARQ-ACK into a second group of PUCCH resources; determining a first set of PUCCH resources in a slot from the first group of PUCCH resources; obtaining first multiplexed UCI of a first PUCCH resource by performing a first UCI multiplexing procedure for UCI corresponding to the first set of PUCCH resources in the slot; determining a second set of PUCCH resources in a sub-slot of the slot from the second group of PUCCH resources; obtaining second multiplexed UCI of a second PUCCH resource by performing a second UCI multiplexing procedure for UCI corresponding to the second set of PUCCH resources in the sub-slot of the slot; and transmitting the first multiplexed UCI of the first PUCCH resource in response to the first PUCCH resource not overlapping the second PUCCH resource.
A system (100; 200; 300; 400) comprising: a recorder (104, 106, 108; 220; 320; 430) configured to record audio and/or video of a subject of interest from a point-of-view of the recorder and output a recording of the subject of interest; a non-contact sensor (102; 210, 212, 214; 310; 410) comprising a laser vibrometer associated with the recorder, the non-contact sensor configured to measure a movement and/or a vibration of the subject of interest from substantially the same point-of-view as the point-of-view of the recorder and at the same time as the recorder records the audio and/or the video; and a controller (110; 250) configured to transform the movement and/or the vibration of the subject of interest measured by the non-contact sensor into a tactile data stream for sending to a haptic display device (130; 240; 330; 440) for playback with the recording of the subject of interest by the recorder and providing haptic effects corresponding to the movement and/or the vibration to a user of the haptic display device in synchronization with the recording. a recorder (104, 106, 108; 220; 320; 430) configured to record audio and/or video of a subject of interest from a point-of-view of the recorder and output a recording of the subject of interest; a non-contact sensor (102; 210, 212, 214; 310; 410) comprising a laser vibrometer associated with the recorder, the non-contact sensor configured to measure a movement and/or a vibration of the subject of interest from substantially the same point-of-view as the point-of-view of the recorder and at the same time as the recorder records the audio and/or the video; and a controller (110; 250) configured to transform the movement and/or the vibration of the subject of interest measured by the non-contact sensor into a tactile data stream for sending to a haptic display device (130; 240; 330; 440) for playback with the recording of the subject of interest by the recorder and providing haptic effects corresponding to the movement and/or the vibration to a user of the haptic display device in synchronization with the recording.
A method for manufacturing a light emitting device wherein a light emitting element is flip-chip mounted on a support member, the method comprising: (a) preparing a structure including a substrate, a semiconductor layer formed on the substrate, and a p-side electrode and an n-side electrode formed on the semiconductor layer, wherein the semiconductor layer includes a first semiconductor layer and a second semiconductor layer, the n-side electrode is electrically connected to the first semiconductor layer, and the p-side electrode is electrically connected to the second semiconductor layer; (b) preparing a support member including a p-side wiring and an n-side wiring on the same surface thereof; (c) electrically connecting the p-side electrode and the n-side electrode of the structure to the p-side wiring and the n-side wiring of the support member, respectively, using anisotropic conductive material containing conductive particles and a first resin; and then (d) removing the substrate from the structure to form the light emitting element, characterized in that the n-side electrode corresponds to a metal member formed on an opposite surface of the semiconductor layer to the substrate so as to overlap with the first semiconductor layer and the second semiconductor layer. (a) preparing a structure including a substrate, a semiconductor layer formed on the substrate, and a p-side electrode and an n-side electrode formed on the semiconductor layer, wherein the semiconductor layer includes a first semiconductor layer and a second semiconductor layer, the n-side electrode is electrically connected to the first semiconductor layer, and the p-side electrode is electrically connected to the second semiconductor layer; (b) preparing a support member including a p-side wiring and an n-side wiring on the same surface thereof; (c) electrically connecting the p-side electrode and the n-side electrode of the structure to the p-side wiring and the n-side wiring of the support member, respectively, using anisotropic conductive material containing conductive particles and a first resin; and then (d) removing the substrate from the structure to form the light emitting element,
Articulation device between arms of a rod assembly of a folding roof for a passenger vehicle, which roof can be adjusted from a closed position which spans a passenger compartment into an open position put down in a rear space, and vice versa, the arms being held in position by means of a rivet device which comprises a blind rivet and a rivet shaft which extends through holes of the arms, characterised in that a first arm has a substantially cylindrical bearing connection piece having a hole, the bearing connection piece extending through a bearing hole of a second arm, the blind rivet being in abutment against a stop of the second arm by means of a cylindrical collar of a rivet sleeve by means of at least one securing disc, and a gudgeon head of the blind rivet being moved towards a shaft stop in the hole of the bearing connection piece.
A clock distribution system comprising: at least one resonator spine (16, 54, 106, 156, 206, 256, 306, 356, 358, 406, 408, 456, 458, 506, 508, 556, 558, 606, 608, 656) that propagates a sinusoidal clock signal; at least one resonator rib (18, 56, 104, 154, 204, 254, 302, 304, 352, 354, 402, 404, 452, 454, 502, 504, 552, 554, 602, 604, 652, 654) conductively coupled to the at least one resonator spine (16, 54, 106, 156, 206, 256, 306, 356, 358, 406, 408, 456, 458, 506, 508, 556, 558, 606, 608, 656) and arranged as a standing wave resonator; and at least one transformer-coupling line (20, 60, 212, 262, 264, 316, 370, 420, 422, 460, 520, 570, 620, 622, 670, 672, 674, 676, 678, 680, 758), each of the at least one transformer-coupling line (20, 60, 212, 262, 264, 316, 370, 420, 422, 460, 520, 570, 620, 622, 670, 672, 674, 676, 678, 680) being conductively coupled to an associated circuit (14, 58) and having a plurality of inductive couplings (62, 214, 216) to the at least one resonator rib (18, 56, 104, 154, 204, 254, 302, 304, 352, 354, 402, 404, 452, 454, 502, 504, 552, 554, 602, 604, 652, 654) to inductively generate a clock current (I CLK) corresponding to the sinusoidal clock signal via each of the plurality of inductive couplings (62, 214, 216) in an additive manner to provide functions for the associated circuit (14, 58). at least one resonator spine (16, 54, 106, 156, 206, 256, 306, 356, 358, 406, 408, 456, 458, 506, 508, 556, 558, 606, 608, 656) that propagates a sinusoidal clock signal; at least one resonator rib (18, 56, 104, 154, 204, 254, 302, 304, 352, 354, 402, 404, 452, 454, 502, 504, 552, 554, 602, 604, 652, 654) conductively coupled to the at least one resonator spine (16, 54, 106, 156, 206, 256, 306, 356, 358, 406, 408, 456, 458, 506, 508, 556, 558, 606, 608, 656) and arranged as a standing wave resonator; and at least one transformer-coupling line (20, 60, 212, 262, 264, 316, 370, 420, 422, 460, 520, 570, 620, 622, 670, 672, 674, 676, 678, 680, 758), each of the at least one transformer-coupling line (20, 60, 212, 262, 264, 316, 370, 420, 422, 460, 520, 570, 620, 622, 670, 672, 674, 676, 678, 680) being conductively coupled to an associated circuit (14, 58) and having a plurality of inductive couplings (62, 214, 216) to the at least one resonator rib (18, 56, 104, 154, 204, 254, 302, 304, 352, 354, 402, 404, 452, 454, 502, 504, 552, 554, 602, 604, 652, 654) to inductively generate a clock current (I CLK) corresponding to the sinusoidal clock signal via each of the plurality of inductive couplings (62, 214, 216) in an additive manner to provide functions for the associated circuit (14, 58).
A compression train comprising an engine, a first centrifugal compressor driven by the engine and a second centrifugal compressor driven by the engine; wherein the first centrifugal compressor is housed inside one case; wherein the second centrifugal compressor is housed inside one case; wherein the first centrifugal compressor has a first inlet fluidly connected to a line of high molecular weight gas of a molecular weight higher than 40; wherein the second centrifugal compressor has a second inlet fluidly connected to a line of low molecular weight gas of a molecular weight between 20 and 30; wherein the second centrifugal compressor is arranged to provide a compression ratio higher than 10:1, preferably higher than 15:1; characterized in that the second centrifugal compressor is mechanically connected to the first centrifugal compressor through a gear box having a transmission ratio higher than 2:1. wherein the first centrifugal compressor is housed inside one case; wherein the second centrifugal compressor is housed inside one case; wherein the first centrifugal compressor has a first inlet fluidly connected to a line of high molecular weight gas of a molecular weight higher than 40; wherein the second centrifugal compressor has a second inlet fluidly connected to a line of low molecular weight gas of a molecular weight between 20 and 30; wherein the second centrifugal compressor is arranged to provide a compression ratio higher than 10:1, preferably higher than 15:1; characterized in that the second centrifugal compressor is mechanically connected to the first centrifugal compressor through a gear box having a transmission ratio higher than 2:1.
A pipe adapter for optical flow measurement comprising a fluid pipe that has a flow-through inner flow space, wherein at least one window element transparent to a measurement optics is introduced in the fluid pipe, wherein the fluid pipe is surrounded, at least in the region of the window element, by a pressure-resistant housing by which the window element is mounted in an inner housing space, and with the inner housing space being at least indirectly fluidically interactive and/or in fluidic communication with the inner flow space; wherein the window element is formed by means of a cylindrical pipe section composed of a transparent material; and wherein the cylindrical pipe section is connected at at least one end side to the fluid pipe or to the fluid pipes by means of a connector element, characterized in that the connector element is fluid-permeable. the fluid pipe is surrounded, at least in the region of the window element, by a pressure-resistant housing by which the window element is mounted in an inner housing space, and with the inner housing space being at least indirectly fluidically interactive and/or in fluidic communication with the inner flow space; wherein the window element is formed by means of a cylindrical pipe section composed of a transparent material; and wherein the cylindrical pipe section is connected at at least one end side to the fluid pipe or to the fluid pipes by means of a connector element, characterized in that the connector element is fluid-permeable.
A method for producing a reduced-calorie fruit juice or vegetable juice beverage, comprising treating fruit juice or vegetable juice with a crude enzyme preparation of fructosyl transferase having substantially no pectinase activity, wherein the crude enzyme preparation is regarded as having substantially no pectinase activity, when fructo-oligosaccharide is produced at a proportion of 10% or more of the saccharide composition and, additionally, when the turbidity after treatment is maintained at 35% or more of the turbidity before treatment.
A LED element comprising an n-type semiconductor layer and a p-type semiconductor layer, comprising: an n-type electrode connected to the n-type semiconductor layer; a p-type electrode connected to the p-type semiconductor layer; and a structure disposed between the n-type electrode and the p-type electrode to separate the n-type electrode and the p-type electrode, wherein the structure is made of an insulating material, and wherein a first side surface of the structure adjacent to the p-type electrode has an inverted taper shape and a second side surface of the structure adjacent to the n-type electrode has an inverted taper shape, wherein the structure overlaps partly with the n-type electrode and/or the p-type electrode, and characterized in that the first side surface of the structure directly contacts a top surface of the p-type electrode and/or the second side surface of the structure directly contacts a top surface of the n-type electrode. an n-type electrode connected to the n-type semiconductor layer; a p-type electrode connected to the p-type semiconductor layer; and a structure disposed between the n-type electrode and the p-type electrode to separate the n-type electrode and the p-type electrode, wherein the structure is made of an insulating material, and wherein a first side surface of the structure adjacent to the p-type electrode has an inverted taper shape and a second side surface of the structure adjacent to the n-type electrode has an inverted taper shape, wherein the structure overlaps partly with the n-type electrode and/or the p-type electrode, and characterized in that the first side surface of the structure directly contacts a top surface of the p-type electrode and/or the second side surface of the structure directly contacts a top surface of the n-type electrode.