mhurhangee/ep-ind-claims huggingface dataset:
A terminal apparatus (102, 202) comprising: a higher-layer processor configured to configure a short transmission timing interval, sTTI, for a first serving cell; a physical uplink channel transmitter (261, 267) configured to transmit a physical uplink control channel, PUCCH, on the first serving cell; and a short physical uplink channel transmitter (263, 265) configured to transmit a short physical uplink control channel, SPUCCH, on the first serving cell; wherein in a case of a collision between the PUCCH and the SPUCCH in a subframe, the transmitters are further configured to drop the PUCCH and transmit the SPUCCH, the SPUCCH carrying both a hybrid automatic repeat request acknowledgment, HARQ-ACK, response associated with the PUCCH and a HARQ-ACK response associated with the SPUCCH. a higher-layer processor configured to configure a short transmission timing interval, sTTI, for a first serving cell; a physical uplink channel transmitter (261, 267) configured to transmit a physical uplink control channel, PUCCH, on the first serving cell; and a short physical uplink channel transmitter (263, 265) configured to transmit a short physical uplink control channel, SPUCCH, on the first serving cell; wherein in a case of a collision between the PUCCH and the SPUCCH in a subframe, the transmitters are further configured to drop the PUCCH and transmit the SPUCCH, the SPUCCH carrying both a hybrid automatic repeat request acknowledgment, HARQ-ACK, response associated with the PUCCH and a HARQ-ACK response associated with the SPUCCH.
A method implemented in a client device and comprising: receiving a first plurality of packets from a server, the first plurality of packets carrying video frames of video content; applying a first latency value to the first plurality of packets before decoding and displaying; sending a request message to the server, the request message comprising first information indicating a requested latency value determined based on a frame pace variation, the frame pace variation being a variation of a pace at which the video frames are any of received, extracted from a receiver buffer and decoded; receiving a response message from the server, the response message comprising second information indicating a second latency value; and applying the second latency value to a second plurality of packets before decoding and displaying, the second plurality of packets being received subsequent to the first plurality of packets. receiving a first plurality of packets from a server, the first plurality of packets carrying video frames of video content; applying a first latency value to the first plurality of packets before decoding and displaying; sending a request message to the server, the request message comprising first information indicating a requested latency value determined based on a frame pace variation, the frame pace variation being a variation of a pace at which the video frames are any of received, extracted from a receiver buffer and decoded; receiving a response message from the server, the response message comprising second information indicating a second latency value; and applying the second latency value to a second plurality of packets before decoding and displaying, the second plurality of packets being received subsequent to the first plurality of packets.
A computer-implemented method for selecting one of two values stored in two different registers from a selection bit, the method comprising: - concatenating the two values stored in the two registers so as to obtain a concatenated word presenting said two values in two distinct portions of the concatenated word, then - rotating (21, 21a, 21b) said concatenated word according to the value of the selection bit so as to position the selected value in a given portion of the concatenated word from said two portions, then - deleting of the unselected value in the concatenated word so as to keep only the selected value in the concatenated word by eliminating the unselected value from the concatenated word. - concatenating the two values stored in the two registers so as to obtain a concatenated word presenting said two values in two distinct portions of the concatenated word, then - rotating (21, 21a, 21b) said concatenated word according to the value of the selection bit so as to position the selected value in a given portion of the concatenated word from said two portions, then - deleting of the unselected value in the concatenated word so as to keep only the selected value in the concatenated word by eliminating the unselected value from the concatenated word.
A swash plate for a swash plate compressor so constructed that inside a housing where a refrigerant is present, said refrigerant is compressed and expanded by converting a rotational motion of said swash plate mounted perpendicularly and obliquely on a rotational shaft by directly fixing said swash plate to said rotational shaft or indirectly fixing said swash plate to said rotational shaft through a coupling member into a reciprocating motion of a piston through a shoe which slides on said swash plate; wherein a base material of said swash plate consists of a disk-shaped steel plate;-a resin film containing matrix resin and at least fluororesin and graphite is formed on said sliding contact surface of said swash plate on which said shoe slides, said resin film being directly on said steel plate without an intermediate layer; characterized in that said resin film contains 25 to 70 parts by weight of said fluororesin and 1 to 20 parts by weight of said graphite for 100 parts by weight of said matrix resin and has a tensile shear adhesive strength of not less than 25 MPa, such that said swash plate has cavitation resistance.
A passenger seat comprising: a tray table assembly comprising: an upper cover; a lower cover; and a support structure disposed between the upper cover and the lower cover, characterised in that: the support structure comprising a plurality of upper protrusions extending toward and in contact with an inner surface of the upper cover and a plurality of lower protrusions extending toward and in contact with an inner surface of the lower cover, wherein the support structure provides structural rigidity to the tray table assembly and is formed of a metallic material so as to dissipate heat. a tray table assembly comprising: an upper cover; a lower cover; and a support structure disposed between the upper cover and the lower cover, characterised in that: the support structure comprising a plurality of upper protrusions extending toward and in contact with an inner surface of the upper cover and a plurality of lower protrusions extending toward and in contact with an inner surface of the lower cover, an upper cover; a lower cover; and a support structure disposed between the upper cover and the lower cover, characterised in that: the support structure comprising a plurality of upper protrusions extending toward and in contact with an inner surface of the upper cover and a plurality of lower protrusions extending toward and in contact with an inner surface of the lower cover, wherein the support structure provides structural rigidity to the tray table assembly and is formed of a metallic material so as to dissipate heat.
A data center power system, comprising: an electrical power conductor that comprises a live conductor surface and is configured to carry direct current, DC, power from a power source through a human-occupiable workspace of a data center; a grounded conductor positioned in the human-occupiablc workspace apart from the electrical power conductor, wherein the grounded conductor is embeddable within the floor of the data center; a first electrical connector configured to mount to a data center rack that supports a plurality of electronic devices, the first electrical connector moveable to electrically contact the live conductor surface of the electrical power conductor; a second electrical conductor positioned on the rack and configured to electrically contact the grounded conductor, wherein at least a portion of the live conductor surface is exposed to the human occupiable workspace, and wherein the live conductor surface comprises a mesh or planar conductor surface, and the first electrical connector is configured to mount to a top portion of the data center rack. an electrical power conductor that comprises a live conductor surface and is configured to carry direct current, DC, power from a power source through a human-occupiable workspace of a data center; a grounded conductor positioned in the human-occupiablc workspace apart from the electrical power conductor, wherein the grounded conductor is embeddable within the floor of the data center; a first electrical connector configured to mount to a data center rack that supports a plurality of electronic devices, the first electrical connector moveable to electrically contact the live conductor surface of the electrical power conductor; a second electrical conductor positioned on the rack and configured to electrically contact the grounded conductor, wherein at least a portion of the live conductor surface is exposed to the human occupiable workspace, and wherein the live conductor surface comprises a mesh or planar conductor surface, and the first electrical connector is configured to mount to a top portion of the data center rack.
A touch sensor false detection preventing structure for use in an electronic device including a housing that is provided with a through-hole provided area through which a sensor sheet passes, a circuit board that is mounted inside the housing, and a touch panel that is electrically connected to the circuit board by the sensor sheet, characterized in that the touch sensor false detection preventing structure comprises, protruding portions formed on an inner surface at both ends of the through-hole provided area in planar view so as to protrude a predetermined distance, such that movement at a part of both side ends of the sensor sheet is restricted; and ground patterns and an electrode pattern are provided at specific positions of the sensor sheet, such that the protruding portions are configured to make contact with the ground patterns.
A method of encoding an audio signal, the method comprising: receiving (601, 1101) an analysis signal of the audio signal and a low pass filtered analysis signal; responsive to determining to use a combined signal to identify broad peaks and narrow peaks (603, 1107, 1201) combining (605, 1105) the filtered signal with the analysis signal to generate the combined signal by finding a maximum absolute value of the filtered signal and the analysis signal at each index i; and identifying (607, 1109) broad peaks and narrow peaks of the combined signal wherein the peaks are characterized by the index i and a magnitude. receiving (601, 1101) an analysis signal of the audio signal and a low pass filtered analysis signal; responsive to determining to use a combined signal to identify broad peaks and narrow peaks (603, 1107, 1201) combining (605, 1105) the filtered signal with the analysis signal to generate the combined signal by finding a maximum absolute value of the filtered signal and the analysis signal at each index i; and identifying (607, 1109) broad peaks and narrow peaks of the combined signal wherein the peaks are characterized by the index i and a magnitude.
An apparatus comprising: a processor arranged to, exclude resources from a resource set for packets transmission on sidelink based at least on parameters determined according to a latency requirement for the packets, wherein the parameters comprise: a required percentage of a candidate resource in the resource set; a maximum power threshold of interference signal; and a maximum number of times for increasing power threshold of interference signal; wherein the required percentage of the candidate resource in the resource set is determined by a default percentage and a scaling factor for percentage corresponding to the latency requirement for the packets. exclude resources from a resource set for packets transmission on sidelink based at least on parameters determined according to a latency requirement for the packets, wherein the parameters comprise: a required percentage of a candidate resource in the resource set; a maximum power threshold of interference signal; and a maximum number of times for increasing power threshold of interference signal; a required percentage of a candidate resource in the resource set; a maximum power threshold of interference signal; and a maximum number of times for increasing power threshold of interference signal; wherein the required percentage of the candidate resource in the resource set is determined by a default percentage and a scaling factor for percentage corresponding to the latency requirement for the packets.
A system, comprising: a network control entity (191, 192, 193, 194) operable to manage a set of ports from a plurality of ports, each port from the plurality of ports being located at a first access switch from a plurality of access switches (120, 130, 140) or a second access switch from the plurality of access switches, the plurality of access switches configured to be operatively coupled to a switch fabric, the network control entity being located at the first access switch from the plurality of access switches, the set of ports including at least one port located at the first access switch and at least one port located at the second access switch from the plurality of access switches, the network control entity operable to receive a portion of a configuration table from a network management module associated with the set of ports and configured to manage the configuration table, the configuration table is associated with the switch fabric coupled to the plurality of access switches. a network control entity (191, 192, 193, 194) operable to manage a set of ports from a plurality of ports, each port from the plurality of ports being located at a first access switch from a plurality of access switches (120, 130, 140) or a second access switch from the plurality of access switches, the plurality of access switches configured to be operatively coupled to a switch fabric, the network control entity being located at the first access switch from the plurality of access switches, the set of ports including at least one port located at the first access switch and at least one port located at the second access switch from the plurality of access switches, the network control entity operable to receive a portion of a configuration table from a network management module associated with the set of ports and configured to manage the configuration table, the configuration table is associated with the switch fabric coupled to the plurality of access switches.
Method for tracking objects in a target area of a moving organ from sequences of consecutive image frames of such organ, which images are timely separated by a certain time interval, the method comprising the following steps: a) identifying, in at least a reference image of a sequence, at least a first feature and at least a second feature; b) tracking the position of such first and such second feature in other images of the same or another sequence in order to learn motion patterns of such features; c) determining a dynamic geometric relation between such first and second feature; d) determining the position of the first feature in the same or different image frames of the same or different image sequence by using the position of the second feature and the dynamic geometric relation as determined in step c) when such first feature is not visible. a) identifying, in at least a reference image of a sequence, at least a first feature and at least a second feature; b) tracking the position of such first and such second feature in other images of the same or another sequence in order to learn motion patterns of such features; c) determining a dynamic geometric relation between such first and second feature; d) determining the position of the first feature in the same or different image frames of the same or different image sequence by using the position of the second feature and the dynamic geometric relation as determined in step c) when such first feature is not visible.
A method for producing a polymer latex, comprising: an emulsification step of mixing a polymer solution obtained by dissolution of synthetic polyisoprene in an organic solvent, with an aqueous solution comprising 0.1 to 30 parts by weight of a rosinate based on 100 parts by weight in total of the synthetic polyisoprene, and emulsifying the resultant in water to thereby obtain an emulsified liquid; a solvent removal step of removing the organic solvent in the emulsified liquid; and a concentration step of concentrating the emulsified liquid from which the organic solvent is removed, and also adjusting a content rate of the rosinate in the emulsified liquid in the range of 0.1 to 3 parts by weight based on 100 parts by weight of the synthetic polyisoprene in the emulsified liquid, wherein the polymer solution is a polymer solution obtained by dissolving, in an organic solvent, the synthetic polyisoprene obtained by solution polymerization of a monomer comprising isoprene dissolved in an organic solvent using an alkyllithium polymerization catalyst, the amount of water for use in the emulsification step is 50 to 100 parts by weight based on 100 parts by weight of the polymer solution of synthetic polyisoprene, and the emulsified liquid is obtained by directly emulsifying the polymer solution in water without coagulation in the emulsification step. an emulsification step of mixing a polymer solution obtained by dissolution of synthetic polyisoprene in an organic solvent, with an aqueous solution comprising 0.1 to 30 parts by weight of a rosinate based on 100 parts by weight in total of the synthetic polyisoprene, and emulsifying the resultant in water to thereby obtain an emulsified liquid; a solvent removal step of removing the organic solvent in the emulsified liquid; and a concentration step of concentrating the emulsified liquid from which the organic solvent is removed, and also adjusting a content rate of the rosinate in the emulsified liquid in the range of 0.1 to 3 parts by weight based on 100 parts by weight of the synthetic polyisoprene in the emulsified liquid, wherein the polymer solution is a polymer solution obtained by dissolving, in an organic solvent, the synthetic polyisoprene obtained by solution polymerization of a monomer comprising isoprene dissolved in an organic solvent using an alkyllithium polymerization catalyst, the amount of water for use in the emulsification step is 50 to 100 parts by weight based on 100 parts by weight of the polymer solution of synthetic polyisoprene, and the emulsified liquid is obtained by directly emulsifying the polymer solution in water without coagulation in the emulsification step.
A catalyst support composition which comprises: a major amount of titania; and a minor amount of a binder comprising cobalt aluminate, wherein the atomic ratio of cobalt to aluminum in the composition is in the range of 0.25:1 to 2:1. a major amount of titania; and a minor amount of a binder comprising cobalt aluminate,
Positioning system for positioning an object, wherein the positioning system comprises a stacked stage system, wherein the stacked stage system is movable on a reference surface (2, 52), wherein the stacked stage system comprises: - a driving system for driving the stacked stage system; - a first stage that is arranged to be driven along a driving plane parallel to the plane of the reference surface (2, 52); - a main stage for supporting the object, wherein the main stage is arranged on the driven first stage for moving the main stage along the driving plane; and - wherein the main stage is movable with respect to the first stage in an out-of-plane direction perpendicular to the driving plane and wherein the main stage further comprises a support bearing (152, 452, 552) arranged to movably support the main stage on the reference surface (2, 52) in said out-of-plane direction, such that the positional accuracy in the out-of-plane direction is not dependent on the out-of-plane positional accuracy of an underlying stage in the stacked system. - a driving system for driving the stacked stage system; - a first stage that is arranged to be driven along a driving plane parallel to the plane of the reference surface (2, 52); - a main stage for supporting the object, wherein the main stage is arranged on the driven first stage for moving the main stage along the driving plane; and - wherein the main stage is movable with respect to the first stage in an out-of-plane direction perpendicular to the driving plane and wherein the main stage further comprises a support bearing (152, 452, 552) arranged to movably support the main stage on the reference surface (2, 52) in said out-of-plane direction, such that the positional accuracy in the out-of-plane direction is not dependent on the out-of-plane positional accuracy of an underlying stage in the stacked system.
A system for processing user defined data types in a runtime environment for executing an output file created by a compiler from a source code file of an object oriented programming language, the system comprising: an unboxed value type representation specified in the source code file; a boxed value type representation, said boxed value type representation comprising metadata corresponding to the unboxed value type representation for converting the unboxed value type representation into a boxed value type representation, wherein said unboxed value type representation and boxed value type representation are both available at runtime; and output code generated from the compiler, wherein the output code includes both boxed and unboxed value type representations and wherein the compiler detects a discrepancy between value types and thereby generates compiler code in order to convert between the unboxed value type representation and the boxed value type representation, wherein the runtime environment selectively uses the boxed value type representation or the unboxed value type representation in response to a detection of different types in a runtime operation. an unboxed value type representation specified in the source code file; a boxed value type representation, said boxed value type representation comprising metadata corresponding to the unboxed value type representation for converting the unboxed value type representation into a boxed value type representation, wherein said unboxed value type representation and boxed value type representation are both available at runtime; and output code generated from the compiler, wherein the output code includes both boxed and unboxed value type representations and wherein the compiler detects a discrepancy between value types and thereby generates compiler code in order to convert between the unboxed value type representation and the boxed value type representation, wherein the runtime environment selectively uses the boxed value type representation or the unboxed value type representation in response to a detection of different types in a runtime operation.