mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication performed by a user equipment, UE, comprising: identifying two or more bearers for an uplink data transmission from the UE to a base station, each bearer having a bearer type which corresponds to a specific network service configured to be provided by the bearer to meet a quality of service, QoS, for the network service; associating one or more different transmission time interval, TTI, durations with each of the two or more bearers; prioritizing each bearer of the two or more bearers based at least in part on the associated one or more TTI durations or the bearer type; transmitting the uplink data transmission during an uplink TTI based at least in part on the prioritization; determining a second transmission of a second bearer type having a second TTI is to be transmitted prior to completion of an ongoing first transmission of a first bearer type having a first TTI that is longer than the second TTI; determining whether to include or exclude buffer information associated with the ongoing first transmission of the first bearer type in a buffer status report, BSR, based at least in part on a specified configuration or a configuration received in radio resource control, RRC, signaling; and transmitting the BSR in the second transmission. identifying two or more bearers for an uplink data transmission from the UE to a base station, each bearer having a bearer type which corresponds to a specific network service configured to be provided by the bearer to meet a quality of service, QoS, for the network service; associating one or more different transmission time interval, TTI, durations with each of the two or more bearers; prioritizing each bearer of the two or more bearers based at least in part on the associated one or more TTI durations or the bearer type; transmitting the uplink data transmission during an uplink TTI based at least in part on the prioritization; determining a second transmission of a second bearer type having a second TTI is to be transmitted prior to completion of an ongoing first transmission of a first bearer type having a first TTI that is longer than the second TTI; determining whether to include or exclude buffer information associated with the ongoing first transmission of the first bearer type in a buffer status report, BSR, based at least in part on a specified configuration or a configuration received in radio resource control, RRC, signaling; and transmitting the BSR in the second transmission.
A method for assembling a micro-sized fluidic oscillator wash or spray nozzle assembly, comprising: (a) defining within a nozzle housing (110, 252) an interior cavity (112, 262) having an upper slot (178, 268) in fluid communication with a bottom opening which is configured to receive and retain an insert (114, 254) having internal fluid passages defining first and second power nozzles (120, 122, 280, 282) and having an interaction region (154, 284); (b) providing, in said insert, first and second power nozzles configured to receive pressurized fluid from the interior cavity of the housing by way of opposing lateral inlets (120, 122, 280, 282) in the insert for the first and second power nozzles, to produce accelerating first and second fluid flows (150, 152) aimed by the first and second power nozzles toward one another in the interaction region defined within the insert; (c) defining, within said housing a transverse lumen aligned along a spray axis through a sidewall in the housing to form a throat or spray outlet orifice (160, 284), where the cross sectional shape of that throat or outlet orifice is defined by the housing's sidewall and the axially aligned insert, when said insert is inserted in said housing's interior cavity; and (d) inserting said insert into said nozzle housing through said housing interior cavity's bottom opening (132, 266) and forcing the insert upwardly into the upper slot to abut side and top wall surfaces within the housing slot. (a) defining within a nozzle housing (110, 252) an interior cavity (112, 262) having an upper slot (178, 268) in fluid communication with a bottom opening which is configured to receive and retain an insert (114, 254) having internal fluid passages defining first and second power nozzles (120, 122, 280, 282) and having an interaction region (154, 284); (b) providing, in said insert, first and second power nozzles configured to receive pressurized fluid from the interior cavity of the housing by way of opposing lateral inlets (120, 122, 280, 282) in the insert for the first and second power nozzles, to produce accelerating first and second fluid flows (150, 152) aimed by the first and second power nozzles toward one another in the interaction region defined within the insert; (c) defining, within said housing a transverse lumen aligned along a spray axis through a sidewall in the housing to form a throat or spray outlet orifice (160, 284), where the cross sectional shape of that throat or outlet orifice is defined by the housing's sidewall and the axially aligned insert, when said insert is inserted in said housing's interior cavity; and (d) inserting said insert into said nozzle housing through said housing interior cavity's bottom opening (132, 266) and forcing the insert upwardly into the upper slot to abut side and top wall surfaces within the housing slot.
A station, STA, comprising: a transmitter, a receiver and a processor; wherein, the receiver is configured to receive a trigger frame triggering one or more uplink, UL, null data packet, NDP, physical layer convergence protocol, PLCP, protocol data unit, PPDU, frames from one or more STAs, wherein the trigger frame includes an NDP indication in a common information field; in response to the received trigger frame, the processor is configured to generate a first UL NDP PPDU frame comprising short UL control or management information; and the transmitter is configured to transmit the first UL NDP PPDU frame. a transmitter, a receiver and a processor; wherein, the receiver is configured to receive a trigger frame triggering one or more uplink, UL, null data packet, NDP, physical layer convergence protocol, PLCP, protocol data unit, PPDU, frames from one or more STAs, wherein the trigger frame includes an NDP indication in a common information field; in response to the received trigger frame, the processor is configured to generate a first UL NDP PPDU frame comprising short UL control or management information; and the transmitter is configured to transmit the first UL NDP PPDU frame.
A method comprising: (a) providing a vapor phase of a multi-component liquid source comprising a higher-volatility component and a lower volatility component; (b) contacting a pre-loaded carrier gas with the vapor phase to form a gas stream comprising at least the low volatility component of the multi-component liquid source, wherein the pre-loaded carrier gas comprises a carrier gas and at least the higher volatility component of the multi-component liquid source; and (c) delivering the gas stream obtained in step (b) to a critical process or application; wherein the amount of the higher-volatility component in the carrier gas is sufficient to maintain the ratio of components in the multi-component liquid source. (a) providing a vapor phase of a multi-component liquid source comprising a higher-volatility component and a lower volatility component; (b) contacting a pre-loaded carrier gas with the vapor phase to form a gas stream comprising at least the low volatility component of the multi-component liquid source, wherein the pre-loaded carrier gas comprises a carrier gas and at least the higher volatility component of the multi-component liquid source; and (c) delivering the gas stream obtained in step (b) to a critical process or application;
A method for replicating a multithreaded application program using a semi-active or passive replication strategy, wherein said application program executes under the control of an operating system having a thread library, characterised in that the method comprises: at a Primary replica (12, 70, 150), including mutex ordering information in regular multicast request or reply messages specifying the order in which at least two threads in the Primary replica (12, 70, 150) have been granted their claims to mutexes, wherein the mutex ordering information includes a thread identifier, a mutex identifier, and an ordinal claim identifier associated with the thread of the at least two threads that is identified by the thread identifier; at a Backup replica (14, 72, 152), receiving said messages containing said mutex ordering information which determines the order in which at least two threads in said Backup replica (14, 72, 152) are granted mutexes; and wherein said messages are multicast according to a protocol that delivers messages reliably and in the same order from the Primary replica (12, 70, 150) to said Backup replica (14, 72, 152), and wherein a thread in said Backup replica (14, 72, 152) is not allowed to claim a given mutex, for a given claim, until said Backup replica (14, 72, 152) receives a multicast message that contains said mutex ordering information for said claim from said Primary replica (12, 70, 150). at a Primary replica (12, 70, 150), including mutex ordering information in regular multicast request or reply messages specifying the order in which at least two threads in the Primary replica (12, 70, 150) have been granted their claims to mutexes, wherein the mutex ordering information includes a thread identifier, a mutex identifier, and an ordinal claim identifier associated with the thread of the at least two threads that is identified by the thread identifier; at a Backup replica (14, 72, 152), receiving said messages containing said mutex ordering information which determines the order in which at least two threads in said Backup replica (14, 72, 152) are granted mutexes; and wherein said messages are multicast according to a protocol that delivers messages reliably and in the same order from the Primary replica (12, 70, 150) to said Backup replica (14, 72, 152), and wherein a thread in said Backup replica (14, 72, 152) is not allowed to claim a given mutex, for a given claim, until said Backup replica (14, 72, 152) receives a multicast message that contains said mutex ordering information for said claim from said Primary replica (12, 70, 150).
A rubber composition for a tire, wherein, in 100% by mass of a rubber component, the content of isoprene-based rubber is in a range of 25% by mass to 65% by mass and the content of the butadiene rubber is in a range of 35% by mass to 75% by mass and in relation to 100 parts by mass of the rubber component, the content of an oil-extended terpene-based resin having a softening point measured in accordance with JIS K 6220-1:2001 in a range of 10°C to 50°C, wherein the hydroxyl value measured in accordance with JIS K0070:1992 of the non-oil-extended resin component in the oil-extended terpene-based resin is 20 or less, is in a range of 1 part by mass to 30 parts by mass.
A method for enabling a radio operating in a direct mode to track channel timing and support channel scanning, comprising: determining, by a timing non-leading radio operating on a communications channel, a diffusion period during which channel timing is to be propagated from a timing leading radio to timing non-leading radios operating on the communications channel; implementing a first scanning pattern of priority channels, non-priority channels and CT designated channels during the diffusion period to scan a CT designated channel for a control timing message with a timing signal sent from the leading radio, by the non-leading radio, wherein the first scanning pattern involves scanning the CT designated channel during alternate scan intervals and scanning non-priority channels and priority channels at scan intervals not used on the CT designated channel, wherein the control timing message includes a synchronization age field to indicate an elapsed period from when the leading radio last transmitted the control timing message, wherein the value of the synchronization age field is adjusted to reflect a delay in transmission of the control timing message; and scanning, by the non-leading radio outside of the diffusion period, the non-priority channels and the priority channels using a second scanning pattern of priority channels, non-priority channels and CT designated channels that is different from the first scanning pattern, wherein one or more non-leading radios use the timing signal to synchronize transmissions made on the communications channel. determining, by a timing non-leading radio operating on a communications channel, a diffusion period during which channel timing is to be propagated from a timing leading radio to timing non-leading radios operating on the communications channel; implementing a first scanning pattern of priority channels, non-priority channels and CT designated channels during the diffusion period to scan a CT designated channel for a control timing message with a timing signal sent from the leading radio, by the non-leading radio, wherein the first scanning pattern involves scanning the CT designated channel during alternate scan intervals and scanning non-priority channels and priority channels at scan intervals not used on the CT designated channel, wherein the control timing message includes a synchronization age field to indicate an elapsed period from when the leading radio last transmitted the control timing message, wherein the value of the synchronization age field is adjusted to reflect a delay in transmission of the control timing message; and scanning, by the non-leading radio outside of the diffusion period, the non-priority channels and the priority channels using a second scanning pattern of priority channels, non-priority channels and CT designated channels that is different from the first scanning pattern, wherein one or more non-leading radios use the timing signal to synchronize transmissions made on the communications channel.
A probe-type online biomass detection system, comprising a probe-type online biomass detection apparatus and a fermentation tank, an optical fiber probe, a light source and light receiving sensor module, and a signal processing module; the light source and light receiving sensor module comprises a light source, and a light receiving sensor; and measuring light emitted from the light source is received and transmitted to a measurement area through the optical fiber probe, cells in the measurement area has a reflection action to the light, the reflected light returns to the optical fiber probe, and received by the light receiving sensor through the optical fiber probe, a light intensity signal received by the light receiving sensor directly reflects the cell concentration, and the signal processing module calculates the cell concentration according to the light intensity signal received by the light receiving sensor; the optical fiber probe is provided in the fermentation tank; characterised in that an axis of the optical fiber probe is parallel to an axis of the fermentation tank; the optical fiber probe comprises a light guide component, a probe holder, and a bubble filter casing; the bubble filter casing comprises a fluid inlet, at least one fluid outlet, and a measuring cavity; the fluid inlet is arranged at the bottom surface of the bubble filter casing, and the at least one fluid outlet is arranged at a lateral side of the bubble filter casing. the light source and light receiving sensor module comprises a light source, and a light receiving sensor; and measuring light emitted from the light source is received and transmitted to a measurement area through the optical fiber probe, cells in the measurement area has a reflection action to the light, the reflected light returns to the optical fiber probe, and received by the light receiving sensor through the optical fiber probe, a light intensity signal received by the light receiving sensor directly reflects the cell concentration, and the signal processing module calculates the cell concentration according to the light intensity signal received by the light receiving sensor; the optical fiber probe is provided in the fermentation tank; characterised in that an axis of the optical fiber probe is parallel to an axis of the fermentation tank; the optical fiber probe comprises a light guide component, a probe holder, and a bubble filter casing; the bubble filter casing comprises a fluid inlet, at least one fluid outlet, and a measuring cavity; the fluid inlet is arranged at the bottom surface of the bubble filter casing, and the at least one fluid outlet is arranged at a lateral side of the bubble filter casing.
A circuit breaker comprising: a housing; characterised by a first baffle (111; 301; 401; 501) and a second baffle (112; 302; 402; 502) provided on both sides of the housing, wherein the first baffle (111; 301; 401; 501) on one side of the housing is located inside an arc angle of a static contact, and the first baffle (111; 301; 401; 501) cuts off a space inside the arc angle of the static contact, the first and second baffles (111, 112; 301, 302; 401, 402; 501, 502) being symmetrically arranged to each other. a housing; characterised by a first baffle (111; 301; 401; 501) and a second baffle (112; 302; 402; 502) provided on both sides of the housing, wherein the first baffle (111; 301; 401; 501) on one side of the housing is located inside an arc angle of a static contact, and the first baffle (111; 301; 401; 501) cuts off a space inside the arc angle of the static contact, the first and second baffles (111, 112; 301, 302; 401, 402; 501, 502) being symmetrically arranged to each other.
A crystal of (1R,3R,15E,28R,29R,30R,31R,34R,36R,39S,41R)-29,41-Difluoro-34,39-bis(sulfanyl)-2,33,3 5,38,40,42-hexaoxa-4,6,9,11,13,18,20,22,25,27-decaaza-34λ 5,39λ 5 -diphosphaoctacyclo[28.6.4.1 3,36.1 28,31.0 4,8.0 7,12.0 19,24.0 23,27]dotetraconta-5,7,9,11,15,19,21,23,25-nonaene-34,39-dione (Compound) di-ammonium salt (Form 1), having diffraction peaks at diffraction angles (2θ ± 0.2°) of 6.4°, 8.3°, 12.7°, 16.6° and 25.4° in a powder X-ray diffraction.
A brush bar comprising a plurality of radially extending bristles and a sealing material disposed between the bristles, the sealing material extending over the entire circumferential and axial extent of the regions of the brush bar between the bristles, characterised in that the radial extent of the bristles is greater than the radial extent of the sealing material.
A guide assembly for aligning a workpiece on a table of a saw device, comprising: a guide member having a longitudinal axis and a first end (14A,52A) and a second end (14B,52B) along said longitudinal axis, said guide member sized to span a dimension of the table; a first locking mechanism located at the first end (14A, 52A) of the guide member and having a locking position operable to secure the first end (14A, 52A) to the table; a second locking mechanism located at the second end (14B, 52B) of the guide member and having a locking position operable to secure the second end (14B, 52B) to the table; and an adjustment assembly incorporated into said guide member, characterized in that said adjustment assembly includes: a side plate movably mounted to said guide member between said first and second ends; and a movement mechanism for moving said side plate relative to said guide member in a direction perpendicular to said longitudinal axis when said first and second locking mechanisms are in the locking positions. a guide member having a longitudinal axis and a first end (14A,52A) and a second end (14B,52B) along said longitudinal axis, said guide member sized to span a dimension of the table; a first locking mechanism located at the first end (14A, 52A) of the guide member and having a locking position operable to secure the first end (14A, 52A) to the table; a second locking mechanism located at the second end (14B, 52B) of the guide member and having a locking position operable to secure the second end (14B, 52B) to the table; and an adjustment assembly incorporated into said guide member, characterized in that said adjustment assembly includes: a side plate movably mounted to said guide member between said first and second ends; and a movement mechanism for moving said side plate relative to said guide member in a direction perpendicular to said longitudinal axis when said first and second locking mechanisms are in the locking positions. a side plate movably mounted to said guide member between said first and second ends; and a movement mechanism for moving said side plate relative to said guide member in a direction perpendicular to said longitudinal axis when said first and second locking mechanisms are in the locking positions.
A method for selecting a polycrystalline silicon rod to be used as a raw material for use in the production of single-crystalline silicon, wherein the polycrystalline silicon rod is a product grown by the deposition using a chemical vapour deposition method; plate-like samples each having as a principal plane thereof a cross section perpendicular to the long axis direction of the polycrystalline silicon rod are sampled; an X-ray diffratction measurement is performed omnidirectionally in the plane of each of the plate-like samples; and when none of the plate-like samples has any X-ray diffraction peak with a diffraction intensity deviating from the average value ±2 x standard deviation (μ ± 2σ) found for any one of the Miller indicies <111>, <220>, <311> and <400>, the polycrystalline silicon rod is selected as the raw material for use in the production of single-crystalline silicon. wherein the polycrystalline silicon rod is a product grown by the deposition using a chemical vapour deposition method; plate-like samples each having as a principal plane thereof a cross section perpendicular to the long axis direction of the polycrystalline silicon rod are sampled; an X-ray diffratction measurement is performed omnidirectionally in the plane of each of the plate-like samples; and when none of the plate-like samples has any X-ray diffraction peak with a diffraction intensity deviating from the average value ±2 x standard deviation (μ ± 2σ) found for any one of the Miller indicies <111>, <220>, <311> and <400>, the polycrystalline silicon rod is selected as the raw material for use in the production of single-crystalline silicon.