mhurhangee/ep-ind-claims huggingface dataset:
A method for demodulating a shared reference signal, comprising: receiving, by a terminal device, first indication information sent by a network device, wherein the first indication information is to indicate an initial operation bandwidth allocated for the terminal device and the initial operation bandwidth is less than a system bandwidth; determining, by the terminal device, a length of a sequence of the shared reference signal according to the initial operation bandwidth and first preset relationships between operation bandwidths and lengths of sequences of reference signals; receiving, by the terminal device, second indication information sent by the network device, wherein the second indication information is to indicate resource information of a target resource group allocated for the terminal device, the resource information comprises a Physical Resource Block, PRB, in the target resource group; and re-determining, by the terminal device, the length of the sequence of the shared reference signal according to a resource size, which is determined according to the PRB in the target resource group, of a resource in the target resource group, wherein the shared reference signal is a reference signal shared by a plurality of terminal devices and the length of the sequence of the shared reference signal is used to demodulate the shared reference signal. receiving, by a terminal device, first indication information sent by a network device, wherein the first indication information is to indicate an initial operation bandwidth allocated for the terminal device and the initial operation bandwidth is less than a system bandwidth; determining, by the terminal device, a length of a sequence of the shared reference signal according to the initial operation bandwidth and first preset relationships between operation bandwidths and lengths of sequences of reference signals; receiving, by the terminal device, second indication information sent by the network device, wherein the second indication information is to indicate resource information of a target resource group allocated for the terminal device, the resource information comprises a Physical Resource Block, PRB, in the target resource group; and re-determining, by the terminal device, the length of the sequence of the shared reference signal according to a resource size, which is determined according to the PRB in the target resource group, of a resource in the target resource group, wherein the shared reference signal is a reference signal shared by a plurality of terminal devices and the length of the sequence of the shared reference signal is used to demodulate the shared reference signal.
A subsea flying lead for transmitting an electric current to a component of a subsea structure, the subsea flying lead comprising: a fluid line comprising a tubing (7a,7b), characterised in that, in use, an electric current is transmitted along the tubing (7a,7b); a flying plate, wherein the fluid line terminates in a fluid coupler (10a, 10b) on the flying plate; and an electrical connector (!2a,12b) in the flying plate, and wherein an electrical conductor (11a, 11b) runs from the tubing (7a,7b) of fluid line to the electrical connector (12a,12b); wherein the flying plate is arranged to be connected to a fixed plate on a subsea structure containing at least one fluid line comprising a tubing terminating in a fluid coupler (4a, 4b) in the fixed plate such that, in use, the flying plate fluid coupler (10a, 10b) is coupled to the fixed plate fluid coupler (4a, 4b); and electric current transmitted along the tubing (7a, 7b) of the fluid line is, in use, transmitted via the electrical conductor (11a, 11b) to a component of the subsea structure. a fluid line comprising a tubing (7a,7b), characterised in that, in use, an electric current is transmitted along the tubing (7a,7b); a flying plate, wherein the fluid line terminates in a fluid coupler (10a, 10b) on the flying plate; and an electrical connector (!2a,12b) in the flying plate, and wherein an electrical conductor (11a, 11b) runs from the tubing (7a,7b) of fluid line to the electrical connector (12a,12b); wherein the flying plate is arranged to be connected to a fixed plate on a subsea structure containing at least one fluid line comprising a tubing terminating in a fluid coupler (4a, 4b) in the fixed plate such that, in use, the flying plate fluid coupler (10a, 10b) is coupled to the fixed plate fluid coupler (4a, 4b); and electric current transmitted along the tubing (7a, 7b) of the fluid line is, in use, transmitted via the electrical conductor (11a, 11b) to a component of the subsea structure.
A method for analyzing a urine sample, comprising the steps of: preparing a measurement sample by mixing the urine sample and a reagent containing a surfactant; and detecting at least casts and erythrocytes as urinary particles contained in the measurement sample obtained from the preparation step, wherein a concentration of the surfactant in the measurement sample obtained from the preparation step is more than or equal to 2 mg/L and less than or equal to 30 mg/L. preparing a measurement sample by mixing the urine sample and a reagent containing a surfactant; and detecting at least casts and erythrocytes as urinary particles contained in the measurement sample obtained from the preparation step, wherein a concentration of the surfactant in the measurement sample obtained from the preparation step is more than or equal to 2 mg/L and less than or equal to 30 mg/L.
Method of processing a real-time content to be offered to client entities (10, 11, 12) by way of a hosting entity, the said content being segmented into a string of elementary blocks, the said method comprising the following steps: - a step of obtaining an item of information representative of a capacity for forwarding data segments over the link between the producer entity and the hosting entity; - a step of selecting, by the producer entity, a main coding from the plurality of codings, the said main coding being such that the capacity required to dispatch data segments associated therewith is less than the said forwarding capacity of the link; and for an elementary block of the content: - a step of coding, by the producer entity, the said elementary block as a plurality of data segments corresponding respectively to a coding of a plurality of codings; - a step of scheduling, by the producer entity, the data segments as a function of the residual forwarding capacity of the link, the said residual forwarding capacity corresponding to the said forwarding capacity of the link minus the capacity required to dispatch data segments of the said main coding, the data segments associated with the main coding having priority with respect to the data segments associated with other codings, termed secondary codings, of the said plurality of codings; - a step of dispatching, to the hosting entity, the said data segments, the said data segments associated with the main coding being dispatched by priority, and the data segments of the said secondary codings being dispatched progressively as a function of the said residual forwarding capacity of the link. - a step of obtaining an item of information representative of a capacity for forwarding data segments over the link between the producer entity and the hosting entity; - a step of selecting, by the producer entity, a main coding from the plurality of codings, the said main coding being such that the capacity required to dispatch data segments associated therewith is less than the said forwarding capacity of the link; - a step of coding, by the producer entity, the said elementary block as a plurality of data segments corresponding respectively to a coding of a plurality of codings; - a step of scheduling, by the producer entity, the data segments as a function of the residual forwarding capacity of the link, the said residual forwarding capacity corresponding to the said forwarding capacity of the link minus the capacity required to dispatch data segments of the said main coding, the data segments associated with the main coding having priority with respect to the data segments associated with other codings, termed secondary codings, of the said plurality of codings; - a step of dispatching, to the hosting entity, the said data segments, the said data segments associated with the main coding being dispatched by priority, and the data segments of the said secondary codings being dispatched progressively as a function of the said residual forwarding capacity of the link.
A method of controlling a wind turbine, the method comprising: obtaining data identifying, based on forecast data, one or more future periods of time during which the wind turbine is to be over-rated; determining measures of the fatigue life consumed by one or more turbine components; and over-rating the wind turbine during the one or more periods; characterised in that the method further comprises determining whether at least one of the fatigue life consumed by the one or more components and a rate of consumption of fatigue life for the one or more components exceeds respective threshold values; and limiting the fatigue life consumed by the one or more turbine components prior to the one or more periods of time by controlling the power output of the wind turbine, in advance of the one or more periods of time, based upon the measure of the fatigue life consumed by the one or more turbine components; wherein limiting the fatigue life consumed by the one or more turbine components prior to the one or more periods of time is applied when at least one of the fatigue life consumed by the one or more components and the rate of consumption of fatigue life for the one or more components exceeds the respective threshold values. obtaining data identifying, based on forecast data, one or more future periods of time during which the wind turbine is to be over-rated; determining measures of the fatigue life consumed by one or more turbine components; and over-rating the wind turbine during the one or more periods; characterised in that the method further comprises determining whether at least one of the fatigue life consumed by the one or more components and a rate of consumption of fatigue life for the one or more components exceeds respective threshold values; and limiting the fatigue life consumed by the one or more turbine components prior to the one or more periods of time by controlling the power output of the wind turbine, in advance of the one or more periods of time, based upon the measure of the fatigue life consumed by the one or more turbine components; wherein limiting the fatigue life consumed by the one or more turbine components prior to the one or more periods of time is applied when at least one of the fatigue life consumed by the one or more components and the rate of consumption of fatigue life for the one or more components exceeds the respective threshold values.
A method for operating a sending entity in media transport system, the method comprising: generating a pacing buffer message including information on a rate to deliver a packet from a pacing buffer to a decoding buffer of a receiving entity, transmitting the pacing buffer message to the receiving entity, receiving a pacing buffer feedback message, from the receiving entity, which includes information on a status of the pacing buffer, and transmitting packets of media data to the receiving entity based on the pacing buffer feedback message, wherein the information on the status of the pacing buffer includes information on a sequence number of a last received packet. generating a pacing buffer message including information on a rate to deliver a packet from a pacing buffer to a decoding buffer of a receiving entity, transmitting the pacing buffer message to the receiving entity, receiving a pacing buffer feedback message, from the receiving entity, which includes information on a status of the pacing buffer, and transmitting packets of media data to the receiving entity based on the pacing buffer feedback message, wherein the information on the status of the pacing buffer includes information on a sequence number of a last received packet.
A rubber composition for groove reinforcement in a tire tread, the rubber composition comprising: at least one rubber component; between about 50 phr and 120 phr of a filler, wherein at least 20 phr of the filler is a high surface area carbon black having an iodine adsorption number of at least 100 g/kg; and between 10 phr and 30 phr of a phenolic resin; characterized in that the rubber composition has a Shore A hardness over 80 and an elongation at break of more than 300%. at least one rubber component; between about 50 phr and 120 phr of a filler, wherein at least 20 phr of the filler is a high surface area carbon black having an iodine adsorption number of at least 100 g/kg; and between 10 phr and 30 phr of a phenolic resin; characterized in that the rubber composition has a Shore A hardness over 80 and an elongation at break of more than 300%.
Adjusting drive, in particular tailgate drive, having a gear mechanism which is closed on the end side by way of a bearing cover (2.1'), the bearing cover (2.1') being provided for the end-side closure of the gear mechanism which is configured as a planetary gear mechanism, and the bearing cover (2.1') comprising a first bearing face (L2.1.1', L2.1.2', L2.1.3') which is provided for mounting a gear mechanism component (2.2.1, 2.2.2) of the gear mechanism and is manufactured in one piece with the bearing cover (2.1'), a gear mechanism component (2.4') being integrated into the bearing cover (2.1'), the gear mechanism component (2.4') being a gearwheel with a toothing system (2.4.1'), the bearing cover (2.1') comprising a main body (2.1"), the main body (2.1") being manufactured from a first material and the gearwheel (2.4') being manufactured from another material, the first bearing face (L2.1.1') and a second bearing face (L2.1.2') being provided to absorb radial forces, and the bearing cover (2.1') having a third bearing face (L2.1.3') for absorbing axial forces, the first bearing face (L2.1.1'), the second bearing face (L2.1.2') and the third bearing face (L2.1.3') being manufactured in one piece and from the same plastic with the main body (2.1"), and the planetary gear mechanism comprising a planetary carrier (2.2) with a first bearing counterface (2.2.1) which is supported on the first bearing face (2.1.1') of the bearing cover (2.1'), and the planetary carrier (2.2) comprising a second bearing counterface (2.2.2), the second bearing counterface (2.2.2) being supported on the second bearing face (L2.1.2'), and the planetary carrier (2.2) comprising a third bearing counterface (2.2.3) which is supported on the third bearing face (L2.1.3'); the first bearing counterface (2.2.1) sliding along the first bearing face (L2.1.1'), the second bearing counterface (2.2.2) sliding along the second bearing face (L2.1.2'), and the third bearing counterface (2.2.5) sliding along the third bearing face (L2.1.3') when the planetary carrier (2.2) rotates about a rotational axis (2.5) of the planetary carrier (2.2), the first bearing face (L2.1.1') having a smaller radius than the second bearing face (L2.1.2').
A method for controlling an induction cooking hob with a plurality of induction coils, wherein one or more induction coils (22, 24, 26, 28) are covered by a cookware and form a cooking zone, and wherein all induction coils (22, 24, 26, 28) of said cooking zone are alternately activated, which method comprises the steps of: - setting an average power to be transferred to the cookware on the cooking zone by a user, - determining a frequency for the induction cooking hob, and - estimating a maximum average power corresponding with the determined frequency, wherein said maximum average power occurs, if all induction coils (22, 24, 26, 28) of the cooking zone would be activated with said frequency, characterized by the further steps of - estimating a percentage power defined as quotient between the set average power and the estimated maximum average power, and - estimating a calculated number of induction coils (22, 24, 26, 28) defined as product of the number of induction coils (22, 24, 26, 28) within the cooking zone and the percentage power, - wherein a minimum number of simultaneously activated induction coils (22, 24, 26, 28) within the cooking zone is defined by an integer value of the calculated number, - wherein a temporal activation of a further one of the induction coils (22, 24, 26, 28) is defined by a fractional part of the calculated number, - and wherein the determined frequency depends on the cooking zone with the highest set power on the induction cooking hob. - setting an average power to be transferred to the cookware on the cooking zone by a user, - determining a frequency for the induction cooking hob, and - estimating a maximum average power corresponding with the determined frequency, wherein said maximum average power occurs, if all induction coils (22, 24, 26, 28) of the cooking zone would be activated with said frequency, - estimating a percentage power defined as quotient between the set average power and the estimated maximum average power, and - estimating a calculated number of induction coils (22, 24, 26, 28) defined as product of the number of induction coils (22, 24, 26, 28) within the cooking zone and the percentage power, - wherein a minimum number of simultaneously activated induction coils (22, 24, 26, 28) within the cooking zone is defined by an integer value of the calculated number, - wherein a temporal activation of a further one of the induction coils (22, 24, 26, 28) is defined by a fractional part of the calculated number, - and wherein the determined frequency depends on the cooking zone with the highest set power on the induction cooking hob.
A surgical stapler, comprising: a shaft including a proximal magnetic element (1249a, 1249b, 1240a, 1240b); an end effector movably coupled to said shaft, said end effector comprising: a staple cartridge channel configured to receive a staple cartridge; an anvil movably coupled to said staple cartridge channel; characterised by a distal magnetic element (1249a, 1249b, 1240a, 1240b), and an articulation joint including at least one intermediate magnetic element (1249a, 1249b, 1240a, 1240b) positioned intermediate said proximal magnetic element (1249a, 1249b, 1240a, 1240b) and said distal magnetic element (1249a, 1249b, 1240a, 1240b), wherein said proximal magnetic element (1249a, 1249b, 1240a, 1240b) is configured to apply a first magnetic force to said intermediate magnetic element (1249a, 1249b, 1240a, 1240b), wherein said intermediate magnetic element (1249a, 1249b, 1240a, 1240b) is configured to apply a second magnetic force to said distal magnetic element (1249a, 1249b, 1240a, 1240b), and wherein said first and second magnetic forces are sufficient to articulate said end effector relative to said shaft. a shaft including a proximal magnetic element (1249a, 1249b, 1240a, 1240b); an end effector movably coupled to said shaft, said end effector comprising: a staple cartridge channel configured to receive a staple cartridge; an anvil movably coupled to said staple cartridge channel; characterised by a distal magnetic element (1249a, 1249b, 1240a, 1240b), and a staple cartridge channel configured to receive a staple cartridge; an anvil movably coupled to said staple cartridge channel; characterised by a distal magnetic element (1249a, 1249b, 1240a, 1240b), and an articulation joint including at least one intermediate magnetic element (1249a, 1249b, 1240a, 1240b) positioned intermediate said proximal magnetic element (1249a, 1249b, 1240a, 1240b) and said distal magnetic element (1249a, 1249b, 1240a, 1240b), wherein said proximal magnetic element (1249a, 1249b, 1240a, 1240b) is configured to apply a first magnetic force to said intermediate magnetic element (1249a, 1249b, 1240a, 1240b), wherein said intermediate magnetic element (1249a, 1249b, 1240a, 1240b) is configured to apply a second magnetic force to said distal magnetic element (1249a, 1249b, 1240a, 1240b), and wherein said first and second magnetic forces are sufficient to articulate said end effector relative to said shaft. wherein said proximal magnetic element (1249a, 1249b, 1240a, 1240b) is configured to apply a first magnetic force to said intermediate magnetic element (1249a, 1249b, 1240a, 1240b), wherein said intermediate magnetic element (1249a, 1249b, 1240a, 1240b) is configured to apply a second magnetic force to said distal magnetic element (1249a, 1249b, 1240a, 1240b), and wherein said first and second magnetic forces are sufficient to articulate said end effector relative to said shaft.
A comparator system for use with a bearing assembly of a rotating control head, comprising: a first fluid line operatively coupled to communicate fluid to a chamber defined by the bearing assembly; characterised by a first meter coupled to the first fluid line, the first meter measuring a first fluid value; a second fluid line operatively coupled to communicate fluid from the chamber defined by the bearing assembly; a second meter coupled to the second fluid line, the second meter measuring a second fluid value; and a comparator, coupled to the first meter and the second meter, configured to compare the measured first fluid value to the measured second fluid value. a first fluid line operatively coupled to communicate fluid to a chamber defined by the bearing assembly; characterised by a first meter coupled to the first fluid line, the first meter measuring a first fluid value; a second fluid line operatively coupled to communicate fluid from the chamber defined by the bearing assembly; a second meter coupled to the second fluid line, the second meter measuring a second fluid value; and a comparator, coupled to the first meter and the second meter, configured to compare the measured first fluid value to the measured second fluid value.
A method for encoding quantized transform domain coefficient data in an encoder (26, 900) having a processor, the method comprising: determining, with the processor, an x-coordinate and a y-coordinate for a last-significant-coefficient position within a block of the quantized transform domain coefficient data; entropy encoding, with the processor, the x-coordinate and the y-coordinate by determining a context for encoding of one of the coordinates based upon the value of the other of the coordinates, wherein entropy encoding includes binarizing the x-coordinate and the y-coordinate and entropy encoding each bin of the binarized x-coordinate and each bin of the binarized y-coordinate, and wherein binarizing comprises converting each coordinate to a fixed-length binary code. determining, with the processor, an x-coordinate and a y-coordinate for a last-significant-coefficient position within a block of the quantized transform domain coefficient data; entropy encoding, with the processor, the x-coordinate and the y-coordinate by determining a context for encoding of one of the coordinates based upon the value of the other of the coordinates, wherein entropy encoding includes binarizing the x-coordinate and the y-coordinate and entropy encoding each bin of the binarized x-coordinate and each bin of the binarized y-coordinate, and wherein binarizing comprises converting each coordinate to a fixed-length binary code.