mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless transmit/receive unit, WTRU, comprising: a processor configured to: receive a first resource grant; schedule a first uplink, UL, transmission according to the first resource grant, wherein the scheduled first UL transmission is scheduled to use first resources; receive a physical downlink control channel, PDCCH, transmission comprising control information indicating a grant cancellation, wherein the PDCCH transmission is received after the first resource grant is received; determine, based on the control information, that the grant cancellation indicates a resource of the first resources; cancel the scheduled first UL transmission; and send a second UL transmission according to a second resource grant. receive a first resource grant; schedule a first uplink, UL, transmission according to the first resource grant, wherein the scheduled first UL transmission is scheduled to use first resources; receive a physical downlink control channel, PDCCH, transmission comprising control information indicating a grant cancellation, wherein the PDCCH transmission is received after the first resource grant is received; determine, based on the control information, that the grant cancellation indicates a resource of the first resources; cancel the scheduled first UL transmission; and send a second UL transmission according to a second resource grant.
A polyurethane foam comprising crosslinked polymers of heterocyclic N-vinyl monomers (i) and a disinfectant and/or bleaching agent (ii), chosen from the group hydrogen peroxide and silver (I) ions, copper (II) ions and zinc (II) ions.
Position measuring device having • a graduation carrier on which a measurement graduation is arranged, • at least one position sensor which can be used to generate position-dependent measurement signals (PS) by scanning the measurement graduation , • a processing unit which can be used to process the position-dependent measurement signals (PS) to form position signals (P), and • an interface unit for communicating with downstream electronics via at least one data transmission channel , wherein the position measuring device comprises a monitoring unit which can be supplied with at least one operating condition (Ta, I1, I2, VDD, HM) of the position measuring unit and comprises an evaluation unit which, on the basis of the at least one operating condition (Ta, I1, I2, VDD, HM), determines a component failure rate of at least one component to be monitored and a current operational failure rate of the position measuring device therefrom. • a graduation carrier on which a measurement graduation is arranged, • at least one position sensor which can be used to generate position-dependent measurement signals (PS) by scanning the measurement graduation , • a processing unit which can be used to process the position-dependent measurement signals (PS) to form position signals (P), and • an interface unit for communicating with downstream electronics via at least one data transmission channel ,
An asynchronous power generator for a wind turbine, comprising a voltage supply and a stator with at least one stator coil (16, 16', 16", 16"') supplied with an alternating voltage by the voltage supply , wherein the voltage supply is configured to adjust the voltage supplied to the stator coil (16, 16', 16", 16"') based on the output power generated by the wind turbine for reducing noise from the asynchronous power generator, characterized in that the voltage supply is configured to adjust the voltage supplied to the stator coil (16, 16', 16", 16"') such that the normalized flux Φ occurring in the coils (16, 16', 16", 16"') satisfies the condition Φ = α ⋅ P + β ⋅ Ratio wherein P is the output power generated by the wind turbine, α and β are constants, and Ratio is the flux ratio, and in that the voltage supply is configured to reduce the voltage supplied to the stator coil (16, 16', 16", 16"') on the condition of the output power decreasing and in that the maximum value of Φ is limited to 1. wherein P is the output power generated by the wind turbine, α and β are constants, and Ratio is the flux ratio, and in that the voltage supply is configured to reduce the voltage supplied to the stator coil (16, 16', 16", 16"') on the condition of the output power decreasing and in that the maximum value of Φ is limited to 1.
An underwater vehicle equipped with a power supply system, the power supply system comprising a hydrogen fuel cell, a metal hydride storage tank and a membrane module, wherein the hydrogen fuel cell is in fluid contact with said metal hydride storage tank and with said membrane module, the membrane module employing an oxygen selective membrane capable of harvesting dissolved oxygen from an aqueous environment.
A vacuum circuit breaker comprising: - a vacuum valve ; - one stationary side conductor electrically connected to a stationary side electrode of the vacuum valve and one movable side conductor electrically connected to a movable side electrode of the vacuum valve ; - one of a stationary side shield electrically connected to the stationary side conductor and a movable side shield electrically connected to the movable side conductor ; - a sealed enclosure containing the vacuum valve , the stationary side conductor , the movable side conductor , and the one of the stationary side shield and the movable side shield , and hermetically sealed with an inside thereof filled with an insulating gas; and - main circuit conductors , one of which is electrically connected to the stationary side conductor and another of which is electrically connected to the movable side conductor , and led to the outside of the sealed enclosure , the vacuum circuit breaker characterised in that : - the stationary side shield covers a part of the movable side conductor ; or the movable side shield covers a part of the stationary side conductor . - a vacuum valve ; - one stationary side conductor electrically connected to a stationary side electrode of the vacuum valve and one movable side conductor electrically connected to a movable side electrode of the vacuum valve ; - one of a stationary side shield electrically connected to the stationary side conductor and a movable side shield electrically connected to the movable side conductor ; - a sealed enclosure containing the vacuum valve , the stationary side conductor , the movable side conductor , and the one of the stationary side shield and the movable side shield , and hermetically sealed with an inside thereof filled with an insulating gas; and - main circuit conductors , one of which is electrically connected to the stationary side conductor and another of which is electrically connected to the movable side conductor , and led to the outside of the sealed enclosure , the vacuum circuit breaker characterised in that : - the stationary side shield covers a part of the movable side conductor ; or - the stationary side shield covers a part of the movable side conductor ; or the movable side shield covers a part of the stationary side conductor .
Method for monitoring the leaktightness of sealed products comprising a charging stage during which at least one sealed product containing a tracer gas is placed in a chamber (2; 2a, 2b) under atmospheric pressure, characterized in that it comprises: a pre-evacuation stage during which the chamber (2; 2a, 2b) containing the at least one sealed product is brought into communication with a buffer volume (VT; VTa, VTb) under a subatmospheric pressure for a pre-evacuation time of less than 0.5 second, the chamber (2; 2a, 2b) is then brought into communication with an analysis line arranged to bypass the buffer volume (VT; VTa, VTb) in order to measure the concentration of tracer gas in the chamber (2; 2a, 2b) so as to detect a leak from the said at least one sealed product . a pre-evacuation stage during which the chamber (2; 2a, 2b) containing the at least one sealed product is brought into communication with a buffer volume (VT; VTa, VTb) under a subatmospheric pressure for a pre-evacuation time of less than 0.5 second, the chamber (2; 2a, 2b) is then brought into communication with an analysis line arranged to bypass the buffer volume (VT; VTa, VTb) in order to measure the concentration of tracer gas in the chamber (2; 2a, 2b) so as to detect a leak from the said at least one sealed product .
A particle sensor comprising an inlet for receiving a gas sample for analysis, a bipolar diffusion charger configured to charge received particles within the received gas sample by the collision of the received particles with and transfer of charge from both positive and negative ions concurrently, and at least one electrometer configured to detect the charge of received particles thereby charged, wherein the particle sensor comprises an ion trap between the bipolar diffusion charger and at least one said electrometer, wherein the ion trap is configured to remove free positive and negative ions from the mixture of received particles and positive and negative ions formed in the bipolar diffusion charger, before the received particles reach at least one said electrometer.
Needle cover assembly comprising: - a manually operable member ; - a rigid needle shield RNS provided with an internally arranged resilient cap , in turn arranged to house and protect an injection needle ; - a RNS remover assembly comprising a tubular shaped member surrounding said RNS wherein said tubular shaped member is arranged with at least one grip member capable of gripping said RNS in order to remove said RNS; wherein an annular distal end surface of said manually operable member is arranged to be in contact with a corresponding proximally directed annular surface of a housing of a medicament delivery device to which said needle cover assembly can be releasibly attached, characterized in that said surfaces form an interface having a wave or cam shape such that when said manually operable member is turned in relation to said housing, said turning also enables an initial axial movement of the manually operable member in relation to the housing and thus to the injection needle attached to a medicament container due to the wave or cam interface between the manually operable member and the housing . - a manually operable member ; - a rigid needle shield RNS provided with an internally arranged resilient cap , in turn arranged to house and protect an injection needle ; - a RNS remover assembly comprising a tubular shaped member surrounding said RNS wherein said tubular shaped member is arranged with at least one grip member capable of gripping said RNS in order to remove said RNS;
Pressure vessel comprising - a first end cap having a side port for a low pressure outflow of a first stream (A); - a second end cap having an axial port for a high pressure outlet of a second stream (B) substantially parallel to a mutual center axis formed by the first end cap and the second end cap; - wherein the first end cap has an axial port for a high pressure inlet of the first stream substantially parallel to the mutual center axis formed by the first end cap and the second end cap; - wherein the second end cap has a side port for a low pressure inflow of the second stream; and - wherein the pressure vessel is configured to divert low pressure stream flows into the side ports . - a first end cap having a side port for a low pressure outflow of a first stream (A); - a second end cap having an axial port for a high pressure outlet of a second stream (B) substantially parallel to a mutual center axis formed by the first end cap and the second end cap; - wherein the first end cap has an axial port for a high pressure inlet of the first stream substantially parallel to the mutual center axis formed by the first end cap and the second end cap; - wherein the second end cap has a side port for a low pressure inflow of the second stream; and - wherein the pressure vessel is configured to divert low pressure stream flows into the side ports .
An immunoassay method, comprising steps of: providing (S510, S910) at least two mixing assemblies for carrying reactors , enabling the mixing assemblies to drive the reactors to reciprocate between a first station and a second station ; setting (S530, S920) a first period as a shortest time window during which a sequence of actions performed by each of the mixing assemblies is cyclically reproducible, wherein the sequence of actions in the first period comprises receiving a corresponding reactor , waiting addition of a sample to the reactor , waiting addition of a reagent to the reactor , eccentrically shaking the reactor , and removing the reactor ; setting a second period as a value by dividing the first period by the number of the mixing assemblies ; from when the reactor is moved into one of the mixing assemblies for the first time, sequentially moving another reactor into each of the other mixing assemblies by sequentially staggering a time of the second period; moving (S540, S930) the mixed reactors out of the mixing assemblies by sequentially staggering the time of the second period, and placing new reactors onto the mixing assemblies from which the reactors are removed; performing (S940) an incubation, a bound-free operation, and a measurement on the reactors that have been moved out of the mixing assemblies and that contain a reactant. providing (S510, S910) at least two mixing assemblies for carrying reactors , enabling the mixing assemblies to drive the reactors to reciprocate between a first station and a second station ; setting (S530, S920) a first period as a shortest time window during which a sequence of actions performed by each of the mixing assemblies is cyclically reproducible, wherein the sequence of actions in the first period comprises receiving a corresponding reactor , waiting addition of a sample to the reactor , waiting addition of a reagent to the reactor , eccentrically shaking the reactor , and removing the reactor ; setting a second period as a value by dividing the first period by the number of the mixing assemblies ; from when the reactor is moved into one of the mixing assemblies for the first time, sequentially moving another reactor into each of the other mixing assemblies by sequentially staggering a time of the second period; moving (S540, S930) the mixed reactors out of the mixing assemblies by sequentially staggering the time of the second period, and placing new reactors onto the mixing assemblies from which the reactors are removed; performing (S940) an incubation, a bound-free operation, and a measurement on the reactors that have been moved out of the mixing assemblies and that contain a reactant.
Panel , in particular wall, ceiling or floor panel, comprising a carrier plate with a front side and a rear side, wherein the carrier plate has a layer system at least on the front side, which layer system has, starting from the front side: a first elastic layer S1 made of a polymer, which has a thickness of 20 to 600 μm and a Martens hardness M S1 according to DIN EN ISO 14577 of 0.5 to 120 N/mm 2 ; and a second layer S2 made of a polymer, which has a thickness of 10 to 180 μm and a Martens hardness M S2 according to DIN EN ISO 14577, wherein M S2 > M S1 ; characterised in that a decorative layer comprising a printing ink is further provided between the front side and the layer S1 and a third elastic layer S3 is provided between the front side and the decorative layer, which has a Martens hardness M S3 according to DIN EN ISO 14577, with M S3 ≤ M S1 . a first elastic layer S1 made of a polymer, which has a thickness of 20 to 600 μm and a Martens hardness M S1 according to DIN EN ISO 14577 of 0.5 to 120 N/mm 2 ; and a second layer S2 made of a polymer, which has a thickness of 10 to 180 μm and a Martens hardness M S2 according to DIN EN ISO 14577, wherein M S2 > M S1 ; characterised in that a decorative layer comprising a printing ink is further provided between the front side and the layer S1 and a third elastic layer S3 is provided between the front side and the decorative layer, which has a Martens hardness M S3 according to DIN EN ISO 14577, with M S3 ≤ M S1 .
A computing device in a distributed storage system, the computing device comprising: at least one memory containing machine-readable instructions; and at least one processor to execute the machine-readable instructions to: receive a write request for a block; determine whether the block satisfies predetermined criteria; in response to determining the block satisfies the predetermined criteria, striping the block across a plurality of partitions in a pool of partitions, wherein striping the block across the plurality of partitions comprises: storing subblocks and metadata for the subblocks in a blocks table associated with the plurality of partitions; and storing , in an objects table associated with the block, a pointer to entries in the blocks table for the subblocks; and in response to the block not satisfying the predetermined criteria, not striping the block and storing the block and its metadata in the objects table. at least one memory containing machine-readable instructions; and at least one processor to execute the machine-readable instructions to: receive a write request for a block; determine whether the block satisfies predetermined criteria; in response to determining the block satisfies the predetermined criteria, striping the block across a plurality of partitions in a pool of partitions, wherein striping the block across the plurality of partitions comprises: storing subblocks and metadata for the subblocks in a blocks table associated with the plurality of partitions; and storing , in an objects table associated with the block, a pointer to entries in the blocks table for the subblocks; and in response to the block not satisfying the predetermined criteria, not striping the block and storing the block and its metadata in the objects table. receive a write request for a block; determine whether the block satisfies predetermined criteria; in response to determining the block satisfies the predetermined criteria, striping the block across a plurality of partitions in a pool of partitions, wherein striping the block across the plurality of partitions comprises: storing subblocks and metadata for the subblocks in a blocks table associated with the plurality of partitions; and storing , in an objects table associated with the block, a pointer to entries in the blocks table for the subblocks; and storing subblocks and metadata for the subblocks in a blocks table associated with the plurality of partitions; and storing , in an objects table associated with the block, a pointer to entries in the blocks table for the subblocks; and in response to the block not satisfying the predetermined criteria, not striping the block and storing the block and its metadata in the objects table.
An arterial flashback confirmation chamber comprising: a flashback compartment having a transparent portion; a vent that is permeable to air and impermeable to blood; and an apparatus for prolonging active arterial flashback confirmation characterized in that , the apparatus comprises a circuitous length of tubing disposed within the flashback compartment . a flashback compartment having a transparent portion; a vent that is permeable to air and impermeable to blood; and an apparatus for prolonging active arterial flashback confirmation characterized in that , the apparatus comprises a circuitous length of tubing disposed within the flashback compartment .
A transmission assembly, comprising: a first driving mechanism ; a transmission element , wherein the transmission element is detachably connected with an output end of the first driving mechanism ; and a clamping mechanism , disposed on the transmission element , wherein the clamping mechanism clamps the output end and fixes a relative position between the first driving mechanism and the transmission element ; wherein the output end is an output shaft , the transmission element comprises a connecting shaft , the connecting shaft is detachably connected with the output shaft , and the clamping mechanism is disposed on the connecting shaft ; characterized in that , the clamping mechanism comprises a first clamping jaw and a second clamping jaw disposed oppositely, each of the first clamping jaw and second clamping jaw comprises: a connecting rod , wherein a first end of the connecting rod is connected with the connecting shaft , and a second end of the connecting rod is extended towards a direction departing from the connecting shaft ; and a clamping rod , wherein the second end of the connecting rod is connected with a middle of the clamping rod , one end, towards the output shaft , of the clamping rod is bended to an inner side, and one end, departing from the output shaft , of the clamping rod is bended to an outer side. a first driving mechanism ; a transmission element , wherein the transmission element is detachably connected with an output end of the first driving mechanism ; and a clamping mechanism , disposed on the transmission element , wherein the clamping mechanism clamps the output end and fixes a relative position between the first driving mechanism and the transmission element ; wherein the output end is an output shaft , the transmission element comprises a connecting shaft , the connecting shaft is detachably connected with the output shaft , and the clamping mechanism is disposed on the connecting shaft ; characterized in that , the clamping mechanism comprises a first clamping jaw and a second clamping jaw disposed oppositely, each of the first clamping jaw and second clamping jaw comprises: a connecting rod , wherein a first end of the connecting rod is connected with the connecting shaft , and a second end of the connecting rod is extended towards a direction departing from the connecting shaft ; and a clamping rod , wherein the second end of the connecting rod is connected with a middle of the clamping rod , one end, towards the output shaft , of the clamping rod is bended to an inner side, and one end, departing from the output shaft , of the clamping rod is bended to an outer side. a connecting rod , wherein a first end of the connecting rod is connected with the connecting shaft , and a second end of the connecting rod is extended towards a direction departing from the connecting shaft ; and a clamping rod , wherein the second end of the connecting rod is connected with a middle of the clamping rod , one end, towards the output shaft , of the clamping rod is bended to an inner side, and one end, departing from the output shaft , of the clamping rod is bended to an outer side.
Body-wearable element , comprising at least one piezoelectric element that is designed to vibrate and to thereby produce a haptic impression for an audible signal, characterized in that the body-wearable element is arranged and designed to apply to the piezoelectric element a haptically perceptible signal that has been determined from the audible signal by multiplying the frequencies of the audible signal by a scaling factor and thereby converting the audible signal into the haptically perceptible signal, the scaling factor being less than 1 because the haptically perceptible frequencies are lower than the frequencies of the audibly perceptible frequency spectrum. comprising at least one piezoelectric element that is designed to vibrate and to thereby produce a haptic impression for an audible signal, characterized in that the body-wearable element is arranged and designed to apply to the piezoelectric element a haptically perceptible signal that has been determined from the audible signal by multiplying the frequencies of the audible signal by a scaling factor and thereby converting the audible signal into the haptically perceptible signal, the scaling factor being less than 1 because the haptically perceptible frequencies are lower than the frequencies of the audibly perceptible frequency spectrum.