mhurhangee/patent-ind-claim-en huggingface dataset:
Plant for storing energy by means of compressed air, in which: - a storage volume accommodates air at elevated pressure p H , - for energy storage, ambient air is compressed and introduced into the storage volume, - for removal from storage, compressed air is extracted from the storage volume and discharged into the environment, performing work, - a low-pressure turbomachine for alternate compression and expansion - or multiple such machines - respectively compress ambient air to a medium pressure p M and expand said ambient air from said pressure, - a high-pressure machine for alternate compression and expansion respectively compresses air from the medium pressure p M to the store pressure p H and expands said air from the latter pressure, or multiple such machines connected in parallel in terms of flow perform said task, - said at least one low-pressure turbomachine and at least one high-pressure machine are connected in series in terms of flow and are mechanically coupled to in each case one, or to one common, generator/motor - that is to say an electric machine that operates selectively as a motor and generator, characterized in that the medium pressure p M can be kept equal in each case independently of the store pressure p H during expansion and compression by the control of the at least one high-pressure machine. - a storage volume accommodates air at elevated pressure p H , - for energy storage, ambient air is compressed and introduced into the storage volume, - for removal from storage, compressed air is extracted from the storage volume and discharged into the environment, performing work, - a low-pressure turbomachine for alternate compression and expansion - or multiple such machines - respectively compress ambient air to a medium pressure p M and expand said ambient air from said pressure, - a high-pressure machine for alternate compression and expansion respectively compresses air from the medium pressure p M to the store pressure p H and expands said air from the latter pressure, or multiple such machines connected in parallel in terms of flow perform said task, - said at least one low-pressure turbomachine and at least one high-pressure machine are connected in series in terms of flow and are mechanically coupled to in each case one, or to one common, generator/motor - that is to say an electric machine that operates selectively as a motor and generator,
A multi-spot laser probe comprising: a probe body shaped and sized for grasping by a user; a probe tip comprising a cannula configured for insertion into an eye, the cannula comprising: an inner passage ; and an inner surface that defines the inner passage ; a multi-core optical fiber, MCF, extending at least partially through the inner passage of the cannula, the MCF comprising: a plurality of cores ; a cladding surrounding the plurality of cores, wherein a refractive index of one or more of the plurality of cores is greater than a refractive index of the cladding; a coating surrounding the cladding; and a distal end free of the coating and having a reduced diameter, an annular gap formed between the distal end of the MCF and the inner surface of the cannula ; and a ring disposed within the annular gap to maintain concentricity of the distal end of the MCF with the inner passage of the cannula . a probe body shaped and sized for grasping by a user; a probe tip comprising a cannula configured for insertion into an eye, the cannula comprising: an inner passage ; and an inner surface that defines the inner passage ; an inner passage ; and an inner surface that defines the inner passage ; a multi-core optical fiber, MCF, extending at least partially through the inner passage of the cannula, the MCF comprising: a plurality of cores ; a cladding surrounding the plurality of cores, wherein a refractive index of one or more of the plurality of cores is greater than a refractive index of the cladding; a coating surrounding the cladding; and a distal end free of the coating and having a reduced diameter, a plurality of cores ; a cladding surrounding the plurality of cores, wherein a refractive index of one or more of the plurality of cores is greater than a refractive index of the cladding; a coating surrounding the cladding; and a distal end free of the coating and having a reduced diameter, an annular gap formed between the distal end of the MCF and the inner surface of the cannula ; and a ring disposed within the annular gap to maintain concentricity of the distal end of the MCF with the inner passage of the cannula .
A method of processing a positioning reference signal, the method comprising: transmitting, to a narrow-band, NB, user equipment, UE, one or more configuration parameters comprising NB positioning reference signal, PRS, configuration information and PRS configuration information, wherein the NB PRS configuration information comprises: information of an NB PRS reference cell that generates an NB PRS for the NB UE; and a number of cell-specific reference signal, CRS, antenna ports; and based on the one or more configuration parameters: transmitting, to the NB UE, the NB PRS for the NB UE; transmitting, in a first frequency band and to the NB UE, a PRS for a UE, the UE being assigned to use the first frequency band available for the NB UE and a second frequency band unavailable for the NB UE; and receiving, from the NB UE, a reference signal time difference, RSTD, measurement, wherein the RSTD measurement is based on the NB PRS and the PRS. transmitting, to a narrow-band, NB, user equipment, UE, one or more configuration parameters comprising NB positioning reference signal, PRS, configuration information and PRS configuration information, wherein the NB PRS configuration information comprises: information of an NB PRS reference cell that generates an NB PRS for the NB UE; and a number of cell-specific reference signal, CRS, antenna ports; and information of an NB PRS reference cell that generates an NB PRS for the NB UE; and a number of cell-specific reference signal, CRS, antenna ports; and based on the one or more configuration parameters: transmitting, to the NB UE, the NB PRS for the NB UE; transmitting, in a first frequency band and to the NB UE, a PRS for a UE, the UE being assigned to use the first frequency band available for the NB UE and a second frequency band unavailable for the NB UE; and receiving, from the NB UE, a reference signal time difference, RSTD, measurement, wherein the RSTD measurement is based on the NB PRS and the PRS. transmitting, to the NB UE, the NB PRS for the NB UE; transmitting, in a first frequency band and to the NB UE, a PRS for a UE, the UE being assigned to use the first frequency band available for the NB UE and a second frequency band unavailable for the NB UE; and receiving, from the NB UE, a reference signal time difference, RSTD, measurement, wherein the RSTD measurement is based on the NB PRS and the PRS.
A process fluid flow device which is configured for providing an energy flow for steam, water flow and natural gas, on the basis of an enthalpy value, the device comprising: a power supply module ; process communication circuitry coupled to the power supply module ; a processor coupled to the process communication circuitry and the power supply module ; measurement circuitry operably coupleable to a plurality of process variable sensors (SP, DP, T) to obtain an indication of differential pressure, static pressure and temperature of the steam, water flow or natural gas; and wherein the processor is configured to compute mass flow of the steam, water flow or natural gas, to use the static pressure and temperature of the steam, water flow or natural gas to obtain an enthalpy value relative to the steam, water flow or natural gas, and to provide an energy flow for steam or water flow based on the mass flow and the enthalpy value, and for natural gas based on the mass flow and the energy per unit mass which is a constant. a power supply module ; process communication circuitry coupled to the power supply module ; a processor coupled to the process communication circuitry and the power supply module ; measurement circuitry operably coupleable to a plurality of process variable sensors (SP, DP, T) to obtain an indication of differential pressure, static pressure and temperature of the steam, water flow or natural gas; and wherein the processor is configured to compute mass flow of the steam, water flow or natural gas, to use the static pressure and temperature of the steam, water flow or natural gas to obtain an enthalpy value relative to the steam, water flow or natural gas, and to provide an energy flow for steam or water flow based on the mass flow and the enthalpy value, and for natural gas based on the mass flow and the energy per unit mass which is a constant.
A method performed by a transmitting device (3-10, 3-15) in a wireless communication system, the method comprising: receiving, from a receiving device, a packet data convergence protocol, PDCP, control protocol data unit, PDU, including information indicating a check sum failure; discarding, based on the information, a first PDCP PDU for which a PDCP processing is performed and not being submitted to a lower layer; delivering a first indicator to the lower layer based on the information, the first indicator indicating a discard of data which was delivered to the lower layer; performing a first PDCP processing for a PDCP service data unit, SDU, corresponding to the discarded first PDCP PDU; and transmitting, to the receiving device, at least one PDCP PDU including a second PDCP PDU generated based on the first PDCP processing, characterized in that the at least one PDCP PDU includes a retransmitted PDCP PDU corresponding to a previous PDCP PDU which has been transmitted to the receiving device before the information is received, wherein a first COUNT value used for encoding the retransmitted PDCP PDU is different from a second COUNT value used for encoding the previous PDCP PDU, and wherein the retransmitted PDCP PDU is encoded based on a newly assigned PDCP sequence number, SN, which has not been transmitted and the first COUNT value. receiving, from a receiving device, a packet data convergence protocol, PDCP, control protocol data unit, PDU, including information indicating a check sum failure; discarding, based on the information, a first PDCP PDU for which a PDCP processing is performed and not being submitted to a lower layer; delivering a first indicator to the lower layer based on the information, the first indicator indicating a discard of data which was delivered to the lower layer; performing a first PDCP processing for a PDCP service data unit, SDU, corresponding to the discarded first PDCP PDU; and transmitting, to the receiving device, at least one PDCP PDU including a second PDCP PDU generated based on the first PDCP processing, characterized in that the at least one PDCP PDU includes a retransmitted PDCP PDU corresponding to a previous PDCP PDU which has been transmitted to the receiving device before the information is received, wherein a first COUNT value used for encoding the retransmitted PDCP PDU is different from a second COUNT value used for encoding the previous PDCP PDU, and wherein the retransmitted PDCP PDU is encoded based on a newly assigned PDCP sequence number, SN, which has not been transmitted and the first COUNT value.
Combined appliance comprising a hob with an integrated fume extraction device having a fume extraction housing and an air duct , wherein the hob has a cover plate with a cutout , which is provided in the central region of the cover plate , wherein an accommodating space in the fume extraction housing for a fan has an upper face with an air inlet opening , wherein the upper face in at least some regions is adjacent to the lower face of the hob and the air inlet opening is located below the cutout , an end of the air duct is connected to the fume extraction housing , characterised in that the air duct has a vertical region which runs downward, the air duct contains at least one circulating air filter , the circulating air filter is retained in a circulating air module which has a drawer for the circulating air filter and the circulating air module is arranged in the vertical region of the air duct .
A computing system for suspending and resuming an operation of a virtual machine, VM, running one or more first VM components and one or more second VM components, the VM having one or more devices attached to it, the computing system being configured to: suspend the operation of the VM, wherein at least one device remains configured as attached to the VM and remains configured to communicate with the VM while the VM is suspended; save a state of the one or more first VM components; save one or more identification pointers pointing to underlying data structures in computing system physical hardware of the one or more second VM components in a portion of the computing system physical memory while said underlying data structures of the one or more second VM components remain loaded in the computing system physical hardware; shut down the one or more first VM components by removing any underlying data structures for the one or more first VM components from the computing system physical hardware; restore the one or more first VM components using the saved state of the one or more first VM components; reconnect the restored one or more first VM components to the one or more second VM components using the identification pointers; and resume the operation of the VM. suspend the operation of the VM, wherein at least one device remains configured as attached to the VM and remains configured to communicate with the VM while the VM is suspended; save a state of the one or more first VM components; save one or more identification pointers pointing to underlying data structures in computing system physical hardware of the one or more second VM components in a portion of the computing system physical memory while said underlying data structures of the one or more second VM components remain loaded in the computing system physical hardware; shut down the one or more first VM components by removing any underlying data structures for the one or more first VM components from the computing system physical hardware; restore the one or more first VM components using the saved state of the one or more first VM components; reconnect the restored one or more first VM components to the one or more second VM components using the identification pointers; and resume the operation of the VM.
A creel , comprising: an enclosure ; a plurality of rotatable axles held within the enclosure , each of the plurality of axles of a shape and size to be inserted into a bobbin of roving; and a drive mechanism coupled to each of the plurality of rotatable axles , the drive mechanism synchronizing the rotation of the axles , characterized in that each of the plurality of axles is long enough to pass through a plurality of bobbins arranged in a stack . an enclosure ; a plurality of rotatable axles held within the enclosure , each of the plurality of axles of a shape and size to be inserted into a bobbin of roving; and a drive mechanism coupled to each of the plurality of rotatable axles , the drive mechanism synchronizing the rotation of the axles , characterized in that each of the plurality of axles is long enough to pass through a plurality of bobbins arranged in a stack .
A sustained release preparation for use in controlling an insect pest, the preparation comprising: - a polymer tube, and - a gel composition in the polymer tube, the composition comprising one or more volatile substances and an oil gelling agent, wherein said one or more volatile substances are comprised in an amount of from 70.0 to 99.0% by weight by the gel composition and are released outside of the polymer tube through the polymer tube; said oil gelling agent is selected from the group consisting of a long-chain fatty acid which is a saturated or unsaturated fatty acid having 8 to 24 carbon atoms and a dextrin fatty acid ester. - a polymer tube, and - a gel composition in the polymer tube,
A fluidic analyzer, comprising: a cartridge having a first major surface and an opposing second major surface, with a flow channel positioned between the first major surface and the second major surface, the cartridge further having: an opening extending through the first major surface and into the flow channel ; and a one way valve in the flow channel, the one way valve preventing backflow of fluid from the cartridge; an instrument for receiving the cartridge , the instrument having a pressure source that is at least selectively in fluid communication with a nozzle , the nozzle being positioned over the opening of the cartridge forming a fluid tight seal with the flow channel of the cartridge when the cartridge is received by the instrument ; and the instrument includes a sensor configured to sense a measure of the fluid in the supply flow channel of the instrument. a cartridge having a first major surface and an opposing second major surface, with a flow channel positioned between the first major surface and the second major surface, the cartridge further having: an opening extending through the first major surface and into the flow channel ; and a one way valve in the flow channel, the one way valve preventing backflow of fluid from the cartridge; an opening extending through the first major surface and into the flow channel ; and a one way valve in the flow channel, the one way valve preventing backflow of fluid from the cartridge; an instrument for receiving the cartridge , the instrument having a pressure source that is at least selectively in fluid communication with a nozzle , the nozzle being positioned over the opening of the cartridge forming a fluid tight seal with the flow channel of the cartridge when the cartridge is received by the instrument ; and the instrument includes a sensor configured to sense a measure of the fluid in the supply flow channel of the instrument.
A first station (STA) comprising: a processor configured to: send, to a second STA, a training announcement frame that indicates a training period and a concurrent transmit and receive training; send, to the second STA during a training transmit opportunity (TXOP), a first set of training frames via a first set of transmit beams in a first time slot of the training period, wherein each of the training frames comprises a header, a MAC body, and one or more training fields; send, to the second STA during the training TXOP, a second set of training frames via a second set of transmit beams in a second time slot of the training period; receive, from the second STA during the training TXOP, feedback associated with one or more transmit beams of the first and second set of transmit beams, wherein the feedback includes channel state information (CSI) and one or more beam identifications (IDs); and perform a down selection training during the training TXOP, wherein the down selection training comprises sending a set of down selection training frames via a down-selected set of transmit beams, and wherein the down-selected set of transmit beams are a subset of the first set and second set of transmit beams and are determined based on the received feedback. send, to a second STA, a training announcement frame that indicates a training period and a concurrent transmit and receive training; send, to the second STA during a training transmit opportunity (TXOP), a first set of training frames via a first set of transmit beams in a first time slot of the training period, wherein each of the training frames comprises a header, a MAC body, and one or more training fields; send, to the second STA during the training TXOP, a second set of training frames via a second set of transmit beams in a second time slot of the training period; receive, from the second STA during the training TXOP, feedback associated with one or more transmit beams of the first and second set of transmit beams, wherein the feedback includes channel state information (CSI) and one or more beam identifications (IDs); and perform a down selection training during the training TXOP, wherein the down selection training comprises sending a set of down selection training frames via a down-selected set of transmit beams, and wherein the down-selected set of transmit beams are a subset of the first set and second set of transmit beams and are determined based on the received feedback.
A method for testing a component in a high lift system of an aircraft, the high lift system comprising a central power drive unit for moving high lift surfaces arranged at a wing through providing rotational power by means of a transmission shaft to a plurality of drive stations operably coupled with the high lift surfaces; which power drive unit is operatively coupled to a controller and comprises at least one electric motor coupled with a selectively activated brake ; the method comprising: actuating the at least one electric motor for a predetermined period of time with all brakes in the system deactivated; acquiring a sensor output of a sensor (44. 46) coupled with the controller during the actuating of the motor and determining a motion of at least one of the motor and the high lift surfaces based on the acquired sensor output, activating a selected brake under test, measuring an elapsed time until the selected brake has arrested the motion of at least one of the motor and the high lift surfaces; determining if the elapsed time is less than a predetermined threshold value; and generating a brake failure signal for the selected brake if the elapsed time exceeds the predetermined threshold value; further comprising ensuring established preconditions for conducting the testing have been satisfied, defining maximum torque for a selected brake under test, and releasing all system brakes; and wherein the method is conducted after landing of the aircraft while at least one of the high lift surfaces are in an extended position and the high lift surfaces are moved into a neutral position. actuating the at least one electric motor for a predetermined period of time with all brakes in the system deactivated; acquiring a sensor output of a sensor (44. 46) coupled with the controller during the actuating of the motor and determining a motion of at least one of the motor and the high lift surfaces based on the acquired sensor output, activating a selected brake under test, measuring an elapsed time until the selected brake has arrested the motion of at least one of the motor and the high lift surfaces; determining if the elapsed time is less than a predetermined threshold value; and generating a brake failure signal for the selected brake if the elapsed time exceeds the predetermined threshold value; further comprising ensuring established preconditions for conducting the testing have been satisfied, defining maximum torque for a selected brake under test, and releasing all system brakes; and wherein the method is conducted after landing of the aircraft while at least one of the high lift surfaces are in an extended position and the high lift surfaces are moved into a neutral position.
The use of a mixture of lipochitooligosaccharides consisting of a lipochitooligosaccharide of the formula (I) below: wherein n = 2, R 1 represents a monounsaturated fatty acid chain containing 18 carbon atoms, and R 2 represents H, with a lipochitooligosaccharide of formula (I) wherein n = 3, R 1 represents a monounsaturated fatty acid chain containing 18 carbon atoms, and R 2 represents H to stimulate mycorrhization of a plant.