mhurhangee/patent-ind-claim-en huggingface dataset:
A method of providing system information of a cellular communication network, the method comprising: determining, by a cellular network node of the cellular communication network , whether the system information is to be relayed by a user equipment to a further user equipment based on a monitoring of the behavior of the further user equipment or a trigger event for relaying system information; transmitting, by the cellular network node of the cellular communication network , the system information to the user equipment ; and causing, by the cellular network node , the user equipment to relay the system information to the further user equipment by at least one of: setting at least one bit in a system information block to request the user equipment to relay the system information block , wherein the system information comprises the system information block and transmitting a request to the user equipment, the request including an identifier of the further user equipment; and transmitting a forwarding request to the user equipment , wherein the forwarding request includes an identifier of the further user equipment and information identifying the system information block which is to be relayed by the user equipment . determining, by a cellular network node of the cellular communication network , whether the system information is to be relayed by a user equipment to a further user equipment based on a monitoring of the behavior of the further user equipment or a trigger event for relaying system information; transmitting, by the cellular network node of the cellular communication network , the system information to the user equipment ; and causing, by the cellular network node , the user equipment to relay the system information to the further user equipment by at least one of: setting at least one bit in a system information block to request the user equipment to relay the system information block , wherein the system information comprises the system information block and transmitting a request to the user equipment, the request including an identifier of the further user equipment; and transmitting a forwarding request to the user equipment , wherein the forwarding request includes an identifier of the further user equipment and information identifying the system information block which is to be relayed by the user equipment . setting at least one bit in a system information block to request the user equipment to relay the system information block , wherein the system information comprises the system information block and transmitting a request to the user equipment, the request including an identifier of the further user equipment; and transmitting a forwarding request to the user equipment , wherein the forwarding request includes an identifier of the further user equipment and information identifying the system information block which is to be relayed by the user equipment .
A microfluidic device, wherein said microfluidic device comprises one or more microfluidic channels in fluid communication with a source of media, a membrane, said membrane comprising a first surface and a second surface, and a co-culture of gastrointestinal epithelial cells and lamina propria-derived cells, that comprise resident immune cells, located on said first surface of said membrane, and endothelial cells located on said second surface of said membrane.
A medicament delivery device comprising - an elongated housing extending along a longitudinal axis (L), having a proximal end and a distal end ; - a tubular medicament container comprising an integrated needle , a movable stopper and a radially extending flange at the distal end and being accommodated within the housing ; - a power pack in the distal end of the housing comprising an elongated plunger rod within a generally tubular body , wherein the plunger rod is held by a spring in a tensioned state by radially flexible arms on the body of a rear cap forming a support structure ; wherein the support structure comprising a flexible element being flexible in a generally longitudinal direction and arranged to exert a force on a distal end of the medicament container ; further comprising an intermediate structure (50; 60) that is arranged between said flexible element and the distal end surface of the medicament container defining a generally circular passage (54; 64) for the plunger rod , the intermediate structure (50; 60) comprising a ring-shaped element (52; 62) arranged to be placed at a distal passage of the medicament container abutting the distal end surface of the flange , wherein the flexible element exerts a resilient force on the ring shaped element (52;62) to guide said flexible element in an outwardly direction in relation to the longitudinal axis (L) in order to ensure that the flexible elements 48 cannot enter into the medicament container . - an elongated housing extending along a longitudinal axis (L), having a proximal end and a distal end ; - a tubular medicament container comprising an integrated needle , a movable stopper and a radially extending flange at the distal end and being accommodated within the housing ; - a power pack in the distal end of the housing comprising an elongated plunger rod within a generally tubular body , wherein the plunger rod is held by a spring in a tensioned state by radially flexible arms on the body of a rear cap forming a support structure ; wherein the support structure comprising a flexible element being flexible in a generally longitudinal direction and arranged to exert a force on a distal end of the medicament container ;
Measuring arrangement for determining at least one parameter of a fluid medium (L1) flowing through a fluid flow channel , comprising: - a probe device designed as a hollow body (2.1) to be arranged in the flowing medium (L1) and having - an inflow side (2.10) closing the hollow chamber (2.3) of the hollow body (2.1), - an open outflow side (2.11), and - an outer contour (2.2) producing flow separation to generate a reverse flow (L2), and - a sensor arrangement which, to generate a measuring channel through which the reverse flow (L2) flows, has a fluid connection to an inlet opening (2.5) via a fluid feed channel (4.1) and to an outlet opening (2.6) via a fluid discharge channel (4.2), characterised in that - the outer contour (2.2) producing flow separation is on the outflow side (2.11) of the hollow body (2.1), - the hollow chamber (2.3) of the hollow body (2.1) is divided by a dividing wall (2.4) into a fluid inflow chamber (2.31) and a fluid outflow chamber (2.32), - the fluid inflow chamber (2.31) has the inlet opening (2.5) connected to the fluid flow channel (4.1), via which inlet opening the reverse flow (L2) is fed to the sensor arrangement , and - the fluid outflow chamber (2.32) has the outlet opening (2.6) connected to the fluid discharge channel (4.2), via which outlet opening the reverse flow (L2) fed to the sensor arrangement is fed back into the fluid outflow chamber (2.32). - a probe device designed as a hollow body (2.1) to be arranged in the flowing medium (L1) and having - an inflow side (2.10) closing the hollow chamber (2.3) of the hollow body (2.1), - an open outflow side (2.11), and - an outer contour (2.2) producing flow separation to generate a reverse flow (L2), and - an inflow side (2.10) closing the hollow chamber (2.3) of the hollow body (2.1), - an open outflow side (2.11), and - an outer contour (2.2) producing flow separation to generate a reverse flow (L2), and - a sensor arrangement which, to generate a measuring channel through which the reverse flow (L2) flows, has a fluid connection to an inlet opening (2.5) via a fluid feed channel (4.1) and to an outlet opening (2.6) via a fluid discharge channel (4.2), - the outer contour (2.2) producing flow separation is on the outflow side (2.11) of the hollow body (2.1), - the hollow chamber (2.3) of the hollow body (2.1) is divided by a dividing wall (2.4) into a fluid inflow chamber (2.31) and a fluid outflow chamber (2.32), - the fluid inflow chamber (2.31) has the inlet opening (2.5) connected to the fluid flow channel (4.1), via which inlet opening the reverse flow (L2) is fed to the sensor arrangement , and - the fluid outflow chamber (2.32) has the outlet opening (2.6) connected to the fluid discharge channel (4.2), via which outlet opening the reverse flow (L2) fed to the sensor arrangement is fed back into the fluid outflow chamber (2.32).
A method for data transmission, by a transmitting node , in a communication network , the method comprising: generating a medium access control, MAC, protocol data unit, PDU, comprising a MAC service data unit, SDU, and a subheader; and transmitting the MAC PDU, wherein the subheader comprises a format indicator field and a plurality of bits in a single length field indicating a total length of the MAC SDU, wherein a value of the format indicator field indicates a size of the single length field and the plurality of bits in the single length field are contiguous in the MAC PDU, wherein when the value of the format indicator field is set to one, the value of the format indicator field indicates that the size of the single length field is 16 bits, and wherein when the value of the format indicator field is set to zero, the value of the format indicator field indicates that the size of the single length field is 8 bits. generating a medium access control, MAC, protocol data unit, PDU, comprising a MAC service data unit, SDU, and a subheader; and transmitting the MAC PDU, wherein the subheader comprises a format indicator field and a plurality of bits in a single length field indicating a total length of the MAC SDU, wherein a value of the format indicator field indicates a size of the single length field and the plurality of bits in the single length field are contiguous in the MAC PDU, wherein when the value of the format indicator field is set to one, the value of the format indicator field indicates that the size of the single length field is 16 bits, and wherein when the value of the format indicator field is set to zero, the value of the format indicator field indicates that the size of the single length field is 8 bits.
A user equipment, UE , configured to communicate with a base station , the UE comprising: means for receiving, from the base station , a radio resource control, RRC, signalling message that includes information identifying a periodicity of monitoring a physical downlink control channel, PDCCH; and means for determining a starting portion of a search space for monitoring the PDCCH using a formula in a form A mod B = 0, wherein the 'A' is based on a system frame index and on a slot index for a slot in a frame with the system frame index, and the 'B' is based on the periodicity, wherein the UE is configured to monitor the PDCCH based on the starting portion. means for receiving, from the base station , a radio resource control, RRC, signalling message that includes information identifying a periodicity of monitoring a physical downlink control channel, PDCCH; and means for determining a starting portion of a search space for monitoring the PDCCH using a formula in a form A mod B = 0, wherein the 'A' is based on a system frame index and on a slot index for a slot in a frame with the system frame index, and the 'B' is based on the periodicity, wherein the UE is configured to monitor the PDCCH based on the starting portion.
A motor control unit, wherein said motor control unit comprises: a micro controller unit (MCU) to control a motor having dual-system motor windings, dual-system inverters to drive said respective dual-system motor windings via dual-system gate driving sections , and one reverse-connection protection-field-effect transistor (FET) that is connected between said dual-system inverters and a power supply , characterized in that said reverse-connection protection-FET is turned-ON or turned-OFF by a wired logical sum of gate driving signals from said dual-system gate driving sections . a micro controller unit (MCU) to control a motor having dual-system motor windings, dual-system inverters to drive said respective dual-system motor windings via dual-system gate driving sections , and one reverse-connection protection-field-effect transistor (FET) that is connected between said dual-system inverters and a power supply , characterized in that said reverse-connection protection-FET is turned-ON or turned-OFF by a wired logical sum of gate driving signals from said dual-system gate driving sections .
System (SY, SY2, SY3, SY4) for determining a position of an RF transponder circuit (RTC) respective an ultrasound emitter unit (UEU, UEU2, UEU3) based on RF signals emitted or reflected by the RF transponder circuit (RTC); the system comprising: an RF emitter unit (RFE); an RF detector unit (RFD); an ultrasound emitter unit (UEU, UEU2, UEU3); a position determination unit (PDU, PDU2, PDU3, PDU4); wherein the RF emitter unit (RFE) is configured to emit RF signals for energizing the RF transponder circuit (RTC); wherein the RF detector unit (RFD) is configured to detect a modulation of the RF signals emitted or reflected by the RF transponder circuit (RTC); wherein the ultrasound emitter unit (UEU, UEU2, UEU3) is configured to emit ultrasound signals for modulating the RF signals emitted or reflected by the RF transponder circuit (RTC); wherein the position determination unit (PDU, PDU2, PDU3, PDU4) is in operative communication with the RF detector unit (RFD) and with the ultrasound emitter unit (UEU, UEU2, UEU3), and is configured to determine a position of the RF transponder circuit (RTC) respective the ultrasound emitter unit (UEU, UEU2, UEU3) based on a time difference (ΔT 1 ) between the emission of an ultrasound signal by the ultrasound emitter unit (UEU, UEU2, UEU3) and the detection by the RF detector unit (RFD) of a corresponding modulation in the RF signal emitted or reflected by the RF transponder circuit (RTC); and characterized in that the modulation includes at least one of: phase modulation, amplitude modulation, pulse sequence modulation, and code modulation. an RF emitter unit (RFE); an RF detector unit (RFD); an ultrasound emitter unit (UEU, UEU2, UEU3); a position determination unit (PDU, PDU2, PDU3, PDU4); wherein the RF emitter unit (RFE) is configured to emit RF signals for energizing the RF transponder circuit (RTC); wherein the RF detector unit (RFD) is configured to detect a modulation of the RF signals emitted or reflected by the RF transponder circuit (RTC); wherein the ultrasound emitter unit (UEU, UEU2, UEU3) is configured to emit ultrasound signals for modulating the RF signals emitted or reflected by the RF transponder circuit (RTC); wherein the position determination unit (PDU, PDU2, PDU3, PDU4) is in operative communication with the RF detector unit (RFD) and with the ultrasound emitter unit (UEU, UEU2, UEU3), and is configured to determine a position of the RF transponder circuit (RTC) respective the ultrasound emitter unit (UEU, UEU2, UEU3) based on a time difference (ΔT 1 ) between the emission of an ultrasound signal by the ultrasound emitter unit (UEU, UEU2, UEU3) and the detection by the RF detector unit (RFD) of a corresponding modulation in the RF signal emitted or reflected by the RF transponder circuit (RTC); and characterized in that the modulation includes at least one of: phase modulation, amplitude modulation, pulse sequence modulation, and code modulation.
A valve train assembly comprising: a rocker arm comprising: a first body supporting a first axle on which is mounted a first roller for engaging a first rotatable cam surface whereby at least part of the rocker arm can be pivoted by at least the first rotatable cam surface to move a valve to cause a first valve event; and the rocker arm further comprising a second body supporting a second axle on which is mounted a further roller for engaging a further rotatable cam surface whereby at least part of the rocker arm can be pivoted by the further rotatable cam surface to move the valve to cause a second valve event, wherein one of the first and second bodies is pivotally mounted with respect to the other of the first and second bodies, wherein the rocker arm is configurable in a first mode of operation in which one of the first and second valve events occurs and a second mode of operation in which both the first and second valve events occur or the other of the first and second valve events occurs, wherein the rocker arm further comprises a latching mechanism for latching and un-latching the first and second bodies together and wherein which of the first and second modes the rocker arm is configured in depends upon whether the first and second bodies are latched or are unlatched, wherein the latching mechanism comprises a latch member , a shaft and a roller mounted on the shaft , wherein the latch member is moveable between a latched position wherein it latches the first and second bodies together and an unlatched position in which the first and second bodies are unlatched, and wherein the valve train assembly further comprises a latching actuator for moving the latch member between the latched position and the unlatched position, wherein the latching actuator comprises a rotatable shaft attached to a leaf spring , wherein rotating the rotatable shaft from a first position to a second position causes the leaf spring to engage the roller to move the latch member from the unlatched position to the latched position and wherein a spring mounted over the latch member is biased to move the latch member from the latched position to the unlatched position when the rotatable shaft is rotated from the second position to the first position so that the leaf spring disengages from the roller .
Method for reducing noise and positioning of piston in starting failure of electric motor attached to a piston compressor configured by means of a failure detection logic , a de-energization logic and a positioning logic of piston , the electric motor being able to be driven by means of a set of keys, these keys being of the type configured to act on the selective drive of the motor , the method for reducing noise and positioning of piston in starting failure of electric motor being characterized in that: the failure detection logic comprises at least the steps of: - obtaining at least one current position (S0), one more favorable position (S1) and one next position (S2) of the piston ; - comparing the next position (S2) with the most favorable position (S1); the de-energizing logic comprises at least the step of: - keeping the magnetic field active; the positioning logic of piston comprises the step of: - positioning the piston in a new current position (S0). the failure detection logic comprises at least the steps of: - obtaining at least one current position (S0), one more favorable position (S1) and one next position (S2) of the piston ; - comparing the next position (S2) with the most favorable position (S1); - obtaining at least one current position (S0), one more favorable position (S1) and one next position (S2) of the piston ; - comparing the next position (S2) with the most favorable position (S1); the de-energizing logic comprises at least the step of: - keeping the magnetic field active; - keeping the magnetic field active; the positioning logic of piston comprises the step of: - positioning the piston in a new current position (S0). - positioning the piston in a new current position (S0).
Integrated on-silicon III-V heterostructure laser device comprising • a III-V heterostructure gain medium , and • a rib optical waveguide , located facing the gain medium and comprising a strip waveguide doted with a longitudinal rib , the rib optical waveguide being integrated into or formed in a silicon layer, • two sets (RBE-A, RBE-B) of Bragg gratings formed in the rib optical waveguide and located on either side of the III-V heterostructure gain medium , each set (RBE-A, RBE-B) of Bragg gratings comprising a first Bragg grating (RB1-A, RB1-B) having a first pitch and formed in the rib and a second Bragg grating (RB2-A, RB2-B) having a second pitch different from the first pitch and formed on that side of the rib waveguide which is opposite the rib . • a III-V heterostructure gain medium , and • a rib optical waveguide , located facing the gain medium and comprising a strip waveguide doted with a longitudinal rib , the rib optical waveguide being integrated into or formed in a silicon layer, • two sets (RBE-A, RBE-B) of Bragg gratings formed in the rib optical waveguide and located on either side of the III-V heterostructure gain medium ,
A method comprising: receiving at a user equipment information from a network access node, wherein receiving comprises receiving system information including an indication of frequency bands for at least two radio access technologies; prioritizing , at the user equipment, capability information of the user equipment in accordance with the received information, wherein prioritizing comprises determining which of the indicated frequency bands are supported by the user equipment; and transmitting all or at least part of the prioritized capability information to the network access node, characterized in that , wherein transmitting comprises sending a radio resource control connection request message which comprises an indication of the determined frequency bands of the at least two radio access technologies that the user equipment supports, wherein the indication of the determined frequency bands comprises at least one flag indicating whether the user equipment supports the at least two radio access technologies in a frequency division duplex mode for redirecting the user equipment to one of said at least two radio access technologies. receiving at a user equipment information from a network access node, wherein receiving comprises receiving system information including an indication of frequency bands for at least two radio access technologies; prioritizing , at the user equipment, capability information of the user equipment in accordance with the received information, wherein prioritizing comprises determining which of the indicated frequency bands are supported by the user equipment; and transmitting all or at least part of the prioritized capability information to the network access node, characterized in that , wherein transmitting comprises sending a radio resource control connection request message which comprises an indication of the determined frequency bands of the at least two radio access technologies that the user equipment supports, wherein the indication of the determined frequency bands comprises at least one flag indicating whether the user equipment supports the at least two radio access technologies in a frequency division duplex mode for redirecting the user equipment to one of said at least two radio access technologies.