mhurhangee/patent-ind-claim-en huggingface dataset:
An Optical Network Unit, ONU, management method, performed by a management and control subsystem, characterized by the method comprising: establishing a network topology among the management and control subsystem, at least one ONU Management and Control Interface, OMCI, subsystem, at least one Optical Line Terminal, OLT, device, and at least one ONU; receiving (S201) a first management and control request for an ONU of the at least one ONU sent by an Element Management System/Software Defined Network, EMS/SDN, control platform; extracting (S202) an ONU identifier carried in the first management and control request; and sending (S203) the first management and control request to a corresponding OMCI subsystem of the at least one OMCI subsystem based on the ONU identifier, to enable the OMCI subsystem to generate an OMCI data packet based on the first management and control request and send, based on the ONU identifier, the OMCI data packet to a corresponding OLT device of the at least one OLT device for managing and controlling the ONU based on the OMCI data packet. establishing a network topology among the management and control subsystem, at least one ONU Management and Control Interface, OMCI, subsystem, at least one Optical Line Terminal, OLT, device, and at least one ONU; receiving (S201) a first management and control request for an ONU of the at least one ONU sent by an Element Management System/Software Defined Network, EMS/SDN, control platform; extracting (S202) an ONU identifier carried in the first management and control request; and sending (S203) the first management and control request to a corresponding OMCI subsystem of the at least one OMCI subsystem based on the ONU identifier, to enable the OMCI subsystem to generate an OMCI data packet based on the first management and control request and send, based on the ONU identifier, the OMCI data packet to a corresponding OLT device of the at least one OLT device for managing and controlling the ONU based on the OMCI data packet.
A mid-turbine frame for a gas turbine engine comprising: an outer frame case ; an inner frame case ; at least one spoke connecting the outer frame case to the inner frame case , wherein the spoke includes an inlet passage , wherein the inlet passage includes a first branch and a second branch , the first branch extending in a radial direction into a bearing support cavity and the second branch extending in an axial direction into a low rotor cavity ; and characterised by a fitting fluidly connecting the second branch to the low rotor cavity through the inner frame case . an outer frame case ; an inner frame case ; at least one spoke connecting the outer frame case to the inner frame case , wherein the spoke includes an inlet passage , wherein the inlet passage includes a first branch and a second branch , the first branch extending in a radial direction into a bearing support cavity and the second branch extending in an axial direction into a low rotor cavity ; and characterised by a fitting fluidly connecting the second branch to the low rotor cavity through the inner frame case .
The use of a system for culturing at least one hematopoietic stem cells and/or progenitor cells comprising: a cell vessel for culturing cells, having an inlet for receiving culture media; and a delivery mechanism connected to the inlet of the cell vessel for delivering the culture media to the cell vessel, the delivery mechanism being controlled to continuously or intermittently deliver the culture media at a determined culture media delivery rate; and a controller device configured to: - receive, continuously or intermittently, signals representing measurement of at least one marker component, wherein the measurement is a concentration or density of the at least one marker component; - determine the culture media delivery rate for diluting concentration of the at least one marker component in the cell vessel based on the measurement of the at least one marker component; and - control the delivery mechanism; wherein the marker component is at least one of: an endogenous secreted factor, wherein the endogenous secreted factor is selected from: ADIPOQ, CCL2, CCL3, CCL4, CCL5, CXCL7, CXCL8, CXCL1O, EGF, PDGF, TGFB1, TGFB2, TNFSF9, and VEGF; and a cell population, wherein the cell population is selected from: CD14, CD15, CD33, CD41, CD235a, CD133, CD34, CD38, CD71 and Rho123 expressing cells. a cell vessel for culturing cells, having an inlet for receiving culture media; and a delivery mechanism connected to the inlet of the cell vessel for delivering the culture media to the cell vessel, the delivery mechanism being controlled to continuously or intermittently deliver the culture media at a determined culture media delivery rate; and a controller device configured to: - receive, continuously or intermittently, signals representing measurement of at least one marker component, wherein the measurement is a concentration or density of the at least one marker component; - determine the culture media delivery rate for diluting concentration of the at least one marker component in the cell vessel based on the measurement of the at least one marker component; and - control the delivery mechanism; - receive, continuously or intermittently, signals representing measurement of at least one marker component, wherein the measurement is a concentration or density of the at least one marker component; - determine the culture media delivery rate for diluting concentration of the at least one marker component in the cell vessel based on the measurement of the at least one marker component; and - control the delivery mechanism; wherein the marker component is at least one of: an endogenous secreted factor, wherein the endogenous secreted factor is selected from: ADIPOQ, CCL2, CCL3, CCL4, CCL5, CXCL7, CXCL8, CXCL1O, EGF, PDGF, TGFB1, TGFB2, TNFSF9, and VEGF; and a cell population, wherein the cell population is selected from: CD14, CD15, CD33, CD41, CD235a, CD133, CD34, CD38, CD71 and Rho123 expressing cells.
Electrical plug-in connection comprising two components which can be connected to each other in a plug-in direction and have electrical contacts , wherein a first component is in the form of a plug and a second component is in the form of a socket , and having a latching device, which acts between the components , for mechanically securing the plug-in connection , wherein the latching device is formed from a latching element , which is held on the first component , and a latching recess , which is formed in the second component , into which the latching element engages and which mechanically latches the plug-in connection , and having an actuating element , which acts on the latching element and can be moved in order to release the latching by the latching element being lifted out of the latching recess , wherein a mechanical locking element is provided on the first component which is fitted with the latching element , wherein the locking element locks the latching element , which is situated in the latching recess of the second component , in its latching position, wherein the latching element can be moved counter to the plug-in direction relative to the locking element in order to undo the locking, wherein the latching element is in the form of a latching tongue with a latching lug , wherein the second component , which is in the form of a socket , has a truncated-cone-shaped insertion bevel , characterized in that the insertion bevel interacts with a truncated cone-shaped portion of the first component , in that the truncated cone-shaped portion of the first component is composed of an encircling annular shoulder of the locking element and the latching lug which bears against the locking element , in that the latching lug has a V-shaped basic shape in cross section, and in that the cross section of the latching lug engages into the cross section of the latching recess with an accurate fit.
A rod reducer having a longitudinal axis comprising: a shaft ; a sleeve assembly defining a first bore dimensioned to receive the shaft therethrough, the sleeve assembly including a locking tab ; a housing defining a second bore dimensioned to receive the shaft therethrough, the housing including a groove configured to selectively receive the locking tab of the sleeve assembly , the housing including a locking ledge portion in registration with the groove ; a pair of arm members operatively associated with the housing ; and an anvil operatively coupled with the shaft , the anvil transitionable between a proximal position, in which, the pair of arm members are spaced apart, and a distal position, in which, the pair of arm members are in an approximated position, wherein, when the shaft extends through the first bore and the second bore , the sleeve assembly is rotatable about the shaft between an engaged state in which, the locking tab of the sleeve assembly engages the groove of the housing such that the locking ledge portion inhibits relative axial displacement of the sleeve assembly with the housing , and a disengaged state in which, the locking tab of the sleeve assembly is offset from the groove such that the sleeve assembly is axially movable along the longitudinal axis of the rod reducer relative to the housing . a shaft ; a sleeve assembly defining a first bore dimensioned to receive the shaft therethrough, the sleeve assembly including a locking tab ; a housing defining a second bore dimensioned to receive the shaft therethrough, the housing including a groove configured to selectively receive the locking tab of the sleeve assembly , the housing including a locking ledge portion in registration with the groove ; a pair of arm members operatively associated with the housing ; and an anvil operatively coupled with the shaft , the anvil transitionable between a proximal position, in which, the pair of arm members are spaced apart, and a distal position, in which, the pair of arm members are in an approximated position, wherein, when the shaft extends through the first bore and the second bore , the sleeve assembly is rotatable about the shaft between an engaged state in which, the locking tab of the sleeve assembly engages the groove of the housing such that the locking ledge portion inhibits relative axial displacement of the sleeve assembly with the housing , and a disengaged state in which, the locking tab of the sleeve assembly is offset from the groove such that the sleeve assembly is axially movable along the longitudinal axis of the rod reducer relative to the housing .
A radio frequency, RF, control system comprising: a plurality of RF generators (16, 712b', 712b", 712c', 712c") configured to output a respective RF signal to a load , each RF generator including: a power amplifier configured to output the respective RF signal to the load ; an energy detection circuit configured to determine an energy of the RF signal in accordance with a sensor signal received from a senor configured to monitor the RF signal and generate the sensor signal based on the RF signal; a feedback loop comprising a power feedback loop for power regulation and an energy feedback loop for energy regulation, wherein the power feedback loop is configured to generate a power control signal and wherein the energy feedback loop outputs an energy feedback error signal; an energy control module configured to receive the power control signal and the energy feedback error signal and to generate a control signal for varying the RF signal in accordance with the energy determined by the energy detection circuit, the control signal including a power adjustment and an energy adjustment; and a RF delivery coordination module, the RF delivery coordination module configured to receive the control signal and an input from an analysis module configured to receive a signal from an RF sensor coupled between the RF generators and the load and to generate a modulation signal to provide phase coherence between one RF generator of the plurality and an other RF generator (712b", 712c") of the plurality by synchronizing operation of the one RF generator to the other RF generator to control energy with respect to time for the RF signal output by each respective RF generator. a power amplifier configured to output the respective RF signal to the load ; an energy detection circuit configured to determine an energy of the RF signal in accordance with a sensor signal received from a senor configured to monitor the RF signal and generate the sensor signal based on the RF signal; a feedback loop comprising a power feedback loop for power regulation and an energy feedback loop for energy regulation, wherein the power feedback loop is configured to generate a power control signal and wherein the energy feedback loop outputs an energy feedback error signal; an energy control module configured to receive the power control signal and the energy feedback error signal and to generate a control signal for varying the RF signal in accordance with the energy determined by the energy detection circuit, the control signal including a power adjustment and an energy adjustment; and a RF delivery coordination module, the RF delivery coordination module configured to receive the control signal and an input from an analysis module configured to receive a signal from an RF sensor coupled between the RF generators and the load and to generate a modulation signal to provide phase coherence between one RF generator of the plurality and an other RF generator (712b", 712c") of the plurality by synchronizing operation of the one RF generator to the other RF generator to control energy with respect to time for the RF signal output by each respective RF generator.
A selective vapor deposition method, comprising: evaporating a precursor material in a low vacuum evaporating chamber to produce a precursor vapor ; evacuating the precursor vapor into a nozzle of a venturi element ; and accelerating the precursor vapor through a diffuser of the venturi element and toward a target build surface , characterized in that the diffuser comprises axial segments respectively coupled to electrodes , and the accelerating comprises: sequentially energizing the electrodes of each of the axial segments to generate an electro-magnetic repulsion pattern along a diverging section of the diffuser between the precursor vapor and an interior surface of the diverging section; and controlling and timing the electro-magnetic repulsion pattern of the precursor vapor along the diverging section of the diffuser. evaporating a precursor material in a low vacuum evaporating chamber to produce a precursor vapor ; evacuating the precursor vapor into a nozzle of a venturi element ; and accelerating the precursor vapor through a diffuser of the venturi element and toward a target build surface , characterized in that the diffuser comprises axial segments respectively coupled to electrodes , and the accelerating comprises: sequentially energizing the electrodes of each of the axial segments to generate an electro-magnetic repulsion pattern along a diverging section of the diffuser between the precursor vapor and an interior surface of the diverging section; and controlling and timing the electro-magnetic repulsion pattern of the precursor vapor along the diverging section of the diffuser. sequentially energizing the electrodes of each of the axial segments to generate an electro-magnetic repulsion pattern along a diverging section of the diffuser between the precursor vapor and an interior surface of the diverging section; and controlling and timing the electro-magnetic repulsion pattern of the precursor vapor along the diverging section of the diffuser.
A deployable table assembly comprising: - a deployable table , and - a support arm , wherein the deployable table is moveably mounted to the support arm and is moveable in relation to the support arm between a stowed position and a deployed position , wherein the support arm comprises a coverable region that is: - covered by the deployable table when the deployable table is in the stowed position, and - not covered by the deployable table when the deployable table is in the deployed position, wherein the deployable table assembly further comprises: - a holder for a personal electronic device mounted at least partially over the coverable region of the support arm such that the holder is: - at least partially covered by the deployable table element when the deployable table is in the stowed position , and - at least partially exposed when the deployable table is in the deployed position characterised in that the holder is translatably mounted to the support arm and translatable in relation to the support arm from a first translation position to a second translation position and in that the support arm is configured to support the deployable table and to support the holder in use. - a deployable table , and - a support arm , wherein the deployable table is moveably mounted to the support arm and is moveable in relation to the support arm between a stowed position and a deployed position , wherein the support arm comprises a coverable region that is: - covered by the deployable table when the deployable table is in the stowed position, and - not covered by the deployable table when the deployable table is in the deployed position, - covered by the deployable table when the deployable table is in the stowed position, and - not covered by the deployable table when the deployable table is in the deployed position, wherein the deployable table assembly further comprises: - a holder for a personal electronic device mounted at least partially over the coverable region of the support arm such that the holder is: - at least partially covered by the deployable table element when the deployable table is in the stowed position , and - at least partially exposed when the deployable table is in the deployed position - a holder for a personal electronic device mounted at least partially over the coverable region of the support arm such that the holder is: - at least partially covered by the deployable table element when the deployable table is in the stowed position , and - at least partially exposed when the deployable table is in the deployed position - at least partially covered by the deployable table element when the deployable table is in the stowed position , and - at least partially exposed when the deployable table is in the deployed position characterised in that the holder is translatably mounted to the support arm and translatable in relation to the support arm from a first translation position to a second translation position and in that the support arm is configured to support the deployable table and to support the holder in use.
System with a monopole antenna and an antenna-retaining device for a motor vehicle, having an antenna carrier plate for retaining the monopole antenna in an emitting position and a motor-vehicle coupling apparatus for fastening the antenna carrier plate to a vehicle body , wherein in the emitting position there is distance between the retained monopole antenna and the vehicle body and wherein the antenna carrier plate is electrically conductive and thereby forms an electric counterweight to the monopole antenna , wherein the antenna-retaining device further has an electrically conductive tab element as a counterweight extension , wherein the antenna carrier plate and the counterweight extension are connected to one another and hereby with the monopole antenna retained in the emitting position, the latter and the counterweight extension are arranged on opposite sides of the antenna carrier plate and a surface of the counterweight extension on the one hand and a wide-area radiation area or a longitudinal axis of the monopole antenna on the other hand form an angle in the range of 90° to 180°, wherein slots are provided in the counterweight extension , wherein the antenna carrier plate has a reinforcing rib in order to reduce the vibrations of the antenna carrier plate . wherein the antenna-retaining device further has an electrically conductive tab element as a counterweight extension , wherein the antenna carrier plate and the counterweight extension are connected to one another and hereby with the monopole antenna retained in the emitting position, the latter and the counterweight extension are arranged on opposite sides of the antenna carrier plate and a surface of the counterweight extension on the one hand and a wide-area radiation area or a longitudinal axis of the monopole antenna on the other hand form an angle in the range of 90° to 180°, wherein slots are provided in the counterweight extension , wherein the antenna carrier plate has a reinforcing rib in order to reduce the vibrations of the antenna carrier plate .
A method for facilitating secure communication between a client device and an application server , the method being performed in a gateway and comprising the steps of: receiving a first client request from the client device , the first client request comprising a first fully qualified domain name, FQDN, for the application server ; transmitting a gateway request to the application server , wherein the gateway request is based on the first client request; receiving an application server response from the application server, the application server response indicating a need to provide authentication; generating a second FQDN, based on the first FQDN and an identifier of the client device; generating a client specific shared key based on the second FQDN and a shared key which is not specific to the client device; generating a redirect message comprising the second FQDN, an authentication request, a context identifier and the client specific shared key; transmitting the redirect message to the client device ; receiving a second client request from the client device; and generating an authentication response in case the second client request fails to comprise an authentication response. receiving a first client request from the client device , the first client request comprising a first fully qualified domain name, FQDN, for the application server ; transmitting a gateway request to the application server , wherein the gateway request is based on the first client request; receiving an application server response from the application server, the application server response indicating a need to provide authentication; generating a second FQDN, based on the first FQDN and an identifier of the client device; generating a client specific shared key based on the second FQDN and a shared key which is not specific to the client device; generating a redirect message comprising the second FQDN, an authentication request, a context identifier and the client specific shared key; transmitting the redirect message to the client device ; receiving a second client request from the client device; and generating an authentication response in case the second client request fails to comprise an authentication response.