mhurhangee/patent-ind-claim-en huggingface dataset:
A method of updating a Protocol Data Unit, PDU, session, the method being applied to a network-side device, characterized in that the method comprises: during a registration procedure initiated after a User Equipment, UE, moves across Public Land Mobile Networks, PLMN, or across systems, determining that the UE has a first PDU session of which an anchor SMF is not in a current PLMN; determining a Session Management Function V-SMF in a Visited Public Land Mobile Network, VPLMN, for the first PDU session, and updating the first PDU session by using the V-SMF; wherein the method further comprises: receiving a registration request of the UE, wherein the registration request carries temporary identifier information of the UE; and judging, according to the temporary identifier information, whether the UE moves across PLMNs or across systems; wherein the temporary identifier information is a Global Unique Temporary Identifier, GUTI, of the UE. during a registration procedure initiated after a User Equipment, UE, moves across Public Land Mobile Networks, PLMN, or across systems, determining that the UE has a first PDU session of which an anchor SMF is not in a current PLMN; determining a Session Management Function V-SMF in a Visited Public Land Mobile Network, VPLMN, for the first PDU session, and updating the first PDU session by using the V-SMF; wherein the method further comprises: receiving a registration request of the UE, wherein the registration request carries temporary identifier information of the UE; and judging, according to the temporary identifier information, whether the UE moves across PLMNs or across systems; wherein the temporary identifier information is a Global Unique Temporary Identifier, GUTI, of the UE. receiving a registration request of the UE, wherein the registration request carries temporary identifier information of the UE; and judging, according to the temporary identifier information, whether the UE moves across PLMNs or across systems; wherein the temporary identifier information is a Global Unique Temporary Identifier, GUTI, of the UE.
A method to provide a management console for a user or administrator, comprising, in a chassis having a plurality of slots each configured to receive a module having one or more information handling systems wherein each slot is configured to electrically and communicatively couple the module to other components of the chassis : receiving, by a chassis management controller integral to the chassis , a signal from a sensor integral to the chassis , the signal indicative of a physical quantity measured by the sensor ; characterized by communicating, from the chassis management controller to a remote access controller integral to at least one module disposed in the plurality of slots , sensor information in conformity with the signal, wherein the chassis management controller is configured to serve as a proxy between the sensor and the remote access controller , wherein the chassis management controller interfaces with a network interface separate from a network interface of the chassis , which allows out-of-band control of the chassis such that communications to and from the chassis management controller are communicated via a management channel physically isolated from an in-band communication channel with the network interface of the chassis . receiving, by a chassis management controller integral to the chassis , a signal from a sensor integral to the chassis , the signal indicative of a physical quantity measured by the sensor ; characterized by communicating, from the chassis management controller to a remote access controller integral to at least one module disposed in the plurality of slots , sensor information in conformity with the signal, wherein the chassis management controller is configured to serve as a proxy between the sensor and the remote access controller , wherein the chassis management controller interfaces with a network interface separate from a network interface of the chassis , which allows out-of-band control of the chassis such that communications to and from the chassis management controller are communicated via a management channel physically isolated from an in-band communication channel with the network interface of the chassis .
A nasal medicinal composition containing hexapeptide tyrosyl-D-alanyl-glycyl-phenylalanyl-leucyl-arginine (dalargin) or its pharmaceutically acceptable salt for use in the treatment of acute respiratory viral diseases (ARVI).
A method of operating a wireless tracking device comprising a locating device , at least one sensor and a communication module , the method comprising: determining, by the locating device , a geographic location of the wireless tracking device ; generating, by the at least one sensor , a sensor signal , the sensor signal representing a condition or a property associated with the wireless tracking device ; generating a message indicating the geographic location and the condition or the property associated with the wireless tracking device , placing the wireless tracking device in a hibernation mode, lowering a sensitivity for detecting an event by the at least one sensor to a first sensitivity while the wireless tracking device is in the hibernation mode, and switching the wireless tracking device to an active mode in response to receiving, from the at least one sensor , a sensor signal indicating a change exceeding the first sensitivity corresponding to a first external event, wherein the active mode consumes more power than the hibernation mode; and sending, by the communication module , the message via a wireless network, wherein the communication module is configured to operate in the active mode but not in the hibernation mode. determining, by the locating device , a geographic location of the wireless tracking device ; generating, by the at least one sensor , a sensor signal , the sensor signal representing a condition or a property associated with the wireless tracking device ; generating a message indicating the geographic location and the condition or the property associated with the wireless tracking device , placing the wireless tracking device in a hibernation mode, lowering a sensitivity for detecting an event by the at least one sensor to a first sensitivity while the wireless tracking device is in the hibernation mode, and switching the wireless tracking device to an active mode in response to receiving, from the at least one sensor , a sensor signal indicating a change exceeding the first sensitivity corresponding to a first external event, wherein the active mode consumes more power than the hibernation mode; and sending, by the communication module , the message via a wireless network, wherein the communication module is configured to operate in the active mode but not in the hibernation mode.
A method for wireless communications by a base station, BS , the method comprising: establishing a data connection with a user equipment, UE , via one or more data bearers; making a first determination whether to route uplink traffic for each data bearer of the one or more data bearers from the UE via a first radio access technology, RAT, or a second RAT; making a second determination whether to route downlink traffic for each data bearer of the one or more data bearers to the UE via the first RAT or the second RAT; providing a radio resource control, RRC, message comprising configuration indicating that one or more data bearers are to be sent via the first RAT and the second RAT, wherein the uplink and downlink traffic for each of the one or more data bearers is independently configured for routing via the first RAT and the second RAT; receiving a configuration complete message from the UE ; and participating in the data connection based on the configuration and after receiving the configuration complete message. establishing a data connection with a user equipment, UE , via one or more data bearers; making a first determination whether to route uplink traffic for each data bearer of the one or more data bearers from the UE via a first radio access technology, RAT, or a second RAT; making a second determination whether to route downlink traffic for each data bearer of the one or more data bearers to the UE via the first RAT or the second RAT; providing a radio resource control, RRC, message comprising configuration indicating that one or more data bearers are to be sent via the first RAT and the second RAT, wherein the uplink and downlink traffic for each of the one or more data bearers is independently configured for routing via the first RAT and the second RAT; receiving a configuration complete message from the UE ; and participating in the data connection based on the configuration and after receiving the configuration complete message.
A system for delivering breathing gas to passengers on-board an aircraft, comprising: a source of breathing gas , at least one face mask for passengers, a reservoir associated with each face mask , a delivery valve for each face mask , the delivery valve being disposed between the source of breathing gas and the reservoir , the reservoir being disposed between the delivery valve and the face mask and a controller configured to control the delivery valve to provide breathing gas to the reservoir , characterised in that the system further comprises: a sensor associated with each reservoir and configured to sense a filling of the reservoir , and the controller being configured to control the delivery valve in a continuous supply mode to provide a continuous flow of breathing gas , and to interrupt the continuous flow of breathing gas when the filing sensed by the sensor is a filling threshold . a source of breathing gas , at least one face mask for passengers, a reservoir associated with each face mask , a delivery valve for each face mask , the delivery valve being disposed between the source of breathing gas and the reservoir , the reservoir being disposed between the delivery valve and the face mask and a controller configured to control the delivery valve to provide breathing gas to the reservoir , characterised in that the system further comprises: a sensor associated with each reservoir and configured to sense a filling of the reservoir , and the controller being configured to control the delivery valve in a continuous supply mode to provide a continuous flow of breathing gas , and to interrupt the continuous flow of breathing gas when the filing sensed by the sensor is a filling threshold . a sensor associated with each reservoir and configured to sense a filling of the reservoir , and the controller being configured to control the delivery valve in a continuous supply mode to provide a continuous flow of breathing gas , and to interrupt the continuous flow of breathing gas when the filing sensed by the sensor is a filling threshold .
A method for determining the volumetric error of a mechatronic system , comprising: defining a volumetric point cloud depicting the volumetric work-space of the mechatronic system , said volumetric point cloud comprising N points; attaching a measuring device to the mechatronic system ; fixing M fiducial points surrounding the mechatronic system , where M>3; defining a common reference system for the mechatronic system , the measuring device and the M fiducial points ; the method being characterized by : sequentially moving the measuring device to each of the N points of the volumetric point cloud and, from each point in the volumetric point cloud , sequentially orienting the measuring device to each of the M fiducial points and, at each orientation, acquiring a distance value (D ij ) from the current point to each of the M fiducial points , in such a way that the mechatronic system and therefore, the measuring device is moved just once to each of the N points of the volumetric cloud ; processing said N × M distance values D ij applying a multilateration approach for obtaining the actual coordinates of each of the N actual positions to which the measuring device has been moved. defining a volumetric point cloud depicting the volumetric work-space of the mechatronic system , said volumetric point cloud comprising N points; attaching a measuring device to the mechatronic system ; fixing M fiducial points surrounding the mechatronic system , where M>3; defining a common reference system for the mechatronic system , the measuring device and the M fiducial points ; the method being characterized by : sequentially moving the measuring device to each of the N points of the volumetric point cloud and, from each point in the volumetric point cloud , sequentially orienting the measuring device to each of the M fiducial points and, at each orientation, acquiring a distance value (D ij ) from the current point to each of the M fiducial points , in such a way that the mechatronic system and therefore, the measuring device is moved just once to each of the N points of the volumetric cloud ; processing said N × M distance values D ij applying a multilateration approach for obtaining the actual coordinates of each of the N actual positions to which the measuring device has been moved. sequentially moving the measuring device to each of the N points of the volumetric point cloud and, from each point in the volumetric point cloud , sequentially orienting the measuring device to each of the M fiducial points and, at each orientation, acquiring a distance value (D ij ) from the current point to each of the M fiducial points , in such a way that the mechatronic system and therefore, the measuring device is moved just once to each of the N points of the volumetric cloud ; processing said N × M distance values D ij applying a multilateration approach for obtaining the actual coordinates of each of the N actual positions to which the measuring device has been moved.
Aerosol-generating device comprising: • a receiving region configured for removably receiving an aerosol-generating article comprising aerosol-generating substrate. • a position detector configured to detect the position of the received aerosol-generating article, • a warning element configured to generate a warning signal, and • a controller , wherein the controller is configured to receive a signal from the position detector indicative of the position of the received aerosol-generating article, wherein the controller is configured to control the warning element to generate a warning signal, when the aerosol-generating article is in an improper position, characterized in that the controller is configured to control the warning element to generate a further warning signal for a predetermined time, when a heating element of the aerosol-generating device is operated longer than a second predetermined time during which the aerosol-generating article is in an improper position. • a receiving region configured for removably receiving an aerosol-generating article comprising aerosol-generating substrate. • a position detector configured to detect the position of the received aerosol-generating article, • a warning element configured to generate a warning signal, and • a controller ,
Cylinder/piston unit especially for a support, comprising a hydraulic cylinder having a cylinder chamber and, movable longitudinally therein, a piston which carries a piston rod , the piston rod being at least partly hollow, wherein an internal pipe running through the cylinder chamber is provided, which internal pipe projects through a bore in the piston into the at least partly hollow piston rod and can be pushed telescopically into the latter, and wherein the internal pipe , at the piston and/or the hollow piston rod , is sealed with respect to the cylinder chamber and forms therewith an internal chamber that is free of hydraulic medium, characterised in that at the remote end of the piston rod there is arranged a sensor , especially a force sensor, which generates a support-force-dependent signal which is transmitted through the hydraulic-medium-free internal chamber.
A method of determining a frequency of an oscillating movement of a wind turbine tower, the wind turbine tower carrying a nacelle and a generator including a stator and a rotor, the oscillating movement causing a rolling movement of the nacelle, the method comprising obtaining a first signal indicative of rotor speed relative to the nacelle, obtaining a second signal indicative of rotor speed relative to ground, the method being characterized in that it further comprises: determining a first amplitude spectrum based on the first signal, determining a second amplitude spectrum based on the second signal, determining a difference function based on the first amplitude spectrum and the second amplitude spectrum, and determining the frequency of the oscillating movement of the wind turbine tower as a frequency corresponding to a peak in the difference function. obtaining a first signal indicative of rotor speed relative to the nacelle, obtaining a second signal indicative of rotor speed relative to ground, the method being characterized in that it further comprises: determining a first amplitude spectrum based on the first signal, determining a second amplitude spectrum based on the second signal, determining a difference function based on the first amplitude spectrum and the second amplitude spectrum, and determining the frequency of the oscillating movement of the wind turbine tower as a frequency corresponding to a peak in the difference function. determining a first amplitude spectrum based on the first signal, determining a second amplitude spectrum based on the second signal, determining a difference function based on the first amplitude spectrum and the second amplitude spectrum, and determining the frequency of the oscillating movement of the wind turbine tower as a frequency corresponding to a peak in the difference function.
An embolic protection device, comprising: an approximately cylindrical outer structure made of a filter mesh material; an approximately conical inner structure made of a filter mesh material positioned inside of the cylindrical outer structure ; wherein on a downstream end of the embolic protection device , a wider end of the conical inner structure is joined to the cylindrical outer structure ; wherein an upstream end of the embolic protection device is open for blood to flow between the conical inner structure and the cylindrical outer structure ; with a space between the conical inner structure and the cylindrical outer structure defining a collection chamber for captured emboli; wherein the narrow upstream end of the conical inner structure has a catheter port configured for passage of a catheter shaft through the catheter port ; characterised in that the device further comprises at least one retraction member encircling the circumference of the cylindrical outer structure ; and a pull loop or other graspable structure near to the downstream end , wherein said pull loop or other graspable structure near to the downstream end is connected to the retraction members and is engageable by a hook on the distal end of an elongated member within a retrieval catheter . an approximately cylindrical outer structure made of a filter mesh material; an approximately conical inner structure made of a filter mesh material positioned inside of the cylindrical outer structure ; wherein on a downstream end of the embolic protection device , a wider end of the conical inner structure is joined to the cylindrical outer structure ; wherein an upstream end of the embolic protection device is open for blood to flow between the conical inner structure and the cylindrical outer structure ; with a space between the conical inner structure and the cylindrical outer structure defining a collection chamber for captured emboli; wherein the narrow upstream end of the conical inner structure has a catheter port configured for passage of a catheter shaft through the catheter port ; characterised in that the device further comprises at least one retraction member encircling the circumference of the cylindrical outer structure ; and a pull loop or other graspable structure near to the downstream end , wherein said pull loop or other graspable structure near to the downstream end is connected to the retraction members and is engageable by a hook on the distal end of an elongated member within a retrieval catheter .
A process of fabricating a substrate (12; 32; 56; 62), the process comprising: disposing a substrate (12; 32; 56; 62) at a laser processing assembly comprising at least one laser operable to emit a laser beam , the substrate (12; 32; 56; 62) being substantially transparent to the laser beam ; focusing the laser beam into a laser beam focal line , viewed along a beam propagation direction of the laser beam; directing the laser beam focal line into the substrate (12; 32; 56; 62), the laser beam focal line generating an induced absorption within the substrate (12; 32; 56; 62), the induced absorption producing a defect (36; 44; 54) along the laser beam focal line within the substrate (12; 32; 56; 62); translating the substrate (12; 32; 56; 62) relative to the laser beam , thereby laser drilling a plurality of internal defects (36; 44; 54) within the material; creating a first plurality of defects (36; 44; 54) and a second plurality of defects (36; 44; 54), wherein the second plurality of defects (36; 44; 54) define a closed boundary and the first plurality of defects (36; 44; 54) are disposed within the closed boundary; and separating at least one component piece of the substrate (12; 32; 56; 62) along the closed boundary defined by the second plurality of defects (36; 44; 54). disposing a substrate (12; 32; 56; 62) at a laser processing assembly comprising at least one laser operable to emit a laser beam , the substrate (12; 32; 56; 62) being substantially transparent to the laser beam ; focusing the laser beam into a laser beam focal line , viewed along a beam propagation direction of the laser beam; directing the laser beam focal line into the substrate (12; 32; 56; 62), the laser beam focal line generating an induced absorption within the substrate (12; 32; 56; 62), the induced absorption producing a defect (36; 44; 54) along the laser beam focal line within the substrate (12; 32; 56; 62); translating the substrate (12; 32; 56; 62) relative to the laser beam , thereby laser drilling a plurality of internal defects (36; 44; 54) within the material; creating a first plurality of defects (36; 44; 54) and a second plurality of defects (36; 44; 54), wherein the second plurality of defects (36; 44; 54) define a closed boundary and the first plurality of defects (36; 44; 54) are disposed within the closed boundary; and separating at least one component piece of the substrate (12; 32; 56; 62) along the closed boundary defined by the second plurality of defects (36; 44; 54).
Control system for an electrical load, which control system is intended to receive a voltage (V R ) supplied by a mains electricity supply and comprising: - a control switch (SW), which is designed to take an open state or a closed state, - a signalling indicator (L2) connected in parallel with the switch (SW) and designed to take two different states that are each linked to the open state or the closed state of the switch (SW), characterized in that it has: - a control device connected to the signalling indicator (L2) and designed to limit a voltage on the terminals of the electrical load below a threshold value when the switch (SW) is in the open state. - a control switch (SW), which is designed to take an open state or a closed state, - a signalling indicator (L2) connected in parallel with the switch (SW) and designed to take two different states that are each linked to the open state or the closed state of the switch (SW), - a control device connected to the signalling indicator (L2) and designed to limit a voltage on the terminals of the electrical load below a threshold value when the switch (SW) is in the open state.