mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment, UE, configured for access network selection and traffic steering, the UE comprising: a first wireless interface to communicate through a wireless wide area network WWAN; a second wireless interface to communicate through a wireless local area network WLAN; and receive a non-access stratum, NAS, message including offload information indicating, per packet data network, PDN, connection, one or more first PDN connections authorized for offload to the WLAN, and one or more second PDN connections restricted from offload to the WLAN; receive radio access network, RAN, assistance information through radio resource control, RRC, signaling from the WWAN; determine based on a comparison of the RAN assistance information and the offload information, to offload traffic to the WLAN; and in response to determining to offload traffic, offload the one or more first PDN connections to the WLAN. a first wireless interface to communicate through a wireless wide area network WWAN; a second wireless interface to communicate through a wireless local area network WLAN; and receive a non-access stratum, NAS, message including offload information indicating, per packet data network, PDN, connection, one or more first PDN connections authorized for offload to the WLAN, and one or more second PDN connections restricted from offload to the WLAN; receive radio access network, RAN, assistance information through radio resource control, RRC, signaling from the WWAN; determine based on a comparison of the RAN assistance information and the offload information, to offload traffic to the WLAN; and in response to determining to offload traffic, offload the one or more first PDN connections to the WLAN.
An apparatus to deliver nitric oxide to a patient, the apparatus comprising: a therapeutic gas injector module comprising: a first inlet to be placed in fluid communication with a nitric oxide delivery apparatus that provides a flow of nitric oxide at a therapeutic concentration; a second inlet to be placed in fluid communication with a breathing gas delivery system that provides a flow of a breathing gas to the patient; and an outlet to supply a combined flow of breathing gas and nitric oxide to the patient; a control circuit including a first flow sensor to measure the flow of breathing gas from the breathing gas delivery system , wherein the control circuit is configured to operate in a backup mode in which a known constant flow of nitric oxide is independent of the breathing gas flow rate, and wherein when the control circuit is in the backup mode, it is configured to deliver the known constant flow of nitric oxide and estimate a backup dose based on the known constant flow of nitric oxide and the measured flow of breathing gas; and a display in communication with the control circuit that provides the estimate of the backup dose of nitric oxide. a therapeutic gas injector module comprising: a first inlet to be placed in fluid communication with a nitric oxide delivery apparatus that provides a flow of nitric oxide at a therapeutic concentration; a second inlet to be placed in fluid communication with a breathing gas delivery system that provides a flow of a breathing gas to the patient; and an outlet to supply a combined flow of breathing gas and nitric oxide to the patient; a first inlet to be placed in fluid communication with a nitric oxide delivery apparatus that provides a flow of nitric oxide at a therapeutic concentration; a second inlet to be placed in fluid communication with a breathing gas delivery system that provides a flow of a breathing gas to the patient; and an outlet to supply a combined flow of breathing gas and nitric oxide to the patient; a control circuit including a first flow sensor to measure the flow of breathing gas from the breathing gas delivery system , wherein the control circuit is configured to operate in a backup mode in which a known constant flow of nitric oxide is independent of the breathing gas flow rate, and wherein when the control circuit is in the backup mode, it is configured to deliver the known constant flow of nitric oxide and estimate a backup dose based on the known constant flow of nitric oxide and the measured flow of breathing gas; and a display in communication with the control circuit that provides the estimate of the backup dose of nitric oxide.
A hybrid propulsion system for an aircraft , comprising: a propulsor assembly having at least one propulsor ; a power generation assembly comprising at least a first power assembly , a second power assembly , a first electric machine , and a second electric machine , the first power assembly drivingly coupled to the first electric machine to produce a first amount of electric power and the second power assembly drivingly coupled to the second electric machine to produce a second amount of electric power, wherein the second power assembly is configured to generate electric power more efficiently than the first power assembly ; a power bus coupled to the first electric machine and the second electric machine ; and a controller operably coupled to the first power assembly , the first electric machine , or both, and to the second power assembly , the second electric machine , or both, the controller and the power bus configured to combine at least a portion of the first amount of electrical power and the second amount of electrical power to supply the propulsor assembly , characterized in that the first power assembly includes a turbomachine and the second power assembly includes an internal combustion engine . a propulsor assembly having at least one propulsor ; a power generation assembly comprising at least a first power assembly , a second power assembly , a first electric machine , and a second electric machine , the first power assembly drivingly coupled to the first electric machine to produce a first amount of electric power and the second power assembly drivingly coupled to the second electric machine to produce a second amount of electric power, wherein the second power assembly is configured to generate electric power more efficiently than the first power assembly ; a power bus coupled to the first electric machine and the second electric machine ; and a controller operably coupled to the first power assembly , the first electric machine , or both, and to the second power assembly , the second electric machine , or both, the controller and the power bus configured to combine at least a portion of the first amount of electrical power and the second amount of electrical power to supply the propulsor assembly , characterized in that the first power assembly includes a turbomachine and the second power assembly includes an internal combustion engine .
A system comprising one or more evolved NodesB, eNB, ; one or more WLAN access points, AP, ; a WLAN element manager, EM, , a network manager, NM, ; a 3GPP Domain Manager, DM, ; the AP(s) being linked indirectly to the eNB(s) through the WLAN EM , the NM and the 3GPP DM ; the, WLAN EM comprising: a polling module configured to poll the WLAN AP(s) , said polling to request traffic load data from said WLAN AP(s) ; a timer module configured to trigger said polling module to poll at periodic intervals; a logging module configured to receive and log said requested traffic load data; and an integration reference point, IRP, agent comprising a reporting module configured to generate a traffic load report for transmission to the network manager, NM , said traffic load report based on said logged traffic load data; wherein said periodic interval for polling is configured based on traffic load management requirements of the eNB(s) ; and the eNB(s) configured to receive the traffic load report(s) from the NM through the 3GPP DM and each of the eNBs configured to select some of the WLAN AP(s) based on the received traffic load report(s) as candidates for traffic offloading. a polling module configured to poll the WLAN AP(s) , said polling to request traffic load data from said WLAN AP(s) ; a timer module configured to trigger said polling module to poll at periodic intervals; a logging module configured to receive and log said requested traffic load data; and an integration reference point, IRP, agent comprising a reporting module configured to generate a traffic load report for transmission to the network manager, NM , said traffic load report based on said logged traffic load data; wherein said periodic interval for polling is configured based on traffic load management requirements of the eNB(s) ; and the eNB(s) configured to receive the traffic load report(s) from the NM through the 3GPP DM and each of the eNBs configured to select some of the WLAN AP(s) based on the received traffic load report(s) as candidates for traffic offloading.
Driver assistance device for a vehicle traveling on an infrastructure , comprising: means for transmitting electromagnetic waves , onboard said vehicle and comprising at least one transmitting antenna arranged to transmit variable frequency electromagnetic waves towards reflectors installed within the infrastructure, means for receiving electromagnetic waves , onboard said vehicle and comprising at least one receiving antenna arranged to receive the electromagnetic waves reflected by said reflectors, processing means , configured to process electromagnetic waves reflected by said reflectors and captured by the receiving means, so as to determine the distance between said reflectors and the vehicle, and characterized in that the processing means are configured to detect, based on the reflected electromagnetic waves, the resonance modes of the reflectors to determine the distance between said reflectors and the vehicle. means for transmitting electromagnetic waves , onboard said vehicle and comprising at least one transmitting antenna arranged to transmit variable frequency electromagnetic waves towards reflectors installed within the infrastructure, means for receiving electromagnetic waves , onboard said vehicle and comprising at least one receiving antenna arranged to receive the electromagnetic waves reflected by said reflectors, processing means , configured to process electromagnetic waves reflected by said reflectors and captured by the receiving means, so as to determine the distance between said reflectors and the vehicle, and
A composition comprising: from 0.5% to 4% by weight of hydrogen peroxide; from 0.1% to 0.5% by weight of an organic phosphonic acid; from 0.25% to 0.8% by weight of lactic acid; and having a pH from 2 to 3.6. from 0.5% to 4% by weight of hydrogen peroxide; from 0.1% to 0.5% by weight of an organic phosphonic acid; from 0.25% to 0.8% by weight of lactic acid; and having a pH from 2 to 3.6.
Housing of a differential comprising a ring gear of the differential , the ring gear of the differential comprising a circular intermediate rim between an outer ring , in which its drive toothing is formed, and an inner ring ensuring the centring of the ring gear on the housing of the differential , the intermediate rim having lightening regions intended to impart to the ring gear a greater degree of flexibility in said regions than over the remainder of its circumference, characterized in that the thickness of the rim varies progressively over its circumference between thinner lightening regions and thicker portions .
A method, comprising: establishing an Evolved Packet System, EPS, bearer by a user equipment, UE , in a 3 rd Generation Partnership Project, 3GPP, system, wherein the 3GPP system includes 2G, 3G and 4G radio access technologies, RAT; performing a first inter-RAT bearer change from a 4G system to a 3G system; attempting a second inter-RAT bearer change from the 3G system to a 2G system, comprising detecting one or more mandatory parameters missing during inter-RAT bearer change from 3G to 2G, and upon detecting the one or more missing mandatory parameters performing a bearer termination by locally releasing a Packet Data Protocol, PDP, context, characterized by the method further comprising: performing a procedure to sync-up the PDP context with the 3GPP system upon detecting one or more sync-up triggering events comprising: a Mobility Management layer, MM, triggering a Routing Area Update, RAU, procedure or a TAU, Tracking Area Update, procedure to sync up PDP context information with the network, a mobile originated, MO, or mobile terminated, MT, detach procedure, and an operating system re-establishing the PDP context by using the same network service access point identifier, NSAPI, transaction identifier, TI, values. establishing an Evolved Packet System, EPS, bearer by a user equipment, UE , in a 3 rd Generation Partnership Project, 3GPP, system, wherein the 3GPP system includes 2G, 3G and 4G radio access technologies, RAT; performing a first inter-RAT bearer change from a 4G system to a 3G system; attempting a second inter-RAT bearer change from the 3G system to a 2G system, comprising detecting one or more mandatory parameters missing during inter-RAT bearer change from 3G to 2G, and upon detecting the one or more missing mandatory parameters performing a bearer termination by locally releasing a Packet Data Protocol, PDP, context, characterized by the method further comprising: performing a procedure to sync-up the PDP context with the 3GPP system upon detecting one or more sync-up triggering events comprising: a Mobility Management layer, MM, triggering a Routing Area Update, RAU, procedure or a TAU, Tracking Area Update, procedure to sync up PDP context information with the network, a mobile originated, MO, or mobile terminated, MT, detach procedure, and an operating system re-establishing the PDP context by using the same network service access point identifier, NSAPI, transaction identifier, TI, values.
Mixing machine for the mixing of mixing material, having a mixing container in which a mixing tool is or can be arranged, wherein the mixing container has, in a container wall, at least one outlet opening which can be closed by means of at least one closure element , and wherein the at least one closure element is displaceable between a closure and/or mixing position , in which it closes the at least one outlet opening , and an outlet position , in which it frees the at least one outlet opening , wherein a safety device is provided which has, or is formed by, a discharge chute which is assigned to the outlet opening and is displaceable between different positions, wherein the discharge chute adjoins the outlet opening in its use position such that, with the closure element in the outlet position , the mixing material can be discharged from the mixing container via the outlet opening and introduced into the discharge chute , characterized in that a securing device is provided which blocks a displacement of the closure element from the closure and/or mixing position into the outlet position if the discharge chute is not in a position in which it shields the outlet opening for access into the mixing container through the at least one outlet opening .
A nonwoven carbon fiber fabric which comprises ridges on only one surface thereof and which is provided with a water repellent, the ridges having a pitch L2 that is 20 μm or greater and less than 500 μm; wherein the ridges denote linear projections which are regularly arranged on the surface of the nonwoven carbon fiber fabric so as to be substantially parallel to each other, the height H1 of a ridge is 10 μm or more, and the pitch L2 is the mean of the distances between center lines of adjacent ridges.
A method of associating a payment card of a cardholder with a cardholder computing device of the cardholder in an electronic payment network, the method comprising the steps of: providing the cardholder with the card and a device activation code for the cardholder computing device to be associated with the card, wherein the card has a number uniquely identifying the card in the electronic payment network and wherein the device activation code comprises a one-time code uniquely associated with the card; communicating the card number and the device activation code from the cardholder computing device to a first remote server ; wherein at the first remote server, obtaining an issuer assured card token generated from a second remote server, the issuer assured card token based on both the card number and the device activation code; generating a device token and an authorisation token at the first remote server, wherein the device token is uniquely representative of the cardholder computing device ; storing the card token, the device token and the authorisation token in a data structure at the first remote server ; and communicating the card token and the device token to the cardholder computing device and storing same thereat. providing the cardholder with the card and a device activation code for the cardholder computing device to be associated with the card, wherein the card has a number uniquely identifying the card in the electronic payment network and wherein the device activation code comprises a one-time code uniquely associated with the card; communicating the card number and the device activation code from the cardholder computing device to a first remote server ; wherein at the first remote server, obtaining an issuer assured card token generated from a second remote server, the issuer assured card token based on both the card number and the device activation code; generating a device token and an authorisation token at the first remote server, wherein the device token is uniquely representative of the cardholder computing device ; storing the card token, the device token and the authorisation token in a data structure at the first remote server ; and communicating the card token and the device token to the cardholder computing device and storing same thereat.
A sensor element , comprising: an element body ; paired lead wires drawn out from the element body ; and stranded wires that are each obtained by twisting a plurality of core wires and are joined to the respective paired lead wires in a joining structure by welding, wherein each of the core wires includes a wire body and a plating layer covering the wire body , the wire body being made of copper and the plating layer being made of tin; the joining structure includes a main joining region provided in a predetermined region in an axis direction (L), a first sub-joining region adjacent to the main joining region and a second sub-joining region adjacent to the main joining region , the first sub-joining region and the second sub-joining region being provided on both sides of the main joining region in the axis direction (L); the concentration of tin in the main joining region is higher than the concentration of tin in each of the first sub-joining region and the second sub-joining region ; and the joining strength of each of the lead wires and the corresponding stranded wire is higher in the main joining region than in each of the first sub-joining region and the second sub-joining region . an element body ; paired lead wires drawn out from the element body ; and stranded wires that are each obtained by twisting a plurality of core wires and are joined to the respective paired lead wires in a joining structure by welding, wherein each of the core wires includes a wire body and a plating layer covering the wire body , the wire body being made of copper and the plating layer being made of tin; the joining structure includes a main joining region provided in a predetermined region in an axis direction (L), a first sub-joining region adjacent to the main joining region and a second sub-joining region adjacent to the main joining region , the first sub-joining region and the second sub-joining region being provided on both sides of the main joining region in the axis direction (L); the concentration of tin in the main joining region is higher than the concentration of tin in each of the first sub-joining region and the second sub-joining region ; and the joining strength of each of the lead wires and the corresponding stranded wire is higher in the main joining region than in each of the first sub-joining region and the second sub-joining region .
A method performed by a wireless transmit/receive unit, WTRU, the method comprising: periodically sending, by the WTRU via an uplink channel, channel quality indicators, CQIs; decoding, by the WTRU , a transmission on a downlink control channel, the transmission being associated with an address of the WTRU ; and determining, by the WTRU , that a base station is requesting the WTRU to send a CQI based on triggering criteria associated with the transmission on the downlink control channel, wherein the triggering criteria comprises the WTRU successfully decoding the transmission on the downlink control channel using the address of the WTRU; the method being characterized by : in response to determining that the base station is requesting on the downlink control channel for the WTRU to send the CQI, sending, by the WTRU , the CQI to the wireless network on the uplink channel with hybrid automatic repeat request, HARQ, acknowledgement/negative acknowledgement information. periodically sending, by the WTRU via an uplink channel, channel quality indicators, CQIs; decoding, by the WTRU , a transmission on a downlink control channel, the transmission being associated with an address of the WTRU ; and determining, by the WTRU , that a base station is requesting the WTRU to send a CQI based on triggering criteria associated with the transmission on the downlink control channel, wherein the triggering criteria comprises the WTRU successfully decoding the transmission on the downlink control channel using the address of the WTRU; the method being characterized by : in response to determining that the base station is requesting on the downlink control channel for the WTRU to send the CQI, sending, by the WTRU , the CQI to the wireless network on the uplink channel with hybrid automatic repeat request, HARQ, acknowledgement/negative acknowledgement information.