Abstract: Nucleic acid molecules are provided herein that can be used, for example, to treat cancer or infections, or to induce an immune response in a subject, or to deliver or express a target molecule in or from a cell.

Abstract: Nucleic acid molecules are provided herein that can be used, for example, to treat cancer or infections, or to induce an immune response in a subject, or to deliver or express a target molecule in or from a cell.

Abstract: Disclosed embodiments describe systems and methods for tunneling packets. A tunnel between a first intermediary device and a second intermediary device is established that encapsulates payload packets of transport layer connections between a client and a server. The first intermediary device identifies, from a first packet of a transport layer connection between the client and the server, packet header information. The first intermediary device populates a destination port and a source port of a header of a second packet to be transmitted via the tunnel. The destination port is populated with a predetermined destination port, and the source port includes a first hash of a tuple of the packet header information of the first packet. The second packet includes the first packet as a payload, and is load balanced across paths to the second intermediary device based on a second hash of the header of the second packet.

Abstract: Disclosed embodiments describe systems and methods for tunneling packets. A tunnel between a first intermediary device and a second intermediary device is established that encapsulates payload packets of transport layer connections between a client and a server. The first intermediary device identifies, from a first packet of a transport layer connection between the client and the server, packet header information. The first intermediary device populates a destination port and a source port of a header of a second packet to be transmitted via the tunnel. The destination port is populated with a predetermined destination port, and the source port includes a first hash of a tuple of the packet header information of the first packet. The second packet includes the first packet as a payload, and is load balanced across paths to the second intermediary device based on a second hash of the header of the second packet.

Abstract: Disclosed embodiments describe systems and methods for tunneling packets. A tunnel between a first intermediary device and a second intermediary device is established that encapsulates payload packets of transport layer connections between a client and a server. The first intermediary device identifies, from a first packet of a transport layer connection between the client and the server, packet header information. The first intermediary device populates a destination port and a source port of a header of a second packet to be transmitted via the tunnel. The destination port is populated with a predetermined destination port, and the source port includes a first hash of a tuple of the packet header information of the first packet. The second packet includes the first packet as a payload, and is load balanced across paths to the second intermediary device based on a second hash of the header of the second packet.

Abstract: In one example, an edge routing device of a service provider network includes one or more network interfaces configured to send and receive packets and a processing unit configured to retrieve, from a packet received via the one or more network interfaces, priority data from an Internet protocol (IP) header of the packet, form a first tag including a first set of data in a first priority field of the first tag, wherein the first set of data represents a first portion of the priority data, form a second tag including a second set of data in a second priority field of the second tag, wherein the second set of data represents a second portion of the priority data, encapsulate the packet with the first tag and the second tag, and forward, via the one or more network interfaces, the encapsulated packet.

Abstract: A wireless UE device uses a method of radio technology and channel selection for transferring device traffic that includes detecting, at a wireless user equipment device, a condition related to at least one of temperature and radio interference and responsive to the detecting, determining to associate a data application on the wireless UE device with a radio access technology (RAT).

Abstract: Techniques are described for applying double experimental (EXP) quality of service (QoS) markings to Multiprotocol Label Switching (MPLS) packets. According to the techniques, an edge router of an MPLS network is configured to map a Differentiated Services Code Point (DSCP) marking for customer traffic to at least two EXP fields of at least two different labels included in a MPLS packet encapsulating the customer traffic. In this way, the edge router may map the full DSCP marking across the first and second EXP fields to provide full resolution QoS for the customer traffic over the MPLS network. The techniques also include a core router of an MPLS network configured to identify a QoS profile for a received MPLS packet based on a combination of a first EXP field of a first label and a second EXP field of a second label included in the MPLS packet.

Abstract: A method of selecting a cellular network entails determining a current location using a Global Navigation Satellite System (GNSS) receiver in a mobile device, prioritizing bands based on the current location to create a set of prioritized bands, and searching the set of prioritized bands for the cellular network. This method expedites selection of the cellular network when a mobile device is powered on or when its cellular radiofrequency transceiver is activated.

Abstract: In one example, an edge routing device of a service provider network includes one or more network interfaces configured to send and receive packets and a processing unit configured to retrieve, from a packet received via the one or more network interfaces, priority data from an Internet protocol (IP) header of the packet, form a first tag including a first set of data in a first priority field of the first tag, wherein the first set of data represents a first portion of the priority data, form a second tag including a second set of data in a second priority field of the second tag, wherein the second set of data represents a second portion of the priority data, encapsulate the packet with the first tag and the second tag, and forward, via the one or more network interfaces, the encapsulated packet.

Abstract: A method of selecting a cellular network entails determining a current location using a Global Navigation Satellite System (GNSS) receiver in a mobile device, prioritizing bands based on the current location to create a set of prioritized bands, and searching the set of prioritized bands for the cellular network. This method expedites selection of the cellular network when a mobile device is powered on or when its cellular radiofrequency transceiver is activated.

Abstract: A method of selecting a cellular network entails determining a current location using a Global Navigation Satellite System (GNSS) receiver in a mobile device, prioritizing bands based on the current location to create a set of prioritized bands, and searching the set of prioritized bands for the cellular network. This method expedites selection of the cellular network when a mobile device is powered on or when its cellular radiofrequency transceiver is activated.

Abstract: In embodiments of multi-entity management, a multi-entity system can include an infrastructure service (DHCP) that services client devices configured for network connectivity on a network. The multi-entity system also includes server devices configured for network configuration settings control and management of the client devices on the network. A multi-entity manager instantiates a configuration dialog for display with user-selectable controls that are selectable to initiate a single-step configuration operation of one or more of the network configuration settings at the server devices.

Abstract: Techniques are described for applying double experimental (EXP) quality of service (QoS) markings to Multiprotocol Label Switching (MPLS) packets. According to the techniques, an edge router of an MPLS network is configured to map a Differentiated Services Code Point (DSCP) marking for customer traffic to at least two EXP fields of at least two different labels included in a MPLS packet encapsulating the customer traffic. In this way, the edge router may map the full DSCP marking across the first and second EXP fields to provide full resolution QoS for the customer traffic over the MPLS network. The techniques also include a core router of an MPLS network configured to identify a QoS profile for a received MPLS packet based on a combination of a first EXP field of a first label and a second EXP field of a second label included in the MPLS packet.

Abstract: A method of selecting a cellular network entails determining a current location using a Global Navigation Satellite System (GNSS) receiver in a mobile device, prioritizing bands based on the current location to create a set of prioritized bands, and searching the set of prioritized bands for the cellular network. This method expedites selection of the cellular network when a mobile device is powered on or when its cellular radiofrequency transceiver is activated.

Abstract: Attribute values in a customized logical group definition are displayed to a user, each customized logical group definition being associated with a network that includes multiple network entities, and each of the multiple network entities having one or more associated attribute values. A user selection of one of the different attribute values is received, and a determination is made of one or more of the multiple network entities that have an associated attribute value that matches the user selected attribute value. Identifiers of each of the one or more network entities that have an associated attribute value that matches the user selected attribute value are displayed.

Abstract: Attribute values in a customized logical group definition are displayed to a user, each customized logical group definition being associated with a network that includes multiple network entities, and each of the multiple network entities having one or more associated attribute values. A user selection of one of the different attribute values is received, and a determination is made of one or more of the multiple network entities that have an associated attribute value that matches the user selected attribute value. Identifiers of each of the one or more network entities that have an associated attribute value that matches the user selected attribute value are displayed.

Abstract: In a system including a first autonomous system (AS) configured to have a first gateway router forward data associated with a set of IP address prefixes, to a second AS via a link to a first eBGP peer device of the second AS, the problem of data packets dropped at an output of the first gateway router while the link is still “up” and an eBGP session between the first gateway router and the first eBGP peer is still up, is solved by (1) receiving information about dropped data packets at an output of the first gateway router, (2) determining whether a data traffic offload condition exists using the received information, (3) changing path attribute(s) of at least some of the IP address prefixes of the set if a data traffic offload condition exists, such that the first gateway router will be less likely to forward data associated with those IP address prefixes, and (4) generating a BGP update message including the changed path attribute(s) for communication to at least one iBGP peer device in the first AS.

Abstract: A wireless UE device uses a method of radio technology and channel selection for transferring device traffic that includes detecting, at a wireless user equipment device, a condition related to at least one of temperature and radio interference and responsive to the detecting, determining to associate a data application on the wireless UE device with a radio access technology (RAT).

Abstract: In a system including a first autonomous system (AS) configured to have a first gateway router forward data associated with a set of IP address prefixes, to a second AS via a link to a first eBGP peer device of the second AS, the problem of data packets dropped at an output of the first gateway router while the link is still “up” and an eBGP session between the first gateway router and the first eBGP peer is still up, is solved by (1) receiving information about dropped data packets at an output of the first gateway router, (2) determining whether a data traffic offload condition exists using the received information, (3) changing path attribute(s) of at least some of the IP address prefixes of the set if a data traffic offload condition exists, such that the first gateway router will be less likely to forward data associated with those IP address prefixes, and (4) generating a BGP update message including the changed path attribute(s) for communication to at least one iBGP peer device in the first AS.