Abstract: The invention concerns a method for transmitting a piece of digital content consisting of a plurality of data packets to a mobile terminal (10), via a communication network (20), in which a management device (30) implements the obtaining (E11, E23, F8, F33), from the communication network, of at least one piece of information related to the bandwidth available on at least one link of the network to the mobile terminal, the selection (E12, E24, F10, F34), depending on said piece of information related to the bandwidth, of an encoding rate (RES) to use for at least one of said data packets, and the sending (E14, E25, F16, F38), to a device intended to provide the digital content (41), of a message indicating the selected encoding rate, in order to instruct the equipment intended to provide the digital content (41) to transmit, to the mobile terminal, at least one of the data packets, encoded with the selected encoding rate, on one of the network links.

Abstract: A method includes analyzing, via a first capturing agent, packets processed in a first environment associated with a first host to yield first data. The method includes analyzing, via a second capturing agent, packets processed by a second environment associated with a second host to yield second data, collecting the first data and the second data at a collector to yield aggregated data, transmitting the aggregated data to an analysis engine which analyzes the aggregated data to yield an analysis. Based on the analysis, the method includes identifying first packet loss at the first environment and second packet loss at the second environment.

Abstract: Systems and methods for controlling electric vehicle chargers using central control consoles for controlling and communicating with industrial equipment. The electric vehicle chargers operate as clients in a client-server configuration with a dedicated OCPP server. The OCPP server communicates with a control console using either of two communications paths—one path uses a direct HTTP connection with the control console. For this path, the control console operates as a web-enabled client. For the other path, multiple communications protocols are used and conversions between these protocols are effected using a conversion module and a MODBUS server. The MODBUS server communicates with the OCPP server. The MODBUS server also communicates with the control console by way of the conversion module and a control server. The control console is thereby able to control multiple pieces of industrial equipment along with the electric vehicle chargers without needing to be compliant with the OCPP protocol.

Abstract: In a transfer apparatus 44, an internal routing layer L1 detects a destination address of internal routing information from an internal RIB DB 45t, transfers the internal routing information to a transfer apparatus of the detected destination address, and stores the internal routing information or external routing information transferred from another transfer apparatus via internal ports P1 and P2 in an FIB DB 46t. An external routing layer L2 stores external routing information transferred from an agent 65 in an external RIB DB 48t, stores the stored external routing information in the FIB DB 46t of the transfer apparatus to which the external routing layer L2 itself belongs, and transfers the external routing information to another transfer apparatus via the internal ports P1 and P2 such that the external routing information is stored in the FIB DB 46t.

Abstract: A method of broadcasting an information packet in a network including a sender of the packet and a plurality of recipients connected by a network equipment of a routing server, the routing server including a physical computing system and a software system, and the physical computing system operating alternatively between a kernel mode and a user mode. The software system controls the implementation of a step of receiving the packet, and, for each recipient, a step of duplicating the packet. The software system also controls the implementation of a step of routing the packet thanks to an IP address of the recipient, and a step of sending the packet to the recipient, wherein each step is executed by the physical computing system in kernel mode.

Abstract: Techniques for providing topic-based data routing in a publish-subscribe messaging environment are disclosed. In one example, a system supported by hardware in a publish-subscribe messaging environment may include a message broker to receive topic metadata at a first instance according to a first interval into a predefined fixed topic. Further, the system may include a topic list subscriber that subscribes to the predefined fixed topic and obtains a list of topics from the message broker. Furthermore, the system may include a subscription manager to assign topics in the list of topics to a set of subscribers according to a criteria. In one example, the message broker may route data corresponding to the topics to the set of subscribers in accordance with the topics assigned to the set of subscribers.

Abstract: A home appliance comprises a communication circuitry, an input unit configured to receive an input for controlling the home appliance, and at least one processor configured to control the communication circuitry to operate in the first mode in response to detecting the button being pressed, establish a first communication interface with an external terminal, obtain, via the first communication interface, network set-up information including a Service Set Identifier (SSID) of an external wireless access point apparatus and authentication information to access the external wireless access point apparatus.

Abstract: A load balancing method, device and system, where the method includes: determining, based on load statuses of respective probe channels on n paths between a source end and a destination end, a target path with a lightest load in the n paths, where a probe channel is used to transmit a probe packet that includes a bandwidth probe packet; sending a bandwidth probe packet to the destination end through a probe channel on the target path; receiving the bandwidth probe packet returned by the destination end; and sending, based on the bandwidth probe packet returned by the destination end, a to-be-transmitted data packet to the destination end through a data channel on the target path. Therefore, load balancing among a plurality of paths is implemented.

Abstract: Techniques for dynamically load balancing traffic based on predicted and actual load capacities of data nodes are described herein. The techniques may include determining a predicted capacity of a data node of a network during a period of time. The data node may be associated with a first traffic class. The techniques may also include determining an actual capacity of the data node during the period of time, as well as determining that a difference between the actual capacity and the predicted capacity is greater than a threshold difference. Based at least in part on the difference, a number of data flows sent to the data node may be either increased or decreased. Additionally, or alternatively, a data flow associated with a second traffic class may be redirected to the data node during the period of time to be handled according to the first traffic class.

Abstract: A BIERv6 packet forwarding method, device, and system. The method includes: receiving, by a first network device, a BIERv6 packet, where the first network device is a BFR or a BFER; determining, by the first network device, whether a value of a hop limit field in the BIERv6 packet is less than or equal to a preset threshold of the first network device, where the preset threshold is a value greater than or equal to 2, and is determined based on a quantity of one or more consecutive second network devices connected to the first network device, and the second network device is a device that does not support BIER forwarding; and when the value of the hop limit field in the BIERv6 packet is less than or equal to the preset threshold, avoiding, by the first network device, forwarding the BIERv6 packet.

Abstract: Non-limiting examples of the present disclosure describe implementation of an exemplary synchronization protocol to identify file data for synchronization as well as negotiate how to achieve data transport for synchronization of the file data. In one example, a request for synchronization of data is received from a processing device. In response to receiving the request, a response is generated. The response may comprise: identification of file data for synchronization, instructions for accessing the file data and instructions indicating a data transport protocol to utilize to obtain the file data. The response may be transmitted to the processing device, for example, to enable the processing device to synchronize file data. Other examples are also described.

Abstract: Certain embodiments provide systems and methods to perform in-line translation of message content according to FIX protocol variants in a trading system. An example method includes receiving, at a computing device, a message formatted according to a FIX protocol, the message including message content and a message wrapper, the message wrapper providing session and delivery information for the message to a target. The example method includes performing in-line translation of the message content of the received message to adjust the message content according to a predefined set of rules without affecting the message wrapper (with the possible exception of the message size) and message routing session. The example method includes facilitating routing of the message to the target based on the message wrapper.

Abstract: Systems and methods for dynamically assigning membership in a data partition to an end-port of a requesting host channel adapter. An exemplary embodiment can provide a subnet manager configured to operate within a subnet of a network fabric. The subnet can include a plurality of nodes, and the plurality of nodes can include at least one switch and a plurality of end-nodes, where the subnet manager executes on one of the plurality of nodes. A host channel adapter of a node in the subnet can request membership for an end-port of the host channel adapter. In response to the request, the subnet manager can request data from the data store to confirm that the end-port is a member of an admin partition and that the admin partition is associated with the data partition in which membership was requested.

Abstract: Systems, methods, and computer program products for the dynamic management of the capacity of connections to a server. One method includes receiving a request to change a first connection to a server and determining active connections to the server. The method also includes determining a corresponding current capacity of each active connection and determining a new capacity for the first connection and the active connections to the server. The method further includes determining that a spare capacity of the server is insufficient for the first connection. The method also includes allocating a capacity to the first connection based on the request. The method further includes adjusting the current capacity of the active connections, including reducing the current capacity of at least a portion of the active connections in proportion to the respective current capacity of the one or more active connections.

Abstract: The present invention discloses a network burst load evacuation method for edge servers, which takes a time and average penalty function of all tasks performed by the edge system as a minimum optimization goal. This method not only takes into account the fairness of all users in the system, but also ensures that the unloading tasks of all users in the system can be completed in a relatively shortest time, and a new quantitative measure is proposed for improving user QoS response. In the implementation process of the algorithm in the present invention, a particle swarm algorithm is used to solve an optimal target of the system, This algorithm has a fast execution speed and high efficiency, and is especially suitable for a scene of an edge computing network system, so that when a sudden load occurs, an edge computing network system can respond in a very short time and complete the evacuation of the load, which greatly improves the fault tolerance and stability of the edge network environment.

Abstract: A control node and/or a storage processing node maybe configured to modify a control path between a control node and storage processing node to include at least a portion of a data fabric and another processing node. Control communications may be sent over the data fabric by encapsulating control information that is configured in accordance with a first technology of the control fabric within communications configured in accordance with a second technology of the data fabric. Control switching logic may include logic to switch to a modified control path that includes at least a portion of a data fabric: in response to a failure of the control path; to load balance management activity; and/or improve QoS of management activity.

Abstract: A network management system may discover a plurality of network devices behind a network address translation device, such as a firewall. The network management system may receive a model of N network devices, generate a bulk activation configuration for the N network devices and commit the bulk activation configuration on a seed network device. The network management system may receive a request for a first connection from a first neighboring network device and may connect to the first neighboring network device. The first neighboring network device may have received the bulk activation configuration from the seed device. The network management system may determine whether the first neighboring network device is one of the N network devices and commit a second activation configuration on the first neighboring network device if it is one of the N network devices. A plurality of neighboring network device may be configured in this fashion.

Abstract: Enabling routing of traffic to/from a roaming host node roaming from a subnet of a home network to a visited network, the host node assigned an IP address in the home network, comprising configuring, in a router of the visited network, a subnet by assigning an IP address range to the subnet, which is in the same IP address range of the subnet of the home network; configuring a tunnel between a router of the home network and the router; configuring a static route to route traffic from a host node destined to the roaming host node; and configuring the router by applying a routing policy enabling the roaming host node to reply to received traffic from said host node received from a first interface and route traffic from the roaming host node through a network interconnecting the router of the visited network and the router of the home network.

Abstract: A packet is received by a hypervisor from a first virtualized execution environment, the packet to be provided to a second virtualized execution environment. It is then determined whether the packet was successfully delivered to the second virtualized execution environment. In response to determining that the packet was not successfully delivered to the second virtualized execution environment, a network policy is identified that indicates whether to subsequently provide the packet to the virtualized execution environment. In response to the network policy indicating that the packet is to be subsequently provided, the packet is provided to the virtualized execution environment again.

Abstract: Techniques for routing in communications networks include determining a state of a destination node in a current routing table stored at a first node. A value for a reference cost to the destination node is determined based on a minimum cost to the destination in the current routing table. Based on the state, a request message is formed including a reference distance field to prevent loops, an originating node field, a destination field, and a previous hop field. The request message is sent to a different second node within range. A record that indicates the data in the request message is stored in a pending request table. A reply message is received in response to sending the request message. In response to receiving the reply message, the record in the pending request table is removed, and the current routing table is updated based on the reply message.