Abstract: Embodiments of the present disclosure can provide network management methods and apparatuses, The method can comprise connecting by a first terminal device to a network through a connection mode; and acquiring management configuration information corresponding to the network system.

Abstract: Embodiments of the present invention provide a system for auto-segmentation of digital resources for facilitating resource processing events in a virtual ecosystem. The system is configured for identifying that a user is initiating a resource event, receiving resource credentials associated with entity resources and digital resources from the user, automatically performing Application Programming Interface (API) calls to verify that the user can perform the resource event, receiving an input from the user to use the entity resources as a first order of resource and the digital resources as a second order of resource for the resource event, determining that entirety of the entity resources do not meet resource value associated with the resource event, and automatically initiating segmentation of the digital resources.

Abstract: Systems and methods are provided for discoverability detection of network services. The present disclosure provides for a cloud-based network insight server that collects performance information of a network and a network agent, communicating with the cloud-based network insight server, that monitors discoverability of network services hosted by devices on the network. The network agent receives configuration information from the cloud-based network insight server and transmits discoverability states of the devices to the cloud-based network insight server based on executing a service discovery process through an access point on the network.

Abstract: Systems and methods associated with distributing an application's network interface over nodes of a networking fabric are presented. Nodes of the fabric can operate as interface modules, each taking on a role or responsibility for a portion of the application's network address including IP address, port assignments, or other portions of the network address. Interface modules of the networking nodes can then spoof or cloak the application to provide security against internal or external threats.

Abstract: An example operation includes one or more of generating, by a channel peer, a random value to be associated with a channel name, mapping, by the channel peer, the random value to a block range, receiving, by the channel peer, a channel-MAC from a second peer, and validating the channel-MAC based on the channel name and the random value.

Abstract: A communication apparatus includes: a LINK for performing protocol-conversion on a signal from a Master and outputting the converted signal to a Slave SerDes and for performing protocol-conversion on a signal from the Slave SerDes and outputting the converted signal to the Master, the LINK being capable of alternatively selecting a first mode and a second mode when transmitting the signal from the Master to the Slave SerDes, in the first mode, the LINK converting the signal transmitted from the Master into a signal of a first communication standard in units of one byte, receiving a signal of the first communication standard including one of an ACK signal representing an affirmative response and a NACK signal representing a negative response after transmitting the converted signal to the Slave SerDes, converting the received signal into a signal of a second communication standard, and transmitting the converted signal to the Master.

Abstract: The present invention provides for fabricating virtual networks and allocating request-notifications therein for providing support-services securely and efficiently. In operation, a virtual network is fabricated based on network-registration requests received from plurality of computing devices. Further, a primary data structure representative of registered computing devices categorized into devices offering services and requiring services is generated based on information embedded in network-registration requests. Furthermore, a secondary data structure is generated by sub-categorising categorised computing devices based on information embedded in network-registration requests. Yet further, request-notifications for completing incoming support-requests from registered computing devices requiring services are generated.

Abstract: An example egress network device includes at least one computer processor and a memory. The memory includes instructions that cause the at least one computer processor to receive messages from each of a plurality of ingress network devices. Each message specifies a multicast source as an anycast address that belongs to two or more sources, a multicast group, and a customer site identifier that uniquely identifies a customer network device via which the anycast address is reachable. The instructions cause the at least one computer processor to select, based on the customer site identifiers, one of the plurality of ingress network devices to which to send a multicast join message of a plurality of multicast join messages for the multicast source and multicast group. The instructions cause the at least one computer processor to send the multicast join message to the selected one of the plurality of ingress network devices.

Abstract: Methods and apparatuses for merging downloaded data with a real-time data are disclosed. An example includes receiving downloaded item of data from a download connection with a data repository and real-time item of data from a real-time data feed with a data publisher. In response to determining that the downloaded item of data includes the most recent downloaded item of data from the download connection, the downloaded item of data is stored as the last downloaded item of data. In response to determining that the real-time item of data is the most recent real-time item of data received from the real-time data feed, the real-time item of data is stored as the last real-time item of data from the real-time data feed. In response to determining a match between the last downloaded item of data and the last real-time item of data the download connection is ended.

Abstract: In one embodiment, a network assurance service that monitors a network detects an anomaly in the network by applying an anomaly detector to telemetry data collected from the network. The service sends first data to a user interface that causes the interface to present the detected anomaly and one or more candidate root cause metrics from the telemetry data associated with the detected anomaly. The service receives feedback regarding the candidate root cause metric(s) and learns a root cause of the anomaly as one or more thresholds of the candidate root cause metric(s), based in part on the received feedback regarding the candidate root cause metric(s). The service sends second data to the user interface that causes the user interface to present at least one of the candidate root cause metric(s) as a candidate root cause of a subsequent detected anomaly, based on the learned threshold(s).

Abstract: Generating automatic diagnostics alerts is disclosed. At a first time, a set of quality metrics for a plurality of groups of streaming sessions is computed. An anomaly is identified at least in part by performing anomaly detection using the set of quality metrics and historical information. A cause of the identified anomaly is diagnosed. An alert is generated based at least in part on the diagnosis.

Abstract: Embodiments disclosed include a method for establishing a communication connection. The method includes: receiving a connection request message transmitted by a first terminal, the connection request message carrying a first user identifier and a second user identifier; determining a second relay node corresponding to the second user identifier, the second relay node being a relay node communicatively connected to a second terminal; transmitting the connection request message to the second relay node through a relay path to the second relay node, so that the second relay node transmits the connection request message to the second terminal; and transmitting, in response to receiving a connection confirmation message returned by the second terminal, the connection confirmation message to the first terminal, so that the first terminal establishes a communication connection with the second terminal based on the connection confirmation message.

Abstract: A method for interconversion between protocols, including the following steps: pre-establishing a publication/subscription list; when a packet published by a publisher is received, searching the publication/subscription list for a protocol type of the packet; extracting a packet data payload from the packet; determining whether a size of the packet data payload is less than a preset combination threshold; if yes, sending the packet data payload to a packet data payload queue of the publisher, and combining a packet data payload in the packet data payload queue when a size of the packet data payload queue reaches a preset transmission threshold or no new packet is received after a preset waiting duration; searching the publication/subscription list for all subscribers corresponding to the publisher; and performing protocol conversion on the packet one by one based on protocol types used by the corresponding subscribers, and sending protocol-converted packets to the corresponding subscribers.

Abstract: A method and system of a low-latency FPGA framework based on reliable UDP and TCP re-assembly middleware is disclosed. The need for low-latency communication in digital systems has increased drastically. The disclosed FPGA framework enables low-latency communication as a hybrid framework that supports both UDP & TCP communication. As known in art, TCP provides error checking support hence making TCP more reliable as compared to UDP, while UDP is faster but not reliable. Hence the disclosed low-latency FPGA framework latency utilizes the advantage of both UDP and TCP by utilizing UDP for its speed, while switching to TCP in case of a missing sequence in UDP. Further, the disclosed system proposes a TCP re-assembly middleware architecture for processing TCP with a lower-latency, wherein the TCP re-assembly middleware is an independent middleware that is a modular and a plug-play independent middleware.

Abstract: Methods of processing a packet, APs, ACs and non-transitory machine-readable storage mediums are provided in examples of the present disclosure. In one aspect, an AP receives an Internet-of-Things data packet sent by an Internet-of-Things sensor, wherein a sensor identifier of the Internet-of-Things sensor is carried in the Internet-of-Things data packet; and sends the received Internet-of-Things data packet to an AC such that the AC processes the Internet-of-Things data packet based on the sensor identifier.

Abstract: A computer-implemented method for interoperable data exchange between a first real-world entity and a second real-world entity with both real-world entities connected to a same communication network, the first and second real-world entities having first and second digital representations, respectively, each digital representation being a virtual entity replicating data, structure, and functions associated with any one of the real-world entities, the first and the second digital representations having different formats, the method, executed by at least one computing device of the second real-world entity, including: receiving a request for data of the second digital representation to be provided to the first digital representation; evaluating a set of predefined mapping strategies with each mapping strategy being associated with a target model template, by determining a mapping similarity measure for each mapping strategy based on similarities in a structure and semantics of respective data models of the first

Abstract: Disclosed are systems and methods for managing an application executing in a remote session. A user device (e.g., mobile device) creates a control communication session for an application executing within a remote session established between a remote application server and a client device. This application is being displayed by the client device. The user device receives metadata indicating a subset of user actions available from the application, and uses it to generate, for display on the user device, a graphical user interface. The graphical user interface is configured to, when activated by user input, inject input commands into the remote session for the application.

Abstract: The present technology relates to an information processing device, an information processing method, and a program that can ensure content-related application programs can be reliably utilized. A client 11 reproduces content distributed from a content server 12 via a network 21, and if the content being reproduced is identified by an ACR server 13, a T/SS for managing an application relating to the identified content is acquired from a T/SS server 14, a predetermined application distributed from an application server 15 is acquired on the basis of the T/SS acquired, and the activation and so on of that application is managed, and the application can therefore be reliably utilized. The present technology can, for example, be applied to a content distribution system that distributes content and content-linked applications.

Abstract: Systems and methods associated with distributing an application's network interface over nodes of a networking fabric are presented. Nodes of the fabric can operate as interface modules, each taking on a role or responsibility for a portion of the application's network address including IP address, port assignments, or other portions of the network address. Interface modules of the networking nodes can then spoof or cloak the application to provide security against internal or external threats.

Abstract: Implementations are provided herein for executive streaming data writes without duplication or loss. A client application and a pravega node can work to track where write data is, how much data has been written, and what specific data has been acknowledged by the pravega node as successfully written. In the event of an error or connection disruption, the client application can reconnect and determine how much data has been written and resend what data still needs to be written. The data can be written exactly once, and once written and acknowledged, will no longer be subject to data loss.