Cisco Technology, Inc.

Danyang Raymond Zheng

Jack Chi Cham

R Ashby Armistead

Ping Li

David W Metcalf

Gonzalo A Salgueiro

Joseph Michael Clarke

Tao Zhang

Yi Zheng

Dave M Singhal

Helder F Antunes

Shawn Hsiao-Ping Yang

Charles Shen

Nicholas Augustinos

In one embodiment, a device in a network joins a fog-based malware defense cluster comprising one or more peer devices. The device and each peer device in the cluster are configured to execute a different set of local malware scanners. The device receives a file flagged as suspicious by a node in the network associated with the device. The device determines whether the local malware scanners of the device are able to scan the file. The device sends an assessment request to one or more of the peer devices in the malware defense cluster, in response to determining that the local malware scanners of the device are unable to scan the file.

Fog-based distributed malware defense

A system may receive a request from a client station to communicate with any available expert that matches at least one criterion. The system determines an identity of an expert station associated with an expert matching the at least one criterion. The system may then establish a session between the client station and the expert station, where the session includes a first connection and a second connection, the first connection is for transmission of audio/video, and the second connection is for transmission of telemetry data during the transmission of the audio/video. The telemetry data is measured at the client station.

Intelligent routing of coordinated audio, video, web services and measurement data streams

Systems and methods for controlling the flow of information content in a network are described. The system includes a tracking module that remembers a sensitivity level of the information content and a location of that information content with respect to the system. A marking module is included that receives the sensitivity level from the tracking module upon a call for the information content. The marking module marks a sensitivity tag in a packet header associated with the information content according to the sensitivity level. Flow of the information content in the network is controlled according to the sensitivity tag.

System and method for controlling and tracking network content flow

A method and apparatus for determining information associated with a particular multicast channel in a multicast network are disclosed. In accordance with the method, a request message requesting information associated with the particular multicast channel is generated and sent to the multicast network. Further, the request message is propagated downstream in a recursive manner via a multicast topology of the multicast network. A response to the request message is propagated upstream via the multicast topology to generate a response message including requested information associated with the particular multicast channel. The information may comprise number of users receiving the particular multicast channel.

Method and apparatus for determining information associated with a particular multicast channel in a multicast network

A circuit and method for connecting data lines in a digital communication system are disclosed. The circuit allows either a balanced data line or an unbalanced data line to be connected to a single input port with no internal reconfiguration of the system. Connection to a balanced data line isolation transformer is provided at the port. A separate connection to ground is provided at the same port. A user connects the system to a balanced data line using a jack wired for connecting the balanced data line pair across the isolation transformer. A user connects the system to an unbalanced data line using a similar jack; however, the jack in this case is wired to short one transformer connection to the ground connection provided at the port, thereby unbalancing the transformer. In one embodiment, this second jack is part of a patch cable that accepts a coaxial connector on. one end, appropriately wired to the shorted jack on the second end. For systems with multiple such ports, a monitor port can be switched to receive the signal from any port, after that signal passes through the isolation transformer such that either balanced or unbalanced signals can be monitored.

Digital communication system accepting both balanced and unbalanced data signals and method for its use

A circuit and method for connecting data lines to a digital communication system are disclosed. The circuit allows either a balanced data line or an unbalanced data line to be connected to a single input port with no internal reconfiguration of the system. Connection to a balanced data line isolation transformer is provided at the port. A separate connection to ground is provided at the same port. A user connects the system to a balanced data line using a jack wired for connecting the balanced data line pair across the isolation transformer. A user connects the system to an unbalanced data line using a similar jack; however, the jack in this case is wired to short one transformer connection to the ground connection provided at the port, thereby unbalancing the transformer. In one embodiment, this second jack is part of a patch cable which accepts a coaxial connector on one end, appropriately wired to the shorted jack on the second end.

Growing community of inventors

Fremont, CA, United States of America

Danyang Raymond Zheng