Arris Enterprises LLC

Arris Group, Inc.

Arris Enterpirse LLC

Ian G Wheelock

Carol J Ansley

Lakshmi Arunkumar

Charles Peter Cheevers

Sabarinathan Nagarajan

Thomas Booker Gravely

Thomas J Cloonan

Yair Neugeboren

Paul Andrew Clancy

Eliezer Baruch

Ayham Al-Banna

Venkatesh Gururaj Mutalik

Jeffrey Joseph Howe

William Turner Hanks

Marek Bugajski

Marcin Morgos

Stephen J Kraiman

Jeff Howe

Daniel Torbet

Mark Bugajski

Optimizing traffic routing operations in a two-box WLAN setup including a gateway device and a WAN adaptor device. The WAN adaptor device receives initial packets of a traffic flow from a client device, and sends the initial packets to the gateway device for slowpath (SP) processing. The gateway device creates fastpath (FP) processing rules for the traffic flow, including traffic modifications resulting from the SP processing, and sends the FP processing rules to the WAN adaptor device. The WAN adaptor device applies the FP processing rules to perform the traffic modifications on subsequent packets of the second traffic flow. The FP processing rules enable the WAN adaptor device to forward the subsequent packets of the traffic flow to the client device directly, without bridging to the gateway device for FP processing.

Apparatuses, methods, and system for replacing physical network connection with Wi-Fi in 2-box networking setups

An electronic apparatus and method for enabling verification of performance improvements of an optimized service provided by a service provider receives a request to perform testing operations with respect to the optimized service, wherein the request includes one or more parameters for configuring the testing operations, transmits test packets to a test server on a standard path and on an optimized path, receives the test packets from the test server via the standard path and the optimized path, performs measurements related to timing of the test packets on the standard path and the test packets on the optimized path, respectively, processes the respective measurements related to timing to generate results of the testing operations, and outputs the results of the testing operations for display.

Electronic apparatus and method for latency measurements and presentation for an optimized subscriber service

A network device receives an IPv4-in-IPv6 packet. An IPv6 header is removed. A first DSCP value in a TC field and a second DSCP value in a ToS field is stored in a database. The IPv4 packet is forwarded upstream and a return IPv4 packet is received. The returned IPv4 packet is encapsulated to form an IPv6 packet. The first DSCP value and the second DSCP value are retrieved from the database. Based on the at least one policy, the second DSCP value is inserted into an IPv4 ToS field and into an IPv6 TC field, the retrieved second DSCP value is inserted into the IPv4 ToS field and the first DSCP value is inserted into the IPv6 TC field, or the first DSCP value is inserted into the IPv6 TC field and into the IPv4 ToS field. The network device then forwards the IPv6 packet downstream.

Preserving quality of service (QoS) markings for downstream flows

An electronic device in a network capable of enhancing classification of packets received by the electronic device is provided that includes a network interface, a non-transitory memory having instructions stored thereon, and a hardware processor. The hardware processor executes the instructions to receive a packet in at least one packet flow to be processed using a first service flow or a second service flow, determine whether a packet to be processed using the second service flow is incorrectly classified for processing using the first service flow, and move the incorrectly classified packet to the second service flow. A notification including data is transmitted for the incorrectly classified packet to a machine learning algorithm (MLA). The MLA is trained using the data and the trained MLA categorizes at least one new packet to be processed using the first or second service flow.

Enhancing classification of data packets in an electronic device

Methods, systems, and computer readable media described herein can be operable to provide a 6 GHz backhaul within a premise. Adapters may facilitate a conversion of communications between one or more local area networks and one or more wide area networks. A 6 GHz backhaul may be used by one or more access points to support various wireless services having unique or differing operational and bandwidth requirements. A 6 GHz backhaul may be used to pass communications between an adapter and a network interface device and/or between the adapter and one or more access points.

Wireless backbone and structured wireless

A network access device is configured to propagate Quality of Service (QoS) management through a heterogenous network. A Mirrored Stream Classification Service (MSCS) setup request having MSCS information or MSCS information that is proxied to a next hop in an uplink is received. The MSCS information identifies at least one traffic flow associated with a first user priority. A downlink rule is generated that matches the first user priority in the MSCS information in the uplink to a downlink traffic flow. The downlink rule is used to analyze the downlink traffic flow to match the MSCS information in the downlink that is the mirror of the MSCS information in the uplink. The user priority is applied to the downlink that mirrors the MSCS information in the uplink.

Propagation of Quality of Service (QoS) management through a heterogenous network

A system and method that enable data processing and dynamic recombination of data by software on a device to be enhanced without requiring a replacement of the main software image on the device. Runtime management objects are generated at a network management platform including an interpreted application. The runtime management objects, KPIs, and interpreted application are downloaded network access devices. Data is collected at the interpreted application and analytics is performed on the collected data. First new runtime management objects are dynamically created at the interpreted application. The first new runtime management objects are presented to the network management platform. Analytics on the first new runtime management objects is performed at the network management platform to generate second new runtime management objects to provide to the plurality of network access devices for processing by the downloaded interpreted applications.

Dynamic data recombination through deployable modules

A MAP-T system that shares an IPv4 address with one or more other MAP-T systems identifies low latency (LL) traffic for an upstream and a downstream perspective by enhancing NAT of ports using MAP-T rules. The MAP-T rules provide a range of transport ports with a transport slice providing for a subdivision of the transports into a subnet range so as to isolate certain ports for mapping LL traffic. An access point device and a cable modem of the MAP-T system are configured so as to appropriately transform any received traffic so as to properly direct the traffic.

Enabling low latency traffic handling within IPv6 MAP-T environment using NAT

Methods, systems, and computer readable media described herein can be operable to facilitate location determination, communications with an AFC system, configuring operational parameters in response to an identification of active 6 GHz paths, and timing distribution and low-latency services. Methods, systems, and computer readable media are described herein for implementing and improving use of automated frequency coordination (AFC), operational deployment of the 6 GHz band for unlicensed devices, and use of the 6 GHz band for low-latency services, timing distribution, and QoS.

Automated frequency coordination and device location awareness

A server device for use with a cable modem, a router, a user, a client device, and a CMTS, the cable modem and the router being able to be configured in a LAG configuration, the client device and/or the cable modem being configured to provide a notification to the user to configure the cable modem and the router into the LAG configuration, the CMTS being configured to provide a first and second service flow to the cable modem, the server device comprising: a memory; and a processor configured to execute instructions stored on the memory to cause the server device to: monitor the second set of data packets; and automatically transmit a LAG notification to the client device and/or the cable modem when the second set of data packets meets a predetermined threshold, the notification notifying the user to configure the cable modem and the router into the LAG configuration.

Reliable LLD with LAG

Systems and methods for relaying upstream signals received from a plurality of subscribers to a remote head end. Some preferred embodiments include upstream transmitters in one or more Optical Network Units that may be dynamically and individually controlled to determine whether the upstream transmission is in burst mode or continuous mode.

Dynamic mode control of upstream ONU transmitters in an RFoG network

A network device includes a memory and a processor. The processor implements at least one classifier to provide classification for tunneled IPinIP traffic based on classification parameters provided by Internet Protocol Version 6 (IPv6) classification encoding, Internet Protocol Version 4 (IPv4) classification encoding, and Transport Control Protocol/User Datagram Protocol (TCP/UDP) classification encodings, wherein one of the IPv6 classification encoding and the IPv4 classification encoding is provided by extension information to provide extended classification capabilities. The processor uses the at least one classifier to compare the classification parameters provided by the IPv6 classification encoding, the IPv4 classification encoding, and the TCP/UDP classification encodings to fields in an IPv6 header, an IPv4 header, and a TCP/UDP header of the IPinIP packet. Based on the comparison, the processor maps the IPinIP packet to a service flow identified by the classification parameters.

Enhanced DOCSIS packet classification for tunneled traffic having IPV4 and IPV6 rules mixed in a single upstream (US) and/or downstream (DS) traffic classifier

A network device for use with a client device and a cable modem termination system ('CMTS'), the client device being configured to run applications requiring data traffic of a first and second quality of service (“QoS”). The CMTS is configured to provide a first service flow and a second service flow to the network device. The network device provides a local area network (“LAN”) for connection to the client device and a network address translation (“NAT”). The NAT is configured to map the network device IP address to the client device IP address; divide the source ports into a first range and a low latency range; assign the respective data traffic of the applications to at least one port within the first range and to at least one port within the low latency range; and modify the low latency range of source ports based on a change in data traffic.

System to dynamically detect and enhance classifiers for low latency traffic

A layer 2 (L2) modem provides traffic handling for low latency (LL) traffic. A filter is selected from an application traffic filter list. The filter determines LL traffic that is received and uses a DSC messaging process is used add a classifier for directing the LL traffic to the LL SF. If LL traffic associated with an LL traffic filter of the classifier begins to buildup in a queue, the LL traffic filter is removed from the classifier. This information is provided to a LL controller server that refines the application traffic filter list used to create the classifier. When LL traffic has not been received for a predetermined time, the classifier is removed. Once LL traffic is again detected by the L2 modem filters, a classifier is again added.

Dynamic traffic handling for low latency traffic in a layer 2 modem

An optimizing agent of an access point device can identify traffic associated with a resource for an optimized service flow so as to provide a user an enhanced experience. The optimizing agent can identify the traffic for the optimized service flow based on one or more optimizations settings. The optimization settings can include a policy that indicates a priority level, a bandwidth, a QoS, or any other prioritization setting. A user can manage a list of resources associated with the one or more optimization settings via a user interface either hosted by a network resource or network device such that traffic associated with the resources should receive optimization.

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Blackrock, Ireland

Ian G Wheelock