NETFUSION DISCOVERY SYSTEM DESCRIPTION

Similar documents
MULTILAYER REQUIREMENTS FOR NBI OF IP/MPLS DOMAIN CONTROLLERS

Carrier SDN for Multilayer Control

Coriant Transcend Symphony Solution

Nathan Tracy OIF Technical Committee Chair ECOC 2016 Market Focus September 20, 2016

Simplified service creation and delivery. Branch. SOHO Data Center. Control Center / NOC Packet Muse Service & Network Applications

THE EMERGING CONTROL HIERARCHY

ABNO: a feasible SDN approach for multivendor. optical networks. A. Aguado, V. López, J. Marhuenda, O. González de Dios and J.P. Fernández-Palacios

SD-WAN 101. November 3 rd 2016 Rob McBride Marketing

Optical network virtualization. Optical network virtualization. Transport SDN for cloud-centric networking

Software defined networking

Why do operators need multi-layer coordination?

ElastiNET FOR MOBILE BACKHAUL

Innovative and Open Network Architectures for research and education networks and automated operation through SDN

Unlock the Benefits of Transport SDN OIF Transport SDN API Interop Demo

Open and Disaggregated Transport SDN

Cisco WAN Automation Engine (WAE) Network Programmability with Segment Routing

Karl Gass OIF PLL Vice Chair - Optical Track NGON 2016 July 1, 2016

Decoding MPLS-TP and the deployment possibilities

MPLS network built on ROADM based DWDM system using GMPLS signaling

Open Network Operating System

Cisco PONC Walid Wakim Principal Engineer. March 10, 2015

Current Trends in IP/Optical Transport Integration

Modernização da Rede IP (Docsis 3.1), Fotônica e SDN

SDN Solution for Service Provider Access Network Dennis Pai, Product Manager Ahmed Abeer, Technical Marketing Engineer BRKSPG-2064

Can the Network be the New Cloud.

ODTN An Open Controller for the Disaggregated Optical Network

ELASTIC SERVICES PLATFORM

ONOS OVERVIEW. Architecture, Abstractions & Application

Ericsson ip transport nms

The Emerging Optical Control Plane

Automated Control and Orchestration within the Juniper Networks Mobile Cloud Architecture. White Paper

Technologies for the future of Network Insight and Automation

NETSMART Network Management Solutions

Functional validation of the cooperation between Virtual Network Topology Manager and Path Computation Element

THETARAY ANOMALY DETECTION

Transport SDN and Use Cases in Korea

Open, Hierarchical SDN Control Systems: Ecosystem Progress

Layer 1, 2 and 3 Integration

Core Networks Evolution

Introduction to iscsi

Designing and Implementing Cisco Network Programmability (NPDESI) v1.0

Hybrid WAN Operations: Extend Network Monitoring Across SD-WAN and Legacy WAN Infrastructure

Best Practices for Extending the WAN into AWS (IaaS) with SD-WAN

Digital Transformation for Service Providers

Choosing the Right. Ethernet Solution. How to Make the Best Choice for Your Business

Taxonomy of SDN. Vara Varavithya 17 January 2018

BROCADE CLOUD-OPTIMIZED NETWORKING: THE BLUEPRINT FOR THE SOFTWARE-DEFINED NETWORK

Preparing your Business for Virtualization

NSP Network Services Platform Release Deployment Overview. 3HE AAAA-TQZZA Issue 1 March 2018

ADTRAN ADVANCED OPERATIONAL ENVIRONMENT (AOE)

Cisco APIC Enterprise Module Simplifies Network Operations

FlexPod Data Center Solution. Presented by: Bernd Dultinger Date: December 1 st 2011

Programmable BitPipe. Andreas Gladisch VP Convergent Networks and Infrastructure, Telekom Innovation Labs

Network Implications of Cloud Computing Presentation to Internet2 Meeting November 4, 2010

The Role of MPLS-TP in Evolved packet transport

TRANSFORM YOUR NETWORK

China Unicom SDN Practice in WAN. Lv Chengjin/Ma Jichun, China Unicom

QUESTION: 1 You have been asked to establish a design that will allow your company to migrate from a WAN service to a Layer 3 VPN service. In your des

Cisco Evolved Programmable Network Manager Technical Data Sheet

ONUG SDN Federation/Operability

Colt Novitas: Bringing SDN & NFV in Production. Javier Benitez, Strategy & Architecture,

Sentinet for BizTalk Server SENTINET

Transformation Through Innovation

Sycamore Networks Implementation of the ITU-T G.ASON Control Plane

Cisco Wide Area Bonjour Solution Overview

SDN and NFV: How they Will Change Your Network Operations. IAMU Annual Conference March 2015 Eric Lampland Lookout Point Communications

Service Automation Made Easy

Networking for a dynamic infrastructure: getting it right.

NS-090. Carrier Ethernet Based on MPLS-TP SERIES NS: NEW TECHNOLOGIES. PTCL Specifications NS-090 PAKISTAN TELECOMMUNICATION COMPANY LIMITED

ONF SDN Architecture and Standards for Transport Networks

Guide to SDN, SD-WAN, NFV, and VNF

Storage Networking Strategy for the Next Five Years

1 COPYRIGHT 2013 ALCATEL-LUCENT. ALL RIGHTS RESERVED.

Read the following information carefully, before you begin an upgrade.

Data Center Interconnect Solution Overview

Federal Agencies and the Transition to IPv6

USING ISCSI AND VERITAS BACKUP EXEC 9.0 FOR WINDOWS SERVERS BENEFITS AND TEST CONFIGURATION

Rethinking Campus Networks A New Network Architecture Approach for Today s Campus Realities

SD-WAN. Bringing Scale, Agility and Robustness to Enterprise Networks

SDWAN: Re-architecting WAN with Software Defined Networking

Accelerate Your Enterprise Private Cloud Initiative

Cisco APIC-EM Components and Architecture, page 3. About the Cisco Application Policy Infrastructure Controller Enterprise Module (APIC-EM), page 1

Managing Network Bandwidth to Maximize Performance

New Digital Business Models Driving the Softwarization of the Network

SOFTWARE DEFINED NETWORKING/ OPENFLOW: A PATH TO PROGRAMMABLE NETWORKS

A use-case based analysis of network managment functions in the ONF SDN model

WIND RIVER NETWORKING SOLUTIONS

ONOS Roadmap. September, 2017

HOW SDN AND NFV EXTEND THE ADOPTION AND CAPABILITIES OF SELF-ORGANIZING NETWORKS (SON)

Hands-On VPLS: Virtual Private LAN Service

Transport SDN at OIF Assuring a Seamless Evolution to Interoperable Transport Networks of the Future

F5 Reference Architecture for Cisco ACI

Cisco Crosswork Network Automation

Leverage SDN Principles in LTE to Meet Future Network Demands

Cisco Network Programmability for the Enterprise NPEN v1.0

ARE CONTROL PLANE BENEFITS APPLICABLE TO SUBMARINE NETWORKS?

Real-time Communications Security and SDN

Data Center 3.0: Transforming the Data Center via the Network

MPLS Networks: Design and Routing Functions

LEAP DATA SHEET. Lumina Extension Adaptation Platform. Benefits: Model-driven software platform enables automation of heterogeneous networks.

Transcription:

NETFUSION DISCOVERY SYSTEM DESCRIPTION White Paper

Contents NetFusion Discovery Overview... 3 Network Discovery... 3 Design Principles... 3 NetFusion Discovery Architecture... 4 Topology and State Changes... 6 Integrated Apps... 6 Conclusion... 6 About... 6 2

NetFusion Discovery Overview The NetFusion Discovery platform enables multivendor discovery of the Optical layer, IP/MPLS layer, and the cross-connections between the two layers. The accompanying NetFusion Explorer UI enables you to visualize and explore this multilayer network model in near realtime, showing optically-aware IP/MPLS routing and conversely, IP/MPLS-informed optical paths. Based on centralized open-source software tools, NetFusion Discovery connects to both legacy EMS and NMS servers, as well as to newly evolving SDN controllers. All emerging standards, such as IETF, ONF and OIF, are supported. This flexibility enables you to start with simple network discovery today and build solutions that can expand in the future without replacing the software. NetFusion Discovery enables vendor-agnostic apps with a multilayer, multivendor platform supporting carrier-grade robustness. Sedona apps can be connected to NetFusion Discovery, therein enabling you to cost-efficiently optimize multilayer networks across inter-optical domains. Sample apps include giving you the ability to provision bandwidth on demand, restore links, and identify shared optical risks, all across both the IP/MPLS layer and Optical layer, and all across multiple vendors. Network Discovery By communicating with the EMS/NMS management systems and SDN controllers, NetFusion Discovery uses a read-only process to automatically learn and continuously update both the optical topology and the IP/MPLS topology. NetFusion Discovery also continuously receives route information and traffic updates for each layer. Attributes such as IP traffic, LSPs (MPLS tunnels), OTN connections, and DWDM light paths are incorporated and continuously updated in the internal database. To complete this picture, NetFusion Discovery collects the cross-layer mapping of connections so that you have knowledge of how each layer interacts with the other. In this manner, NetFusion Discovery is always aware of L0-L3 failures, L0-L3 topology changes, and L3 traffic fluctuations. The frequency of the network model updates is dependent on your configuration. Design Principles The NetFusion Discovery design principles are simple. (1) Provide a dynamic solution you can use today, while allowing you to build for tomorrow. (2) Leverage expertise where possible. (3) Allow for flexible app integration. Dynamic Solutions The Sedona NetFusion Discovery solution works with existing equipment so there are no changes needed to network elements. You can continue to grow and modify this existing solution as needed. For instance, NetFusion Discovery supports the next step of using SDN controller REST APIs. It also supports enhancing these solutions by isolating apps from changes to the APIs. This dynamic solution facilitates early deployment of apps using existing equipment while allowing you to later add new SDN 3

controllers for improved network performance and simplified operations. This evolution does not affect existing apps and ensures that you can build future solutions without service disruption. As SDN controllers are installed, more apps are enabled and existing apps evolve to operate in realtime. Leveraged Expertise Using internal network adapters enables NetFusion Discovery to leverage the trusted expertise that exists in the SDN controllers and management systems for each layer and vendor. Rather than inventing yet another solution, NetFusion Discovery connects with components that have been proven reliable and are already in your network. Optical layer controllers and management systems identify which connections are feasible in each specific vendor s network. IP/MPLS layer controllers and management systems collect traffic statistics across complex IP/MPLS networks. IP/MPLS layer simulators predict routing behavior while the network is changing. For example, these simulators know how to perform what-if analysis on every failure in the network and how to optimize accordingly. Flexible App Integration NetFusion Discovery is easily extendible by adding and modifying apps, and by adding network adapters for other vendors or planning tools. This means you can use whatever trusted software best suits your environment. You can grow the NetFusion Discovery solution to meet your needs, rather than being forced into a pre-defined solution. Note that future plans include extension of support to include third-party apps. NetFusion Discovery Architecture Figure 1 shows the NetFusion Discovery architecture that manages network discovery, the abstraction of the discovered network into a model available through a UI, and access to apps. This infrastructure, which is based on open-source software, accesses devices and apps from multiple vendors. Access Method SDN controllers REST and RESTCONF EMS and NMS servers TMF814 (MTNM) and TMF854 (MTOSI) APIs CSV, XML, and JSON files exported to file servers Directly accessing network elements NETCONF for router topology SNMP for traffic statistics TL1 for direct access to optical network elements 4

To collect information, NetFusion Discovery uses network adapters that adapt to different APIs in order to learn about L0-L3 networks. Each NetFusion network adapter supports a different API that translates the information into an abstracted network model and updates the database with topology and traffic statistics. The Manual network adapter is different from the other network adapters in that it is typically used internally by our support and development teams to manually insert, update, or delete network elements from the abstract network model. While this network adapter is usually used in proof-of-concept labs, it can also be used to complete the abstract model when information is not available in the network. NetFusion Discovery creates and stores an abstract model of the network in MariaDB, which is an open-source, relational database that provides an SQL interface for accessing data. MariaDB provides persistency, backup, clustering, high availability, and security. Since MariaDB releases security bulletins as needed, we are able to stay at the forefront of any emerging security concerns. The network model allows access to apps. If an app needs to listen to specific changes in the network, it registers with a notifications bus in the abstract model. An app can ask to be notified of creation, updates, or deletion of network elements. Additionally, this network model information can be exported to external systems in support of customer use cases. Figure 1: NetFusion Discovery Architecture with Example Apps and Vendors 5

Topology and State Changes When notifications are supported, NetFusion network adapters use these notifications to learn about topology and state changes as quickly as they are made available. When network components and APIs do not support unsolicited notifications, NetFusion Discovery actively polls the network component to learn these updates. The polling period is configurable and can be as low as 10s of seconds for SDN controllers, or can be minutes and dozens of minutes when talking directly with the network elements. Integrated Apps An app can send an abstract request for creating, updating, or deleting elements in the network. The network adapter that is in charge of the relevant part of the network listens to the request, translates it from an abstracted request to the specific API call that accesses the network, and then executes the request. For example, a link provisioning app can initiate three link creation requests: one for an IP network, one for optical network A, and one for optical network B. The NetFusion network adapter that controls the routers would provision the new IP link, and the network adapters for the optical nodes would each create the relevant optical link. Apps can use an external planning tool, such as WAE Design (Cisco), to run network simulations and what-if failure analyses. The planning tool is accessed through an adaptation layer that provides an abstraction of the specific interface. This adaptation layer supports simple functions to run the planning tool, as well as a bidirectional conversion between the abstract network model and the planning tool s network model format. In this manner, the app does not need to be aware of the planning tool being used. Note that to use these planning tools, you must identify the tool of choice and own a license to run it. Contact your Sedona support representative for more information. Conclusion NetFusion Discovery is the most powerful, most flexible SDN-ready platform available today. This industry-leading multilayer, multivendor solution enables you to understand L0-L3 networks without replacing costly equipment. You can use the near real-time network map to stay aware of network state and traffic, while gradually building more control through adding apps. About has created the market s first multivendor, multidomain control platform for the Optical and IP/MPLS layers (L0-L3) of service provider core and metro networks. Enabling both optically-aware IP/MPLS routing and IP/MPLS-informed optical switching, it doubles effective WAN capacity, boosts agility and flexibility, and saves up to 50% of network costs. For further details, contact us at mailto:info@sedonasys.com or visit http://www.sedonasys.com. Published: April 19, v5 6