An Integrated Environment for Open-Source Network Softwarization
Jong Hun Han, University of Cambridge, UK
Gianni Antichi, University of Cambridge, UK
Noa Zilberman, University of Cambridge, UK
Charalampos Rotsos, Lancaster University, UK
Andrew W. Moore, University of Cambridge, UK
Abstract: Network softwarization drives innovation both in software and hardware. This demo introduces a highly integrated environment that enables open source solutions for soft-ware defined network (SDN) in both hardware and software. This environment is built upon the NetFPGA platform for rapid prototyping of networking devices. It showcases tools (OSNT and OFLOPS) for evaluating the performance of net-working devices, and demonstrates them using a pipelined multi-table OpenFlow enabled switch application. An open-source environment integrating both software and hardware that fully inter-operate, as demonstrated here, is essential for high-quality software defined networking solutions
Self-deploying Service Graphs over ELuWD EHU-OEF Lightweight UNIFY Domain
Jokin Garay, University of the Basque Country, Spain
Jon Matias, University of the Basque Country, Spain
Alaitz Mendiola, University of the Basque Country, Spain
Jasone Astorga, University of the Basque Country, Spain
Eduardo Jacob, University of the Basque Country, Spain
Abstract: This demonstration focuses on the interaction between the service and the orchestrator, presenting an access control service which upon successful authentication and authorization triggers deployment of a new service for the authenticated user.
Extending Hadoop’s Yarn Scheduler Load Simulator with a Highly Realistic Network & Traffic Model
Philip Wette, University of Paderborn, Germany
Arne Schwabe, University of Paderborn, Germany
Malte Splietker, University of Paderborn, Germany
Holger Karl, University of Paderborn, Germany
Abstract: NetSLS brings together MaxiNet, a highly scalable emulator for software-defined networks, and SLS, a simulator for benchmarking Hadoop Job schedulers.
The NetSLS demo shows how to emulate a whole cluster of Hadoop workers and the corresponding network infrastructure on only very few physical resources. This allows for testing novel job schedulers with a realistic network model as well as testing novel routing algorithms under realistic Hadoop workload.
With this work, the interdependency between the network and the jobs running on top of it can be included into the evaluation of new ideas, leveraging research on big-data applications with joint job and flow scheduling.
NetIDE: removing vendor lock-in in SDN
R. Doriguzzi-Corin, CREATE-NET, Italy
E. Salvadori, CREATE-NET, Italy
P. A. Aranda Gutíerrez, Telefonica I+D,Spain
C. Stritzke, Fraunhofer IPT, Germany
A. Leckey, Intel Labs Europe, Ireland
K. Phemius, Thales, France
E. Rojas, Telcaria Ideas S.L., Spain
C. Guerrero, IMDEA Networks, Spain
Abstract: The objective of the demonstration is to show two of the NetIDE framework benefits:
- an Integrated Development Environment: one single tool to manage the whole life-cycle of a Network Application: from the design, to the implementation, deployment and testing;
- Network Application re-usability and portability: Network Applications written for many different controller frameworks, e.g. implemented in the past for different environments/needs, can be re-used and executed on top of the controller framework that is currently managing a given network infrastructure or, on the other way around, a well-tested Network Application can be ported and executed “as is” on a second network controlled by another controller framework.
Offloading personal security applications to a secure and trusted network node
R. Bonafiglia, Politecnico de Turino, Italy
F. Ciaccia, Barcelona Supercomputing Center, Spain
A. Lioy, Politecnico de Turino, Italy
M. Nemirovsky, Barcelona Supercomputing Center, Spain
F. Risso, Politecnico de Turino, Italy
T. Su, Politecnico de Turino, Italy
Abstract: The current device-centric protection model against security threats has serious limitations from the final user perspective, among the other the necessity to keep each device updated with the latest security updates and the necessity to replicate all the security polices across all devices. In our model, the protection is decoupled from the users’ terminals and it is provided through a Trusted Virtual Domain (TVD) instantiated in future edge routers. The demo will show the architecture of a Network Edge Device (NED) augmented with a software that allows for the deployment of the user security applications in a trusted virtual domain; the demo will take place simulating a typical use case scenario with two user connecting to the NED, verifying its trustworthiness, authenticating and deploying the VMs enforcing their security policies.
Experimental Demonstration of Virtual Network Controller for Abstraction and Control of Multi-tenant Multi-technology Transport Networks
Ricard Vilalta, Centre Tecnològic de Telecomunicacions de Catalunya, Spain
Arturo Mayoral, Centre Tecnològic de Telecomunicacions de Catalunya, Spain
Raul Muñoz, Centre Tecnològic de Telecomunicacions de Catalunya, Spain
Ramon Casellas, Centre Tecnològic de Telecomunicacions de Catalunya, Spain
Ricardo Martínez, Centre Tecnològic de Telecomunicacions de Catalunya, Spain
Abstract: In this demo, we present the Virtual Network Controller (VNC) and the Multi-domain SDN Orchestrator. The VNC allows the deployment of OF-enabled multi-tenant Virtual Networks (VN). Once a requested VN is deployed, it is controlled with a customer SDN controller. The Multi-domain SDN Orchestrator is responsible for the provisioning of end-to-end paths across multi-technology network domains. The VNC interacts with the Multi-domain SDN Orchestrator to provision the requested virtual links.
ICONA: Inter Cluster Onos Network Application
Matteo Gerola, Create-Net, Italy
Michele Santuari, Create-Net, Italy
Elio Salvadori, Create-Net, Italy
Stefano Salsano, University of Rome Tor Vergata, Italy
Pier Luigi Ventre, Consortium GARR
Mauro Campanella, Consortium GARR
Francesco Lombardo, University of Rome Tor Vergata, Italy
Giuseppe Siracusano, University of Rome Tor Vergata, Italy
Abstract: Several Network Operating Systems have been proposed in the last few years for Software Defined Networks; however, only few of them are offering resiliency, scalability and high availability required for production environments. In our demonstration we present a geographically distributed SDN Control Plane, called ICONA, build on top of the Open Networking Operating System (ONOS) and designed to meet the aforementioned Service Providers requirements. During the demo, that runs inside the GEANT OpenFlow pan-European testbed, we show how a Service Provider engineer can easily manage and monitor the network, deploy some services and how ICONA can automatically recover from Control and Data planes failures.