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An NFV system to support service provisioning on UAV networks

Nogales, Borja; Vidal, Ivan; Sánchez Agüero, Víctor; Valera, Francisco; Gonzalez, Luis F.

Abstract

In this presentation, we will first describe the designand implementation of an NFV system capable ofdeploying moderately complex network services over awireless ad-hoc network of resource-constrained computenodes. The system design targets aerial networks built byUnmanned Aerial Vehicles (UAVs), and it relies oncontainer virtualization to support the execution ofnetwork functions within constrained environments, aswell as on mobile ad-hoc networking to support theunderlying end-to-end network communications [1]. Thepresentation will also cover the implementation experiencefrom developing this NFV system, which is based onrelevant and widely-adopted open-source technologies inthe NFV arena such as ETSI Open-Source MANO (OSM)and OpenStack.In addition, we will present the details concerning theintegration of this system into a distributed NFV testbedspanning three different remote sites in Spain, i.e.,Universidad Carlos III de Madrid (UC3M), UniversidadPolitécnica de Cataluña (UPC), and Universidad del PaísVasco (UPV-EHU). The goal of this testbed is to exploresynergies among NFV, UAVs, and 5G vertical services,following a practical approach primarily governed byexperimentation. To showcase the potential of this testbedto support vertical services, we will present three differentuse cases that have been realized as part of our priorresearch work: i) the automated deployment of an IPtelephony service on a delimited geographic area, using anetwork of interconnected UAVs [2] (noteworthily, thiswork was awarded by ETSI as the best proof-of-conceptdemonstration with OSM during the OSM Release Eightcycle [3]); ii) the realization of a smart farming verticalservice [4]; and iii) a public-safety vertical use case, whichuses aerial and vehicular NFV infrastructures to monitortraffic conditions and handle emergency situations [5].This latter involves an international collaboration with theInstituto de Telecomunicações of Aveiro, which operatesa vehicular NFV infrastructure.Finally, the presentation will tackle the standardizationchallenges related with the future view of a decentralizedand flexible MANO framework, capable of supporting theoperation of cost-effective, reliable services beyond theedge of the telecommunication operator infrastructures. Inthis view, multiple stakeholders would collaborativelyprovide a wide range of heterogeneous compute-connectdevices (e.g., end-user terminals, CPEs, or UAV swarms).These devices might exist and be opportunistically used,or they could otherwise be deployed on-demand by thosestakeholders, contributing to the availability of apotentially unlimited pool of network, computing, andstorage resources beyond the network edge. This viewintroduces several standardization challenges to the NFVMANO framework in terms of interoperation, flexibility,robustness, and security. These challenges have beenpresented at the NFV Evolution1 event organized by ETSI,and will build the basis of our future work in this researchline.

Full text

Actas&de&las&XV&Jornadas& de&Ingeniería&Telemática& &(JITEL&2021),& A&Coruña&(España),& 27-29&de&octubre&de&2021.& & This work is licensed under a Creative Commons 4.0 International License (CC BY-NC-ND 4.0) An#NFV#system#to#support#service# provisioning#on#UAV#networks# Borja Nogales1, Iván Vidal1, Victor Sánchez-Aguero1,2, Francisco Valera1, Luis F. Gonzalez1 1 Telematic Engineering Department, Universidad Carlos III de Madrid, Avda. Universidad, 30, 28911 Leganés (Madrid), Spain. 2 IMDEA Networks Institute. Avda. del Mar Mediterráneo, 22, 28918 Madrid, Spain. [email protected], [email protected], [email protected], [email protected], [email protected] I. ABSTRACT In this presentation, we will first describe the design and implementation of an NFV system capable of deploying moderately complex network services over a wireless ad-hoc network of resource-constrained compute nodes. The system design targets aerial networks built by Unmanned Aerial Vehicles (UAVs), and it relies on container virtualization to support the execution of network functions within constrained environments, as well as on mobile ad-hoc networking to support the underlying end-to-end network communications [1]. The presentation will also cover the implementation experience from developing this NFV system, which is based on relevant and widely-adopted open-source technologies in the NFV arena such as ETSI Open-Source MANO (OSM) and OpenStack. In addition, we will present the details concerning the integration of this system into a distributed NFV testbed spanning three different remote sites in Spain, i.e., Universidad Carlos III de Madrid (UC3M), Universidad Politécnica de Cataluña (UPC), and Universidad del País Vasco (UPV-EHU). The goal of this testbed is to explore synergies among NFV, UAVs, and 5G vertical services, following a practical approach primarily governed by experimentation. To showcase the potential of this testbed to support vertical services, we will present three different use cases that have been realized as part of our prior research work: i) the automated deployment of an IP telephony service on a delimited geographic area, using a network of interconnected UAVs [2] (noteworthily, this work was awarded by ETSI as the best proof-of-concept demonstration with OSM during the OSM Release Eight cycle [3]); ii) the realization of a smart farming vertical service [4]; and iii) a public-safety vertical use case, which uses aerial and vehicular NFV infrastructures to monitor traffic conditions and handle emergency situations [5]. This latter involves an international collaboration with the Instituto de Telecomunicações of Aveiro, which operates a vehicular NFV infrastructure. Finally, the presentation will tackle the standardization challenges related with the future view of a decentralized 1 ETSI NFV Evolution event. All details included in: https://www.etsi.org/events/1892-nfvevolution and flexible MANO framework, capable of supporting the operation of cost-effective, reliable services beyond the edge of the telecommunication operator infrastructures. In this view, multiple stakeholders would collaboratively provide a wide range of heterogeneous compute-connect devices (e.g., end-user terminals, CPEs, or UAV swarms). These devices might exist and be opportunistically used, or they could otherwise be deployed on-demand by those stakeholders, contributing to the availability of a potentially unlimited pool of network, computing, and storage resources beyond the network edge. This view introduces several standardization challenges to the NFV MANO framework in terms of interoperation, flexibility, robustness, and security. These challenges have been presented at the NFV Evolution 1 event organized by ETSI, and will build the basis of our future work in this research line. II. ACKNOWLEDGMENT This work has been partially supported by the European H2020 LABYRINTH project (grant agreement H2020MG-2019-TwoStages-861696), and by the TRUE5G project (PID2019-108713RB-C52PID2019-108713RBC52/AEI/10.13039/501100011033) funded by the Spanish National Research Agency. III. REFERENCES [1] B. Nogales, V. Sanchez-Aguero, I. Vidal, and F. Valera, “Adaptable and Automated Small UAV Deployments via Virtualization.”, Sensors, vol. 18, no. 12, p. 4116, Nov. 2018. [2] B. Nogales, I. Vidal, V. Sanchez-Aguero, F. Valera, L. Gonzalez, and A. Azcorra, “Automated Deployment of an Internet Protocol Telephony Service on Unmanned Aerial Vehicles Using Network Functions Virtualization.”, JoVE Vis. Exp. (153), e60425. [3] OSM. “OSM PoC 10 Automated Deployment of an IP Telephony Service on UAVs using OSM.”, [Online] Available: https://osm.etsi.org/wikipub/index.php/OSM_PoC_10_Automated_ Deployment_of_an_IP_Telephony_Service_on_UAVs_using_OS M, Accessed on: Jun. 16, 2021. [4] I. Vidal, B. Nogales, F. Valera, L. F. González, V. Sanchez-Aguero, E. Jacob, and C. Cervelló-Pastor, "A Multi-Site NFV Testbed for Experimentation With SUAV-Based 5G Vertical Services.", IEEE Access, 8, 111522-111535, 2020. [5] B. Nogales, M. Silva, I. Vidal, M. Luís, F. Valera, S. Sargento, and A. Azcorra, "Using Aerial and Vehicular NFV Infrastructures to Agilely Create Vertical Services.", Sensors, 21(4), 1342, 2021. 228