Industrial IoT Security Monitoring and Test on Fed4Fire+ Platforms

Rivera, Diego; de, Edgardo Montes; Mallouli, Wissam; Cavalli, Ana; Vermeulen, Brecht; Vucnik, Matevz

doi:10.1007/978-3-030-31280-0_17

Cited by 4 publications

(4 citation statements)

References 7 publications

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“…The monitoring framework for an industrial IoT network on the Fed4Fire W-iLab testbed was tested in [37]. As part of this testing, an IoT network is monitored and its security and performance are examined.…”

Section: Fed4fire Testbeds-w-ilabs and Citylabmentioning

confidence: 99%

Future Wireless Networking Experiments Escaping Simulations

et al. 2022

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In computer networking, simulations are widely used to test and analyse new protocols and ideas. Currently, there are a number of open real testbeds available to test the new protocols. In the EU, for example, there are Fed4Fire testbeds, while in the US, there are POWDER and COSMOS testbeds. Several other countries, including Japan, Brazil, India, and China, have also developed next-generation testbeds. Compared to simulations, these testbeds offer a more realistic way to test protocols and prototypes. In this paper, we examine some available wireless testbeds from the EU and the US, which are part of an open-call EU project under the NGIAtlantic H2020 initiative to conduct Software-Defined Networking (SDN) experiments on intelligent Internet of Things (IoT) networks. Furthermore, the paper presents benchmarking results and failure recovery results from each of the considered testbeds using a variety of wireless network topologies. The paper compares the testbeds based on throughput, latency, jitter, resources available, and failure recovery time, by sending different types of traffic. The results demonstrate the feasibility of performing wireless experiments on different testbeds in the US and the EU. Further, issues faced during experimentation on EU and US testbeds are also reported.

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Section: Fed4fire Testbeds-w-ilabs and Citylabmentioning

confidence: 99%

Future Wireless Networking Experiments Escaping Simulations

et al. 2022

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“…Many studies have already used tesbeds for research on SDN [14], [15] service chaining [16], [17], IoT-cloud integration [2], [18], security [19], [20], etc. Additionally, works on testbed integration [21]- [25] have allowed researchers to interconnect testbeds of different domains to improve the scalability, flexibility and scope of their solutions.…”

Section: Why a Global Multi-domain Network?mentioning

confidence: 99%

Achieving End-to-End Connectivity in Global Multi-Domain Networks

Municio

Cevik

Ruth

et al. 2021

IEEE INFOCOM 2021 - IEEE Conference on Computer Communications Workshops (INFOCOM WKSHPS)

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Current trends on 5G network programmability evidence the need for end-to-end flexibility from the node and edge all the way to the cloud. Such multi-domain scenarios require realistic testbeds where different task-offloading algorithms, scheduling functions, and service orchestration techniques can be deployed and tested. While many of these research components can be often explored locally in small and isolated testbeds, new 5G demands are requesting for inter-operable platforms with a wider and a more global scope. The goal for these global platforms is that they can cope with multitier hierarchical architectures that are capable to face intense computational processes and heavy network traffic loads, while preserving dependability and keeping a low latency on the task executions and data transmission. In this paper we demonstrate a world-wide attempt to integrate different high-performance testing facilities, located in USA, Belgium, and The Netherlands, to enable experimentation on top of such large and complex architectures. In order to do this, we describe and deploy a multi-domain use case that can benefit from a global hierarchical infrastructure. Finally, we detail the performance characteristics of the deployment, discussing the experiences and technical challenges, and presenting the lessons learned we obtained when building and testing such experimental use case.

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“…The Fed4FIRE+ project offers the largest federation worldwide of Next Generation Internet (NGI) testbeds [17], [18], [19] which provide open, accessible and reliable facilities and tools supporting a wide variety of different research and innovation communities and initiatives in Europe, including the 5G PPP projects and initiatives 5 .…”

Section: A Fed4fire+ Federated Testbedsmentioning

confidence: 99%

DRAFT - A Cybersecurity Framework for IoT Platforms

Datta¹

2020

2020 Zooming Innovation in Consumer Technologies Conference (ZINC)

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This paper presents a Cybersecurity Framework for end-to-end IoT Platforms called DRAFT. It is developed in response to rising number of Cyberattacks against IoT applications and services. The framework is composed of a risk assessment framework, a Security Incident and Event Monitoring (SIEM) tool, and a Cyberattack resilient framework. DRAFT framework has been integrated into an end-to-end IoT Platform and has been tested using five known and simulated Cyberattacks using the Fed4FIRE+ federated testbeds. The results obtained show that the proposed Cybersecurity framework is capable of increasing Cyberattack resilience of the IoT Platform under test.

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Industrial IoT Security Monitoring and Test on Fed4Fire+ Platforms

Cited by 4 publications

References 7 publications

Future Wireless Networking Experiments Escaping Simulations

Future Wireless Networking Experiments Escaping Simulations

Achieving End-to-End Connectivity in Global Multi-Domain Networks

DRAFT - A Cybersecurity Framework for IoT Platforms

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