Robust Safety for Autonomous Vehicles through Reconfigurable Networking
Autonomous vehicles bring the promise of enhancing the consumer experience in terms of comfort and convenience and, in particular, the safety of the autonomous vehicle. Safety functions in autonomous vehicles such as Automatic Emergency Braking and Lane Centering Assist rely on computation, informat...
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2018-04-01
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Series: | Electronic Proceedings in Theoretical Computer Science |
Online Access: | http://arxiv.org/pdf/1804.08407v1 |
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doaj-1610936b48664d79bf743cefb204e5692020-11-25T01:48:42ZengOpen Publishing AssociationElectronic Proceedings in Theoretical Computer Science2075-21802018-04-01269Proc. SCAV 2018485810.4204/EPTCS.269.5:5Robust Safety for Autonomous Vehicles through Reconfigurable NetworkingKhalid Halba0Charif Mahmoudi1Edward Griffor2 National Institute of Standards and Technology National Institute of Standards and Technology National Institute of Standards and Technology Autonomous vehicles bring the promise of enhancing the consumer experience in terms of comfort and convenience and, in particular, the safety of the autonomous vehicle. Safety functions in autonomous vehicles such as Automatic Emergency Braking and Lane Centering Assist rely on computation, information sharing, and the timely actuation of the safety functions. One opportunity to achieve robust autonomous vehicle safety is by enhancing the robustness of in-vehicle networking architectures that support built-in resiliency mechanisms. Software Defined Networking (SDN) is an advanced networking paradigm that allows fine-grained manipulation of routing tables and routing engines and the implementation of complex features such as failover, which is a mechanism of protecting in-vehicle networks from failure, and in which a standby link automatically takes over once the main link fails. In this paper, we leverage SDN network programmability features to enable resiliency in the autonomous vehicle realm. We demonstrate that a Software Defined In-Vehicle Networking (SDIVN) does not add overhead compared to Legacy In-Vehicle Networks (LIVNs) under non-failure conditions and we highlight its superiority in the case of a link failure and its timely delivery of messages. We verify the proposed architectures benefits using a simulation environment that we have developed and we validate our design choices through testing and simulationshttp://arxiv.org/pdf/1804.08407v1 |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Khalid Halba Charif Mahmoudi Edward Griffor |
spellingShingle |
Khalid Halba Charif Mahmoudi Edward Griffor Robust Safety for Autonomous Vehicles through Reconfigurable Networking Electronic Proceedings in Theoretical Computer Science |
author_facet |
Khalid Halba Charif Mahmoudi Edward Griffor |
author_sort |
Khalid Halba |
title |
Robust Safety for Autonomous Vehicles through Reconfigurable Networking |
title_short |
Robust Safety for Autonomous Vehicles through Reconfigurable Networking |
title_full |
Robust Safety for Autonomous Vehicles through Reconfigurable Networking |
title_fullStr |
Robust Safety for Autonomous Vehicles through Reconfigurable Networking |
title_full_unstemmed |
Robust Safety for Autonomous Vehicles through Reconfigurable Networking |
title_sort |
robust safety for autonomous vehicles through reconfigurable networking |
publisher |
Open Publishing Association |
series |
Electronic Proceedings in Theoretical Computer Science |
issn |
2075-2180 |
publishDate |
2018-04-01 |
description |
Autonomous vehicles bring the promise of enhancing the consumer experience in terms of comfort and convenience and, in particular, the safety of the autonomous vehicle. Safety functions in autonomous vehicles such as Automatic Emergency Braking and Lane Centering Assist rely on computation, information sharing, and the timely actuation of the safety functions. One opportunity to achieve robust autonomous vehicle safety is by enhancing the robustness of in-vehicle networking architectures that support built-in resiliency mechanisms. Software Defined Networking (SDN) is an advanced networking paradigm that allows fine-grained manipulation of routing tables and routing engines and the implementation of complex features such as failover, which is a mechanism of protecting in-vehicle networks from failure, and in which a standby link automatically takes over once the main link fails. In this paper, we leverage SDN network programmability features to enable resiliency in the autonomous vehicle realm. We demonstrate that a Software Defined In-Vehicle Networking (SDIVN) does not add overhead compared to Legacy In-Vehicle Networks (LIVNs) under non-failure conditions and we highlight its superiority in the case of a link failure and its timely delivery of messages. We verify the proposed architectures benefits using a simulation environment that we have developed and we validate our design choices through testing and simulations |
url |
http://arxiv.org/pdf/1804.08407v1 |
work_keys_str_mv |
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