Need of Ambient Intelligence for Next-Generation Connected and Autonomous Vehicles

The automotive industry is shifting its focus from performance and features to safety, entertainment, and driver comfort. In this regard, driver assistance and autonomous driving technology are gaining more attention. Such technology has the potential to reduce road accidents, traffic congestion, and fuel usage. However, vehicles cannot become fully autonomous, until they are able to sense their context efficiently (context sensing), and to use ambient learning to respond appropriately and within short timescales to the data they have sensed. Context sharing will also become essential, because a single vehicle will not be able to gain a holistic view of its context without cooperation from other nearby vehicles and from the roadside infrastructure. Indeed, there are further advantages when a group of vehicles make intelligent decisions based on a common understanding of their context. This chapter highlights the significance of ambient intelligence for next-generation connected and autonomous vehicles, describes its current state of the art, and also shows how its potential might be achieved. One of the main challenges refers to how to provision and coordinate cloud-based services to meet the needs of real-time (low latency) data-intensive (high data rate) ambient intelligence, particularly for safety-critical vehicular safety applications. It indicates how autonomous or semi-autonomous vehicles are likely to make seamless use of any available wireless networking technologies to improve both coverage and reliability and, where feasible, to cache critical content near the network edge so as to minimize the number of network hops and hence service latencies. Both of these approaches should improve the network quality of service afforded to driving applications.

[1]  Xiaohui Liang,et al.  Morality-Driven Data Forwarding With Privacy Preservation in Mobile Social Networks , 2012, IEEE Transactions on Vehicular Technology.

[2]  Sanghyun Ahn,et al.  In-vehicle sensor-assisted platoon formation by utilizing vehicular communications , 2017, Int. J. Distributed Sens. Networks.

[3]  Carla-Fabiana Chiasserini,et al.  The impact of vehicular traffic demand on 5G caching architectures: A data-driven study , 2017, Veh. Commun..

[4]  Kamalrulnizam Abu Bakar,et al.  Fog Based Intelligent Transportation Big Data Analytics in The Internet of Vehicles Environment: Motivations, Architecture, Challenges, and Critical Issues , 2018, IEEE Access.

[5]  Der-Jiunn Deng,et al.  Latency Control in Software-Defined Mobile-Edge Vehicular Networking , 2017, IEEE Communications Magazine.

[6]  Depeng Jin,et al.  Vehicular Fog Computing: A Viewpoint of Vehicles as the Infrastructures , 2016, IEEE Transactions on Vehicular Technology.

[7]  Jiannong Cao,et al.  SDVN: enabling rapid network innovation for heterogeneous vehicular communication , 2016, IEEE Network.

[8]  Abhinav Jha,et al.  Road condition monitoring and alert application: Using in-vehicle Smartphone as Internet-connected sensor , 2012, 2012 IEEE International Conference on Pervasive Computing and Communications Workshops.

[9]  Qiang Zheng,et al.  Reliable and efficient autonomous driving: the need for heterogeneous vehicular networks , 2015, IEEE Communications Magazine.

[10]  Juan-Carlos Cano,et al.  Breaking the Vehicular Wireless Communications Barriers: Vertical Handover Techniques for Heterogeneous Networks , 2015, IEEE Transactions on Vehicular Technology.

[11]  Robert W. Heath,et al.  Millimeter-Wave Vehicular Communication to Support Massive Automotive Sensing , 2016, IEEE Communications Magazine.

[12]  Madjid Tavana,et al.  Autonomous vehicles: challenges, opportunities, and future implications for transportation policies , 2016, Journal of Modern Transportation.

[13]  Yiqing Zhou,et al.  Heterogeneous Vehicular Networking: A Survey on Architecture, Challenges, and Solutions , 2015, IEEE Communications Surveys & Tutorials.

[14]  Thrasyvoulos Spyropoulos,et al.  Storage on wheels: Offloading popular contents through a vehicular cloud , 2016, 2016 IEEE 17th International Symposium on A World of Wireless, Mobile and Multimedia Networks (WoWMoM).

[15]  Deze Zeng,et al.  Migrate or not? Exploring virtual machine migration in roadside cloudlet‐based vehicular cloud , 2015, Concurr. Comput. Pract. Exp..

[16]  Daqiang Zhang,et al.  Cost-Efficient Sensory Data Transmission in Heterogeneous Software-Defined Vehicular Networks , 2016, IEEE Sensors Journal.

[17]  Xuemin Shen,et al.  Connected Vehicles: Solutions and Challenges , 2014, IEEE Internet of Things Journal.

[18]  Wenchao Xu,et al.  Internet of vehicles in big data era , 2018, IEEE/CAA Journal of Automatica Sinica.

[19]  Muhammad Tariq,et al.  Trajectory-Based Reliable Content Distribution in D2D-Based Cooperative Vehicular Networks: A Coalition Formation Approach , 2018, 2018 IEEE International Conference on Communications (ICC).

[20]  Nadra Guizani,et al.  Overcoming the Key Challenges to Establishing Vehicular Communication: Is SDN the Answer? , 2017, IEEE Communications Magazine.

[21]  Rajkumar Buyya,et al.  Heterogeneity in Mobile Cloud Computing: Taxonomy and Open Challenges , 2014, IEEE Communications Surveys & Tutorials.

[22]  Antonella Molinaro,et al.  From Theory to Experimental Evaluation: Resource Management in Software-Defined Vehicular Networks , 2017, IEEE Access.

[23]  Zdenek Becvar,et al.  Mobile Edge Computing: A Survey on Architecture and Computation Offloading , 2017, IEEE Communications Surveys & Tutorials.

[24]  Isaac Skog,et al.  Smartphone-Based Measurement Systems for Road Vehicle Traffic Monitoring and Usage-Based Insurance , 2014, IEEE Systems Journal.

[25]  Meikang Qiu,et al.  A Scalable and Quick-Response Software Defined Vehicular Network Assisted by Mobile Edge Computing , 2017, IEEE Communications Magazine.

[26]  Xin Zhang,et al.  End to End Learning for Self-Driving Cars , 2016, ArXiv.

[27]  Abdelhakim Hafid,et al.  Vehicle Software Updates Distribution with SDN and Cloud Computing , 2017, IEEE Communications Magazine.

[28]  Azzedine Boukerche,et al.  An analysis of caching in information-centric vehicular networks , 2017, 2017 IEEE International Conference on Communications (ICC).

[29]  Shahid Mumtaz,et al.  Dependable Content Distribution in D2D-Based Cooperative Vehicular Networks: A Big Data-Integrated Coalition Game Approach , 2018, IEEE Transactions on Intelligent Transportation Systems.

[30]  Antonella Molinaro,et al.  Information-centric networking for connected vehicles: a survey and future perspectives , 2016, IEEE Communications Magazine.

[31]  Li Zhao,et al.  Support for vehicle-to-everything services based on LTE , 2016, IEEE Wireless Communications.

[32]  Laizhong Cui,et al.  When big data meets software-defined networking: SDN for big data and big data for SDN , 2016, IEEE Network.

[33]  Markus Dominik Mueck,et al.  Networking Vehicles to Everything: Evolving Automotive Solutions , 2017 .

[34]  Syed Hassan Ahmed,et al.  Named Data Networking for Software Defined Vehicular Networks , 2017, IEEE Communications Magazine.

[35]  Enzo Baccarelli,et al.  Fog of Everything: Energy-Efficient Networked Computing Architectures, Research Challenges, and a Case Study , 2017, IEEE Access.

[36]  Falko Dressler,et al.  A Vehicular Networking Perspective on Estimating Vehicle Collision Probability at Intersections , 2014, IEEE Transactions on Vehicular Technology.

[37]  Xiaodai Dong,et al.  Terahertz Communication for Vehicular Networks , 2017, IEEE Trans. Veh. Technol..