Leveraging edge/cloud continuum for vehicular applications
Thesis event information
Date and time of the thesis defence
Place of the thesis defence
Lecture Hall L6, Linnanmaa campus
Topic of the dissertation
Leveraging edge/cloud continuum for vehicular applications
Doctoral candidate
Master of Science Alireza Bakhshi Zadi Mahmoodi
Faculty and unit
University of Oulu Graduate School, Faculty of Information Technology and Electrical Engineering, Empirical Software Engineering in Software, Systems, and Services
Subject of study
Information Processing Science
Opponent
Professor Karl Andersson, Luleå University of Technology
Custos
Assistant Professor Ella Peltonen, University of Oulu
Safer and smarter vehicle computing with edge, cloud and federated learning
Today’s cars are not just machines you drive. They are like moving computers connected to the internet. They rely on built-in computing systems to do things like sense what is around them, help with driving directions, and check for technical problems. But these improvements also create new problems, such as using energy, handling large amounts of data, and protecting the car from cyberattacks.
This study looks at three related parts of vehicle computing to deal with these problems.
First, it studies whether cars can benefit by sending computing work to nearby servers or cloud systems instead of doing everything inside the vehicle. This is especially useful for electric cars, but it also considers problems like delays caused by slow network connections.
Second, it looks at the huge amount of data produced by vehicles, especially from the car’s internal communication system called the CAN bus. When many vehicles in a city send data at the same time, a central cloud system may have trouble processing it and may become overwhelmed. To help with this, the study suggests processing some of the data closer to where it is created, using nearby edge computing systems, before sending it to the cloud. This helps reduce traffic on the network and put the pressure off the central cloud.
Finally, the study proposes a way for connected vehicles to work together to detect cyberattacks or unusual behavior in real time. Instead of sending all private data to one central place, each vehicle helps train the detection system while keeping its own data local. This improves privacy while still allowing the system to learn from many vehicles together.
This study looks at three related parts of vehicle computing to deal with these problems.
First, it studies whether cars can benefit by sending computing work to nearby servers or cloud systems instead of doing everything inside the vehicle. This is especially useful for electric cars, but it also considers problems like delays caused by slow network connections.
Second, it looks at the huge amount of data produced by vehicles, especially from the car’s internal communication system called the CAN bus. When many vehicles in a city send data at the same time, a central cloud system may have trouble processing it and may become overwhelmed. To help with this, the study suggests processing some of the data closer to where it is created, using nearby edge computing systems, before sending it to the cloud. This helps reduce traffic on the network and put the pressure off the central cloud.
Finally, the study proposes a way for connected vehicles to work together to detect cyberattacks or unusual behavior in real time. Instead of sending all private data to one central place, each vehicle helps train the detection system while keeping its own data local. This improves privacy while still allowing the system to learn from many vehicles together.
Created 9.4.2026 | Updated 10.4.2026