Authors: Santosh Kumar Dash
Abstract: Abstract- Autonomous vehicles (AVs) promise to transform transportation by improving road-safety, increasing mobility access, and enabling new mobility services. This paper presents a comprehensive systems-level review and practical draft design for contemporary autonomous cars, covering levels of driving automation, sensor suites, perception pipelines, localization and mapping strategies, motion-planning and control architectures, simulation and evaluation approaches, and safety/ethical considerations. We summarize current industry and standards perspectives on automation levels, then present a modular architecture that integrates multi-sensor perception (camera, LiDAR, radar), real-time sensor fusion and object tracking, simultaneous localization and mapping (SLAM), behavior planning (route and tactical), and trajectory generation and low-level control. Important algorithmic choices—classical (A*, RRT, MPC) and learning-based (deep perception networks, reinforcement learning for decision-making)—are compared with their strengths and failure modes. The draft includes recommended software/hardware stacks, data pipelines, validation approaches (closed-track testing and large-scale simulation), and metrics for safety and performance evaluation. It also examines practical failure modes (sensor occlusion, adverse weather, distributional shift), regulatory and ethical constraints, and socio-economic impacts. Where possible the design favors explainable, verifiable methods that enable safety cases supported by reproducible testing. Finally, the paper outlines a staged roadmap for development from Level 2/3 driver-assistance prototypes to Level 4 operational design domains (ODDs). The review and draft aim to be a pragmatic blueprint both for research teams and startups seeking to build safe, testable autonomous driving systems while acknowledging open research challenges and policy needs.
International Journal of Science, Engineering and Technology