Applications of Computer Vision for Autonomous Driving

A special issue of Electronics (ISSN 2079-9292). This special issue belongs to the section "Electrical and Autonomous Vehicles".

Deadline for manuscript submissions: 15 December 2026 | Viewed by 328

Editors

School of Automation, Nanjing University of Science and Technology, Nanjing 210094, China
Interests: embodied intelligent robot; computer vision; perceptive technology; multimodal large model; autonomous driving perception
Special Issues, Collections and Topics in MDPI journals
School of Civil and Transportation, Hebei University of Technology, Tianjin 300401, China
Interests: transportation demand analysis; intelligent connected traffic flow theory; traffic data mining
Special Issues, Collections and Topics in MDPI journals

Special Issue Information

Dear Colleagues,

Computer vision is a cornerstone of autonomous driving, enabling vehicles to perceive, understand, and anticipate complex, dynamic environments. Despite rapid progress in 2D/3D perception and multi-sensor fusion, deploying reliable and efficient vision systems at scale remains challenging due to long-tail events, adverse weather and illumination, domain shifts, compute and memory constraints on embedded hardware, and stringent safety and validation requirements. This Special Issue aims to gather advances that address these challenges and translate cutting-edge research into robust, real-world autonomy.

We welcome contributions spanning the full perception stack—from sensing and calibration to on-vehicle deployment and evaluation. Topics of interest include camera-, LiDAR-, and radar-based perception; 2D/3D object detection and tracking; semantic and instance segmentation; depth estimation; BEV scene representations and occupancy prediction; and tightly coupled multi-modal fusion. We particularly encourage work that quantifies and mitigates uncertainty, improves calibration and spatiotemporal alignment, and leverages priors for structure and motion understanding in complex traffic scenes.

Learning paradigms that advance data efficiency and generalization are in scope, including self-supervised and semi-supervised learning, curriculum and continual learning, open-vocabulary and foundation models for driving, and diffusion/generative models for augmentation and simulation. We welcome sim-to-real and domain adaptation methods that bridge gaps across sensors, geographies, weather, and camera rigs, as well as techniques for rare-event discovery, scenario mining, and active learning that target long-tail safety-critical behaviors.

Resource-aware vision for production autonomy is also a central theme: real-time and energy-efficient models; quantization, pruning, and neural architecture/search for automotive SoCs; compiler and runtime co-design; and robust performance under compute, latency, and memory constraints. Cooperative and connected intelligence—including V2X-enabled cooperative perception and map priors—are within scope, as are privacy-preserving learning and secure perception.

Finally, we seek rigorous evaluation, benchmarking, and verification contributions: protocols and datasets for robustness, reliability, and corner-case testing; uncertainty calibration and explainability; failure analysis and retraining pipelines; and reproducible systems with open data/code. Submissions from both academia and industry are encouraged, including case studies and system papers that demonstrate measurable gains on real-world fleets or large-scale public benchmarks.

This Special Issue invites original research articles, communications, and reviews that advance trustworthy, efficient, and deployable computer vision for autonomous and connected vehicles.

Dr. Wei Zhou
Dr. Weijie Yu
Guest Editors

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Keywords

  • autonomous driving
  • computer vision
  • multi-sensor fusion (camera–LiDAR–radar)
  • 3D perception and BEV scene understanding
  • robustness and uncertainty estimation
  • domain adaptation and sim-to-real
  • efficient on-vehicle deployment
  • cooperative perception (V2X)

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Published Papers (1 paper)

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Research

29 pages, 22497 KB  
Article
The Era of End-to-End Autonomy: Transitioning from Rule-Based Driving to Large Driving Models
by Em. Eduardo Nebot and Julie Stephany Berrio Perez
Electronics 2026, 15(14), 3160; https://doi.org/10.3390/electronics15143160 (registering DOI) - 17 Jul 2026
Abstract
Autonomous driving is undergoing a major architectural transition from modular, rule-based pipelines toward learning-based and increasingly end-to-end (E2E) driving systems. This paper examines this transition by tracing the evolution from classical sense–perceive–plan–control architectures to large driving models (LDMs) that integrate perception, prediction, planning, [...] Read more.
Autonomous driving is undergoing a major architectural transition from modular, rule-based pipelines toward learning-based and increasingly end-to-end (E2E) driving systems. This paper examines this transition by tracing the evolution from classical sense–perceive–plan–control architectures to large driving models (LDMs) that integrate perception, prediction, planning, and control within unified learning frameworks. We review recent academic and industrial developments, including Tesla’s Full Self-Driving (FSD) V12–V14, Rivian’s Unified Intelligence platform, NVIDIA Cosmos, and emerging robotaxi deployments, with particular emphasis on Tesla FSD because it represents one of the most widely deployed supervised E2E driving systems currently available to consumers. The analysis focuses on architectural design, deployment pathways, safety challenges, and industry implications. Particular attention is given to the emerging category of supervised E2E driving, often described as FSD (Supervised) or L2++, in which the vehicle performs a substantial portion of the Dynamic Driving Task (DDT) while the human driver remains responsible for supervision and fallback intervention. We discuss the technical opportunities of these systems, including their potential to learn from large-scale fleet data and improve performance in long-tail driving scenarios, while also examining unresolved challenges related to validation, transparency, human–machine interaction, driver attention, liability, and regulatory assessment. The paper further argues that combining vision with range sensing can support continuous training and validation of camera-based depth and scene-understanding models. Finally, we consider how the architectural principles emerging in autonomous driving may extend to broader embodied AI systems, including humanoid robotics and other safety-critical autonomous platforms. Full article
(This article belongs to the Special Issue Applications of Computer Vision for Autonomous Driving)
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