OmniNAV: Omniscient Navigation via Unified LiDAR–Camera BEV Fusion for End-to-End Autonomous Driving
Accepted at IEEE IV 2026
Engineering 5.5 · Research 7.0 · Business 5.0
Multi-sensor fusion for autonomous driving — combining LiDAR, camera, radar and ultrasonic sensors for robust all-weather environment perception.
Accepted at IEEE IV 2026
Engineering 5.5 · Research 7.0 · Business 5.0
Mining hard, safety-critical scenes from driving logs is bottlenecked by the absence of difficulty labels, and no single proxy, collision risk, trajectory ambiguity, or semantic rarity suffices to find such scenes on its own.
Engineering 6.5 · Research 7.0 · Business 5.0
Multimodal 3D object detection based on LiDAR and cameras has demonstrated excellent performance in ground-vehicle scenarios, but has not been explored for Unmanned Aerial Vehicle (UAV) platforms.
Engineering 5.0 · Research 7.0 · Business 5.0
An autonomous driving research paper: Research on Calibration and Hardware Acceleration of Multi-Sensor Fusion Perception System in Autonomous Driving.
Engineering 5.0 · Research 7.0 · Business 5.0
This paper presents a ROS 2 navigation system for a Unitree Go2 Edu quadruped equipped with a 4D LiDAR, a front depth camera, and an IMU.
Engineering 5.5 · Research 7.0 · Business 6.0
To address this issue, we propose SeparateFusion, a novel multisensor fusion framework that integrates four-dimensional (4D) millimeter-wave radar and LiDAR data via a deep neural network.
Engineering 5.0 · Research 8.0 · Business 5.0
This paper presents a comprehensive survey of 138 works, primarily published between 2015 and 2025, spanning both classical and learning-based approaches.
Engineering 5.0 · Research 7.0 · Business 5.0
Our approach extends two representative backbones: a radar-camera pipeline where radar substitutes LiDAR, and a LiDAR-radar pipeline where radar complements LiDAR.
Engineering 5.0 · Research 7.0 · Business 5.0
Accurate 3D bird's-eye view (BEV) object detection is essential for autonomous driving, and depends strongly on effective multimodal representations from complementary sensors such as cameras and LiDAR.
Engineering 5.5 · Research 7.0 · Business 5.0
This paper proposes HOPNet (Heterogeneous Object Priority Network), a multi-modal real-time object detection framework integrating YOLOv8-based convolutional neural networks with Swin Transformer attention, camera-LiDAR fusion, and domain-adaptive transfer learning.
Engineering 5.0 · Research 8.0 · Business 5.0
This paper provides an in-depth exploration of a design and implementation of multi-sensor perception system for autonomous vehicle (AV).
Engineering 5.5 · Research 7.0 · Business 6.0
We present MORPH-U, a CARLA-based closed-loop stack that fuses LiDAR/radar/camera with V2X (CAM/DENM) into a Local Dynamic Map (LDM) and triggers Hybrid-A* replanning when validated hazards or map changes affect the planned route.
Engineering 5.0 · Research 7.0 · Business 5.0
This paper presents a novel vehicle-to-infrastructure (V2I) cooperative perception framework to address inherent limitations of bird's eye view (BEV) systems in autonomous driving.
Engineering 5.0 · Research 8.0 · Business 5.0
This paper presents a framework leveraging SParse representation and SCalable feature interaction to address the aforementioned challenges, called SPSC.
Engineering 5.5 · Research 8.0 · Business 5.0
This paper presents the mechanical design, sensor fusion strategy, path planning algorithms, and experimental validation of AGNI in challenging terrains.
Engineering 5.0 · Research 7.0 · Business 5.0
Precise sensor integration is crucial for autonomous vehicle (AV) navigation, yet traditional extrinsic calibration remains costly and labor-intensive.
Engineering 5.5 · Research 7.0 · Business 5.5
In this paper, we give a brief look at the sensors and how they work together in autonomous vehicles.
Engineering 5.0 · Research 7.0 · Business 5.0
Accurate perception in autonomous vehicles is critical for ensuring safety and reliability in complex driving environments.
Engineering 5.5 · Research 7.0 · Business 6.0
The paper explores the way that the design of autonomous vehicle simulator creates a virtual environment inside which the high-cost and safety-innovative, autonomous vehicle (AV) technologies could be achieved through innovation and experimentation.
Engineering 7.0 · Research 7.0 · Business 5.5
We propose a novel, cost effective approach that uses a monocular camera and deep learning-based depth estimation to generate steering commands in real time.
Engineering 5.0 · Research 8.0 · Business 5.0