Neural HD Map Generation from Multiple Vectorized Tiles Locally Produced by Autonomous Vehicles
Miao Fan, Yi Yao, Jianping Zhang, Xiangbo Song, Daihui Wu

TL;DR
This paper introduces GNMap, an end-to-end neural network that constructs high-definition maps from multiple locally produced vectorized tiles, improving accuracy and completeness for autonomous driving applications.
Contribution
The paper presents GNMap, a novel neural network architecture that integrates multiple vectorized tiles to generate accurate and complete HD maps, surpassing state-of-the-art methods.
Findings
GNMap achieves over 5% higher F1 score than previous methods.
It effectively combines multiple local map tiles into a coherent global HD map.
Successfully deployed in real-world autonomous driving systems.
Abstract
High-definition (HD) map is a fundamental component of autonomous driving systems, as it can provide precise environmental information about driving scenes. Recent work on vectorized map generation could produce merely 65% local map elements around the ego-vehicle at runtime by one tour with onboard sensors, leaving a puzzle of how to construct a global HD map projected in the world coordinate system under high-quality standards. To address the issue, we present GNMap as an end-to-end generative neural network to automatically construct HD maps with multiple vectorized tiles which are locally produced by autonomous vehicles through several tours. It leverages a multi-layer and attention-based autoencoder as the shared network, of which parameters are learned from two different tasks (i.e., pretraining and finetuning, respectively) to ensure both the completeness of generated maps and…
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Taxonomy
TopicsRemote Sensing and LiDAR Applications · Robotics and Sensor-Based Localization
