A 2.5D Vehicle Odometry Estimation for Vision Applications
Paul Moran, Leroy-Francisco Periera, Anbuchezhiyan Selvaraju, Tejash, Prakash, Pantelis Ermilios, John McDonald, Jonathan Horgan, Ciar\'an Eising

TL;DR
This paper introduces a novel 2.5D vehicle odometry method combining wheel and suspension sensors to improve camera pose estimation for autonomous driving applications.
Contribution
It presents a new sensor fusion approach that integrates vehicular odometry and suspension data for more accurate pose estimation.
Findings
Enhanced pose accuracy over traditional methods
Effective integration of wheel and suspension sensors
Applicable to visualization and computer vision tasks
Abstract
This paper proposes a method to estimate the pose of a sensor mounted on a vehicle as the vehicle moves through the world, an important topic for autonomous driving systems. Based on a set of commonly deployed vehicular odometric sensors, with outputs available on automotive communication buses (e.g. CAN or FlexRay), we describe a set of steps to combine a planar odometry based on wheel sensors with a suspension model based on linear suspension sensors. The aim is to determine a more accurate estimate of the camera pose. We outline its usage for applications in both visualisation and computer vision.
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Taxonomy
TopicsRobotics and Sensor-Based Localization · Autonomous Vehicle Technology and Safety · Robotic Path Planning Algorithms
