An RFS theoretic for Bayesian feature-based robotic mapping

Estimating a FB map requires the joint propagation of the FB map density encapsulating uncertainty in feature number and location. This chapter addresses the joint propagation of the FB map density and leads to an optimal map estimate in the presence of unknown map size, spurious measurements, featu...

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Main Authors: Mullane, J., Vo, Ba-Ngu, Adams, M., Vo, B.
Format: Book Chapter
Published: 2011
Online Access:http://hdl.handle.net/20.500.11937/60053
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author Mullane, J.
Vo, Ba-Ngu
Adams, M.
Vo, B.
author_facet Mullane, J.
Vo, Ba-Ngu
Adams, M.
Vo, B.
author_sort Mullane, J.
building Curtin Institutional Repository
collection Online Access
description Estimating a FB map requires the joint propagation of the FB map density encapsulating uncertainty in feature number and location. This chapter addresses the joint propagation of the FB map density and leads to an optimal map estimate in the presence of unknown map size, spurious measurements, feature detection and data association uncertainty. The proposed framework further allows for the joint treatment of error in feature number and location estimates. As a proof of concept, the first-order moment recursion, the PHD filter, is implemented using both simulated and real experimental data. The feasibility of the proposed framework is demonstrated, particularly in situations of high clutter density and large data association ambiguity. This chapter establishes new tools for a more generalised representation of the FB map, which is a fundamental component of the more challenging SLAM problem, to follow in Part II.
first_indexed 2025-11-14T10:17:58Z
format Book Chapter
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institution Curtin University Malaysia
institution_category Local University
last_indexed 2025-11-14T10:17:58Z
publishDate 2011
recordtype eprints
repository_type Digital Repository
spelling curtin-20.500.11937-600532018-06-18T01:12:00Z An RFS theoretic for Bayesian feature-based robotic mapping Mullane, J. Vo, Ba-Ngu Adams, M. Vo, B. Estimating a FB map requires the joint propagation of the FB map density encapsulating uncertainty in feature number and location. This chapter addresses the joint propagation of the FB map density and leads to an optimal map estimate in the presence of unknown map size, spurious measurements, feature detection and data association uncertainty. The proposed framework further allows for the joint treatment of error in feature number and location estimates. As a proof of concept, the first-order moment recursion, the PHD filter, is implemented using both simulated and real experimental data. The feasibility of the proposed framework is demonstrated, particularly in situations of high clutter density and large data association ambiguity. This chapter establishes new tools for a more generalised representation of the FB map, which is a fundamental component of the more challenging SLAM problem, to follow in Part II. 2011 Book Chapter http://hdl.handle.net/20.500.11937/60053 10.1007/978-3-642-21390-8_4 restricted
spellingShingle Mullane, J.
Vo, Ba-Ngu
Adams, M.
Vo, B.
An RFS theoretic for Bayesian feature-based robotic mapping
title An RFS theoretic for Bayesian feature-based robotic mapping
title_full An RFS theoretic for Bayesian feature-based robotic mapping
title_fullStr An RFS theoretic for Bayesian feature-based robotic mapping
title_full_unstemmed An RFS theoretic for Bayesian feature-based robotic mapping
title_short An RFS theoretic for Bayesian feature-based robotic mapping
title_sort rfs theoretic for bayesian feature-based robotic mapping
url http://hdl.handle.net/20.500.11937/60053