Towards bio-inspired place recognition over multiple spatial scales

, , Erdem, Ugur, Hasselmo, Michael, & (2013) Towards bio-inspired place recognition over multiple spatial scales. In Eaton, R, Guivant, J, & Katupitiya, J (Eds.) Proceedings of the 2013 Australasian Conference on Robotics and Automation. Australian Robotics and Automation Association (ARAA), Australia, pp. 1-9.

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Description

This paper presents a new multi-scale place recognition system inspired by the recent discovery of overlapping, multi-scale spatial maps stored in the rodent brain. By training a set of Support Vector Machines to recognize places at varying levels of spatial specificity, we are able to validate spatially specific place recognition hypotheses against broader place recognition hypotheses without sacrificing localization accuracy. We evaluate the system in a range of experiments using cameras mounted on a motorbike and a human in two different environments. At 100% precision, the multiscale approach results in a 56% average improvement in recall rate across both datasets. We analyse the results and then discuss future work that may lead to improvements in both robotic mapping and our understanding of sensory processing and encoding in the mammalian brain.

Impact and interest:

6 citations in Scopus
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ID Code: 66633
Item Type: Chapter in Book, Report or Conference volume (Conference contribution)
ORCID iD:
Jacobson, Adamorcid.org/0000-0002-8452-261X
Milford, Michaelorcid.org/0000-0002-5162-1793
Measurements or Duration: 9 pages
Keywords: Localization accuracy, Multi-scale place recognition system, Multi-scale spatial maps, Place recognition hypotheses, Robotic mapping, Robotics, Rodent brain, Support Vector Machines
ISBN: 978-0-9807404-4-8
Pure ID: 32484706
Divisions: Past > Institutes > Institute for Future Environments
Past > QUT Faculties & Divisions > Science & Engineering Faculty
Funding:
Copyright Owner: Copyright 2013 [please consult the authors]
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Deposited On: 28 Jan 2014 02:06
Last Modified: 02 Mar 2024 01:03