We present a mobile robot localization method for known 2D environments, which is an evidence accumulation method where the complexity is reduced by means of a multi-resolution scheme. The method has been named MUREA (MUlti-Resolution Evidence Accumulation). The added values of the work briefly are: 1) the method per sé; 2) the capability of the system to accept both raw sensor data as well as independently generated localization estimates; 3) the capability of the system to be both a global or a local localization system, depending on the availability of a global estimate; 4) the capability of the system to give out a (less) accurate estimate whenever asked to do so (e.g. before its regular completion), which could be called any-time localization. We elaborate and evaluate a strategy for travelling the search-space, which expands the pose current estimate alternating between subspaces. Real experiments, based on omnidirectional sensing in an indoor environment, are presented.
Restelli, M., Sorrenti, D., Marchese, F. (2002). A robot localization method based on evidence accumulation and multi-resolution. In 2002 IEEE/RSJ INTERNATIONAL CONFERENCE ON INTELLIGENT ROBOTS AND SYSTEMS, VOLS 1-3, PROCEEDINGS (pp.415-420).
A robot localization method based on evidence accumulation and multi-resolution
Sorrenti, D;Marchese, F
2002
Abstract
We present a mobile robot localization method for known 2D environments, which is an evidence accumulation method where the complexity is reduced by means of a multi-resolution scheme. The method has been named MUREA (MUlti-Resolution Evidence Accumulation). The added values of the work briefly are: 1) the method per sé; 2) the capability of the system to accept both raw sensor data as well as independently generated localization estimates; 3) the capability of the system to be both a global or a local localization system, depending on the availability of a global estimate; 4) the capability of the system to give out a (less) accurate estimate whenever asked to do so (e.g. before its regular completion), which could be called any-time localization. We elaborate and evaluate a strategy for travelling the search-space, which expands the pose current estimate alternating between subspaces. Real experiments, based on omnidirectional sensing in an indoor environment, are presented.I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.