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📄 Abstract
Abstract: Mobile service robots can benefit from object-level understanding of their
environments, including the ability to distinguish object instances and
re-identify previously seen instances. Object re-identification is challenging
across different viewpoints and in scenes with significant appearance variation
arising from weather or lighting changes. Existing works on object
re-identification either focus on specific classes or require foreground
segmentation. Further, these methods, along with object re-identification
datasets, have limited consideration of challenges such as outdoor scenes and
illumination changes. To address this problem, we introduce CODa Re-ID: an
in-the-wild object re-identification dataset containing 1,037,814 observations
of 557 objects across 8 classes under diverse lighting conditions and
viewpoints. Further, we propose CLOVER, a representation learning method for
object observations that can distinguish between static object instances
without requiring foreground segmentation. We also introduce MapCLOVER, a
method for scalably summarizing CLOVER descriptors for use in object maps and
matching new observations to summarized descriptors. Our results show that
CLOVER achieves superior performance in static object re-identification under
varying lighting conditions and viewpoint changes and can generalize to unseen
instances and classes.
Authors (3)
Dongmyeong Lee
Amanda Adkins
Joydeep Biswas
Key Contributions
Introduces CLOVER, a representation learning method for object observations that is invariant to viewpoint and environmental changes, enabling robust object re-identification for mobile robots. It also presents CODa Re-ID, a large-scale, in-the-wild dataset specifically designed to address challenges like diverse lighting and viewpoints.
Business Value
Improves the situational awareness and navigation capabilities of mobile robots and autonomous systems by enabling reliable object recognition and tracking in complex, dynamic environments.