Uncertainty Estimation for Safe Human-Robot Collaboration using Conservation Measures
Woo-Jeong Baek, Christoph Ledermann, and Torsten Kr\"oger

TL;DR
This paper introduces a real-time, data-driven method for quantifying measurement uncertainties in human-robot collaboration, using conservation measures to enhance safety and compliance with standards like ISO 13849.
Contribution
The novel approach leverages conservation equations to evaluate measurement uncertainties during operation, improving safety assessment in human-robot systems.
Findings
Validated on a human-robot collaboration use case
Uncertainty estimates can be mapped to safety standards
Enhances real-time safety monitoring in industrial environments
Abstract
We present an online and data-driven uncertainty quantification method to enable the development of safe human-robot collaboration applications. Safety and risk assessment of systems are strongly correlated with the accuracy of measurements: Distinctive parameters are often not directly accessible via known models and must therefore be measured. However, measurements generally suffer from uncertainties due to the limited performance of sensors, even unknown environmental disturbances, or humans. In this work, we quantify these measurement uncertainties by making use of conservation measures which are quantitative, system specific properties that are constant over time, space, or other state space dimensions. The key idea of our method lies in the immediate data evaluation of incoming data during run-time referring to conservation equations. In particular, we estimate violations of…
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Taxonomy
TopicsSafety Systems Engineering in Autonomy · Software Reliability and Analysis Research · Flexible and Reconfigurable Manufacturing Systems
