Science for Robot Policy

The rapid advancement of service robotics has outpaced regulatory frameworks, leading to gaps and inconsistencies that hinder effective governance. While evidence-based policymaking is well-established in health and consumer protection fields, robotics regulation remains fragmented and reactive. This paper proposes Science for Robot Policy, a structured, evidence-driven model that bridges the disconnect between robotics innovation and regulatory adaptation. Using a Constructive Research Approach, the model integrates scientific experimentation, stakeholder engagement, and knowledge brokering to generate policy-relevant data and transform it into actionable regulatory insights. The model follows a five-step process, beginning with risk identification and prioritization, followed by controlled experimentation in simulators, testing zones, living labs, and real-world markets. The ambition is that insights generated are then translated into policy-relevant information and further refined into knowledge for policymakers, ensuring that empirical evidence informs that robotics regulation is dynamic, anticipatory, and informed. This approach contributes to ongoing discussions on science-for-policy methodologies and fosters iterative regulatory refinement in service robotics. If successful, such a model could allow policymakers to address emerging risks proactively, reduce regulatory uncertainty, enhance user safety, and promote responsible robotics innovation by embedding scientific insights into the policy cycle. • Robotic innovation outpaces laws, risking user rights and causing regulatory gaps. • Science for policy could align innovation with societal needs for robot regulation. • Science for robot policy iteratively tests solutions to refine robotics regulations. • Knowledge brokers can bridge developers, policymakers, and end-users effectively.

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Publication Details

Journal
Technological Forecasting and Social Change
Published
2025-05-23
DOI
https://doi.org/10.1016/j.techfore.2025.124202
Citations
3
Primary Topic
Ethics and Social Impacts of AI
Type
article
Field-Weighted Citation Impact
7.10
Controls
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article

Science for Robot Policy

Bart Custers, Antoni Mut-Piña, Eduard Fosch‐Villaronga, S. van der Hof et al.
3 citations
Technological Forecasting and Social Change
Ethics and Social Impacts of AI
7.10
article

Science for Robot Policy

Bart Custers, Antoni Mut-Piña, Eduard Fosch‐Villaronga, S. van der Hof, Mohammed Raiz Shaffique, Marie Schwed-Shenker
article en
3 citations

Abstract

The rapid advancement of service robotics has outpaced regulatory frameworks, leading to gaps and inconsistencies that hinder effective governance. While evidence-based policymaking is well-established in health and consumer protection fields, robotics regulation remains fragmented and reactive. This paper proposes Science for Robot Policy, a structured, evidence-driven model that bridges the disconnect between robotics innovation and regulatory adaptation. Using a Constructive Research Approach, the model integrates scientific experimentation, stakeholder engagement, and knowledge brokering to generate policy-relevant data and transform it into actionable regulatory insights. The model follows a five-step process, beginning with risk identification and prioritization, followed by controlled experimentation in simulators, testing zones, living labs, and real-world markets. The ambition is that insights generated are then translated into policy-relevant information and further refined into knowledge for policymakers, ensuring that empirical evidence informs that robotics regulation is dynamic, anticipatory, and informed. This approach contributes to ongoing discussions on science-for-policy methodologies and fosters iterative regulatory refinement in service robotics. If successful, such a model could allow policymakers to address emerging risks proactively, reduce regulatory uncertainty, enhance user safety, and promote responsible robotics innovation by embedding scientific insights into the policy cycle. • Robotic innovation outpaces laws, risking user rights and causing regulatory gaps. • Science for policy could align innovation with societal needs for robot regulation. • Science for robot policy iteratively tests solutions to refine robotics regulations. • Knowledge brokers can bridge developers, policymakers, and end-users effectively.

Technological Forecasting and Social ChangeVol. 218
Leiden University (NL), University of Applied Sciences Leiden (NL)
Openalex Percentile: Top 3%
Ethics and Social Impacts of AI
7.10
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