Abstract

Making the transition to long-term interaction with social-robot systems has been identified as one of the main challenges in human-robot interaction. This article identifies four design principles to address this challenge and applies them in a real-world implementation: cloud-based robot control, a modular design, one common knowledge base for all applications, and hybrid artificial intelligence for decision making and reasoning. The control architecture for this robot includes a common Knowledge-base (ontologies), Data-base, “Hybrid Artificial Brain” (dialogue manager, action selection and explainable AI), Activities Centre (Timeline, Quiz, Break and Sort, Memory, Tip of the Day, \( \ldots \) ), Embodied Conversational Agent (ECA, i.e., robot and avatar), and Dashboards (for authoring and monitoring the interaction). Further, the ECA is integrated with an expandable set of (mobile) health applications. The resulting system is a Personal Assistant for a healthy Lifestyle (PAL), which supports diabetic children with self-management and educates them on health-related issues (48 children, aged 6–14, recruited via hospitals in the Netherlands and in Italy). It is capable of autonomous interaction “in the wild” for prolonged periods of time without the need for a “Wizard-of-Oz” (up until 6 months online). PAL is an exemplary system that provides personalised, stable and diverse, long-term human-robot interaction.

Highlights

  • There is an increasing interest in long-term human-robot interaction

  • This corresponds with the BMJ finding that, worldwide, the amount of children with Type 1 Diabetes Mellitus (T1DM) is increasing by 3% every year, whereas the causes of this increase are still unknown

  • For the Personal Assistant for a healthy Lifestyle (PAL) system such a distribution could mean that choosing how to support a child means figuring out what educational goals there are for the child, suggesting an activity to work towards that goal, and figuring out what to say to the child, and how to explain the importance of the goals

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Summary

INTRODUCTION

There is an increasing interest in long-term human-robot interaction. Social robots are commonly applied to education, health-care, public spaces, work environments, and home environments [58]. We propose four principles for the implementation of such a system: It must (1) have a connection to the cloud to delegate parts of the computational problems to external computers; (2) be modular to support parallel and incremental development of functionality; (3) have a common knowledge-base and vocabulary in the different system components and for the human-agent interaction; and (4) have hybrid artificial intelligence solutions (e.g., agent-based and machine learning) that all have their own contribution to the problem. The PAL system is a fully integrated and autonomous system that interacts with the children, their parents, and the health-care professionals for prolonged periods of time It is composed of a social robot, its (mobile) avatar, and an expandable set of (mobile) health applications (diabetes diary, educational quizzes, sorting games, etc.). We discuss and motivate the four design principles of our

A Cloud-based Robot System for Long-term Interaction
RELATED WORK AND CONTEXT
Related Work
Context: A Personal Assistant for a Healthy Lifestyle
PRINCIPLES FOR A SOCIAL ROBOT SYSTEM FOR LONG-TERM INTERACTION
Principle 1
Principle 2
Principle 3
Principle 4
SYSTEM IMPLEMENTATION FOR A SOCIAL ROBOT IN HEALTH EDUCATION AND CARE
The Ontology
The Database
PAL Control and Inform
Activity Centre
Communication Between Modules
Multimodal Behaviour Manager
The “Hybrid Brain”
DEVELOPMENT AND TEST PROCEDURES
ANALYSES OF PERFORMANCE
FUTURE EXTENSIONS
LESSONS LEARNED AND DISCUSSION
Findings
CONCLUSION
Full Text
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