Enabling trustworthiness in human-swarm systems through a digital twin
Enabling trustworthiness in human-swarm systems through a digital twin
Robot swarms are highly dynamic systems that exhibit fault-tolerant behavior in accomplishing given tasks. Applications of swarm robotics are very limited due to the lack of complex decision-making capability. Real-world applications are only possible if we use human supervision to monitor and control the behavior of the swarm. Ensuring that human operators can trust the swarm system is one of the key challenges in human-swarm systems. This chapter presents a digital twin for trustworthy human-swarm teaming. The first element in designing such a simulation platform is to understand the trust requirements to label a human-swarm system as trustworthy. In order to outline the key trust requirements, we interviewed a group of experienced uncrewed aerial vehicle (UAV) operators and collated their suggestions for building and repairing trusts in single and multiple UAV systems. We then performed a survey to gather swarm experts’ points of view on creating a taxonomy for explainability in human-swarm systems. This chapter presents a digital twin platform that implements a disaster management use case and has the capacity to meet the extracted trust and explainability requirements.
Digital twin, Explainability, Human-swarm interaction, Trustworthy autonomous systems, User-centered design
93-125
Soorati, Mohammad D.
35fe6bbb-ce52-4c21-a46e-9bb0e31d246c
Naiseh, Mohammad
2c521cc6-0405-45f8-8d55-7d14eb4e4126
Hunt, William
eec4ba79-8870-4657-a2ea-25511ae9dbaa
Parnell, Katie
3f21709a-403b-40e1-844b-0c0a89063b7b
Clark, Jediah
5d82ac6c-58be-4366-9b11-5e3179d85b33
Ramchurn, Sarvapali D.
ea04c16f-b108-4a02-b636-d49bd1acf1c2
23 February 2024
Soorati, Mohammad D.
35fe6bbb-ce52-4c21-a46e-9bb0e31d246c
Naiseh, Mohammad
2c521cc6-0405-45f8-8d55-7d14eb4e4126
Hunt, William
eec4ba79-8870-4657-a2ea-25511ae9dbaa
Parnell, Katie
3f21709a-403b-40e1-844b-0c0a89063b7b
Clark, Jediah
5d82ac6c-58be-4366-9b11-5e3179d85b33
Ramchurn, Sarvapali D.
ea04c16f-b108-4a02-b636-d49bd1acf1c2
Soorati, Mohammad D., Naiseh, Mohammad, Hunt, William, Parnell, Katie, Clark, Jediah and Ramchurn, Sarvapali D.
(2024)
Enabling trustworthiness in human-swarm systems through a digital twin.
In,
Dasgupta, Prithviraj, Llinas, James, Gillespie, Tony, Fouse, Scott, Lawless, William, Mittu, Ranjeev and Sofge, Donlad
(eds.)
Putting AI in the Critical Loop: Assured Trust and Autonomy in Human-Machine Teams.
Academic Press, .
(doi:10.1016/B978-0-443-15988-6.00008-X).
Record type:
Book Section
Abstract
Robot swarms are highly dynamic systems that exhibit fault-tolerant behavior in accomplishing given tasks. Applications of swarm robotics are very limited due to the lack of complex decision-making capability. Real-world applications are only possible if we use human supervision to monitor and control the behavior of the swarm. Ensuring that human operators can trust the swarm system is one of the key challenges in human-swarm systems. This chapter presents a digital twin for trustworthy human-swarm teaming. The first element in designing such a simulation platform is to understand the trust requirements to label a human-swarm system as trustworthy. In order to outline the key trust requirements, we interviewed a group of experienced uncrewed aerial vehicle (UAV) operators and collated their suggestions for building and repairing trusts in single and multiple UAV systems. We then performed a survey to gather swarm experts’ points of view on creating a taxonomy for explainability in human-swarm systems. This chapter presents a digital twin platform that implements a disaster management use case and has the capacity to meet the extracted trust and explainability requirements.
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Published date: 23 February 2024
Additional Information:
Publisher Copyright:
© 2024 Elsevier Inc. All rights reserved.
Keywords:
Digital twin, Explainability, Human-swarm interaction, Trustworthy autonomous systems, User-centered design
Identifiers
Local EPrints ID: 491769
URI: http://eprints.soton.ac.uk/id/eprint/491769
PURE UUID: fc855330-2deb-4cdd-88a5-d63b16c34437
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Date deposited: 03 Jul 2024 17:22
Last modified: 11 Jul 2024 02:04
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Contributors
Author:
Mohammad D. Soorati
Author:
Mohammad Naiseh
Author:
William Hunt
Author:
Jediah Clark
Author:
Sarvapali D. Ramchurn
Editor:
Prithviraj Dasgupta
Editor:
James Llinas
Editor:
Tony Gillespie
Editor:
Scott Fouse
Editor:
William Lawless
Editor:
Ranjeev Mittu
Editor:
Donlad Sofge
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