Alan Winfield

Prof. Dr. Alan Winfield


Research Focus & Metrics

Academic Career Length

46Years (1981-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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15 October 2018 in Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences
Verified
Journal Article
Open access
AWAlan Winfield
Alan Winfield
MJMarina Jirotka
Marina Jirotka
This paper explores the question of ethical governance for robotics and artificial intelligence (AI) systems. We outline a roadmap—which links a number of elements, including ethics, standards, regulation, responsible research and innovation, and public engagement—as a framework to guide ethical governance in robotics and AI. We argue that ethical governance is essential to building public trust in robotics and AI, and conclude by proposing five pillars of good ethical governance. This article is part of the theme issue ‘Governing artificial intelligence: ethical, legal, and technical opportunities and challenges’.

20 July 2021 in Nature Machine Intelligence
Verified
Journal Article
Closed access
PDF file
GFGregory Falco
Gregory Falco
BSBen Shneiderman
Ben Shneiderman
JBJulia Badger
Julia Badger
RCRyan Carrier
Ryan Carrier
ADAnton Dahbura
Anton Dahbura
ZYZee Kin Yeong
Zee Kin Yeong

1 July 2011 in Trends in Ecology & Evolution
Verified
Journal Article
Open access
JKJens Krause
Jens Krause
AWAlan Winfield
Alan Winfield
JDJean-Louis Deneubourg
Jean-Louis Deneubourg
Interactive robots have the potential to revolutionise the study of social behaviour because they provide several methodological advances. In interactions with live animals, the behaviour of robots can be standardised, morphology and behaviour can be decoupled (so that different morphologies and behavioural strategies can be combined), behaviour can be manipulated in complex interaction sequences and models of behaviour can be embodied by the robot and thereby be tested. Furthermore, robots can be used as demonstrators in experiments on social learning. As we discuss here, the opportunities that robots create for new experimental approaches have far-reaching consequences for research in fields such as mate choice, cooperation, social learning, personality studies and collective behaviour.

7 March 2019 in Proceedings of the IEEE
Verified
Journal Article
Closed access
AWAlan Winfield
Alan Winfield
KMKatina Michael
Katina Michael
JPJeremy Pitt
Jeremy Pitt
VEVanessa Evers
Vanessa Evers
The so-called fourth industrial revolution and its economic and societal implications are no longer solely an academic concern, but a matter for political as well as public debate. Characterized as the convergence of robotics, AI, autonomous systems and information technology – or cyberphysical systems – the fourth industrial revolution was the focus of the World Economic Forum, at Davos, in 2016 [1] . Also in 2016 the US White House initiated a series of public workshops on artificial intelligence (AI) and the creation of an interagency working group, and the European Parliament Committee for Legal Affairs published a draft report with recommendations to the Commission on Civil Law Rules on Robotics.

3 April 2017 in Connection Science
Verified
Journal Article
Open access
MBMargaret Boden
Margaret Boden
JBJoanna Bryson
Joanna Bryson
DCDarwin Caldwell
Darwin Caldwell
KDKerstin Dautenhahn
Kerstin Dautenhahn
LELilian Edwards
Lilian Edwards
AWAlan Winfield
Alan Winfield
This paper proposes a set of five ethical principles, together with seven high-level messages, as a basis for responsible robotics. The Principles of Robotics were drafted in 2010 and published online in 2011. Since then the principles have influenced, and continue to influence, a number of initiatives in robot ethics but have not, to date, been formally published. This paper remedies that omission.

1 January 2006 in International Journal of Modelling, Identification and Control
Verified
Journal Article
Closed access
AWAlan Winfield
Alan Winfield
JNJulien Nembrini
Julien Nembrini
The swarm intelligence literature frequently asserts that swarms exhibit high levels of robustness. That claim is, however, rather less frequently supported by empirical or theoretical analysis. But what do we mean by a 'robust' swarm? How would we measure the robustness or ? to put it another way ? fault-tolerance of a robotic swarm? These questions are not just of academic interest. If swarm robotics is to make the transition from the laboratory to real-world engineering implementation, we would need to be able to address these questions in a way that would satisfy the needs of the world of safety certification. This paper explores fault-tolerance in robot swarms through Failure Mode and Effect Analysis (FMEA) and reliability modelling. The work of this paper is illustrated by a case study of a wireless connected robot swarm, employing both simulation and real-robot laboratory experiments.