Decision-making in policy governed human-autonomous systems teams (IEEE Smart World Congress, 2017)

Link

https://doi.org/10044/1/48241

Citation

Diane Felmlee, E.C. Lupu, Cassie McMillan, E. Karafili, & E. Bertino. 2017. "Decision-making in policy governed human-autonomous systems teams." In Proceedings of the IEEE Smart Workd Congress 2017, Workshop on Distributed Analytics Infrastructure and Algorithms for Multi-Organization Federations (DAIS). https://doi.org/10044/1/48241

Abstract

Policies govern choices in the behavior of systems. They are applied to human behavior as well as to the behavior of autonomous systems but are defined differently in each case. Generally humans have the ability to interpret the intent behind the policies, to bring about their desired effects, even occasionally violating them when the need arises. In contrast, policies for automated systems fully define the prescribed behavior without ambiguity, conflicts or omissions. The increasing use of AI techniques and machine learning in autonomous systems such as drones promises to blur these boundaries and allows us to conceive in a similar way more flexible policies for the spectrum of human-autonomous systems collaborations. In coalition environments this spectrum extends across the boundaries of authority in pursuit of a common coalition goal and covers collaborations between human and autonomous systems alike. In social sciences, social exchange theory has been applied successfully to explain human behavior in a variety of contexts. It provides a framework linking the expected rewards, costs, satisfaction and commitment to explain and anticipate the choices that individuals make when confronted with various options. We discuss here how it can be used within coalition environments to explain joint decision making and to help formulate policies re-framing the concepts where appropriate. Social exchange theory is particularly attractive within this context as it provides a theory with “measurable” components that can be readily integrated in machine reasoning processes.