Graduation Year
2026
Document Type
Dissertation
Degree
Ph.D.
Degree Name
Doctor of Philosophy (Ph.D.)
Degree Granting Department
Information Systems and Decision Sciences
Major Professor
Alan Hevner, Ph.D.
Co-Major Professor
Donald Berndt, Ph.D.
Committee Member
Daniel Zantesdeschi, Ph.D.
Committee Member
Manish Agrawal, Ph.D.
Committee Member
Robert Hooker, Ph.D.
Keywords
Adaptivity, Decomposability, Malleability, Openness, Ethical Governance
Abstract
Over the last decade, new artificial intelligence models, frameworks, and applications have emerged that have radically changed the socio-technical landscape. These new technologies represent both great opportunities and great potential risks. Due to the recency of their emergence, there is little known about the longevity and long-term repercussions of artifacts powered by new artificial intelligence technology. In this dissertation, I evaluate A.I. and A.I.-based artifacts through the lens of the fitness-utility model, a tool developed by Gill and Hevner (2013) for the evaluation of an artifact's ability to survive and reproduce over long time horizons. In so doing, I also evaluate the efficacy of the fitness-utility model itself, identifying changes that are likely to enhance and augment the fitness-utility model's effectiveness as a tool for evaluating A.I.-based artifacts. This is accomplished through the use of the elaborated action design research (eADR) methodology. The dissertation comprises three eADR cycles. In the first cycle, I review literature related to design fitness to develop a framework informed by research. In the second cycle, I use A.I. to conduct analyses of several case studies of A.I.-based artifacts developed within large organizations, using these analyses to create an Augmented Fitness-Utility Model for the evaluation of A.I. artifacts. In the third cycle, I evaluate and refine this model using a focus group comprising practitioners who work directly with A.I. in their respective organizations. The model developed through this process represents a step forward in research on design fitness and artificial intelligence, promising to serve as a useful tool for both researchers and practitioners going forward.
Scholar Commons Citation
Gill, Thomas R., "Designing for Fitness and Resilience in Human Artificial Intelligence Systems" (2026). USF Tampa Graduate Theses and Dissertations.
https://digitalcommons.usf.edu/etd/11292
