A Unifying Framework for Formal Theories of Novelty:Framework, Examples and Discussion
T. E. Boult, P. A. Grabowicz, D. S. Prijatelj, R. Stern, L. Holder, J., Alspector, M. Jafarzadeh, T. Ahmad, A. R. Dhamija, C.Li, S. Cruz, A., Shrivastava, C. Vondrick, W. J. Scheirer

TL;DR
This paper introduces a comprehensive unified framework for formal theories of novelty, aiming to standardize definitions and facilitate research across diverse AI domains dealing with novel, unknown, or out-of-distribution inputs.
Contribution
It provides the first formalized, domain-agnostic framework for defining and categorizing novelty, addressing inconsistencies and aiding future research efforts.
Findings
Formalized a family of novelty types
Applicable across multiple AI domains
Facilitates new research directions
Abstract
Managing inputs that are novel, unknown, or out-of-distribution is critical as an agent moves from the lab to the open world. Novelty-related problems include being tolerant to novel perturbations of the normal input, detecting when the input includes novel items, and adapting to novel inputs. While significant research has been undertaken in these areas, a noticeable gap exists in the lack of a formalized definition of novelty that transcends problem domains. As a team of researchers spanning multiple research groups and different domains, we have seen, first hand, the difficulties that arise from ill-specified novelty problems, as well as inconsistent definitions and terminology. Therefore, we present the first unified framework for formal theories of novelty and use the framework to formally define a family of novelty types. Our framework can be applied across a wide range of…
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Taxonomy
TopicsAnomaly Detection Techniques and Applications · Fault Detection and Control Systems · Bayesian Modeling and Causal Inference
