Abstract
In this chapter, we present a minimalist approach to utilizing the computational principles of affective processes and emotions for autonomous robotics applications. The focus of this paper is on the presentation of this framework in reference to preservation of agent autonomy across levels of cognitive-affective competences. This approach views autonomy in reference to (i) embodied (e.g. homeostatic), and (ii) dynamic (e.g. neural-dynamic) processes, required to render adaptive such cognitive-affective competences. We hereby focus on bridging bottom-up (standard autonomous robotics) and top-down (psychology-based dimensional theoretic) modelling approaches. Our enactive approach we characterize according to bi-directional grounding (inter-dependent bottom-up and top-down regulation). As such, from an emotions theory perspective, ‘enaction’ is best understood as an embodied and dynamic appraisal perspective. We attempt to clarify our approach with relevant case studies and comparison to other existing approaches in the modelling literature.
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Notes
- 1.
The artificial metabolism is not autopoietic and to the extent that incorporation of such a constitutive system into an architecture is in line with our enactive approach that requires operational closure, top-down parameterization of the system is prerequisite.
- 2.
Meta-parameters are the parameters used in reinforcement learning algorithms whose values are typically fixed. Allowing for these parameters to vary as a function of regulatory feedback provides a way to reduce the design and potentially increase the adaptivity of the agent.
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Lowe, R., Kiryazov, K. (2014). Utilizing Emotions in Autonomous Robots: An Enactive Approach. In: Bosse, T., Broekens, J., Dias, J., van der Zwaan, J. (eds) Emotion Modeling. Lecture Notes in Computer Science(), vol 8750. Springer, Cham. https://doi.org/10.1007/978-3-319-12973-0_5
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