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bioRxivNeurosciencePreprint

Thinging Through Modelling. Active Inference Meets Material Engagement

Laura Desirèe Di PaoloiD, Bruno Vindrola-PadrósiD, Andy ClarkiD, Axel ConstantiD

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Abstract

In this simulation study, we adopt the comprehensive neurocomputational approach of Active Inference (AIF) to illustrate some key concepts of Material Engagement Theory (MET) [1]. MET posits that craftwork does not require, or rely on, rich internal pre-planning, i.e., complex and highly detailed representations that occur mainly in the makers head. Instead, the maker engages materiality through thinging, where the human agent (the maker) is guided by and leverages the materiality of the artefact (such as a spinning of clay or a chunk of marble). MET assigns a crucial co-participatory role to materiality, attributing agency to it. We investigate METs claims through the widely adopted theory of AIF [2]. Our first aim is to simulate the plausibility of the (creative) thinging, adopting a simple modelling scenario. Then, we also discuss its applicability to other, more complex cases, which seem to require greater levels of pre-thinking (e.g., planning, imagining and conceptualising outcomes). We highlight how these cases, too, align with the general principle of thinging. With our AIF neurocomputational understanding, we explain that even in these situations, the predictive brains involved in the creative process attempt to minimise the complexity of their internal model. The upshot of this is that, always and everywhere, our human minds engage the materiality to make the most of the characteristic dynamics of the world surrounding us - things and processes alike.

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