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From Embodied Cognition to Free Will - Humana.Mente

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S. Torrance & T. Froese – An Inter-Enactive Approach <strong>to</strong> Agency 29<br />

narrative manner and <strong>to</strong> affirm in an intuitive way the personal sense of being<br />

enabled or constrained in order <strong>to</strong> establish a science of social or interactive<br />

situations. What is additionally required is a basic proof of concept, which<br />

demonstrates that these narrative and phenomenological descriptions of the<br />

efficacy of interaction processes in certain social situations are not merely<br />

metaphorical embellishments of what is essentially a sum of individual actions.<br />

To show that the social interaction process itself can play a constitutive role for<br />

the actions of individual agents, we need <strong>to</strong> be able <strong>to</strong> show this process at work<br />

in a concrete model that allows for systematic exploration of the essential<br />

parameters.<br />

One suitable way of satisfying this additional requirement is <strong>to</strong> take<br />

advantage of recent work in Evolutionary Robotics modeling. Since its<br />

beginnings in the early 1990s, the Evolutionary Robotics approach has<br />

established itself as a viable methodology for optimizing dynamical controllers<br />

for physical robots (Nolfi and Floreano 2000), as well as for synthesizing<br />

simulation models of what has become known as „minimally cognitive behavior‟<br />

(Beer 1996). The idea here is <strong>to</strong> set up an evolutionary algorithm that can<br />

au<strong>to</strong>matically shape the dynamical system of a model agent so that it performs a<br />

given task in the simplest possible way, while still raising issues that are of<br />

genuine interest <strong>to</strong> cognitive scientists (Beer 2003, Harvey et al. 2005, Froese<br />

and Ziemke 2009). In the last decade there has been a growing interest in<br />

using this kind of Evolutionary Robotics approach <strong>to</strong> investigate the dynamics<br />

of social interactions (e.g., Iizuka and Di Paolo 2007a, Froese and Di Paolo<br />

2008, Di Paolo et al. 2008), and the methodology has accordingly been<br />

extended <strong>to</strong> include „minimally social behavior‟ as well (Froese and Di Paolo in<br />

press).<br />

We will draw on some of our own modeling work in this area (Froese and<br />

Di Paolo 2010, in press), because the specific aim of these models is <strong>to</strong> serve<br />

as proof of concepts which demonstrate that interaction processes themselves<br />

can play a constitutive role in shaping individual actions over and above the<br />

sum power of the individual agents. In fact, as we have already argued<br />

extensively elsewhere (Froese and Gallagher 2010), the methodology of<br />

Evolutionary Robotics is well suited <strong>to</strong> complement phenomenological<br />

investigations in the cognitive sciences.<br />

3.2 THE DYNAMICS OF PERCEPTUAL CROSSING<br />

Froese and Di Paolo (2010) used an Evolutionary Robotics approach <strong>to</strong>

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