Cognitive niche construction theory provides a new comprehensive account for the development of human cultural and social organization with respect to the management of their environment. Cognitive niche construction can be seen as a way of lessening complexity and unpredictability of a given environment. In this paper, we are going to analyze economic systems as highly technological cognitive niches, and individuate a link between cognitive niche construction, unpredictability and a particular kind of economic crises.

In this paper, the radical view that transparent equipment is the result of an ecological assembly between tool users and physical aspects of the world is critically assessed. According to this perspective, tool users are normally viewed as plastically organized hybrid agents. In this view, such agents are able to interact with tools (artefacts or technologies) in ways that are opportunistic and fully locked to the local task environment. This intimate and flexible interaction would provide grounds for the thesis that (...) cognitive agents and tools constitute literal extended cognitive systems. By contrast, a revised understanding of tool use transparency will be attempted. In this perspective, the interplay between on-line and off-line thinking is understood in terms of a socially reified cognitive delegation that subsumes the advantages normally associated to the so-called ‘open-ended ecological controllers.’ Thus, the notion of transparent technologies can be explored on the basis of a derived or mediated cognitive delegation. This view will be complemented by the notion of communities of practice (CoP). Special sorts of CoP will be proposed as suitable and flexible cognitive environments for the development of tool transparency. (shrink)

Taking advantage of Denis Noble’s description, in “The Illusions of the Modern Synthesis” of the first illusion, related to the concept of natural selection itself, I will further strengthen the criticism by adding three groups of considerations mainly concerning human cognition: 1) how semiotic brains build cognitive niches; 2) the role of abduction – and in particular of manipulative abduction – in building a semiotic artificial world; 3) the biosemiotics of the so-called disembodiment of the mind. Human semiotic brains are (...) engaged in a continuous process of delegation and distribution of cognitive functions to the environment to lessen cognitive limitations, also and especially taking advantage of what I have called “manipulative abduction”. These design semiotic activities are closely related to the process of cognitive niche construction, which should be regarded as the second major participant, after natural selection, in evolution. An important effect of this semiotic brain activity is a continuous process of disembodiment of the mind that exhibits a new cognitive perspective on the mechanisms underlying the semiotic emergence of meaning processes. (shrink)

Our brains make up a series of signs and are engaged in making or manifesting or reacting to a series of signs: through this semiotic activity they are at the same time engaged in “being minds” and so in thinking intelligently. An important effect of this semiotic activity of brains is a continuous process of “externalization of the mind” that exhibits a new cognitive perspective on the mechanisms underling the semiotic emergence of abductive processes of meaning formation. To illustrate this (...) process I will take advantage of the analysis of some aspects of the cognitive interplay between internal and external representations. I consider this interplay critical in analyzing the relation between meaningful semiotic internal resources and devices and their dynamical interactions with the externalized semiotic materiality suitably stocked in the environment. Hence, minds are material, “extended” and artificial in themselves. A considerable part of human abductive thinking is occurring through an activity consisting in a kind of reification in the external environment and a subsequent re-projection and reinterpretation through new configurations of neural networks and chemical processes. I also illustrate how this activity takes advantage of hybrid representations and how it can nicely account for various processes of creative and selective abduction, bringing up the question of how multimodal aspects involving a full range of sensory modalities are important in hypothetical reasoning. (shrink)

Technology moves us to a better world. We contend that through technology people can simplify and solve moral tasks when they are in presence of incomplete information and possess a diminished capacity to act morally. Many external things, usually inert from the moral point of view, can be transformed into the so-called moral mediators. Hence, not all of the moral tools are inside the head, many of them are shared and distributed in “external” objects and structures which function as ethical (...) devices. (shrink)

Interactivity has been linked to better performance in problem solving, due in part to a more efficient allocation of attentional resources, a better distribution of cognitive load, but perhaps more important by enabling the reasoner to shape and reshape the physical problem presentation to promote the development of the problem solution. Interactivity in solving quotidian arithmetic problems involves gestures, pointing, and the recruitment of artefacts to facilitate computation and augment efficiency. In the experiment reported here, different types of interactivity were (...) examined with a series of mental arithmetic problems. Using a repeated-measures design, participants solved series of five 11-digit sums in four conditions that varied in the type of interactivity: no interactivity, pointing, pen and paper, and tokens. Performance in the four conditions was measured in terms of accuracy, calculation error, and efficiency. These quantitative analyses were supplemented by a detailed qualitative examination of a participant’s actions in the different conditions. The integration of artefacts, such as tokens or a pen, offered reasoners the opportunity to reconfigure the physical presentation of the problem, enacting different arithmetic strategies: the affordance landscape shifts as the problem trajectory is enacted through interactivity, and this generally produced better “mental” arithmetic performance. Participants also felt more positive about and better engaged with the task when they could reconfigure the problem presentation through interactivity. These findings underscore the importance of engineering task environments in the laboratory that offer a window on how problem solving unfolds through a coalition of mental and physical resources. (shrink)

3 Abstract This paper is about modeling morality, with a proposal as to the best 4 way to do it. There is the small problem, however, in continuing disagreements 5 over what morality actually is, and so what is worth modeling. This paper resolves 6 this problem around an understanding of the purpose of a moral model, and from 7 this purpose approaches the best way to model morality.