Lorenzo Baravalle

Um dos aspectos característicos da fundamentação epistemológica da etologia de Konrad Lorenz é a tentativa de síntese entre a teoria darwiniana e a gnosiologia kantiana. A partir dessa premissa, delinearemos, antes de tudo, uma breve história da tradição transcendentalista, focalizando a atenção em alguns elementos que seus críticos consideraram insustentáveis. Em segundo lugar, analisaremos a tentativa de Lorenz de implantar a estrutura transcendental em suas pesquisas etológicas, com uma consequente naturalização do conceito de "a priori". Em terceiro lugar, veremos como a atribuição de a priori próprios das espécies particulares abre a possibilidade de interpretar a epistemologia de Lorenz de duas maneiras distintas, aparentemente conflitantes. Finalmente, preferiremos uma dessas interpretações e mostraremos como ela permite o entendimento das distintas modalidades de conhecimento animal e humano. One of the main features of Konrad Lorenz's epistemological foundation of ethology is the attempt of synthesis between Darwinian theory and Kantian gnosiology. Starting from this premise I will outline, first of all, a brief history of transcendentalist tradition, focusing attention on some elements that its critics have regarded as untenable. Secondly, I will analyze Lorenz's attempt to implant the transcendental structure in his ethological researches as being a consequence of the naturalization of the concept of "a priori". Thirdly, I will see how the attribution of a priori proper to single species opens the possibility of interpreting the epistemology of Lorenz in two apparently conflicting ways. Finally, I will prefer one of these interpretations and I will show that it enables us to understand the distinct modalities of animal and human knowledge.

Digital physics claims that the entire universe is, at the very bottom, made out of bits; as a result, all physical processes are intrinsically computational. For that reason, many digital physicists go further and affirm that the universe is indeed a giant computer. The aim of this article is to make explicit the ontological assumptions underlying such a view. Our main concern is to clarify what kind of properties the universe must instantiate in order to perform computations. We analyse the logical form of the two models of computation traditionally adopted in digital physics, namely, cellular automata and Turing machines. These models are computationally equivalent, but we show that they support different ontological commitments about the fundamental properties of the universe. In fact, cellular automata are compatible with a rather traditional form of physicalism, whereas Turing machines support a dualistic ontology, which could be understood as a realism about the laws of nature or, alternatively, as a kind of panpsychism.