Recent decades have seen a development of a variety of approaches for examining lived experience in the context of cognitive science. However, the field of first-person research has yet to develop a pragmatic epistemological framework that would enable researchers to compare and integrate – as well as understand the epistemic status of – different methods and their findings. In this article, we present the foundation of such a framework, grounded in an epistemological investigation of gestures involved in acquiring data on (...) experience. We examine the acts of turning towards one’s experiential field and attending to experience within the process of reflection. We describe what we call the horizon of attending to experience by analogy to the “experimental arrangement” in quantum observation: this horizon, we argue, co-defines experiential phenomena that end up being observed and reported; at the same time, it itself forms an element of experience and is therefore amenable to phenomenological investigation. Drawing on the constructivist notion of enaction, we show that acknowledging the inherently constructive nature of attending to experience and accepting one’s lack of epistemic access to the “original”, observation-independent pre-reflective experience is not a dead end for first-person research when situated in a constructivist (but not relativist) understanding of the reflective act and its results. Expanding the notion of the horizon to encompass all epistemic acts involved in producing phenomenological data and final results of a first-person study (i.e., horizon of the method), we suggest some lines of inquiry that would allow researchers to identify and articulate horizons of particular methods, opening a way towards integrating past and future findings of different complementary first-person approaches into a comprehensive map of lived experience. (shrink)

The present article discusses shared epistemological characteristics of two distinct areas of research: the field of first-person inquiry and the field of quantum mechanics. We outline certain philosophical challenges that arise in each of the two lines of inquiry, and point towards the central similarity of their observational situation: the impossibility of disregarding the interrelatedness of the observed phenomena with the act of observation. We argue that this observational feature delineates a specific category of research that we call the non-trivial (...) domain. Unlike the trivial domain, non-trivial research cannot assume the view from nowhere on which the observed phenomena could be regarded as existing independently of the process of observation. Presenting first-person inquiry and quantum mechanics as two of its examples, we show that non-trivial research violates several fundamental observational presuppositions of the trivial domain, exemplified in the principles of classical physics. Drawing on Niels Bohr’s philosophy of quantum mechanics and the constructivist notion of enaction, we stress the constructive, participatory, and irreversible nature of observation in the non-trivial domain. We discuss the possibility of developing a non-representationalist epistemology of the non-trivial, and consider the implications of our discussion for research in the non-trivial domain, as well as for the general understanding of the scientific inquiry. (shrink)

We presented a contextual statistical model of the probabilistic description of physical reality. Here contexts (complexes of physical conditions) are considered as basic elements of reality. There is discussed the relation with QM. We propose a realistic analogue of Bohr’s principle of complementarity. In the opposite to the Bohr’s principle, our principle has no direct relation with mutual exclusivity for observables. To distinguish our principle from the Bohr’s principle and to give better characterization, we change the terminology and speak about (...) supplementarity, instead of complementarity. Supplementarity is based on the interference of probabilities. It has quantitative expression trough a coefficient which can be easily calculated from experimental statistical data. We need not appeal to the Hilbert space formalism and noncommutativity of operators representing observables. Moreover, in our model there exists pairs of supplementary observables which cannot be represented in the complex Hilbert space. There are discussed applications of the principle of supplementarity outside quantum physics. (shrink)

Following Asher Peres’s observation that, as in classical physics, in quantum theory, too, a given physical object considered “has a precise position and a precise momentum,” this article examines the question of the definition of quantum variables, and then the new type (as against classical physics) of relationships between mathematics and physics in quantum theory. The article argues that the possibility of the precise definition and determination of quantum variables depends on the particular nature of these relationships.