Signs do not only “represent” something for somebody, as Peirce’s definition goes, but also “mediate” relations between us and our world, including ourselves, as has been elaborated by Vygotsky. We call the first the representational function of a sign and the second the epistemological function since in using signs we make distinctions, specify objects and relations, structure our observations, and organize societal and cognitive activity. The goal of this paper is, on the one hand, to develop a model in which (...) both these functions appear as complementary and, on the other, to show that this complementarity is essential for the dynamics of scientific activity, causing a dialectical process of generating new epistemological and representational means. This will be demonstrated with an example of how two scientists with different background knowledge analyze educational data collaboratively. (shrink)
In this article, we propose that gestures play an important role in the connection between sensorimotor experience and language. Gestures may be the link between bodily experience and verbal expression that advocates of embodied cognition have postulated. In a developmental sequence of communicative action, gestures, which are initially similar to action sequences, substantially shorten and represent actions in metonymic form. In another process, action sequences are based on kinesthetic schemata that themselves find their metaphoric expression in language. Again, gestures enact (...) kinesthetic schemata that are correlated with verbal expressions. Examples from a large database are used to illustrate the various processes by means of which language arises when students conduct school science investigations. (shrink)
The role of gestures in communication is still debated: Some claim that gestures are merely ancillary forms of expressions, whereas others suggest a central role of gestures in the development of language. In this article, I provide data in support of the overarching hypothesis that gestures have a transitional function between ergotic/epistemic movements of hands and symbolic expressions. The context for the study of these transitions is constituted by school science laboratory activities conducted by students who are also asked to (...) describe and explain while still within proximity of the materials of their investigations. It is hypothesized that communication is distributed across the context and shifts increasingly into a verbal modality as students become familiar with the phenomena they are to learn about. Furthermore, it is hypothesized that initial temporal delays between gestures and the corresponding words decrease and finally disappear so that gestural and verbal modalities coincide. It is suggested that engaging in communication in the presence of material has an important cognitive function in that it affords a distribution of cognition across different modalities until individuals have developed the competence to express themselves effectively in the verbal modality. (shrink)
Over 60 years ago, the influential language philosopher L. Wittgenstein suggested that there is no need to use "understanding" and "meaning" to understand how language works and, in fact, that the two theoretical terms are part of a primitive idea. Today, both remain two of the most frequently used terms in education. The purpose of this paper is to stimulate a discussion about abandoning these terms from the theoretical discourse of education in the way these are commonly used. Case materials (...) from the research literature chosen from a large database on knowing and learning in science are used to exemplify the approach that does not require either concept. Implications are drawn for education research and practice. (shrink)
Despite its advanced age of about 375 years, the mind–body problem is alive and well, in part because it is anchored so well institutionally in schools and in research. This continued presence is astonishing in the light of the fact that the seed for its solution, sown in Spinoza’s Ethics, is almost as old. The solution rests on the position that there is only one substance, which, invisible, manifests itself in two attributes, thought and extension. By thinking with Spinoza, especially (...) by following the ways in which Vygotsky and Marx think with Spinoza, we arrive at an approach suitable for a social psychological theory of learning that does not separate knowing from doing and emoting. A classroom fragment from a 10th-grade physics curriculum is used as the starting point for overcoming the body–mind problem by thinking with Spinoza. (shrink)
A science that does not critically interrogate its theoretical concepts literally does not know what it is doing. The attempt to clarify a widely used concept in psychological research—the concept of concept—therefore constitutes an important effort in clarifying what role it plays in the discursive work of the field. In this commentary, I take a cultural-historical approach to suggest that the clarification of concepts requires both a genuine rupture and a historical study of the movement of a concept. Moreover, our (...) study of concepts has to be reflexive because they are simultaneously objects of inquiry and means by which such inquiry unfolds. Rather than doing mere analysis of concept use, I propose a categorical, historical reconstruction of the concepts psychologists use. 2012 APA, all rights reserved). (shrink)
A central challenge for research on how we should prepare students to manage crossing boundaries between different knowledge settings in life long learning processes is to identify those forms of knowledge that are particularly relevant here. In this paper, we develop by philosophical means the concept of a dialectical system as a general framework to describe the de-velopment of knowledge networks that mark the starting point for learning processes, and we use semiotics to discuss the epistemological thesis that any cognitive (...) access to our world of objects is mediated by signs and diagrammatic reasoning and abduction as those forms of practical knowledge that are crucial for the development of knowledge networks. The rich-ness of this theoretical approach becomes evident by applying it to an example of learning in a biological research context. At the same time, we take a new look at the role of mathematical knowledge in this process. (shrink)
