David Bourget (Western Ontario)
David Chalmers (ANU, NYU)
Rafael De Clercq
Ezio Di Nucci
Jonathan Jenkins Ichikawa
Jack Alan Reynolds
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Kant-Studien 99 (1):80-98 (2008)
It is occasionally claimed that the important work of philosophers, physicists, and mathematicians in the nineteenth and in the early twentieth centuries made Kant’s critical philosophy of geometry look somewhat unattractive. Indeed, from the wider perspective of the discovery of non-Euclidean geometries, the replacement of Newtonian physics with Einstein’s theories of relativity, and the rise of quantificational logic, Kant’s philosophy seems “quaint at best and silly at worst”.1 While there is no doubt that Kant’s transcendental project involves his own conceptions of Newtonian physics, Euclidean geometry and Aristotelian logic, the issue at stake is whether the replacement of these conceptions collapses Kant’s philosophy into an unfortunate embarrassment.2 Thus, in evaluating the debate over the contemporary relevance of Kant’s philosophical project one is faced with the following two questions: (1) Are there any contradictions between the scientific developments of our era and Kant’s philosophy? (2) What is left from the Kantian legacy in light of our modern conceptions of logic, geometry and physics? Within this broad context, this paper aims to evaluate the Kantian project vis à vis the discovery and application of non-Euclidean geometries. Many important philosophers have evaluated Kant’s philosophy of geometry throughout the last century,3 but opinions with regard to the impact of non-Euclidean geometries on it diverge. In the beginning of the century there was a consensus that the Euclidean character of space should be considered as a consequence of the Kantian project, i.e., of the metaphysical view of space and of the synthetic a priori character of geometry. The impact of non-Euclidean geometries was then thought as undermining the Kantian project since it implied, according to positivists such..
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References found in this work BETA
M. H. A. Newman (1928). Mr. Russell's Causal Theory of Perception. Mind 5 (146):26-43.
Lisa Shabel (1998). Kant on the `Symbolic Construction' of Mathematical Concepts. Studies in History and Philosophy of Science Part A 29 (4):589-621.
R. B. Angell (1974). The Geometry of Visibles. Noûs 8 (2):87-117.
Michael Dummett (1982). Frege and Kant on Geometry. Inquiry 25 (2):233 – 254.
Norman Daniels (1972). Thomas Reid's Discovery of a Non-Euclidean Geometry. Philosophy of Science 39 (2):219-234.
Citations of this work BETA
Edgar J. Valdez (2012). Kant's A Priori Intuition of Space Independent of Postulates. Kantian Review 17 (1):135-160.
Margit Ruffing (2010). Kant-Bibliographie 2008. Kant-Studien 101 (4):487-538.
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