Criticism and growth of mathematical knowledge
Philosophia Mathematica 5 (3):228-249 (1997)
| Abstract | This paper attempts to show that mathematical knowledge does not grow by a simple process of accumulation and that it is possible to provide a quasi-empirical (in Lakatos's sense) account of mathematical theories. Arguments supporting the first thesis are based on the study of the changes occurred within Eudidean geometry from the time of Euclid to that of Hilbert; whereas those in favour of the second arise from reflections on the criteria for refutation of mathematical theories. | |||||||||
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C. Juhl (2012). On the Indispensability of the Distinctively Mathematical. Philosophia Mathematica 20 (3):324-338.
Nicolas D. Goodman (1981). The Experiential Foundations of Mathematical Knowledge. History and Philosophy of Logic 2 (1-2):55-65.
Mary Leng, Alexander Paseau & Michael D. Potter (eds.) (2007). Mathematical Knowledge. Oxford University Press.
Michael Potter (2007). What is the Problem of Mathematical Knowledge? In Michael Potter, Mary Leng & Alexander Paseau (eds.), Mathematical Knowledge.
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Jean-Pierre Marquis (1999). Mathematical Engineering and Mathematical Change. International Studies in the Philosophy of Science 13 (3):245 – 259.
Emily Grosholz & Herbert Breger (eds.) (2000). The Growth of Mathematical Knowledge. Kluwer Academic Publishers.
Gianluigi Oliveri (2006). Mathematics as a Quasi-Empirical Science. Foundations of Science 11 (1-2).
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