Abstract
Our relation to phenomenal space has been largely disregarded, and with good motivations, in the prevailing foundational analysis of Mathematics. The collapse of Euclidean certitudes, more than a century ago, excluded “geometric judgments” from certainty and contributed, by this, to isolate the foundation of Mathematics from other disciplines. After the success of the logical approach, it is time to broaden our foundational tools and reconstruct, also in that respect, the interactions with other sciences. The way space (and time) organize knowledge is a cross-disciplinary issue that will be briefly examined in Mathematical Physics, Computer Science, and Biology. This programmatic paper focuses on an epistemological approach to foundations, at the core of which is the analysis of the “knowledge process,” as a constitutive path from cognitive experiences to mathematical concepts and structures. When first presented, in 2001, it opened to way to the idea that phylogenetic trajectories, in biology, co-construct the space of possibilities, in contrast to physical theories which assume a pregiven phase space of all possible dynamics.
Revised version of an Invited Lecture, first American Mathematical Society/SMF Conference, Lyon, July, 2001.
References
Aceto L, Longo G, Victor B (eds) (2003) The difference between turing computability and concurrent systems. Special issue, Mathematical structures in computer science. Cambridge University Press, to appear
Amari S, Nagaoka K (2000) Methods of information geometry. AMS translations of mathematics monographs, vol 191 (trans: Harada D). American Mathematical Society (AMS) and Oxford University Press
Asperti A, Longo G (1991) Categories, types and structures. MIT Press
Bahsoun J, Fiadero J, Galmiche D (eds) (1999) Proof theory of concurrent object-oriented programming. Special issue, Mathematical structures in computer science, vol 9(3). Cambridge University Press
Bailly F (1991) L’anneau des disciplines. Numéro spécial de la Revue Internationale de systémique, vol 5(3)
Bailly F, Longo G (2011) Mathematics and the natural sciences: the physical singularity of life. Imperial College Press, London. (original French version, Hermann, 2006)
Bailly F, Gaill F, Mosseri R (1993) Orgons and Biolons in theoretical biology. Acta Biotheor 41:3–11
Bailly F, Gaill F, Mosseri R (1994) Morphogenèse et croissance biologique: un modele dynamique simple pour le poumon. In: La biologie théorique a Solignac, Edition Polytechnica, pp 65–94
Barendregt H (1984) The lambda calculus: its syntax and semantics, Revised edn. North Holland, Amsterdam
Berthoz A (1997) Le sens du mouvement, Od. Jacob (English trans: Harvard University Press; trad. italiana presso Boringhieri). (Review downloadable from http://www.dmi.ens.fr/users/longo)
Boi L (1995) Le problème mathématique de l’espace. Springer
Bottazzini U (1999) Poincaré, Le Scienze
Bottazzini U, Tazzioli R (1995) Naturphilosophie and its role in Riemann’s mathematics. Revue d’Histoire des Mathématiques 1:3–38
Bravi B, Longo G (2015) The unconventionality of nature: biology, from noise to functional randomness. In: Calude D (ed) Unconventional computation and natural computation, LNCS 9252. Springer, Cham, pp 3–34
Brown JH, West G (1999) Scaling in biology. Santa Fe Institute Publication
Connes A (1994) Non-commutative geometry. Academic
Edelman G (1987) Neural Darwinism. Basic Books
Edelman G (2000) A universe of consciousness. How matter becomes immagination. Basic Books
Farge M, Kevlhand N, Perrier V, Goirand E (1996) Wavelets and turbulence. Proc IEEE 84(4):639–669
Field Medal A (1982) Connes works since the early ‘80’s at the geometric foundations of Quantum Mechanics
Frege G (1873) On a geometrical representation of imaginary forms in the plane. In: McGuiness B (ed) Collected papers on mathematics, logic and philosophy. Basil Blackwell, Oxford, 1984
Frege G (1884) The foundations of arithmetic, (English trans: Evanston, 1980)
Ghirardi G-C (1997) Un’occhiata alle Carte di Dio, Il Saggiatore, Roma
Gilbert H (1992) Horizontal integration and cortical dynamics. Neuron 9:1–13
Girard J-Y (2001) Locus Solum. Special issue, Mathematical structures in computer science, vol 11(3). Cambridge University Press
Girard JY, Lafont Y, Taylor R (1989) Proofs and types. Cambridge University Press, Cambridge
Goubault E (ed) (2000) Geometry in concurrency. Special issue, Mathematical structures in computer science, vol 10(4). Cambridge University Press
Gould SJ (1982) The Panda’s thumb. W.W. Norton
Gould SJ (1989) Wonderful life. W.W. Norton
Heath TL (1908) The thirteen books of Euclid’s elements. Cambridge University Press
Heinzmann G (1998) Poincaré on understanding mathematics. Philosophia Scientiae 3:143–160
Hertz J, Krogh A, Palmer R (1991) Introduction to the theory of neural computation. Addison-Wesley, Redwood City
Hilbert D (1899) Les fondements de la géométrie (trad. fran. 1971) Dunod, Paris
Husserl E (1933) The origin of Geometry
Jennings C, Aamodt S (2000) Computational approaches to brain functions. Nat Neurosci 3
Longo G (1999) Mathematical intelligence, infinity and machines: beyond the Gödelitis. J Conscious Stud 6:11–12, special issue on Cognition
Longo G (2001a) Memory and objectivity in mathematics. Le Réel en mathématiques, à paraître
Longo G (2001b) Some topologies for computations. In: Invited lecture, colloque Géométrie au XXème siècle: 1930–2000, Paris
Longo G (2002) The Constructed Objectivity of Mathematics and the Cognitive Subject. In: M. Mugur-Schachter (ed.) Proposals in Epistemology. On Quantum Mechanics, Mathematics and Cognition, Kluwer
Longo G (2011) Reflections on concrete incompleteness. Philos Math 19(3):255–280
Longo G (2015) Le conseguenze della filosofia. In: Lanfredini R (ed) A plea for balance in philosophy. ETS, Pisa (English: in Glass Bead: https://www.glass-bead.org/, https://www.glass-bead.org/article/the-consequences-of-philosophy/?lang=enview)
Longo G (2018) Interfaces of incompleteness. In: Minati G, Abram M, Pessa E (eds) Systemics of incompleteness and quasi-systems. Springer, New York
Longo G (2019) Confusing biological twins and atomic clocks. Today’s ecological relevance of Bergson-Einstein debate on time. In: Lecture delivered at the conference “What is time? Einstein and Bergson 100 years later”. In: Campo R (ed) Proceedings in preparation
Longo G, Moggi E (1984) The hereditary partial recursive functionals and recursion theory in higher types. J Symb Log 49(4):1319–1332
Longo G, Montévil M (2014) Perspectives on organisms: biological time, symmetries and singularities. Springer, Dordrecht
Longo G, Milsted K, Soloviev S (1993) The genericity theorem and the notion of parametricity in the polymorphic lambda-calculus. Theor Comp Sci 121
Longo G, Petitot J, Teissier B (1999) Géométrie et Cognition, a manifesto and a research project. Available on http://www.di.ens.fr/users/longo
Nabonnand P (2000) Les recherches sur l’oeuvre de Poincaré. Gazette des Mathématiciens, n. 85, Juillet
Nabonnand P (2001) La génèse psycho-physiologique de la géométrie selon Poincaré. à paraître dans La revue d’Histoire des Mathématiques
Nonnenmacher TF, Losa GA, Weibel ER (1994) Fractals in biology and medicine. Birkhauser, Basel
Parrini P (1995) Conoscenza e Realta. Laterza
Patras F (2001) La pensée mathématique contemporaine. Press Universitaires de France, Paris
Percheron G (1987) Principles and methods of the graph-theoretical analysis of binary arborescences. J Theor Biol 99:509–552
Petitot J (2000) Complexité neurodynamique en sciences cognitives, Rapport CREA, Ecole Polytechnique
Poincaré H (1902) La Science et l’Hypothèse. Flammarion, Paris
Poincaré H (1905) La valeur de la Science. Flammarion, Paris
Poincaré H (1908) Science et Méthode. Flammarion, Paris
Poincaré H (1913) Dernières Pensées. Flammarion, Paris
Riemann B. (1854) On the hypothesis which lie at the basis of Geometry (English trans: Clifford W, Nature, 1873; trad. italiana e commenti di R. Pettoello, Boringhieri, 1999)
Simpson S (1999) Subsystems of second order arithmetic. Springer
Soto A, Longo G (guest eds) (2016) From the century of the genome to the century of the organism: new theoretical approaches. A Special issue of Progress in biophysics and molecular biology, vol 122(1). Elsevier
Tappenden J (1995) Geometry and generality in Frege’s philosophy of arithmetic. Synthese 102(3)
Thom R (1972) Stabilité structurelle et Morphogénèse. Benjamin, Paris
Thom R (1990) Apologie du Logos. Hachette
Varela F (1999) The specious present: a neurophenomenology of time consciousness. In: Petitot et al. Naturalizing phenomenology: issues in comtemporary phenomenology and cognitive sciences. Stanford University Press, Stanford
Weyl H. (1918) Das Kontinuum, Verlag von Veit, Leipzig
Weyl H (1927) Philosophy of mathematics and of natural sciences (English trans: Princeton University Press, Princeton, 1949)
Weyl H (1952) Symmetry. Princeton University Press
Acknowledgments
(2001) In the last few years, the activity in two working groups (CeSEF, on the epistemology of Quantum Physics) and “Géométrie et Cognition” has been a fantastic occasion to meet and discuss with several colleagues in Physics, Biology and Philosophy. I am particularly indebted to the joint work and uncountably many discussions with Francis Bailly, Jean Petitot, Bernard Teissier, Catherine Vidal, Paul Bourgine, RossanaTazzioli, MioaraMugur-Schachter.
Author information
Authors and Affiliations
Corresponding author
Editor information
Editors and Affiliations
Section Editor information
Rights and permissions
Copyright information
© 2021 Springer Nature Switzerland AG
About this entry
Cite this entry
Longo, G. (2021). Space and Time in the Foundations of Mathematics, or Some Challenges in the Interactions with Other Sciences. In: Sriraman, B. (eds) Handbook of the Mathematics of the Arts and Sciences. Springer, Cham. https://doi.org/10.1007/978-3-319-57072-3_116
Download citation
DOI: https://doi.org/10.1007/978-3-319-57072-3_116
Published:
Publisher Name: Springer, Cham
Print ISBN: 978-3-319-57071-6
Online ISBN: 978-3-319-57072-3
eBook Packages: Mathematics and StatisticsReference Module Computer Science and Engineering