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Michael Deakin

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Areas of Interest
Philosophy of Religion
Social and Political Philosophy
  • All publications (13)
  •  9
    The development of the Laplace transform, 1737–1937: I. Euler to spitzer, 1737–1880
    Archive for History of Exact Sciences 25 (4): 343-390. 1981.
    This paper, the first of two, follows the development of theLaplace Transform from its earliest beginnings withEuler, usually dated at 1737, to the year 1880, whenSpitzer was its major, if himself relatively minor, protagonist. The coverage aims at completeness, and shows the state which the technique reached in the hands of its greatest exponent to that time,Petzval. A sequel will trace the development of the modern theory from its beginnings withPoincaré to its present form, due toDoetsch.
  • The Wine/Water Paradox: background, provenance and proposed resolutions
    The Australian Mathematical Society Gazette 33 (3). 2006.
    The Wine/Water Paradox: background, provenance and proposed resolutions.
  •  66
    Synesios' 'Hydroscope'
    with Charles R. Hunter
    Apeiron 27 (1): 39-43. 1994.
  •  143
    On Urbach's analysis of the ‘iq debate’
    British Journal for the Philosophy of Science 37 (1): 60-65. 1986.
    Bayesian Reasoning, MiscIntelligence, MiscMeasures of Intelligence
  •  83
    Catastrophe modelling in the biological sciences
    Acta Biotheoretica 38 (1): 3-22. 1990.
    Catastrophe Theory was developed in an attempt to provide a form of Mathematics particularly apt for applications in the biological sciences. It was claimed that while it could be applied in the more conventional physical way, it could also be applied in a new metaphysical way, derived from the Structuralism of Saussure in Linguistics and Lévi-Strauss in Anthropology.Since those early beginnings there have been many attempts to apply Catastrophe Theory to Biology, but these hopes cannot be said …Read more
    Catastrophe Theory was developed in an attempt to provide a form of Mathematics particularly apt for applications in the biological sciences. It was claimed that while it could be applied in the more conventional physical way, it could also be applied in a new metaphysical way, derived from the Structuralism of Saussure in Linguistics and Lévi-Strauss in Anthropology.Since those early beginnings there have been many attempts to apply Catastrophe Theory to Biology, but these hopes cannot be said to have been fully realised.
    Biological ModelingComplexity in Biology
  •  78
    The development of the Laplace Transform, 1737–1937 II. Poincaré to Doetsch, 1880–1937
    Archive for History of Exact Sciences 26 (4): 351-381. 1982.
    An earlier paper, to which this is a sequel, traced the history of the Laplace Transform up to 1880. In that year Poincaré reinvented the transform, but did so in a more powerful context, that of properly conceived complex analysis. Rapid developments followed, culminating in Doetsch' work in which the transform took its modern shape.
  •  485
    On Urbach's analysis of the ‘iq debate’
    British Journal for the Philosophy of Science 27 (1): 60-65. 1976.
    Bayesian Reasoning, MiscMeasures of IntelligenceIntelligence, Misc
  •  50
    Newton’s Bulldog
    Metascience 15 (3): 531-534. 2006.
  •  49
    Euler's invention of integral transforms
    Archive for History of Exact Sciences 33 (4): 307-319. 1985.
  •  48
    A Triumph of a Translation
    Metascience 17 (3): 435-438. 2008.
  •  62
    The ascendancy of the Laplace transform and how it came about
    Archive for History of Exact Sciences 44 (3): 265-286. 1992.
  •  48
    Constructions aplenty, gadgets galore: Cesare Rossi, Flavio Russo and Ferruccio Russo: Ancient Engineers’ Inventions: Precursors to the Present, Springer, xvi + 340 pp, €79.95, US$109.00, £72.00HB
    Metascience 19 (2): 341-343. 2010.
  •  37
    Nineteenth century anticipations of modern theory of dynamical systems
    Archive for History of Exact Sciences 39 (2): 183-194. 1988.
    The “Laplace demon”, an intelligence capable of knowing the position and the velocity of every particle in the universe and so, using the laws of classical physics, knowing all their future states, seemed in the last century to pose a contradiction between the laws of physics and the freedom of the human will. In addressing this apparent paradox, Maxwell, Boussinesq and Saint-Venant were led to consider aspects of the theory of systems of differential equations. These aspects, though for differe…Read more
    The “Laplace demon”, an intelligence capable of knowing the position and the velocity of every particle in the universe and so, using the laws of classical physics, knowing all their future states, seemed in the last century to pose a contradiction between the laws of physics and the freedom of the human will. In addressing this apparent paradox, Maxwell, Boussinesq and Saint-Venant were led to consider aspects of the theory of systems of differential equations. These aspects, though for different reasons, have come to assume a central place in the modern theory of dynamical systems.
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