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2012
PREFACE The axiomatic method counts two thousand and three hundred years circa. Suppes [61] has proposed the category of Euclidean-Archimedean tradition to refer to the axiomatic theories that have been developed before the inven-tion/discovery of the non-Euclidean geometries. Among these theories the first axiomatic system that we know is Euclid's Elements [16], a mathematical tractate consisting of thirteen books in which three centuries of Greek mathematical knowledge were given an order and were presented as a unified theory. 1 Euclid produced another axiomatic theory, the Optics [15]. This represents a theory of vision in Euclidean perspective rather than a tractate on physical optics. It is interesting that Archimedes's Treatise [12], probably the first book on mathematical physics, is an axiomatic theory. The axiomatic method in the Euclidean-Aristotelian tradition was transmitted during the medieval age and scholarship in history of science has established the use of...
Axiomatics is the most important basis on which many modern sciences are built. Axioms are causally irreducible first principles which, as such, are considered apodictic or immediately certain and ultimately justified. The scientific primacy and intactness of axioms are clearly based on their formal finality and causal irreducibility, which, as is well known, was bestowed on early modern sciences such as Classical Mechanics through mathematical formalism. Historically, early modern axiomatics was preceded by medieval aporetics. The scientific discourses in the Middle Ages on the phenomenal foundations of the philosophia naturalis, such as space, time, void, place, movement, impetus, gravitation, infinitesimal, etc. proved to be incessant, as the seminal works of Pierre Duhem and Anneliese Maier suggest. Aporetics hardly achieved an epistemological finality within the framework of scholastic natural philosophy, whereas the early modern axiomatics, in the character trait of final justifications within the paradigmatic context of mechanical philosophy, produced the primary principles of the sciences as axioms and thereby historically established the individual scientific disciplines. My paper is premised on the fundamental assumption that the mathematical-formal axiomatics of the early modernity was necessarily based on axiomatic-structural intuitions. The epistemological non-finality of medieval-scholastic aporetics necessitated the emergence of axiomatics of the mathematical and material sciences in the early modern period, in which the historically incessant or persistent phenomenal aporias were transformed into causally irreducible and, as such, epistemically final axioms. This has led to the problem of sufficient, final and definitive epistemic access in axiomatics which can be described as the problem of epistemological referentiality, in which the epistemic reference suggests the cognitive access directed and aimed at an object of knowledge. While axiomatics presupposes the consummation of the epistemic-referential access, aporetics shows its incompleteness, or even infinity. The axiomatic-structural intuition, from which alone the mathematical-formal finality of the axioms can arise, also has the potential to get access to the axiomatically hidden or buried phenomenal aporias and to revive them historically. The paper will focus on the systematic development of the idea of structural intuition, that Martin Kemp had introduced into the scientific discourse in late 90s and has been developing since then, into an epistemological principle of axiomatic-structural intuition as evidenced in the advent of early modern sciences.
1996
Poincaré* s scepticism towards attempts to found geometry axiomatically, i.e. on self-evident truths which are in no need resp. incapable of proof, can be seen as the symptom of an epistemological crisis of traditional axiomatics. This crisis is illustrated by discussing the various attempts of Ernst Schrôder (1841-1902) to found his abstract algebra and his algebra of logic on 'axioms'. In the course of his studies the terminological inexactness brought Schrôder to abandon the notion of 'axiom' from his theory. In the last stage of development he founded his algebra and logic of binary relatives on a set of 29 'conventional stipulations*. In Schrôder's opinion, however, geometry neededreal axioms, contrary to logic and arithmetic. In his architecture of science geometry is more than a mère branch of logic but the most elementary member in the séries of physical sciences. Geometrical axioms are thus claimed to be materially true. Résumé. Il est possible de co...
International Graduate Student Conference. 26th–28th Nov, 2020. Humboldt-Universität zu Berlin. Online. Co-organized with Paul Hasselkuß (Düsseldorf), Tiago Hirth (Lisbon), Deborah Kant (Konstanz), Deniz Sarikaya (Hamburg), Tobias Schütz (Mainz), Anna Kiel Steensen (Zurich), and Benjamin Wilck (Berlin)
Springer eBooks, 2021
Logic, Epistemology, and the Unity of Science aims to reconsider the question of the unity of science in light of recent developments in logic. At present, no single logical, semantical or methodological framework dominates the philosophy of science. However, the editors of this series believe that formal frameworks, for example, constructive type theory, deontic logics, dialogical logics, epistemic logics, modal logics, and proof-theoretical semantics, have the potential to cast new light on basic issues in the discussion of the unity of science. This series provides a venue where philosophers and logicians can apply specific systematic and historic insights to fundamental philosophical problems. While the series is open to a wide variety of perspectives, including the study and analysis of argumentation and the critical discussion of the relationship between logic and philosophy of science, the aim is to provide an integrated picture of the scientific enterprise in all its diversity. This book series is indexed in SCOPUS.
2011
Abstract In this paper we discuss two approaches to the axiomatization of scientific theories in the context of the so called semantic approach, according to which (roughly) a theory can be seen as a class of models. The two approaches are associated respectively to Suppes' and to da Costa and Chuaqui's works.
2006
In this talk I will present a broad picture of the axiomatic approach that David Hilbert developed and promoted during a significant part of his career, as well as its wide-ranging scope of influence. Hilbert’s mathematical and scientific horizon was very broad and thoroughgoing. The axiomatic approach was one of the unifying themes of his overall activity, but it was only a part of a much more complex conception of what mathematics and science is all about. For many interesting historical reasons the essence of his approach came to be misunderstood. Eventually Hilbert became identified as the champion of formalism in mathematics, with the axiomatic method being the touchstone of this formalist conception. Recent historical work has helped us reach a more balanced and interesting picture. In the talk, I will discuss the various threads that led to the consolidation of Hilbert’s early conceptions. These threads are to be found in developments in late nineteenth-century geometry as we...
Synthese, 2011
This is a personal, incomplete, and very informal take on the role of logic in general philosophy of science, which is aimed at a broader audience. We defend and advertise the application of logical methods in philosophy of science, starting with the beginnings in the Vienna Circle and ending with some more recent logical developments.
This paper is concentrated on Aristotle's "Posterior Analytics" and attempts to show that his account of the sciences is less uniform than it is usually taken to be but reveals some awareness of important differences between the mathematical and the physical sciences.
Every individual lives in a culture which consists of language, religion, arts, living style and so on. Science is also a component of culture. Since we observe an idea of order in every human affair, both in sciences and cultures there penetrated a logical structure that has a determinative character. As we experience from the historical studies, there is a relationship between them. Accordingly, this subject has been examined by many scholars from different points of view. I here undertake my topic from the viewpoint of ontology in an axiomatic way. According to my opinion, what unifies the different problems of logic, science, and culture is the conception of movement which is also considered here responsible of being a turning point between the classical and modern times.
In this essay we shall try to present a brief picture of the axiomatic method, how the current framework differs from the ancient conception of Euclid's. We shall trace the components of formal axiom systems and try to see how the usage of this methodological tool differs from discipline to discipline. We shall consider briefly the axiomatisations of Propo-sitional Logic, a variant of axiomatisation of Set theory (Bourbakism) and axiomatisation in Economic theory, focussing more on the last. Our main objective is to see if the axiomatic method has been used uniformly across disciplines and even within a single discipline, i.e. Economics, if there have been variations. This essay is largely inspired by a survey by P. Mongin of the axiomatic method.
Metascience, 2012
2013
The work is devoted to solution of an actual problem -the problem of relation between geometry and natural sciences. Methodological basis of the method of attack is the unity of formal logic and of rational dialectics. It is shown within the framework of this basis that geometry represents field of natural sciences. Definitions of the basic concepts "point", "line", "straight line", "surface", "plane surface", and "triangle" of the elementary (Euclidean) geometry are formulated. The natural-scientific proof of the parallel axiom (Euclid's fifth postulate), classification of triangles on the basis of a qualitative (essential) sign, and also material interpretation of Euclid's, Lobachevski's, and Riemann's geometries are proposed.
2011
Three different ways in which systems of axioms can contribute to the discovery of new notions are presented and they are illustrated by the various ways in which lattices have been introduced in mathematics by Schröder, Dedekind, Birkhoff, and others. These historical episodes reveal that the axiomatic method is not only a way of systematizing our knowledge, but that it can also be used as a fruitful tool for discovering and introducing new mathematical notions. Looked at it from this perspective, the creative aspect of axiomatics for mathematical practice is brought to the fore.
2007
David Hilbert is widely acknowledged as the father of the modern axiomatic approach in mathematics. The methodology and point of view put forward in his epoch-making Foundations of Geometry (1899) had lasting influences on research and education throughout the twentieth century. Nevertheless, his own conception of the role of axiomatic thinking in mathematics and in science in general was significantly different from the way in which it came to be understood and practiced by mathematicians of the following generations, including some who believed they were developing Hilbert’s original line of thought. The topologist Robert L. Moore was prominent among those who put at the center of their research an approach derived from Hilbert’s recently introduced axiomatic methodology. Moreover, he actively put forward a view according to which the axiomatic method would serve as a most useful teaching device in both graduate and undergraduate teaching mathematics and as a tool for identifying ...
2007
Undefined Terms:“Point.”“Line.”“On.” By a “model” we mean a set of points, and a set of lines, and a relation “on” which, for each given point and given line, is either “true” or “false.” We will also need the terms “=” and “=” from Set Theory, and it will also be convenient to use the word “set” and symbols “{:},”“∈,”“/∈,”“∪,” and “∩.” Note “∈” and “on” are not necessarily the same, although they may be related concepts in some models. As on [G] p.
On the basis of a structural-naming reconstruction of scientific knowledge we give a description of the main subsystems of mathematical theories. The role of the theory of named sets for the exact analysis of their components is given. For the case of set theory we consider also some dynamic aspects.
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