Order out of Chaos? A Case Study in High Energy Physics

In recent years, computational sciences such as computational hydrodynamics or computational field theory have supplemented theoretical and experimental investigations in many scientific fields. Often, there is a seemingly fruitful overlap between theory, experiment, and numerics. The computational...

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Main Author: Rafaela Hillerbrand
Format: Article
Language:deu
Published: University of Tartu 2012-12-01
Series:Studia Philosophica Estonica
Subjects:
Online Access:http://www.spe.ut.ee/ojs-2.2.2/index.php/spe/article/view/150/71
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spelling doaj-70d4811c0afa4cc1b5fcda054c2bae412020-11-25T01:50:48ZdeuUniversity of TartuStudia Philosophica Estonica1406-00001736-58992012-12-015.26178Order out of Chaos? A Case Study in High Energy PhysicsRafaela HillerbrandIn recent years, computational sciences such as computational hydrodynamics or computational field theory have supplemented theoretical and experimental investigations in many scientific fields. Often, there is a seemingly fruitful overlap between theory, experiment, and numerics. The computational sciences are highly dynamic and seem a fairly successful endeavor---at least if success is measured in terms of publications or engineering applications. However, for theories, success in application and correctness are two very different things; and just the same may hold for "methodologies" like computer simulations. A lively debate on the epistemic status of computer simulations has thus emerged within the philosophy of science. This paper discusses possible problems when computer simulation and laboratory experiment are intertwined. In present experiments, stochastic methods in the form of Monte Carlo simulations are often involved in generating experimental data. It is questioned as to how far a realistic stance can be maintained when such stochastic elements are involved. Taking experiments in high energy physics as a study case, this paper contends that using these types of entangled material and numerical experiments as a source of new phenomena or for theory testing must presuppose a certain understanding of causality and thus binds us at least to a weak form of realism.http://www.spe.ut.ee/ojs-2.2.2/index.php/spe/article/view/150/71philosophy of simulationcausalityexperiment
collection DOAJ
language deu
format Article
sources DOAJ
author Rafaela Hillerbrand
spellingShingle Rafaela Hillerbrand
Order out of Chaos? A Case Study in High Energy Physics
Studia Philosophica Estonica
philosophy of simulation
causality
experiment
author_facet Rafaela Hillerbrand
author_sort Rafaela Hillerbrand
title Order out of Chaos? A Case Study in High Energy Physics
title_short Order out of Chaos? A Case Study in High Energy Physics
title_full Order out of Chaos? A Case Study in High Energy Physics
title_fullStr Order out of Chaos? A Case Study in High Energy Physics
title_full_unstemmed Order out of Chaos? A Case Study in High Energy Physics
title_sort order out of chaos? a case study in high energy physics
publisher University of Tartu
series Studia Philosophica Estonica
issn 1406-0000
1736-5899
publishDate 2012-12-01
description In recent years, computational sciences such as computational hydrodynamics or computational field theory have supplemented theoretical and experimental investigations in many scientific fields. Often, there is a seemingly fruitful overlap between theory, experiment, and numerics. The computational sciences are highly dynamic and seem a fairly successful endeavor---at least if success is measured in terms of publications or engineering applications. However, for theories, success in application and correctness are two very different things; and just the same may hold for "methodologies" like computer simulations. A lively debate on the epistemic status of computer simulations has thus emerged within the philosophy of science. This paper discusses possible problems when computer simulation and laboratory experiment are intertwined. In present experiments, stochastic methods in the form of Monte Carlo simulations are often involved in generating experimental data. It is questioned as to how far a realistic stance can be maintained when such stochastic elements are involved. Taking experiments in high energy physics as a study case, this paper contends that using these types of entangled material and numerical experiments as a source of new phenomena or for theory testing must presuppose a certain understanding of causality and thus binds us at least to a weak form of realism.
topic philosophy of simulation
causality
experiment
url http://www.spe.ut.ee/ojs-2.2.2/index.php/spe/article/view/150/71
work_keys_str_mv AT rafaelahillerbrand orderoutofchaosacasestudyinhighenergyphysics
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