Karim Thebault (MCMP/LMU) gives a talk at the Workshop on "Why trust a Theory?" (7-9 December, 2015) titled "What can we learn from Analogue Experiments?". Abstract: In 1981 Unruh proposed that fluid mechanical experiments could be used to probe key aspects of the quantum phenomenology of black holes. In particular, he claimed that an analogue to Hawking radiation could be created within a fluid mechanical 'dumb hole'. Since then an entire sub-field of 'analogue gravity' has been created. In 2014 Steinhauer reported the experimental observation of Hawking radiation within a Bose-Einstein condensate dumb hole. What can we learn from such analogue experiments? In particular, can they provide confirmation of novel phenomena such as black hole Hawking radiation?

What can we learn from Analogue Experiments?

Mathematical Philosophy - the application of logical and mathematical methods in philosophy - is about to experience a tremendous boom in various areas of philosophy. At the new Munich Center for Mathematical Philosophy, which is funded mostly by the German Alexander von Humboldt Foundation, philosophical research will be carried out mathematically, that is, by means of methods that are very close to those used by the scientists.
The purpose of doing philosophy in this way is not to reduce philosophy to mathematics or to natural science in any sense; rather mathematics is applied in order to derive philosophical conclusions from philosophical assumptions, just as in physics mathematical methods are used to derive physical predictions from physical laws.
Nor is the idea of mathematical philosophy to dismiss any of the ancient questions of philosophy as irrelevant or senseless: although modern mathematical philosophy owes a lot to the heritage of the Vienna and Berlin Circles of Logical Empiricism, unlike the Logical Empiricists most mathematical philosophers today are driven by the same traditional questions about truth, knowledge, rationality, the nature of objects, morality, and the like, which were driving the classical philosophers, and no area of traditional philosophy is taken to be intrinsically misguided or confused anymore. It is just that some of the traditional questions of philosophy can be made much clearer and much more precise in logical-mathematical terms, for some of these questions answers can be given by means of mathematical proofs or models, and on this basis new and more concrete philosophical questions emerge. This may then lead to philosophical progress, and ultimately that is the goal of the Center.

Mathematical Philosophy - the application of logical and mathematical methods in philosophy - is about to experience a tremendous boom in various areas of philosophy. At the new Munich Center for Mathematical Philosophy, which is funded mostly by the German Alexander von Humboldt Foundation, philosophical research will be carried out mathematically, that is, by means of methods that are very close to those used by the scientists. The purpose of doing philosophy in this way is not to reduce philosophy to mathematics or to natural science in any sense; rather mathematics is applied in order to derive philosophical conclusions from philosophical assumptions, just as in physics mathematical methods are used to derive physical predictions from physical laws. Nor is the idea of mathematical philosophy to dismiss any of the ancient questions of philosophy as irrelevant or senseless: although modern mathematical philosophy owes a lot to the heritage of the Vienna and Berlin Circles of Logical Empiricism, unlike the Logical Empiricists most mathematical philosophers today are driven by the same traditional questions about truth, knowledge, rationality, the nature of objects, morality, and the like, which were driving the classical philosophers, and no area of traditional philosophy is taken to be intrinsically misguided or confused anymore. It is just that some of the traditional questions of philosophy can be made much clearer and much more precise in logical-mathematical terms, for some of these questions answers can be given by means of mathematical proofs or models, and on this basis new and more concrete philosophical questions emerge. This may then lead to philosophical progress, and ultimately that is the goal of the Center.

Share What can we learn from Analogue Experiments?

Sign up to save your podcasts

What can we learn from Analogue Experiments?

What can we learn from Analogue Experiments?

More shows like MCMP

Geld und Leben - Ringvorlesung (WiSe 2009-2010)

MCMP – Mathematical Philosophy (Archive 2011/12)

Hegel lectures by Robert Brandom, LMU Munich

LMU Statistik I für Studierende der Wirtschaftswissenschaften

Institut für Produktionswirtschaft und Controlling (LMU)

Center for Advanced Studies (CAS) Cutting Edge - SD

LMU Rechtsphilosophie

MCMP – Philosophy of Science

LMU Physik 2 für Chemiker (PN2) SS2016

Fakultät für Chemie und Pharmazie - Digitale Hochschulschriften der LMU - Teil 05/06