Kevin Davey
· Associate Professor, Director of Graduate Studies (2025-26)University of Chicago · Philosophy
Active 1994–2025
About
Kevin Davey is an Associate Professor in the Department of Philosophy at the University of Chicago. Originally from Australia, he came to the USA for graduate school and has been there ever since. In his undergraduate and early graduate years, he was mainly interested in mathematics and logic, but then became interested in philosophy, which he has been studying ever since.
Research topics
- Epistemology
- Philosophy
- Mathematics
- Linguistics
- Pure mathematics
- Discrete mathematics
- Physics
- Theoretical physics
- Engineering
Selected publications
Philosophy of Science · 2025-09-03
articleOpen accessSenior authorCorrespondingAbstract Can we acquire a priori mathematical knowledge from the outputs of computer programs? Although we claim Appel and Haken acquired a priori knowledge of the four-color theorem from their computer program insofar as it merely automated human forms of mathematical reasoning, the opacity of modern large language models (LLMs) and deep neural networks (DNNs) creates obstacles in obtaining a priori mathematical knowledge in analogous ways. If, however, a proof-checker automating human forms of proof-checking is attached to such machines, we can indeed obtain a priori mathematical knowledge from them, even though the original machines are entirely opaque to us and the outputted proofs cannot be surveyed by humans.
There Are No Bad Lots, Only Bad Formulations of Inference to the Best Explanation
The British Journal for the Philosophy of Science · 2023-11-06
article1st authorCorrespondingOn Inferring Explanations and Inference to the Best Explanation
Episteme · 2023-05-05 · 2 citations
articleOpen access1st authorCorrespondingAbstract Although the inferring of explanations plays an important role in both our everyday lives and in the workings of science, I argue that inference to the best explanation as it is commonly conceived is often not the best way to capture this sort of reasoning. I suggest that a different form of reasoning – so-called immediate explanatory inference – is instead often much better suited to this task. This is a form of inference in which we are justified in believing explanations for the evidence before us purely in virtue of this evidence, and not in virtue of the evidence plus some general principle or rule of non-deductive reasoning. I defend the idea of such a notion of inference, and argue that it plays a central role in both ordinary life and science.
A Note on the Unprovability of Consistency in Formal Theories of Truth
Journal of Philosophical Logic · 2021
1st authorCorresponding- Epistemology
- Mathematics
- Philosophy
On Euclid and the Genealogy of Proof
Ergo an Open Access Journal of Philosophy · 2021 · 3 citations
1st authorCorresponding- Epistemology
- Mathematics
- Philosophy
I argue for an interpretation of Euclid’s postulates as principles grounding the science of measurement. Euclid’s Elements can then be viewed as an application of these basic principles of measurement to what I call general measurements—that is, metric comparisons between objects that are only partially specified. As a consequence, rather than being viewed as a tool for the production of certainty, mathematical proof can then be interpreted as the tool with which such general measurements are performed. This gives, I argue, a more satisfying story of the origin of proof in Ancient Greece, and of the status of Euclid’s postulates.
Inference to the best explanation and Norton's material theory of induction
Studies in History and Philosophy of Science Part A · 2020 · 10 citations
1st authorCorresponding- Philosophy
- Epistemology
- Linguistics
Can good science be logically inconsistent?
Synthese · 2014-05-21 · 9 citations
article1st authorCorresponding2014-06-20
paratextOpen access1st authorCorrespondingIdealizations and Contextualism in Physics
Philosophy of Science · 2011-01-01 · 4 citations
article1st authorCorrespondingDescribing a physical system in idealized terms involves making claims about the system that we know to be literally false. Because of this, it is not clear how calculations involving idealizations can generate justified belief and explain facts about the world. I argue that this puzzling aspect of idealizations cannot be explained away by talking about approximations, as is often supposed. I develop a different account of how justified beliefs and explanations can be generated from idealized descriptions of physical systems. My account involves a type of contextualism about the truth of mathematical descriptions of physical systems.
Thermodynamic Entropy and Its Relation to Probability in Classical Mechanics
Philosophy of Science · 2011-12-01 · 2 citations
article1st authorCorrespondingA gas relaxing into equilibrium is often taken to be a process in which a system moves from an “improbable” to a “probable” state. Given that the thermodynamic entropy increases during such a process, it is natural to conjecture that the thermodynamic entropy is a measure of the probability of a macrostate. For nonideal classical gases, however, I claim that there is no clear sense in which the thermodynamic entropy of a macrostate measures its probability. We must therefore reject the idea that (in classical mechanics) thermodynamic entropy and probability are connected in a deep and general way.
Frequent coauthors
- 1 shared
Lev D. Beklemishev
- 1 shared
Chiu Man Ho
- 1 shared
Rob Clifton
- 1 shared
D. Boyanovsky
University of Pittsburgh
- 1 shared
Mark Lippelmann
University of Chicago
- 1 shared
Oleg Belegradek
- 1 shared
Jean-Louis Krivine
Sorbonne Paris Cité
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