This Element explores the Bayesian approach to the logic and epistemology of scientific reasoning. Section 1 introduces the probability calculus as an appealing generalization of classical logic for uncertain reasoning. Section 2 explores some of the vast terrain of Bayesian epistemology. Three epis
Bayesianism and Scientific Reasoning
β Scribed by Jonah N. Schupbach
- Publisher
- Cambridge University Press
- Year
- 2022
- Tongue
- English
- Leaves
- 128
- Series
- Elements in the Philosophy of Science
- Category
- Library
No coin nor oath required. For personal study only.
β¦ Synopsis
This Element explores the Bayesian approach to the logic and epistemology of scientific reasoning. Section 1 introduces the probability calculus as an appealing generalization of classical logic for uncertain reasoning. Section 2 explores some of the vast terrain of Bayesian epistemology. Three epistemological postulates suggested by Thomas Bayes in his seminal work guide the exploration. This section discusses modern developments and defenses of these postulates as well as some important criticisms and complications that lie in wait for the Bayesian epistemologist. Section 3 applies the formal tools and principles of the first two sections to a handful of topics in the epistemology of scientific reasoning: confirmation, explanatory reasoning, evidential diversity and robustness analysis, hypothesis competition, and Ockham's Razor.
β¦ Table of Contents
Cover
Title Page
Copyright Page
Bayesianism and Scientific Reasoning
Contents
Introduction
1 Probability Theory, a Logic of Consistency
1.1 Logic and Uncertainty
1.2 From Deductive Logic to Probability Theory
1.3 A Primer on Probability
1.3.1 Dartboard Representations
1.3.2 Revisiting the Basic Rules
1.3.3 Other Rules of Probability
1.4 A Logic of Confidences
1.4.1 A Subject with No Object?
1.4.2 Consistency of Confidences
1.4.3 Toward a Positive Defense
2 Bayesian Epistemology
2.1 Bayes and Bayesian Epistemology
2.2 Bayesβs Rule
2.2.1 Interlude: Updating Imprecise Confidences
2.2.2 Complications and Generalizations
2.2.3 Epistemology and Convergence
2.3 Calibration
2.3.1 Calibration and Relative Frequency
2.3.2 Calibration and Objective Chance
2.3.3 Discussion
2.4 Insufficient Reason
2.4.1 Bertrandβs Paradox
2.4.2 Invariance
2.5 MAXENT
3 Scientific Reasoning
3.1 Confirmation
3.2 Explanatory Reasoning
3.2.1 Peirce and Power
3.2.2 Measuring Explanatory Power
3.2.3 Inference to the Best (i.e., Most Powerful) Explanation
3.3 Robustness Analysis
3.3.1 RA-Diversity and Explanatory Discrimination
3.3.2 Interlude: Hypothesis Competition and Defeat
3.3.3 A Bayesian Evaluation of Robustness Analysis
Mutually Exclusive Competitors
Consistent Epistemic Competitors
3.4 Simplicity and Evidential Fit
3.4.1 A Bayesian Approach to Simplicity and Fit
3.4.2 Striking a Balance
3.4.3 Application
References
π SIMILAR VOLUMES
In this clearly reasoned defense of Bayes's Theorem β that probability can be used to reasonably justify scientific theories β Colin Howson and Peter Urbach examine the way in which scientists appeal to probability arguments, and demonstrate that the classical approach to statistical inference is fu
In this clearly reasoned defense of Bayes's Theorem β that probability can be used to reasonably justify scientific theories β Colin Howson and Peter Urbach examine the way in which scientists appeal to probability arguments, and demonstrate that the classical approach to statistical inference is fu
In this clearly reasoned defense of Bayes's Theorem β that probability can be used to reasonably justify scientific theories β Colin Howson and Peter Urbach examine the way in which scientists appeal to probability arguments, and demonstrate that the classical approach to statistical inference is fu
Machine learning methods extract value from vast data sets quickly and with modest resources. They are established tools in a wide range of industrial applications, including search engines, DNA sequencing, stock market analysis, and robot locomotion, and their use is spreading rapidly. People who k