A totally empirical basis of science
Orestis Loukas, Ho-Ryun Chung

TL;DR
This paper introduces the Information-test ($I$-test), a new empirical framework for hypothesis testing that avoids restrictive assumptions, allowing for more versatile and unbiased scientific analysis.
Contribution
It proposes the $I$-test, an empirical hypothesis testing method that relaxes traditional assumptions, enhancing flexibility and accuracy in scientific inference.
Findings
Revisits metabolic scaling hypothesis in mammals.
Rejects competing theories of pure allometry.
Demonstrates $I$-test's applicability to diverse hypotheses.
Abstract
Statistical hypothesis testing is the central method to demarcate scientific theories in both exploratory and inferential analyses. However, whether this method befits such purpose remains a matter of debate. Established approaches to hypothesis testing make several assumptions on the data generation process beyond the scientific theory. Most of these assumptions not only remain unmet in realistic datasets, but often introduce unwarranted bias in the analysis. Here, we depart from such restrictive assumptions to propose an alternative framework of total empiricism. We derive the Information-test (-test) which allows for testing versatile hypotheses including non-null effects. To exemplify the adaptability of the -test to application and study design, we revisit the hypothesis of interspecific metabolic scaling in mammals, ultimately rejecting both competing theories of pure…
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Taxonomy
TopicsPrimate Behavior and Ecology · Physiological and biochemical adaptations · Evolution and Paleontology Studies
