An Algorithmic Information Theory Critique of Statistical Arguments for Intelligent Design
Sean D Devine

TL;DR
This paper critiques W. Dembski's statistical and decision-theoretic arguments for intelligent design, showing they are flawed and do not provide scientific evidence against natural processes or evolution.
Contribution
It offers an algorithmic information theory critique of Dembski's decision process and clarifies misconceptions about randomness, natural laws, and information in the context of intelligent design.
Findings
Dembski's decision process is unworkable and flawed.
Universal randomness tests show natural world outcomes are highly ordered.
The so-called law of conservation of information is equivalent to the second law of thermodynamics.
Abstract
In a number of books and articles including "The Design Inference" and "No Free Lunch", W. Dembski claims to have established a robust decision process that can determine when observed structures in the natural world can be attributed to design. Dembski's decision process first asks whether a structure as an outcome can be explained by the regularity of natural laws. If not, and the outcome can be "specified", a randomness test is devised to determine whether an observed low probability outcome indicates design. It is argued in this paper that the Dembski test is unworkable and is better formulated in terms of a Martin Loef universal randomness test. A universal randomness test will show that most observed outcomes in the natural world are non random; they are highly ordered. However this does not necessarily demonstrate design, as the decision is not between chance and design, but…
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Taxonomy
TopicsComputability, Logic, AI Algorithms · Evolutionary Algorithms and Applications · Cognitive Science and Education Research
