This research demonstrates the properties of Chaitin's Omega, revealing its algorithmic randomness and uncomputability for Turing machines.
FINDING: Chaitin's Omega is a real number in [0,1] defined as the halting probability of a universal prefix-free Turing machine; its binary expansion is algorithmically random (Martin-Löf random) and encodes the halting problem, making it uncomputable and transcendentally irreducible to any formal system. MATH: - Definition: \( Ω = ∑p ∈ Halting programs 2-|p| \), where \( |p| \) is the length of program \( p \) in bits (prefix-free code). - Key property: \( Ω \) is a dyadic rational only if the halting problem were decidable (impossible). Its binary expansion is a normal number in base 2 (Borel normality) and is Martin-Löf random: no computable test can distinguish it from a random sequence. - Measure-theoretic basis: The sum converges to a value in (0,1) because the Kraft inequality ensures \( ∑ 2-|p| ≤ 1 \) for prefix-free codes. - Constants: The exact value depends on the choice of universal Turing machine; no closed-form expression exis Author: Andrew Stewart Caldin, Independent Researcher, UK. Part of the E8 Intelligence Research series. Platform: e8intelligence.com
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Andrew Stewart Caldin (2026) studied this question.
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