CLN Wiki · Theory for #information
Information Entropy CORE
= measure of uncertainty @ Shannon (1948)
SUMMARY click to copy as CLN
=Information Entropy — the average amount of surprise or uncertainty in a message
.Higher probability = Lower entropy (less surprise)
.01 · Interpretation
→Entropy = Information Content
.02 · Application
→CLN maximizes entropy per token
Surprise is information. Double-click any CLN line to anchor it. Right-click to tagmarry or record a decision.

01// Definition Term
// ##IE-DEF
=Information Entropy — a quantitative measure of the uncertainty or randomness in a message
.Introduced by Claude Shannon in "A Mathematical Theory of Communication"
→Formula: H = -Σ p(x) log p(x)
!A rare event carries more information (higher entropy) than a common one

02// Interpretation Logic
// ##IE-INT
*Low Entropy
.High predictability, low surprise
-Example: "The sun will rise tomorrow" (Redundant)
*High Entropy
.Low predictability, maximum surprise
+Example: Random noise or a lottery result
☐"Umm, well, basically..." (Entropy ≈ 0)
│Information Scale
▣"Entropy = Surprise" (Entropy = Max)

03// Application Analysis
// ##IE-APP
→Relation to Semantic Density
.Natural Language has low entropy (predictable grammar, filler words)
.CLN increases entropy per token by removing predictability
→The Paradox
~We want high information (entropy) but low noise (randomness)
.CLN solves this by creating structured surprise (operators acting as semantic concentrators)

04// Implication Implication
// ##IE-IMP
~Entropy defines the limit of lossless compression
.Shannon's Source Coding Theorem
+To learn is to reduce the entropy of the unknown
// ##IE-OPEN
?Does consciousness require high entropy processing?
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