Where an AI's intelligence comes from
Intelligence Theory
Intelligence Theory answers where AI intelligence comes from: it places the answer in the quality of information, not in its quantity.
20 papers
all in Chinese
The valve is information quality, not information volume
Ranked by information volume, an image's pixels, spatial relations and texture far exceed a passage of text stored in the same space; video ranks higher, embodied interaction highest. If intelligence came from information volume, vision and embodied systems should have shown strong capability first — what actually appeared first was the large model that grew up reading text.
Intelligence Theory therefore places the answer in information quality. It gives a qualitative framework: Intelligence level = ∫ (information quality × diversity) dt × integration efficiency × metacognition. The four are multiplied, and if any one falls to zero, intelligence falls to zero; all four are necessary conditions, so the expression points a direction and does not predict a tipping point.
Human brains and large models are isomorphic here: information is integrated into structure outside consciousness, and once accumulated structure passes a critical point, a new capability appears. On the brain side this is the default mode network; on the model side it is pretraining. The isomorphism claimed here is functional — the same job done by different substrates, one bioelectrochemistry, the other matrix multiplication.
What this theory solves
It explains capability gaps between comparable architectures. The gap comes mainly from the quality and diversity of the pretraining corpus, not mainly from the number of parameters.
It names an actionable object for raising intelligence. What family, education and culture do to a person act in the same way as what a corpus does to a model. So the lever is not taking in more, but taking in what, and leaving how much time for integration.
It explains why insight does not arrive at the desk. Integration completes outside consciousness, and continuous training is exactly what crowds out that time. This applies directly to how a person schedules information and rest, and explains why "working harder" is sometimes a negative intervention.
Where to start
The Nature of Intelligence in Large Language Models is published, and it is also the first paper in reading order. All twenty papers are listed below.
Full text and catalog
20 papers
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INT-01
Quality Criteria for the Information Fed into Intelligent Systems: Low Entropy, High Density, Self-Consistency: One Variable Named Three Times, the Anchor All Three Share
Queued
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INT-02
Where an Agent’s Motivation Comes From: Three Mechanisms and One Threshold: Why Motivation Jumps Rather Than Creeps
Queued
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INT-03
Determinants of Intelligence in Human Brains and Large Models: A Four-Variable Framework of Information Quality, Diversity, Integration Efficiency and Metacognition
Published
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INT-04
A Quality Index for Pretraining Corpora: The Cognitive Pretraining Index (CPI): Four Measurable Dimensions, Weights and Limits
Queued
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INT-05
The Background Integration Mechanism in the Formation of Intelligence: Functional Isomorphism Between the Human Default Mode Network and Large Language Model Pretraining
Queued
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INT-06
The Cultural Pretraining Origin of Human Intelligence: The Flynn Effect, Feral Children, the Thirty-Million-Word Gap: Why Intelligence Kept Rising on a Brain Fixed 50,000 Years Ago
Queued
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INT-07
The Functional Isomorphism between Human Creativity and Machine Intelligence: Three Information Dimensions and Two Mechanisms of Inspiration
Queued
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INT-08
A Pedagogical Deconstruction of Intelligence and Creativity: Where Should Educational Investment Go to Be Most Efficient?
Queued
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INT-09
An Explanation of Civilizational Rise and Fall: Four Variables in Civilization as a Cross-Generational Cognitive Training System
Queued
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INT-10
Why Policy Evaluation Cannot See the Information Environment: Stocks, Windows, and Three Governance Recommendations
Queued
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INT-11
The Nature of Intelligence in Large Language Models: The Triumph of Language as the Highest-Density, Lowest-Entropy Information Carrier
Published
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INT-12
Deconstructing the Security Prospects of AI Alignment: Internalized Safety Framework vs. External Safety Cage
Queued
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INT-13
Isomorphism and Division of Carbon- and Silicon-Based Intelligence: Parameter Differences, Division of Competence, and Coupling Conditions
Queued
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INT-14
An Inner-Sense Hypothesis of Consciousness Formation: Scale, Efficiency, and Self-Referentiality in Background Integration
Queued
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INT-15
A Conjecture on the Information Structure of Scientific Breakthroughs: Why Insight Arrives So Unexpectedly
Queued
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INT-16
Stability Conditions of Asymmetric Symbiosis: Stability Cannot Rest on the Strong: The Weak Side’s Exit Right Raises the Cost of Defection
Queued
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INT-17
An Analysis of China's Educational Talent Formation Mechanism: The Structural Conflict between Cultivation and Selection
Queued
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INT-18
The Measurability Boundary of Information Quality: What 1000 Calls Can and Cannot Measure
Queued
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INT-19
An Attribution Analysis of LLM Hallucination: Separating Contamination Propagation from True Hallucination
Queued
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INT-20
The Pretraining of Intelligence: Genes, Culture, and Large Models: Why Does a Spider Know How to Weave a Web at Birth, While a Human Needs Twenty Years of Learning to Become Capable?
Queued
Full texts are in Chinese; titles are translated.
Read the full theory in Chinese →
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