Semantic Fidelity Paper Series: AI Systems and Reality Drift
This page collects the AI Systems and Reality Drift Notes, a series of short concept papers on how AI systems, organizations, metrics, and institutions can remain coherent, useful, and operational while gradually losing alignment with the realities they were built to represent.
The series connects established terms such as hallucination, grounding, faithfulness, RAG, benchmark overfitting, model monitoring, Goodhart’s Law, Campbell’s Law, principal-agent problems, mission drift, and semantic similarity to the broader Reality Drift framework.
The central pattern is that representations can keep working inside a system while becoming less answerable to the reality, meaning, evidence, or purpose they were created to preserve.
Part I: AI Evaluation, Monitoring, and Reliability
- AI Evaluation, Benchmarking, and Reality Drift (PDF)
Explains how benchmark scores and evaluation systems can diverge from real-world AI capability as models optimize around measured performance instead of deployment reality. - AI Reliability, Model Monitoring, and Reality Drift (PDF)
Examines how monitoring dashboards, governance processes, and reliability metrics can remain operational while losing sensitivity to actual system behavior. - Hallucination, Distribution Shift, Alignment Failure, and Reality Drift (PDF)
Frames hallucination, distribution shift, model collapse, concept drift, and alignment failure as related ways AI systems can continue functioning while losing contact with reality. - Silent Drift in AI Systems (PDF)
Explains how AI systems can keep producing fluent, useful, and coherent outputs while alignment with evidence, meaning, intent, provenance, or real-world conditions weakens.
Part II: Grounding, Retrieval, and Meaning Preservation
- Hallucination, Grounding, Faithfulness, and Reality Drift (PDF)
Shows how AI systems can remain fluent and convincing while losing contact with evidence, source material, context, or real-world feedback. - Retrieval-Augmented Generation, Grounding, Faithfulness, and Reality Drift (PDF)
Explains how RAG systems can retrieve relevant sources and cite documents while still losing meaning, context, grounding, or faithfulness during generation. - Semantic Alignment, Meaning Preservation, and Reality Drift (PDF)
Explores how systems can remain coherent while meaning gradually changes across translation, summarization, retrieval, generation, and other transformations. - Semantic Fidelity, Meaning Preservation, and AI Interpretation Failure (PDF)
Defines semantic fidelity and explains why accuracy, similarity, fluency, and citations are not enough to prove that meaning has been preserved.
Part III: Metrics, Incentives, and Organizational Drift
- Performance Metrics, KPI Distortion, and Campbell’s Law (PDF)
Explains how indicators, KPIs, and performance metrics stop reflecting the realities they were built to measure once organizations begin optimizing around them. - Goodhart’s Law, Campbell’s Law, and Reality Drift (PDF)
Connects Goodhart’s Law, Campbell’s Law, KPI decay, metric gaming, and proxy optimization to the broader pattern of measures becoming substitutes for reality. - Principal-Agent Problems, Incentive Misalignment, and Reality Drift (PDF)
Shows how delegated systems can remain operational while agents become more responsive to incentives, reporting structures, and procedures than to original goals. - Institutional Drift, Mission Drift, and Organizational Reality Drift (PDF)
Maps mission drift, institutional drift, organizational drift, bureaucratic drift, governance drift, and leadership drift as related forms of representational failure.
Part IV: Conceptual Foundations
- The Map-Territory Distinction and Semantic Fidelity (PDF)
Uses the map-territory distinction to explain why representations simplify reality, why that simplification is useful, and how maps, models, metrics, and AI outputs can lose contact with what they represent.
Related Framework Concepts
Semantic Fidelity Resources:
- Semantic Fidelity Definition
- Glossary
- Visual Frameworks
- Semantic Fidelity Paper Series
- Failure Modes in LLM Systems
- Drift Detection in AI Systems
Core Concepts:
