Mechanistic Interpretability Technique
Jump to navigation
Jump to search
A Mechanistic Interpretability Technique is an AI interpretability technique that analyzes neural network internals to understand computational mechanisms.
- AKA: Mechanistic AI Interpretability, Neural Circuit Analysis, AI Mechanism Discovery, Internal Interpretability Method.
- Context:
- It can typically identify Induction Heads and copying circuits in transformer models.
- It can typically decompose Model Behavior into interpretable components using sparse autoencoders.
- It can typically detect Deceptive Alignment through activation pattern analysises.
- It can typically map Feature Representations to human-understandable concepts.
- It can often require 10,000+ GPU-Hours for comprehensive model analysises.
- It can often fail at GPT-4 Scale due to computational intractabilitys.
- It can often discover Superposition where multiple concepts share single neurons.
- It can range from being a Bottom-Up Mechanistic Interpretability to being a Top-Down Mechanistic Interpretability, depending on its analysis direction.
- It can range from being a Local Mechanistic Interpretability to being a Global Mechanistic Interpretability, depending on its scope coverage.
- It can range from being a Static Mechanistic Interpretability to being a Dynamic Mechanistic Interpretability, depending on its temporal analysis.
- It can range from being a Automated Mechanistic Interpretability to being a Manual Mechanistic Interpretability, depending on its automation level.
- ...
- Example:
- Circuit Discovery Techniques, such as:
- Feature Attribution Methods, such as:
- Probe-Based Techniques, such as:
- ...
- Counter-Example:
- Behavioral Testing Method, which examines external behavior not internal mechanisms.
- Black-Box Interpretability, which lacks internal access.
- Statistical Correlation Analysis, which identifies patterns not mechanisms.
- Performance Benchmarking, which measures capability not understanding.
- See: AI Interpretability Method, Neural Network Analysis, AI Safety Research, Feature Attribution, Circuit Analysis, Transformer Interpretability, AI Alignment Task, Sparse Autoencoder, Activation Pattern, Chris Olah, Anthropic, Redwood Research, AI Deception Detection, AI Capability Assessment Framework.