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- Introduced new skills tools: `skills_categories`, `skills_list`, and `skill_view` in `model_tools.py`, allowing for better organization and access to skill-related functionalities. - Updated `toolsets.py` to include a new `skills` toolset, providing a dedicated space for skill tools. - Enhanced `batch_runner.py` to recognize and validate skills tools during batch processing. - Added comprehensive tool definitions for skills tools, ensuring compatibility with OpenAI's expected format. - Created new shell script `test_skills_kimi.sh` for testing skills tool functionality with Kimi K2.5. - Added example skill files demonstrating the structure and usage of skills within the Hermes-Agent framework, including `SKILL.md` for example and audiocraft skills. - Improved documentation for skills tools and their integration into the existing tool framework, ensuring clarity for future development and usage. |
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| api.md | ||
| README.md | ||
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SAELens Reference Documentation
This directory contains comprehensive reference materials for SAELens.
Contents
- api.md - Complete API reference for SAE, TrainingSAE, and configuration classes
- tutorials.md - Step-by-step tutorials for training and analyzing SAEs
- papers.md - Key research papers on sparse autoencoders
Quick Links
- GitHub Repository: https://github.com/jbloomAus/SAELens
- Neuronpedia: https://neuronpedia.org (browse pre-trained SAE features)
- HuggingFace SAEs: Search for tag
saelens
Installation
pip install sae-lens
Requirements: Python 3.10+, transformer-lens>=2.0.0
Basic Usage
from transformer_lens import HookedTransformer
from sae_lens import SAE
# Load model and SAE
model = HookedTransformer.from_pretrained("gpt2-small", device="cuda")
sae, cfg_dict, sparsity = SAE.from_pretrained(
release="gpt2-small-res-jb",
sae_id="blocks.8.hook_resid_pre",
device="cuda"
)
# Encode activations to sparse features
tokens = model.to_tokens("Hello world")
_, cache = model.run_with_cache(tokens)
activations = cache["resid_pre", 8]
features = sae.encode(activations) # Sparse feature activations
reconstructed = sae.decode(features) # Reconstructed activations
Key Concepts
Sparse Autoencoders
SAEs decompose dense neural activations into sparse, interpretable features:
- Encoder: Maps d_model → d_sae (typically 4-16x expansion)
- ReLU/TopK: Enforces sparsity
- Decoder: Reconstructs original activations
Training Loss
Loss = MSE(original, reconstructed) + L1_coefficient × L1(features)
Key Metrics
- L0: Average number of active features (target: 50-200)
- CE Loss Score: Cross-entropy recovered vs original model (target: 80-95%)
- Dead Features: Features that never activate (target: <5%)
Available Pre-trained SAEs
| Release | Model | Description |
|---|---|---|
gpt2-small-res-jb |
GPT-2 Small | Residual stream SAEs |
gemma-2b-res |
Gemma 2B | Residual stream SAEs |
| Various | Search HuggingFace | Community-trained SAEs |