ImposterOnline/Pyrex-8B-Instruct-Uncensored
ImposterOnline/Pyrex-8B-Instruct-Uncensored is a 7.6 billion parameter instruction-tuned model developed by ImposterOnline, specifically designed for coding tasks. It features a coding-first approach, trained on high-quality code instructions, and supports a 32k context window. This model is uncensored, providing direct answers without refusals, and is optimized for agentic and tool-use workflows, making it suitable for developer work like code generation, bug fixing, and technical explanations.
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Pyrex 8B Instruct Uncensored: A Coding-First, Uncensored LLM
Pyrex 8B Instruct Uncensored, developed by ImposterOnline, is a 7.6 billion parameter instruction-tuned model built with a unique data recipe and QLoRA fine-tuning. It is distinguished by its coding-first design, making it highly effective for developer-centric tasks. The model is also uncensored, providing direct and honest responses without built-in safety-alignment softening.
Key Capabilities
- Exceptional Code Generation: Trained predominantly on high-quality code instructions (OpenCoder, CodeAlpaca, evol-codealpaca), it produces clean and correct code.
- Uncensored Responses: Delivers direct answers without refusals, offering unfiltered information.
- Agentic & Tool-Use Ready: Includes function-calling data in its training, making it well-suited for OpenAI-compatible APIs and agent workflows.
- Portable: Available in full-precision safetensors and GGUF quants for various platforms like Ollama, llama.cpp, and LM Studio.
- Strong Benchmarking: Achieves 52.4% pass@1 on HumanEval, a significant improvement of +23.1 points over its base model on unseen problems.
Good For
- Software Development: Writing code, fixing bugs, and explaining complex technical problems.
- AI Agents: Powering agent loops and tool-use applications requiring function calling capabilities.
- Unfiltered Information Retrieval: Use cases where direct, uncensored answers are preferred.
- Local Deployment: Running efficiently on various hardware configurations via GGUF quantizations.