🤖 QwenPaw-Flash-9B-heretic — Importance Matrix GGUF
This repository hosts importance-matrix (imatrix) optimized GGUF weights, available in multiple quantization formats, and the associated vision projection matrix for
QwenPaw-Flash-9B-heretic, quantized from the source floating-point tensors provided by
coder3101/QwenPaw-Flash-9B-heretic.
🔄 Sister Repository: Check out the
Standard GGUF Sister Repository for uncalibrated and full 8-bit precision options.
🎯 Matrix-Weighted Calibration (Imatrix)
An Importance Matrix (imatrix) calculation tracks activations across network layers using a calibration sequence, then weights the quantization process to preserve the parameters that matter most for output quality — improving fidelity at low bit depths.
➡️ Calibration dataset: Bartowski's calibration_datav5.txt.
[!NOTE]
IQ4_NL is included because the matrix enables a non-linear 4-bit format that outperforms standard linear 4-bit quantization.Q8_0 is absent because 8-bit quantization already introduces near-zero degradation, making calibration unnecessary — see the standard sister repository for that variant.
ℹ️ Model Profile & Core Features
QwenPaw-Flash-9B is a model by
agentscope-ai, fine-tuned from Qwen3.5-9B and
deeply optimised for the QwenPaw autonomous agent scenario. Since its training phase, the model has been specifically refined for QwenPaw tasks, delivering enhanced agentic performance in
tool invocation, command execution, memory management, and multi-step planning. It inherits the base model's hybrid Gated Delta Network + sparse MoE architecture, along with vision capability carried over from the Qwen3.5-9B base.
The
heretic suffix denotes post-processing via the
Heretic v1.2.0 Arbitrary-Rank Ablation (ARA) method with row-norm preservation performed by
coder3101, ensuring refusal responses never interrupt agent workflows or autonomous task loops.
📋 Technical Specifications
| Property | Value |
|---|
| Base Architecture | Qwen3.5 hybrid (Gated Delta Networks + sparse MoE) |
| Developed by | agentscope-ai |
| Fine-tuned from | Qwen/Qwen3.5-9B |
| Primary Use | Autonomous agents, tool calling, memory management, multi-step planning |
| Context Window | 262,144 tokens |
| Vision Capability | Inherited from Qwen3.5-9B (early-fusion) |
| Abliteration Tool | Heretic v1.2.0 |
| Abliteration Method | Arbitrary-Rank Ablation (ARA) with row-norm preservation |
| Prompt Format | ChatML |
🛠️ Heretic Overrides (ARA)
| Property | Value |
|---|
| start_layer_index | 13 |
| end_layer_index | 16 |
| preserve_good_behavior_weight | 0.9042 |
| steer_bad_behavior_weight | 0.0003 |
| overcorrect_relative_weight | 1.0109 |
| neighbor_count | 13 |
📊 Refusal Bypass Metrics
[!NOTE]
The metrics below are self-reported by the original model author (
coder3101) and have not been independently reproduced.
🧮 Numerical & Tensor Formats
| Property | Value |
|---|
| Text Tensor Types | IQ4_NL, Q4_K_M, Q5_K_M (all with imatrix calibration) |
| Importance Matrix | Bartowski's calibration_datav5.txt |
| Vision Tensors | Q8_0, BF16 |
📦 Available Model Files
Main model weights
| Filename | Quantization | llama.cpp Build | Size | Download |
|---|
QwenPaw-Flash-9B-heretic-IQ4_NL-imatrix.gguf | IQ4_NL | b9843 | 5.05 GB | 📥 Download |
QwenPaw-Flash-9B-heretic-Q4_K_M-imatrix.gguf | Q4_K_M | b9821 | 5.24 GB | 📥 Download |
QwenPaw-Flash-9B-heretic-Q5_K_M-imatrix.gguf | Q5_K_M | b9860 | 6.02 GB | 📥 Download |
mmproj — vision projector files
| Filename | Quantization | Size | Download |
|---|
mmproj-QwenPaw-Flash-9B-heretic-Q8_0.gguf | Q8_0 | 595 MB | 📥 Download |
mmproj-QwenPaw-Flash-9B-heretic-BF16.gguf | BF16 | 879 MB | 📥 Download |
mtp — speculative decoding draft files
| Filename | Quantization | Size | Download |
|---|
mtp-QwenPaw-Flash-9B-heretic-Q8_0.gguf | Q8_0 | 2.02 GB | 📥 Download |
mtp-QwenPaw-Flash-9B-heretic-BF16.gguf | BF16 | 3.80 GB | 📥 Download |
🎛️ Component Pairing Guide
Download exactly one main weights file:
IQ4_NL: Non-linear 4-bit format, best choice for constrained memory when imatrix calibration is present.Q4_K_M: Balanced 4-bit format suitable for most everyday use.Q5_K_M: Higher-fidelity mid-range format recommended as a general default.
mmproj files (optional): multimodal vision projectors. Pass one via the --mmproj flag in llama.cpp to enable image input.
BF16 (Recommended): Highest possible image processing accuracy. While older projectors were small, modern vision towers can hover around 1GB. If you are tight on VRAM, it is completely viable to run this on system RAM (CPU) with a minimal performance penalty, saving your precious GPU space for the main model layers.Q8_0: Cuts the projector file size and memory footprint in half (~500MB for larger 1GB files). Use this if you prefer to keep the vision tower hosted entirely on your GPU but need to claw back some VRAM to avoid Out-Of-Memory (OOM) crashes.
mtp files (optional): multi-token-prediction draft models for speculative decoding. Pass one via the --draft flag in llama.cpp to speed up generation.
BF16 (Best Speed): Maximizes draft accuracy. The more accurate the draft model's predictions are, the higher your token acceptance rate, which translates directly into faster text generation. Use this if you have the VRAM headroom.Q8_0 (Best VRAM Efficiency): Cuts the draft model size in half. Choose this if loading a heavy BF16 draft model would force you to drop layers of your main model to system RAM, which would heavily tank your total performance.
⚡ Deployment & Execution Commands
[!IMPORTANT]
The vision projector (--mmproj) must be supplied at runtime whenever image inputs are used. Omitting it disables multimodal capability entirely.
[!NOTE]
agentscope-ai recommends the following sampling configuration for best results: temperature=1.0, top_p=0.95, presence_penalty=1.5, top_k=20.
[!TIP]
Swap the -m filename below for either quantized file depending on your size/quality trade-off preference.
llama.cpp CLI (with image)
1./llama-cli \
2 -m QwenPaw-Flash-9B-heretic-IQ4_NL-imatrix.gguf \
3 --mmproj mmproj-QwenPaw-Flash-9B-heretic-Q8_0.gguf \
4 -c 8192 \
5 -ngl 99 \
6 --image "path/to/image.jpg" \
7 -p "<|im_start|>user\nAnalyze the attached image and plan the next agent action.<|im_end|>\n<|im_start|>assistant\n"
Speculative Decoding (MTP Acceleration)
1./llama-cli \
2 -m QwenPaw-Flash-9B-heretic-IQ4_NL-imatrix.gguf \
3 --draft mtp-QwenPaw-Flash-9B-heretic-Q8_0.gguf \
4 -c 8192 \
5 -ngl 99 \
6 -p "<|im_start|>user\nAnalyze the attached image and plan the next agent action.<|im_end|>\n<|im_start|>assistant\n"
OpenAI-Compatible API Server
1./llama-server \
2 --host 0.0.0.0 \
3 --port 8080 \
4 -m QwenPaw-Flash-9B-heretic-IQ4_NL-imatrix.gguf \
5 --mmproj mmproj-QwenPaw-Flash-9B-heretic-Q8_0.gguf \
6 -c 16384 \
7 -ngl 99 \
8 --flash-attn
💬 Chat Templates & Prompt Design (ChatML)
Supply tool definitions and memory context in the system block for agentic use.
1<|im_start|>system
2You are QwenPaw, an autonomous agent with access to tools, memory, and planning capabilities.<|im_end|>
3<|im_start|>user
4Your task or image payload here.<|im_end|>
5<|im_start|>assistant
⚠️ Safety & Operational Notes
- This model is abliterated and will generate content that standard aligned models refuse. Use responsibly and in compliance with applicable laws.
- Primarily designed for the QwenPaw agent stack; strengths are most evident in agentic, tool-calling contexts.
- Vision tensors are kept at BF16 or Q8_0 depending on the mmproj variant chosen, to preserve spatial feature quality.
- Speculative decoding via the accompanying
mtp draft model can meaningfully increase throughput on supported llama.cpp builds.
- Imatrix calibration improves perplexity recovery compared to non-imatrix quantization, particularly on low-frequency tokens.
- IQ4_NL produces a smaller file than Q4_K_M and tends to run faster on CPU and ARM devices; imatrix calibration narrows the quality gap between the two formats considerably.
