minjaechoi/qwen3p6-35b-a3b-2p02bit-r55
TEXT GENERATIONPricing:Input $0.4 / Cached $0.07 / Output $4Concurrent Unit Cost:2Model Size:35.1BQuant:FP8Context Size:32kTool Calling:SupportedPublished:Oct 5, 2026Architecture:Transformer Featherless Exclusive Cold
The minjaechoi/qwen3p6-35b-a3b-2p02bit-r55 is a 35.1 billion parameter language model based on the Qwen3.6-35B-A3B architecture. Developed by minjaechoi, this model features an experimental quantization scheme where routed experts average 2.0217 bits, while other weights remain in BF16 format. It is designed for efficient deployment, loading with standard transformers and vLLM libraries, and is suitable for research into highly quantized large language models.
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Overview of minjaechoi/qwen3p6-35b-a3b-2p02bit-r55
This model, minjaechoi/qwen3p6-35b-a3b-2p02bit-r55, is an internal research checkpoint derived from the Qwen/Qwen3.6-35B-A3B base model. It features a unique quantization approach aimed at reducing model size and improving inference efficiency.
Key Capabilities and Characteristics
- Advanced Quantization: The model employs a novel quantization strategy where "routed experts" are compressed to an average of 2.0217 bits. All other weights within the model maintain a BF16 (bfloat16) precision.
- Efficient Loading: Despite its mixed-precision quantization, the model's weights are stored dequantized in BF16 tensors, allowing for seamless loading and utilization with standard machine learning libraries such as
transformersandvLLM. - Base Model Heritage: Built upon the robust Qwen3.6-35B-A3B architecture, it inherits the foundational capabilities of its 35.1 billion parameter predecessor.
- Research Focus: This specific iteration, identified internally as
r55, represents an experimental checkpoint primarily intended for research into highly quantized large language models and their performance characteristics.
Good for
- Research and Development: Ideal for researchers and developers exploring advanced quantization techniques and their impact on large language models.
- Memory-Constrained Deployment: Potentially beneficial for scenarios where reduced memory footprint during inference is critical, due to its highly quantized expert layers.
- Benchmarking Quantized Models: Useful for evaluating the performance and efficiency trade-offs of mixed-precision quantization strategies on a substantial model architecture.