Can I run Qwen 2.5 14B (q3_k_m) on NVIDIA RTX 3090?

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Perfect
Yes, you can run this model!
GPU VRAM
24.0GB
Required
5.6GB
Headroom
+18.4GB

VRAM Usage

0GB 23% used 24.0GB

Performance Estimate

Tokens/sec ~60.0
Batch size 6
Context 131072K

info Technical Analysis

The NVIDIA RTX 3090, with its 24GB of GDDR6X VRAM, is well-suited for running the Qwen 2.5 14B language model, especially when using quantization. The Qwen 2.5 14B model in its full FP16 precision requires 28GB of VRAM, exceeding the RTX 3090's capacity. However, by employing quantization techniques, specifically q3_k_m, the model's memory footprint is significantly reduced to approximately 5.6GB. This allows the entire model and necessary runtime components to reside comfortably within the GPU's memory.

Beyond VRAM, the RTX 3090's substantial memory bandwidth of 0.94 TB/s ensures rapid data transfer between the GPU and its memory, minimizing performance bottlenecks during inference. The 10496 CUDA cores and 328 Tensor cores further contribute to accelerating the matrix multiplications and other computations inherent in deep learning models like Qwen 2.5 14B. The Ampere architecture also includes advancements in Tensor Core design, optimizing them for the mixed-precision computations commonly used in quantized models, thus improving overall throughput and efficiency.

Given the available VRAM headroom (18.4GB), users can experiment with larger batch sizes and context lengths without immediately encountering out-of-memory errors. However, performance will degrade as the GPU's compute capacity becomes saturated. The estimated tokens/sec of 60 and batch size of 6 are initial estimates; actual performance will vary depending on the specific implementation, input complexity, and optimization techniques employed.

lightbulb Recommendation

For optimal performance with the Qwen 2.5 14B model on the RTX 3090, stick with the q3_k_m quantization or explore other quantization levels that fit within the VRAM. Experiment with different inference frameworks like llama.cpp or vLLM to find the best balance between speed and memory usage. Monitor GPU utilization and memory consumption to fine-tune the batch size and context length for your specific use case.

If you experience performance bottlenecks, consider offloading certain layers to CPU memory, though this will likely reduce inference speed. Profile your application to identify specific areas for optimization, such as kernel fusion or memory access patterns. Ensure you have the latest NVIDIA drivers installed to take advantage of any performance improvements.

tune Recommended Settings

Batch_Size
6 (adjust based on VRAM and performance)
Context_Length
131072 (reduce if needed to improve speed)
Other_Settings
['Enable CUDA graph capture', 'Use memory mapping for weights', 'Experiment with different attention mechanisms']
Inference_Framework
llama.cpp or vLLM
Quantization_Suggested
q3_k_m (or higher if performance allows)

help Frequently Asked Questions

Is Qwen 2.5 14B (14.00B) compatible with NVIDIA RTX 3090? expand_more
Yes, Qwen 2.5 14B is compatible with the RTX 3090, especially when using quantization to reduce VRAM usage.
What VRAM is needed for Qwen 2.5 14B (14.00B)? expand_more
The full FP16 version requires 28GB of VRAM, but a quantized version like q3_k_m only needs around 5.6GB.
How fast will Qwen 2.5 14B (14.00B) run on NVIDIA RTX 3090? expand_more
Expect approximately 60 tokens/sec with a batch size of 6, but actual performance may vary based on the specific implementation and settings.