Can I run Llama 3.1 70B (Q4_K_M (GGUF 4-bit)) on NVIDIA H100 PCIe?

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Perfect
Yes, you can run this model!
GPU VRAM
80.0GB
Required
35.0GB
Headroom
+45.0GB

VRAM Usage

0GB 44% used 80.0GB

Performance Estimate

Tokens/sec ~54.0
Batch size 3
Context 128000K

info Technical Analysis

The NVIDIA H100 PCIe, with its 80GB of HBM2e memory and 2.0 TB/s memory bandwidth, provides ample resources for running the Llama 3.1 70B model, especially when quantized. This analysis considers the Q4_K_M (GGUF 4-bit) quantization of the model, which significantly reduces the VRAM footprint to approximately 35GB. The H100's Hopper architecture, boasting 14592 CUDA cores and 456 Tensor cores, is well-suited for the matrix multiplications and other computations inherent in large language model inference. The substantial VRAM headroom (45GB) allows for larger batch sizes and longer context lengths, enhancing throughput and enabling more complex and context-aware generations.

Given the H100's high memory bandwidth, the model's performance will primarily be dictated by computational throughput rather than memory bottlenecks. The estimated 54 tokens/sec is a solid starting point, and further optimizations can potentially increase this rate. The estimated batch size of 3 balances latency and throughput, allowing for reasonable generation speeds without excessively delaying individual requests. The H100's Tensor Cores are specifically designed to accelerate these operations, contributing significantly to the model's overall inference speed. The 350W TDP should be considered in the context of the server's cooling infrastructure to ensure sustained performance without thermal throttling.

lightbulb Recommendation

For optimal performance, use a framework like `llama.cpp` or `vLLM` to leverage the H100's capabilities effectively. Experiment with different batch sizes to find the sweet spot between latency and throughput, keeping in mind the estimated value of 3. Monitor GPU utilization and temperature to ensure the H100 is operating within its thermal limits.

Consider using techniques like speculative decoding or continuous batching to further improve throughput. Profile the application to identify any bottlenecks and optimize accordingly. If memory becomes a constraint with larger context lengths or more complex prompts, consider further quantization or offloading some layers to system RAM, although this will come at a performance cost.

tune Recommended Settings

Batch_Size
3 (adjust based on latency requirements)
Context_Length
128000 tokens (or lower if memory constrained)
Other_Settings
['Enable CUDA graph capture', 'Use Paged Attention', 'Experiment with different attention mechanisms']
Inference_Framework
llama.cpp or vLLM
Quantization_Suggested
Q4_K_M (GGUF 4-bit) is suitable, but explore Q5_K…

help Frequently Asked Questions

Is Llama 3.1 70B (70.00B) compatible with NVIDIA H100 PCIe? expand_more
Yes, Llama 3.1 70B (70.00B) is fully compatible with the NVIDIA H100 PCIe, especially when using Q4_K_M quantization.
What VRAM is needed for Llama 3.1 70B (70.00B)? expand_more
With Q4_K_M quantization, Llama 3.1 70B (70.00B) requires approximately 35GB of VRAM.
How fast will Llama 3.1 70B (70.00B) run on NVIDIA H100 PCIe? expand_more
Expect around 54 tokens/sec with the given configuration. This can vary based on prompt complexity, batch size, and specific optimizations applied.