system architecture
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NVIDIA Rubin: Inference as a System Challenge
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The focus of inference has shifted from chip capabilities to system orchestration, as evidenced by NVIDIA Rubin's specifications. With a scale-out bandwidth of 1.6 TB/s per GPU and 72 GPUs operating as a single NVLink domain, the bottleneck is now in efficiently feeding data to the chips rather than the chips themselves. The hardware improvements in bandwidth and compute power outpace the increase in HBM capacity, indicating that static loading of larger models is no longer sufficient. The future lies in dynamically managing and streaming data across multiple GPUs, transforming inference into a system-level challenge rather than a chip-level one. This matters because optimizing inference now requires advanced system orchestration, not just more powerful chips.
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AI Products: System vs. Model Dependency
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Many AI products are more dependent on their system architecture than on the specific models they use, such as GPT-4. When relying solely on frontier models, issues like poor retrieval-augmented generation (RAG) designs, inefficient prompts, and hidden assumptions can arise. These problems become evident when using local models, which do not obscure architectural flaws. By addressing these system issues, open-source models can become more predictable, cost-effective, and offer greater control over data and performance. While frontier models excel in zero-shot reasoning, proper infrastructure can narrow the gap for real-world deployments. This matters because optimizing system architecture can lead to more efficient, cost-effective AI solutions that don't rely solely on cutting-edge models.
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Building AI Data Analysts: Engineering Challenges
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Creating a production AI system involves much more than just developing models; it requires a significant focus on engineering. The journey of Harbor AI highlights the complexities of transforming into a secure analytical engine, emphasizing the importance of table-level isolation, tiered memory, and the use of specialized tools. This evolution showcases the need to move beyond simple prompt engineering to establish a reliable and robust architecture. Understanding these engineering challenges is crucial for building effective AI systems that can handle real-world data securely and efficiently.
