Bringing Compute to Storage for Cloud AI Workflows

"Can compute-to-storage accelerate cloud AI? Zapper's in-place compute model shrinks data movement, speeds model iteration, and enforces governance—fueling scalable, secure AI workflows."

10/12/20251 min read

Traditional cloud architectures separate compute and storage, forcing data to move across networks for AI processing. This creates bottlenecks for data-intensive workflows like model training and inference. Prabhat Sharma explores a paradigm shift: bringing computation directly to storage layers (e.g., computational storage drives, smart NICs, or in-storage processing).

Key Insights:

  1. Bandwidth & Latency Challenges: Moving petabytes of data between storage and compute clusters wastes time/resources, especially for distributed training.

  2. Emerging Solutions:

    • Computational storage devices with embedded processors (e.g., FPGAs, ASICs) can preprocess, filter, or transform data locally.

    • Near-storage compute (e.g., embedding GPUs in storage servers) reduces data movement.

  3. AI Workflow Benefits:

    • Faster data loading/augmentation during training.

    • Lower-latency inference by processing data at the edge.

    • Reduced egress costs and network congestion.

  4. Feasibility Hurdles:

    • Hardware heterogeneity and software ecosystem fragmentation.

    • Re-architecting data pipelines for distributed processing.

    • Cost trade-offs of deploying specialized hardware.

Conclusion: While integrating compute and storage shows immense promise for optimizing AI workloads, its adoption hinges on mature tooling, standardized APIs, and careful cost-benefit analysis. Early experiments suggest significant performance gains, making this a trend to watch as cloud providers and hardware vendors innovate.