When your next competitive edge depends on training models faster and scaling HPC without breaking the budget, data infrastructure stops being just a part of the infrastructure and becomes the lifeblood of the business. Organizations are using GPU-accelerated AI infrastructure to train and fine-tune foundation and domain models that then power applications like customer support automation, code assistance, and document intelligence to name a few. Driven by the need to transform their businesses, organizations are using their data and AI infrastructure to reduce time-to-market, deliver differentiated user experiences, and improve productivity all while keeping IP in-house. At the same time, organizations are expanding HPC for large-scale simulations (e.g., CFD, genomics, risk modeling) and training-data pipelines to shorten design cycles and improve forecast accuracy, while tightly managing GPU utilization, energy consumption, rack-scale performance, and infrastructure cost at scale.
The real problem is that when storage can’t keep up, GPU utilization plummets—idle GPUs still burn budget and waste significant power, turning expensive accelerators into costly space heaters. Modern training workflows punish slow filesystems with dataset shuffles, small-file metadata storms, and checkpoint bursts that can stall pipelines for minutes at a time. In HPC, checkpoint/restart cycles are equally unforgiving: if scratch throughput lags, every save and recovery stretches runtimes and amplifies the penalty of failure. High-throughput storage and parallel file systems remove these bottlenecks and reduce the amount of power consumed, so GPUs stay fed, and jobs keep moving efficiently.
AI infrastructure pressure has shifted because datasets are now larger and multimodal, and teams fine-tune more often turning “one-time training” into a continuous cycle. Distributed training adds dozens to thousands of workers hammering shared data concurrently, while higher checkpoint frequency boosts resilience and shortens iteration loops but creates intense burst I/O. At the same time, pipelines have grown more complex: preprocessing and ETL must stream clean, transformed data fast enough to keep training fully utilized.
As AI becomes a core driver of innovation, organizations must reevaluate their infrastructure and identify opportunities to solve business challenges and realize value. However, AI performance is only as good as the data pipeline that feeds it. It’s not enough to quote peak speeds on an idle system—focus on GB/s per job, metadata ops/sec during shuffle or ingest, and tail latency (p95/p99) under real contention. Achieving this at scale calls for storage that provides consistent performance at both the array and rack scale – maintaining sustained throughput and low latency across connected racks in large-scale workloads.
Power is a finite constraint for AI all around the world. It’s not just about reducing cost – organizations have limited access to power above a certain envelope. So, a power efficient system becomes a critical need and competitive advantage - by minimizing watts per GB/s to deliver high performance sustainably, reducing operational costs. With fast, reliable data access, teams can process, analyze, and act on insights more quickly, unlocking new value and sharpening competitive advantage.
General purpose storage systems often fall short of meeting the requirements of AI and HPC workloads, where predictable throughput, microsecond latency, and optimized integration with parallel file systems are essential. NetApp EF-Series is purpose-built to meet these extreme performance needs by providing high-performance block storage behind the parallel file system.
With EF-Series, organizations can eliminate storage bottlenecks and deliver consistent, reliable performance for the most demanding workloads. This enables customers to:
EF-Series is an ideal fit for specialized workloads such as HPC and AI, as well as transactional databases, media and entertainment, backup and recovery, and video surveillance deployments.
The new NetApp EF-Series – EF50 and EF80 - is purpose-built for the modern AI-driven enterprise. With maximum bandwidths exceeding 110GB/s, the EF80 powers workloads that demand extreme performance such as AI and HPC, while the EF50 is designed for mixed workload environments such as databases. Delivering up to 5M IOPs and ultralow latency, EF-Series provides the high performance needed to support your most performance-intensive workloads.
When scaling up to rack-level performance, EF-Series delivers over 100M IOPS and 2.35TB/s of read throughput at under 37KW per rack, making it easier to scale without expanding your data center footprint. With the proven reliability and scalable architecture NetApp customers expect, these systems offer the consistent performance, energy efficiency, and cost-effective storage required to scale sustainably and accelerate innovation.
Optimized for parallel file systems such as Lustre and BeeGFS, EF-Series delivers consistent throughput and predictable performance at scale. Whether you are running HPC simulations, training large-scale AI models, or running high-bandwidth applications, EF-Series provides exceptional efficiency and results.
Whether you are training AI models, powering AI inference, or running HPC simulations, NetApp EF-Series gives you the consistent speed and reliability to move at the pace of innovation.
Learn how EF-Series can help power your AI and HPC workloads.
Download the datasheet to explore the technical specifications for EF50 and EF80.
Priyadarshi (PD) Prasad is the Vice President and General Manager of AI Data Infrastructure at NetApp. A seasoned tech executive, PD focuses on the intersection of AI, data, and security, exploring how organizations can transform their competitive moats and customer experiences. Prior to NetApp, he was the Co-founder and CPO at LightBeam.ai, pioneering identity-centric data security and governance. Prasad also spent five years as a VP/GM at Nutanix, leading large-scale product portfolios across core data path, business continuity, and unified storage. He is an alumnus of the National Institute of Technology, Calicut, and the S. P. Jain Institute of Management, Mumbai.