A New Architecture for AI, HPC, and Globally Distributed Accelerated Computing
NAS doesn’t provide sufficient performance or scale.
Legacy HPC file systems are too complex and lack enterprise data services.
Neither architecture enables the multi-site and hybrid-cloud operations required by so many of today’s enterprises and research institutions.
Features | NAS | HPC File Systems | Hammerspace |
|---|---|---|---|
Easy to Connect, Plug-N-Play | |||
Easy to Connect, Plug-N-Play | |||
| Enterprise Data Services | |||
Enterprise Data Services | |||
| HPC-Class Performance | |||
HPC-Class Performance | |||
| Cost-Effective at Scale | |||
Cost-Effective at Scale | |||
| Multi-Site, Hybrid-Cloud | |||
Multi-Site, Hybrid-Cloud | |||
The First Standards-Based Parallel File System Architecture
Unlike legacy parallel file systems that rely on proprietary clients to deliver high-throughput low-latency data access, Hammerspace uses capabilities built into the NFSv4.2 client that are now part of every modern Linux OS. Hammerspace engineered key Parallel NFS Flex Files capabilities and contributed them upstream to Linux years ago, enabling an intelligent standards-based parallel file system client built directly into the operating system.
Delivers the high-throughput, low-latency performance required for AI, GPU data pipelines, and HPC workflows.
Does not require any proprietary client software.
Scales linearly to thousands of nodes.
Allows any file (NFS) and object (S3) storage system to be used as storage by Hammerspace - including SSD and HDD storage servers and server-local NVMe storage.
Spans multiple sites and clouds as a global file system.
Enabling a Global Namespace Without Introducing Data Path Latency
Scale-Out Architecture

Hammerspace Parallel File System Architecture

Turn Stranded NVMe Into the Fastest Storage in Your Cluster
AI and HPC environments increasingly deploy large amounts of high-performance NVMe storage inside GPU and compute servers, but that storage typically remains isolated to individual nodes. Hammerspace enables server-local NVMe to operate as a coordinated shared Tier 0 storage layer within the global file system, transforming previously stranded local storage into high-performance shared infrastructure for distributed AI and accelerated computing workloads.
Enable Multi-Site and Hybrid-Cloud Operations with a Global File System
