Modern AI, machine learning, and high-performance computing (HPC) platforms demand immense compute acceleration and high-speed data throughput. However, system architects and AI administrators routinely hit a physical wall: PCIe slot starvation. In compact 1U, 2U, and edge server nodes, physical motherboard slots are scarce, rigid riser cards restrict airflow, and host CPUs lack sufficient lane allocation or native bifurcation support to expand peripherals seamlessly. HighPoi

Designing compact industrial servers, 1U/2U edge nodes, or specialized workstation enclosures is an exercise in physical compromise. System administrators and IT specialists routinely encounter a frustrating bottleneck: fixed motherboard layouts. While you might have a highly capable PCIe 5.0 x16 slot available on your single-board computer (SBC) or industrial motherboard, the physical constraints imposed by the system’s chassis end up breaking your deployment plans. A mass

HighPoint’s RocketStor 4243AS CDI Hardware platform is a chameleon of the storage world. Because it is powered by the Western Digital RapidFlex™ C2000, it doesn’t force you into a single networking silo. You have a choice: the universal compatibility of NVMe/TCP or the extreme, low-latency power of NVMe/RoCE v2. But which one is right for your specific rack? 1. NVMe/TCP: The "Standard Ethernet" Powerhouse If you want to move to disaggregated storage without rewiring your enti

In the modern data center, NVMe SSDs are the gold standard for performance. They are lightning-fast, dense, and increasingly affordable. However, there is a hidden crisis in traditional server architecture that is costing enterprises millions: Stranded Capacity. The Problem: The "Silo" Trap Traditionally, NVMe drives are installed directly into a server (Direct Attached Storage, or DAS). This creates a rigid 1-to-1 relationship between compute and storage. If Server A i

As the industry transitions to PCIe Gen5, architects in AI, HPC, and high-performance storage are encountering a common physical bottleneck: onboard NVMe connectivity. With most enterprise platforms offering only one or two native Gen5 M.2 slots, scaling high-speed infrastructure has historically meant compromising on signal integrity or latency. Our Rocket 1604L, an Active Retimer-based Gen5 x16 M.2 Expansion Add-In-Card, was designed specifically to address this problem.

For years, Edge AI was forced into a corner: you either used underpowered integrated chips or massive, power-hungry GPUs that wouldn't fit in a ruggedized industrial-grade enclosure. Today, Edge architecture is shifting. The rise of M.2 AI Processing Units (AIPUs)—like the Hailo-10, Axelera Metis, and Ambrize—has introduced the era of Modular Compute. But these modules are only as good as the interface they plug into. To build a true "Swiss Army Knife" for your Edge environme

As the industry continues to transition to PCIe Gen5 , IT professionals are quickly realizing that raw speed is no longer the only challenge. PCIe Signal Integrity – the strength and reliability of the PCIe pathway, is a new frontier. At 32GT/s, the physical window for data transmission is incredibly tight. HighPoint is rewriting the rules with a new breed of Active Retimer-Based AICs. The following article takes a is a deep dive into the architecture that makes Retimer-Based

The challenges faced by modern Edge AI environments isn’t limited to processing power—the physical geography of the host hardware platform has become a chief concern. As more and more businesses integrate AI driven technology into their workflows (factories, retail hubs, and telco towers), the required accelerator hardware is often being “crammed” into short-depth 1U and 2U servers. For AI Architects, two major challenges have arisen: 1. The Space challenge: Many PCIe Gen5 c