The modern data center is facing a physical crisis. As AI accelerators like the NVIDIA Blackwell or H100/H200 series push Thermal Design Power (TDP) to 700W and beyond, the area immediately surrounding the CPU can quickly become a major hotspot." For AI architects, this creates a catch-22: You need Gen5 NVMe storage as close to the CPU as possible for performance, but the heat in that zone causes instant thermal throttling. The solution is Storage Disaggregation—moving M.2 NV

Why the Physical Limitations of Standard Server Architecture Limits the potential of Gen5 Accelerators In the race for AI dominance and real-time data processing, we have arrived at a frustrating irony: we have the fastest CPUs and most powerful GPUs in history, but we are trying integrate them into systems with a design philosophy that hasn't fundamentally changed in decades. Modern IT architects are all too familiar with the resulting problem: Standard Motherboard Architect

Solving the 1U/2U Physical Constraint with Distributed I/O In Edge Data Centers, 1U and 2U rackmount servers remain the industry standard for maximizing compute density. However, these slim enclosures present a physical paradox: how do you fit the massive power of PCIe Gen5 into a chassis that is only 1.75 inches tall? Even with a Low-Profile Switch Adapter like the HighPoint Rocket 1628A , a vertical installation in a 1U chassis is physically impossible. To unlock Gen5 perf

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.