When procuring endpoints for EUC & Enterprise Infrastructure[cite: 1, 3], it is easy to specify an "Intel Core Ultra" or "AMD Ryzen" and assume top-tier performance. However, a processor's brand name is only half the story. Understanding Thermal Design Power (TDP), burst limits, peripheral constraints, physical cooling, and OEM thermal management is critical to ensuring users get the power they actually need. 1. Decoding Power Classes & Manageability Not every modern CPU is built for the same workload. Intel and AMD use letter suffixes to denote base and boost wattage limits: U-Series (~15W): Designed for ultra-thin laptops prioritizing battery life and mobility over sustained performance. V-Series & HS-Series: Intel’s newer V-suffix denotes ultra-efficient, premium thin-and-lights with on-package memory (largely replacing the 28W P-Series). AMD’s HS-Series offers a high-performance middle ground for slimmer la...
If you spend your days architecting enterprise client hardware and evaluating new endpoint form factors, you eventually hit a physical wall. For years, that wall has been the traditional SODIMM memory slot. But the industry is currently undergoing a massive shift toward a new standard: CAMM2 (Compression Attached Memory Module). As we push further into running massive local AI workloads and containerized deployment stacks directly on workstation endpoints, memory bandwidth becomes the ultimate bottleneck. Today, let's break down exactly what CAMM2 is, the technical leaps it brings, and the hidden trade-offs.