Small Bets in Thermal Interface Optimization That Compound
You're staring at a sintering curve on the monitor. The line dips, then climbs, then flattens—textbook, maybe. But what you really need to know is the...
8 articles in this category
You're staring at a sintering curve on the monitor. The line dips, then climbs, then flattens—textbook, maybe. But what you really need to know is the...
Picture this: you've just specced a thermal interface material with a claimed 10 W/m·K thermal conductivity. It cost three times as much as the standa...
You slap a diamond-copper composite into your thermal design, expecting magic. Instead, the hot side stays hot. The interfacial thermal resistance—tha...
Die-attach voids in GaN HEMTs aren't just a yield issue—they're a reliability grenade. When a void sits under the active region, the heat that should ...
You've spent months designing your cryostat. The copper cold finger is polished to a mirror finish. The bolted joint torqued to spec. But at 4 K, your...
You pick a thermal paste rated at 12 W/m·K. The datasheet is glossy. The numbers are clean. But on your board, the junction temp sits 10°C higher than...
I once watched a group spend three weeks benchmarking thermal paste — fourteen different compounds, carefully controlled ambient temperature, the same...
You just spent $2,000 on a GPU. You peel off the plastic, admire the cold plate, and then—without thinking—you reach for that tube of liquid metal you...