
Powering AI processors – 48V vertical power delivery changes the game
AI models demand huge current, driving legacy multiphase designs past 50 phases—causing space, thermal, and control limits Vicor addresses
Thermal calculations required when selecting heat sinking are relatively straightforward but can be time-consuming, particularly if you want to investigate the impact of changes to certain parameters. To help speed up the process of determining what heat sink is required for your design, the Vicor tool suite includes a calculator that lets you quickly and easily evaluate thermal issues for heat sink selection.
The tool can make four separate calculations:
Originally designed for use with Vicor modules, the tool can also be applied to thermal calculations for our other products. For more in-depth calculations, there is an option to download an Excel spreadsheet.
Ensuring adequate heat sinking is critical for reliable power system operation. Try the thermal calculation for heat sink selection, and see how it could speed up your development process.
Powering AI processors – 48V vertical power delivery changes the game
AI models demand huge current, driving legacy multiphase designs past 50 phases—causing space, thermal, and control limits Vicor addresses
Innovative 48V AI power architecture delivers both high current density and high current gain
Vicor 48V Factorized Power Architecture slashes thermal losses and delivers high current density to meet the extreme power demands of AI processors
48V Factorized Power Architecture™ slashes thermal losses and outperforms multiphase approach when powering AI
AI hardware faces severe power and cooling limits. Engineers debate 48V vs. 6V intermediate buses alongside new vertical power delivery (VPD) structures
Betterfrost: Putting on the heat
Betterfrost uses a 48V module for pulsed, conductive glass heating, clearing ice in under 80 seconds while cutting start-up defrost energy by 95%


