Build small, lighter power systems by eliminating bulk capacitance
Layout crowding is a challenge when using a conventional, space-constrained approach
Size of power converter prevents it from being placed close to load
High output current causes large line (I2R) losses
Large bulk-electrolytic caps crowds space near the load
Switcher close to load causes noise
The ideal point-of-load power system
Advantages of factorized power architecture
Minimizes wasted energy
Low EMI
Adjusts for any load
Scales for power demands
High density
Component position flexibility
Fast transient response
Easy, modular design
Modular component design allows for almost unlimited customization and optimization in many different applications
Simplified sensing
The PRM uses the factorized bus current to regulate the voltage on the secondary of the VTM and provides 1% regulation at the PoL without voltage sense lines.
Multiple outputs from a single regulator
One regulator can drive multiple transformation stages (VTM) to provide different PoL voltages.
Bulk capacitance elimination
With its low output impedance, smaller ceramic capacitors (up to 1000x less capacitance) may be used at the VTM input in place of PoL bulk capacitors.
Bi-directional transformation
Select VTMs operate with source power applied to input or output terminals to support bi-directional applications.
Next generation MCD and MCM
Enables Power-on-Package technology and on motherboard for high current XPUs.
Resources
Resources for the design engineer
Innovating power delivery networks
Every electronic piece of equipment or system has a power delivery network (PDN)
Disaggregating power in data centers
High-density power modules will play a key role in enabling high-voltage DC distribution to AI supercomputer data-center racks
Vicor presented the best practices for using modular power to achieve efficient, power-dense and scalable PDNs for edge computing
High density of modular power leads to space savings and cost efficiency for edge computing