Optimizing DC-DC converter stability: AC and transient analysis in simulations of source impedance effects
Learn how to optimize DC-DC converter stability through AC analysis in the frequency-domain and transient analysis in the time-domain
Classic solutions to IBA (Intermediate Bus Architecture) designed systems, the Vicor portfolio of
9 – 420V
Output:3.3, 5, 12, 13.8, 15, 24, 28, 36, 48V
Power:
2322 ChiP: Up to 120W
3623 ChiP: Up to 320W
4623 ChiP: Up to 600W
3414 VIA: Up to 320W
3714 VIA: Up to 600W
5614 VIA: Up to 1300W
Up to 96%
When high performance mattered, Delta Motorsport chose DCMs to power hybrid electric race cars.
Vicor Factorized Power Architecture is essential to propagating protective coral reefs as well as achieving breakthrough wireless broadband speeds.
9 – 425V
Output:2 – 54V
Power:Up to 600W
VI-200: 50 – 200W
VI-J00: 25 – 100W
Optimizing DC-DC converter stability: AC and transient analysis in simulations of source impedance effects
Learn how to optimize DC-DC converter stability through AC analysis in the frequency-domain and transient analysis in the time-domain
Building a smarter ultra-wide DC-DC converter solution with multiple parts
One-size-fits-all typically simplifies situations. However, this approach does not deliver the best results when selecting an ultra-wide DC-DC power supply
Innovating power delivery networks
Vicor is innovating with power delivery networks. Improving end-system performance requires innovative power technologies
Build small, lighter power systems by eliminating bulk capacitance
Vicor's Factorized Power Architecture™ (FPA) delivers significant reductions in both size and weight




