STMicroelectronics VIPerGaN High-Efficiency GaN Power Converter Series
High-efficiency GaN technology for compact, next-generation designs
The VIPerGaN family from STMicroelectronics brings together advanced GaN HEMT technology and integrated control features to deliver higher power density, improved efficiency, and reduced solution size. These devices support higher switching frequencies and enable designers to shrink PCB area, simplify power supply architectures, and meet increasingly demanding energy-efficiency requirements.
Within the series, the VIPerGaN65D represents the next evolution, offering strong performance for medium-power quasi-resonant ZVS flyback converters. Its efficiency and compact footprint make it well-suited for fast chargers, compact adapters, lighting systems, and a wide range of household appliances.
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Featured Products in the VIPerGaN Series
Spotlight Product: VIPerGAN65D The VIPerGaN65D is an advanced quasi-resonant offline high-voltage converter featuring a 700 V E-mode GaN HEMT. It supports a wide input-voltage range and can deliver up to 85 W while maintaining extremely low standby consumption—below 30 mW. Its high efficiency and compact footprint make it ideal for chargers, adapters, lighting, and appliance power architectures. | ![]() |
VIPerGaN100W
Designed for medium-power quasi-resonant ZVS flyback converters, the VIPerGaN100W can deliver up to 75 W across wide input ranges and up to 100 W in European-voltage applications or with PFC support. Its ZVS operation, valley synchronization, low quiescent power, and feed-forward compensation help maximize efficiency across the load curve. Integrated protection features, such as OVP, OTP, OLP, brown-in/out, and input OVP, enhance system reliability.
VIPerGaN50 / VIPerGaN50W
The VIPerGaN50 and VIPerGaN50W bring GaN efficiency to medium-power quasi-resonant ZVS flyback designs, with output capability up to 50 W (VIPerGaN50) or up to 75–100 W depending on the input range (VIPerGaN50W). Both versions incorporate dynamic blanking time, valley synchronization, low standby consumption, feed-forward compensation, and a robust set of integrated protection mechanisms for flexible, high-efficiency offline power supplies.

