USAMS CC297 Xiang Series 30W GaN Wall Charger with Retractable Type-C Cable
Streamline your everyday carry and reclaim your desktop space with the ultra-convenient USAMS CC297 (Xiang Series) 30W GaN Wall Charger. Cleverly combining a high-performance charging block with an integrated 95cm (approx. 3.1 feet) retractable Type-C cable, this 2-in-1 hybrid design ensures you never have to worry about packing a separate phone cord again. The internal smooth-glide spring wheel pulls out seamlessly to your desired length, locks into place, and snaps cleanly back inside the housing with a quick tug to completely eliminate cable clutter.
Powered by advanced Gallium Nitride (GaN) semiconductor technology, the CC297 achieves higher energy efficiency and superior temperature control within a compact, travel-friendly footprint. Despite its small profile, it hosts a versatile 3-port configuration: the built-in retractable cable, an independent USB-C port, and a high-amperage USB-A slot. Capable of outputting a crisp 30W max power stream, it is perfectly optimized to fast-charge compatible iPads, iPhones, Android flagships, and peripheral desktop accessories quickly and safely.
Key Features
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Integrated 95cm Retractable Cable: Houses an internal telescopic Type-C cord that extends smoothly up to 95cm, rolling tightly back inside the hub to eliminate structural cable knots.
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30W GaN Super Fast Charging: Leverages next-generation Gallium Nitride chips to safely maximize energy transfer, keeping the charging block exceptionally cool and lightweight.
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Versatile 3-Port Output Layout: Outfitted with the built-in Type-C cable, a standalone USB-C port, and a classic USB-A slot to cleanly power up to three devices concurrently.
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Multi-Protocol Power Compatibility: Fully optimized to communicate with Power Delivery (PD 3.0), Quick Charge (QC 3.0), PPS, and major fast-charging profiles across modern ecosystems.
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Comprehensive Multi-Protection System: Built-in intelligent chip framework defends your connected hardware from overvoltage, overcurrent, structural overheating, and short circuits.