Super Flower Leadex VII XP PRO 1000W 80+ Platinum, Cybenetics Platinum, Full Modular, ATX 3.1 & PCIe 5.0, W/12VHPWR (2x8pin-16pin Native Cables), FDB Fan, SF-1000F14XP, Black

The Super Flower Leadex VII XP PRO 1000W (model SF-1000F14XP) is a high-performance fully modular ATX power supply designed to meet the demands of modern high-end PC builds. Carrying both the 80 Plus Platinum and Cybenetics Platinum certifications, it is engineered to deliver consistent, efficient power delivery under a range of real-world load conditions. Built to the ATX 3.1 specification and fully compatible with PCIe 5.0 graphics cards, the Leadex VII XP PRO 1000W ships with a native 12VHPWR cable (2x8-pin to 16-pin configuration) — providing a clean, low-resistance connection to the most current GPU generation without the need for adapter dongles. The fully modular cable design means unused cables stay out of the chassis entirely, supporting cleaner airflow and easier cable management in any build. Cooling is handled by a 140mm fluid dynamic bearing (FDB) fan featuring a unique 9-blade design. The FDB mechanism is intended to extend fan longevity while maintaining precise RPM control, helping keep acoustic output low even under sustained load. Colour: Black. Verifiable Specifications: • Model: SF-1000F14XP • Rated output: 1000W • Form factor: ATX 3.1 • Efficiency certification: 80 Plus Platinum • Efficiency certification: Cybenetics Platinum • Modular: Fully modular • GPU power connector: 12VHPWR (2x8-pin to 16-pin native cable included) • PCIe standard support: PCIe 5.0 • Fan size: 140mm • Fan bearing: Fluid Dynamic Bearing (FDB) • Fan blade count: 9 • GTIN/EAN: 4711213446764 • Colour: Black The Leadex VII XP PRO 1000W is well suited to builds centred on current-generation discrete GPUs that carry high transient power demands, where ATX 3.1 compliance and a native 12VHPWR connection are meaningful practical advantages. Its dual efficiency certifications provide independently verified assurance that the unit operates at rated efficiency levels across its load range