Eaton 9395P 300 kVA (#9858)

Eaton 9395P High Performance UPS

Eaton's Power Xpert 9395P UPS builds on the reputation of reliability of the Eaton 9395 UPS family with up to 20 percent more power than the original Power Xpert 9395, all within the same footprint. The 9395P’s three-level converter topology operates components at less than half the stress of a conventional converter, which reduces energy losses and allows for higher power efficiency. The cost reduction is so great that replacing an older generation UPS with a Power Xpert 9395P UPS allows you to pay back the price of the UPS in 2 to 3 years.

Key Features

• Low total-cost-of-ownership (TCO) through industryleading efficiency: 99 percent in Energy Saver System (ESS) and up to 97 percent in double- conversion
• Less stress on key components, greatly extending their life through the implementation of a three-level converter design
• Capacity can flex to meet data center growth by adding an additional UPM in the field
• Significantly reduces HVAC and operating costs by producing 33 percent less heat
• Up to 20 percent more power in the same footprint as the flagship 9395 UPS (250 kW to 300 kW power module) that powers up to 20 percent more IT racks
• Modular design allows for inherent redundancy, a critical feature that prevents dropped loads

Key Applications

• Enterprise data centers
• Colocation facilities
• Server farms
• Telecommunication installations
• Internet service providers
• Transportation systems
• Security operations
• Broadcasting and entertainment
• Process control equipment
• Financial systems
• Healthcare
• Industrial systems
• Multiple medical imaging units

How is Higher Efficiency Achieved?

The new 9395P High Performance UPS uses a three-level converter topology, which reduces energy losses and allows higher power efficiency. This design operates components at less than half the stress of a conventional converter. Additionally, other components are smaller and more efficient than conventional technology.

As a result, you can receive:

• Greater light-load efficiency
• Smaller, lighter and quieter circuitry
• Lower heat levels
• Quieter fans
• Less stress on each component
• Additional control of the output waveform that is sent to the critical loads