FG Wilson Open Type Medium Diesel Generator Sets P501-3

Introducing the Perkins 2000 Series, a powerhouse of performance and reliability designed to meet the demanding needs of various industrial applications. With a minimum rating of 438 kVA / 350 kW and a maximum rating of 500 kVA / 400 kW, this series is engineered to deliver exceptional power while maintaining a commitment to fuel efficiency and low emissions. The Perkins 2000 Series stands as a testament to advanced engineering, ensuring that your operations run smoothly and efficiently.

The Perkins 2000 Series is designed with a premium focus on economic and durable operation. Its advanced engineering ensures that the engines not only perform at high levels but also do so with minimal fuel consumption. This fuel-optimised strategy allows users to reduce operational costs while maximizing productivity. The durability of the Perkins 2000 Series means that you can rely on it for long-term use, minimizing downtime and maintenance expenses.

FG Wilson strategically partners with leading alternator manufacturers, namely FGL and Leroy Somer, globally recognized for their profound power generation expertise. These esteemed brands provide solutions characterized by exceptionally long product life and minimal maintenance requirements. Engineered for superior performance and robust motor starting capability, these alternators are meticulously designed to integrate seamlessly with FG Wilson generator sets, ensuring optimal efficiency and reliability for all power generation needs.

The compact module supports multiple installation options and includes a single digital output for auxiliary power control. Users can customize the module to display text rather than standard icon-based indications, enhancing clarity and communication. It supports a wide range of sensors and temperature inputs and features improved coolant temperature handling with early-warning alerts. The DSE4520MKII also includes alternator imbalance protection to prevent potential damage caused by uneven load distribution.