Dual-Piston Design for Superior Performance
The WCBD3 incorporates a dual-piston design that enhances dynamic tensioning and static holding functions. This air and water-cooled combination brake ensures effective energy absorption in high-stress applications.
Externally Water-Cooled for Optimal Thermal Management
The brake features a robust, externally-cooled design that is engineered to handle extremely high thermal loads. This advanced cooling system ensures the brake maintains peak performance in continuous high-slip operations, preventing overheating and extending the brake's service life.
Advanced Fluid Dynamics for Improved Efficiency
The third-generation WCBD3 boasts improved internal design and water flow dynamics, allowing for more efficient cooling and faster energy dissipation. This results in increased thermal capacity, reducing the risk of heat-related failures.
High Energy Absorption
With up to 1000 HP per disc, the WCBD3 is capable of handling extreme energy demands with ease. This feature enables faster tripping times and provides opportunities to downsize the brake without sacrificing performance.
Compact, Self-Supporting Construction
The WCBD3 has a self-supporting structure that eliminates the need for costly support brackets, simplifying installation and reducing overall system costs. The compact design also enhances maintenance efficiency, allowing for quicker rebuilds and reducing maintenance intervals.
The WCBD3 Water-Cooled Brake is available in a variety of sizes to meet the specific requirements of your application. Its compact construction allows for a retrofit to existing water-cooled brake mounting, making it an ideal upgrade option for improving performance.
The Danfoss Airflex WCBD3 Series is ideal for use in drawworks, mooring winches, dynamometers, paper mills, and steel service centers, offering superior dynamic tensioning and static holding for critical industrial applications. Its ability to dissipate extreme thermal loads ensures that it performs reliably in high-energy and continuous slip environments.