Space-Saving Design for Angled Ductwork

The Mixed-Flow High-Temperature Fan (Angled Discharge) is a specialized mixed-flow fan featuring a discharge outlet angled at 45° or 60° from the axis. This innovative design allows for exceptionally compact integration directly into angled pipeline systems. It serves as a streamlined replacement for a separate "fan + elbow" combination, making it ideal for tight spaces at high-temperature duct bends or transitions. By eliminating extra components, this fan reduces pressure loss, saves valuable space, and simplifies the overall system in applications such as boiler flue gas systems, dryer bypass ducts, and metallurgical heat recovery circuits.

Robust Construction for Directional Flow

Engineered to efficiently change airflow direction, this Mixed-flow high-temperature fan uses a specially designed angled-flow impeller that forces gas drawn in axially to discharge at a predetermined angled orientation. For durability, impellers are precision-cast from heat-resistant grades such as 304H or 310S, with high-duty models using welded and stress-relieved construction. The casing is a custom angled volute, tailored to match your existing pipeline angle precisely. Driven by a high-temperature-rated motor with customizable specifications (20–300 kW, F-class insulation, IP55 protection), this robust fan is built for reliable, long-term operation.

Efficient Performance in Compact Layouts

Designed for integration into constrained spaces without sacrificing performance, this fan provides a practical solution for directional high-temperature airflow. The table below outlines its key capabilities to assist in optimizing your system design.

Key Performance Parameters

Parameter	Condition	Range / Value
Volume Flow	Hot (Operational)	6,000 - 100,000 m³/h
Total Pressure	Hot (Operational)	600 - 6,500 Pa
Static Pressure	Hot (Operational)	500 - 5,500 Pa
Total Efficiency	Hot (Operational)	76% - 84%
Shaft Power	Hot (Operational)	20 - 300 kW
Total Pressure	Cold (for Test)	Typically 10%-16% higher than Hot