What are CFRP Fan?
CFRP, a composite of carbon fibers and a polymer matrix, achieves a remarkable balance of strength, lightness, and durability. This makes it a superior material for numerous demanding uses.
The innovative aerodynamic design, combined with aerospace-grade carbon fibre materials and advanced resin systems, delivers a return on investment (ROI) within one year or less. This performance spans across electrical, thermal, and mechanical energy savings. Additionally, it ensures extended operational life and exceptional efficiency of axial flow fans, while minimizing maintenance costs. The enhanced durability of rotary components—such as gearboxes, shaft assemblies, motors, and pulley drives—further adds value, offering significant long-term benefits to customers.
ENCON's Reliablades are specifically crafted for heavy-duty industrial use.
At ENCON, we don’t believe in a one-size-fits-all approach. Each blade profile you see here is designed to meet specific performance and environmental requirements.
The improved aerofoil shape enhances efficiency, leading to greater energy savings that clients can utilize to achieve better cooling performance, if desired.
Our Failure rate is 0.0025 % across our 5,58,000 + Installations across 45 countries!
Using Formosa (Germany & Taiwan) C-Glass Multiaxial Fiber Glass Systems, the end product experiences
Using Huntsman Advanced (Europe) & Aditya Birla Chemicals (India) Epoxy Resin Systems, the end product experiences:
Resin Transfer Molding: The Foundation of Strength, Efficiency & Quality
As the data reveals, Carbon Fiber possesses a considerably superior ability to withstand pulling forces. In fact, our analysis shows that carbon fiber is over 60% stronger than Glass Fiber in this critical performance metric
Encon’s latest innovation in fan blade technology— Carbon Fibre Blades—offers cutting-edge advantages that deliver efficiency, durability, and performance like never before
Tensile Strength: Up to 1100 MPa – higher than steel
Density: Only ~1.6 g/cm³ – nearly 5x lighter than steel
Thermal Stability: Low thermal expansion ensures dimensional stability in varying temperatures
Aerodynamic Blade Design:
Analysis reveals that Carbon Fiber (up to 216.29 N/mm²) offers substantially greater resistance to shear stress than Glass Fiber (152.39 N/mm²). This makes Carbon Fiber the preferred material for components subjected to high-speed rotation
These blades are engineered for performance, longevity, and efficiency—setting a new industry standard.
High-Speed Rotation: CFRP fan operate at high speeds, subjecting their blades to significant twisting and shearing forces
Shear Strength Importance: Higher shear strength means the fan blades can better withstand these forces without deforming or failing.
Durability and Reliability: This is crucial for maintaining the fan's performance, efficiency, and longevity, especially in demanding industrial applications
CFRP fan are engineered for reliability in harsh industries:
Power Plants: CFRP fan enhance cooling tower efficiency with lightweight blades and withstand corrosive gases in boiler systems.
Refineries: These fans improve heat exchange processes and operate effectively in environments with high-temperature vapors.
Cement Industry: CFRP fan manage extreme heat in kiln exhaust systems and support crucial processes like clinker cooling and dust collection.
Mining: CFRP fan ensure effective ventilation for underground air quality and are built to endure abrasive particles.
Challenge: Turkish Refinery's existing CT fan (Fan No.560K001B) was underperforming, requiring significant energy consumption (253.44 kW)
Solution: Installation of a new ENCON CFRP fan (Model No. ENC-00401-80, Diameter 10363mm, 8 Blades) with optimized blade angle
Result –
Increased Airflow: New fan achieved 770.73 CMS, a 2.47% increase from the old fan's 752.19 CMS.
Significant Power Reduction: New fan consumed only 159.95 kW, resulting in a 36.89% reduction in power consumption
Even Greater Potential Savings (Maintaining Old Airflow): Analysis showed that maintaining the old airflow with the new fan would only require 146.71 kW, leading to a potential 42.11% power reduction
Empowering a Greener, More Efficient Tomorrow.