Marine Fender Panel
This engineering plastic cladding system provides highly efficient impact cushioning and abrasion-resistant protection for port terminals, berth walls, floating docks, and ship contact surfaces. Made of ultra-high molecular weight polyethylene (UHMW-PE), it exhibits superior impact resistance, abrasion resistance, weather resistance, and low friction properties in marine engineering environments.
It effectively reduces energy transfer during collisions between the ship and the dock, protecting the hull, dock concrete, and other structures from damage, while extending the service life of the fender system and reducing maintenance costs.
KEY ADVANTAGES
Superior Wear and Impact Resistance
Possesses extremely high wear resistance and impact absorption capacity, capable of withstanding the high-energy impacts of frequent berthing by heavy vessels without cracking.
Extremely Low Coefficient of Friction
The extremely low friction surface (0.10-0.15) allows for smooth hull sliding during berthing and unberthing, effectively reducing friction damage, hull scratches, and shear forces on the fender system.
Resistant to Saltwater Corrosion and Weathering
Suitable for prolonged exposure in marine environments, 100% resistant to salt spray, humidity, and strong ultraviolet radiation; it will not rust or rot.
Resistant to Marine Organisms
The dense material and chemically stable properties provide natural resistance to marine borers and other organisms, preventing biodegradation or biofouling like wood or metal.
Lightweight and Easy to Process and Install
Weighing only 1/8 of steel, it can be precisely CNC-cut, pre-drilled, and chamfered according to project designs, significantly reducing installation difficulty and labor costs.
100% Virgin Material Guarantee
We insist on using virgin polymer resins, ensuring a molecular weight of 4.5 million to 9 million, and refuse to use easily brittle recycled materials to ensure safety under extreme working conditions.
INDUSTRIES & APPLICATIONS
Fender system components
Dedicated ship protection
Floating docks and approach bridges
Bridge and offshore structure edges
Port and berth structures
MATERIAL COMPARISON
CUSTOMIZATION & SERVICES
Customizable Colors
A variety of custom colors are available (black, yellow, blue, green, white) to meet warning, safety marking, or corporate branding requirements.
Precision Machining
We offer CNC stepped hole and countersunk hole pre-drilling services to ensure a perfect match with steel structures or rubber fenders.
Edge Finishing
Professional chamfering solutions prevent snagging on ship sides and subsequent plate detachment.
Asset Management
Laser engraving of logos, numbers, or asset serial numbers is available for convenient port maintenance and management.
Engineering Design Support
We provide comprehensive engineering design support to ensure a perfect match between UHMW-PE fender panels and your port structure, providing the optimal protection solution.
FAQ
Q: Why are black fender linings the most popular choice in dock engineering?
A: Black fender linings are fortified with high-quality carbon black, offering the strongest UV resistance and the longest lifespan in harbor environments with prolonged exposure to strong sunlight.
Q: How are fender linings secured to existing dock structures?
A: Typically, stainless steel countersunk bolts are used. We can pre-machine countersunk holes according to your structural drawings, ensuring the bolt heads are hidden below the fender surface to avoid scratching the hull.
Q: Does UHMW-PE material generate static electricity or sparks?
A: UHMW-PE has excellent impact and spark resistance, making it a safer choice than steel fenders for locations with extremely high fire and explosion protection requirements, such as oil and gas terminals.
Q: What is the difference between UHMW-PE and HDPE?
A: UHMW-PE (ultra-high molecular weight polyethylene) has a much higher molecular weight than HDPE (high-density polyethylene), typically above 4.5 million. This gives it superior abrasion resistance, impact resistance, and self-lubricating properties, making it particularly suitable for high-wear, high-impact marine engineering environments.
