Vessel Berthing and Mooring

One of the primary applications of Marine Super Arch Fenders is in vessel berthing and mooring operations. When a ship approaches a berth, it needs to be safely guided and secured to prevent collisions or damage to the vessel and the pier. Super Arch Fenders are strategically placed along the quay walls, piers, and dolphins to absorb the kinetic energy generated during the birthing process.

These fenders play a crucial role in reducing impact forces, protecting the ship's hull, and preventing structural damage to the berthing infrastructure. The unique arch shape of these fenders ensures that the vessel slides smoothly into position while being cushioned by the fender's resilient rubber compound.

Port Infrastructure Protection

Marine Super Arch Fenders not only safeguard vessels but also protect the port infrastructure itself. Ports are critical economic hubs, and their structures must endure the constant stress of ships berthing and departing. The impact forces generated during these operations can lead to structural damage and costly repairs.

By deploying Super Arch Fenders, port authorities can extend the lifespan of their infrastructure and reduce maintenance costs. The fenders act as a protective barrier, absorbing energy and preventing physical contact between the ship and the pier. This not only enhances the safety of the port but also ensures its long-term sustainability.

Docking at Oil and Gas Terminals

Oil and gas terminals are particularly sensitive environments due to the presence of flammable materials. Super Arch Fenders find practical applications in these high-risk areas by providing a safe and reliable means for vessels to dock during the loading and unloading of petroleum products and liquefied natural gas (LNG).

These fenders are crucial for preventing accidents, protecting terminal equipment, and ensuring the safe transfer of volatile cargo. Their energy absorption capabilities are especially valuable in these operations, where large tankers and carriers are involved.