+
  • FLXRAME-Frame_Type.jpg

Marine Crane Frame: the "flexible and stable installation code" in wind and waves

Classification:


On the turbulent front lines of marine engineering, underwater acoustic array deployment, wind turbine foundation module transfer, and breakwater component placement... every transition from surface to underwater is a battle against force 3-5 winds and waves, salt spray corrosion, and ocean currents. Traditional rigid lifting devices present pain points such as "shake risk," "equipment scratches," and "positioning deviation." However, the offshore-specific lifting frame, with its rigid-flexible combination of "frame load-bearing + sling load-relieving," tames the chaos of offshore lifting.

Product Introduction

On the turbulent front lines of marine engineering, underwater acoustic array deployment, wind turbine foundation module transfer, and breakwater component placement... every transition from surface to underwater is a battle against force 3-5 winds and waves, salt spray corrosion, and ocean currents. Traditional rigid lifting devices present pain points such as "shake risk," "equipment scratches," and "positioning deviation." However, the offshore-specific lifting frame, with its rigid-flexible combination of "frame load-bearing + sling load-relieving," tames the chaos of offshore lifting.

1. A "Rigid and Flexible" Sea-Resistant Structure
▶ Yellow Frame: Marine-Grade "Load-Bearing Core"

Welded from marine-grade corrosion-resistant steel (or lightweight alloy), the surface is sprayed with a fluorocarbon coating and cathodic protection, offering a salt spray corrosion resistance life of over 15 years.

Built-in buoyancy units (hollow tube design) compensate for the underwater buoyancy differences of the hoisted object, reducing the crane load by 30% and providing greater stability in wind and waves.
▶ Green Slings: Flexible "Load-Removing Net"

Material: Ultra-High Molecular Weight Polyethylene (UHMWPE) with UV-resistant coating, 10 times stronger than steel, resistant to seawater and biofouling.

Design: 32 slings are equally spaced (≤1 mm tolerance) to evenly distribute the load. They utilize 15% elastic deformation to absorb surge impacts, and the hoisting swing amplitude is compressed to ±5°. II. "Precise Positioning" for Ocean Scenarios
→ Marine Scientific Research: "Seamless Splicing" of Acoustic Arrays
When hoisting underwater acoustic monitoring modules (each weighing 1-2 tons), the hoist frame uses underwater laser positioning and synchronized tension adjustment of multiple slings to achieve module docking deviation of ≤10 mm, facilitating the rapid construction of an ocean acoustic field monitoring network.
→ Offshore Wind Power: "Wind-Wave Stable Connection" of Foundation Modules
Handling 50-ton prefabricated wind turbine foundation components in force 8 winds and waves. The frame's torsion resistance and sling load relief lock the hoisting tilt to ≤1°, breaking through the "window period" and eliminating the need for weather-dependent offshore construction.
→ Breakwater Construction: "Seamless Depositioning" of Concrete Blocks
Handling 200-ton breakwater concrete modules. Flexible slings adhere to the surface to protect the structure, while the frame maintains a horizontal position. A placement error of ≤5 cm ensures seamless wave resistance for the breakwater.

Keyword:

Feedback