APPLICATIONS

Solar Power / Marine Infrastructure

🌍 Solutions for the Eco-Friendly Era, Eco Almag

☀️🌊 Why is ECO-Almag Suitable for Solar Power and Marine Infrastructure?

    A Durable and Long-Lasting Structural Material for Harsh Environments

  • Superior Corrosion Resistance
    In solar and marine infrastructure, which are continuously exposed to external elements such as seawater, salt, and UV rays, corrosion resistance is the most critical factor.
    Eco Almag offers more than twice the corrosion resistance of conventional aluminum, enabling long-term structural stability without degradation.
  • High Strength, Lightweight Alloy
    With a steel-level strength of over 320 MPa, yet only one-third the weight, it is optimized for lightweight applications.
    This reduces structural load while simultaneously enhancing construction efficiency and lowering installation costs.
  • Eco-friendly & Recyclable
    Unlike plastic buoys or Styrofoam, it does not generate microplastics and is considered a sustainable solution thanks to its 100% recyclable metal composition. It is also highly trusted by public institutions, having received performance certification from the Ministry of Oceans and Fisheries of Korea and completed application agreements with local governments nationwide.
  • Superior Formability
    It enables precise fabrication into various complex forms such as solar panel supports, buoys, and marine drones. Its capability for integrated molding makes it ideal for high-sealing designs, such as those required to prevent oil leakage.

 Structural material solar panels  

  • Capable of high-precision machining, allowing for design in various angles and structures

  • Solves corrosion issues in outdoor installation environments

  • One-third the weight of steel with superior strength (Almag 320 MPa vs. conventional aluminum 80 MPa)

  • Lightweight structure enhances installation efficiency and reduces maintenance costs

 

Eco-Friendly Marine Buoy – Why Choose Eco Almag?

  • SIZE : 570 X 400 X 400
  • Volume: 64 liters
  • Buoyancy: 639 N
  • Weight: 2.6 kg
  • Buoyancy retention after pressure test: 100%
  • Buoyancy retention after fatigue test: 99.7%
  • Fatigue test: Submerged more than 3 meters in the sea and maintained for over one month
Due to recent policies and regulations aimed at environmental protection, the shift from plastic buoys to metal buoys is accelerating. Many companies have proposed eco-friendly buoys made from recycled plastics, but challenges such as marine organism adhesion and contamination during use make recycling difficult, limiting their practical application. Traditional steel materials are too heavy and suffer from severe corrosion issues, making them unsuitable for marine environments, while conventional aluminum also has limitations in corrosion resistance and strength.

  In contrast, Eco Almag
  • Over 30% lighter than conventional aluminum
  • More than twice the corrosion resistance, resulting in extended lifespan
  • As an eco-friendly metal material that is 100% recyclable,

    it is gaining attention as a next-generation sustainable buoy solution optimized for marine environments.

No more cracking or tearing. Eco Almag delivers strength with superior formability.

Eco-Almag maintains oxidation stability despite increased magnesium content, making it highly suitable for components requiring excellent corrosion resistance, such as in marine environments or unmanned submersibles.

Pure Al strength: 80 MPa

Steel 강도 300MPa

Almag 강도 Almag strength: 320 MPa

🎨 Meaning of color distribution
  Each 3D shape in the image represents the results of the forming analysis, visualized through color distribution.
Each color indicates the level of stress applied to the metal and has the following meaning.
🔴 Red: Stress concentration (risk of failure) – High likelihood of exceeding the material’s strength
🟠 Orange: High stress – Potential for deformation or minor wrinkling
🟢 Green: Stable forming – Stress level appropriate for material characteristics
🔵 Blue: Low stress – Minimal forming impact or presence of excess material

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