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Business For 20 Years
Company Profile
Jiangyin Yoobond New Composite Materials Co., Ltd.

Jiangyin Yoobond New Composite Materials Co., Ltd. is a one-step R&D enterprise for new composite materials. It owns the brands YOOBOND® and优沃星®. The main products include Aluminum Composite Panels, Film Laminated Metal Composite Panels, Stainless Steel Composite Panels Galvanized Steel Composite Panel, and New Composite Panel including Aluminum Honeycomb Composite Panels, Aluminum Core Panels, Aluminum Corrugated Composite Panel and etc., the above panels can meet the national standard of B1 grade flame retardant and A2 grade fire resistant.

Our company pursues the purpose of "Than natural" to make our products more environmental. Strictly in accordance with the requirements of the ISO 14001:2004 environmental management system cutting-edge, new-era products, better provide customers with competitive solutions and products, and successfully designed and built dozens of large and medium-sized engineering projects at home and abroad.

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    20 years R&D experenice in
    composite materials

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    Well sold in more than
    40 countries and regions

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    Cooperate with global
    top 500 enterprises

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    More than 3000 color/patterns
    are available

Certificate Of Honor
  • EN13501 B1 Grade
  • CE certification
  • Certificate of ISO
  • Certificate of ISO
  • Certificate of ISO
  • B1 level test report
  • ASTM
  • ASTM 2
  • AS1530.3
  • A2 grade metal coated panel
  • A2 FR Core Testing
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Metallic Aluminum Composite Material Industry knowledge

How does metallic aluminum composite material compare to traditional aluminum panels?
Metallic aluminum composite material (ACM) differs from traditional aluminum panels in several key aspects. ACM consists of two thin layers of aluminum bonded to a non-aluminum core, typically polyethylene or a fire-resistant material, which provides added properties like insulation and rigidity. This structure makes ACM lighter and easier to handle and install, reducing labor and transportation costs compared to the heavier solid aluminum panels. ACM has a high strength-to-weight ratio and better resistance to bending and deformation, with some core materials offering additional impact resistance. It also provides superior thermal and acoustic insulation, contributing to energy efficiency in buildings. Fire resistance in ACM varies depending on the core material, with fire-rated cores achieving higher standards, whereas traditional aluminum panels, being non-combustible, offer consistent fire performance dependent on coatings or treatments. Aesthetically, ACM offers a wide range of finishes and colors and is easier to shape and curve. In terms of cost, ACM is generally more cost-effective, despite potentially higher initial material costs, due to reduced transportation and installation expenses. Traditional aluminum panels are often used in industrial applications requiring higher strength and rigidity but come with higher costs and handling challenges. Environmentally, ACM can be more challenging to recycle due to its composite structure, while traditional aluminum panels are easier to recycle, benefiting from established aluminum recycling processes. Ultimately, the choice between ACM and traditional aluminum panels depends on specific project requirements, including performance, budget, and environmental considerations.

 

How is the manufacturing process of metallic aluminum composite material evolving?
The manufacturing process of metallic aluminum composite material (ACM) is evolving significantly due to advancements in technology, materials, and sustainability practices. One major area of evolution is the improvement of core materials. Modern ACMs now often feature fire-resistant cores, such as those made from mineral-filled substances, which meet stricter fire safety regulations. Additionally, there is a growing trend towards using eco-friendly core materials that are either recyclable or made from recycled content, reflecting a broader push for sustainability in manufacturing.
Bonding techniques have also seen significant advancements. Enhanced adhesives and bonding agents are now used to create stronger and more durable bonds between the aluminum layers and the core material. The continuous lamination process has become more efficient and consistent, reducing defects and increasing production speeds. Automation and precision play a critical role in this evolution, with automated production lines and advanced robotics ensuring higher precision and consistency. Real-time quality control systems, such as laser measurement and non-destructive testing, are increasingly integrated into the manufacturing process to maintain high product standards.
Surface treatments and coatings are another area of advancement. New coatings, including advanced PVDF and nano-coatings, have been developed to improve the durability, weather resistance, and aesthetic appeal of ACM. These innovative coatings also allow for greater customization in finishes and colors, catering to specific design requirements. Sustainable manufacturing practices are becoming more prevalent, with energy-efficient processes and machinery reducing the carbon footprint of ACM production. Techniques to minimize waste, such as recycling aluminum scrap and optimizing material usage, are also being implemented to make the manufacturing process more environmentally friendly.
Forming and shaping techniques have evolved to allow for more complex and precise designs. Methods such as roll forming and CNC machining enable the production of ACM panels with intricate shapes and enhanced properties, like improved thermal insulation or acoustic dampening. The development of hybrid panels integrating other materials is an emerging trend. Enhanced testing and adherence to updated industry standards ensure that Metallic aluminum composite materials meet higher safety and performance benchmarks, including fire resistance, weatherability, and structural integrity.
Finally, the digitalization of manufacturing processes through Industry 4.0 technologies, such as IoT sensors and data analytics, is revolutionizing ACM production. Smart manufacturing techniques optimize production processes and enable predictive maintenance. The use of digital twin technology, which simulates and optimizes the manufacturing process, reduces trial and error and accelerates innovation. Overall, these advancements aim to enhance the performance, durability, customization options, and environmental friendliness of ACM, aligning with the increasing demands of the construction and design industries.