Laserbekleding: De opkomende kracht die de toekomst van geavanceerde productie vormgeeft

december 30, 2021

In recent years, as the Gemaakt in China 2025 initiative continues to accelerate industrial upgrading, the demand for superior surface performance of key components in high-end equipment manufacturing has reached new heights. Traditional surface treatment methods — such as induction hardening, thermal spraying, peening, and rolling — can no longer meet the stringent requirements of modern precision manufacturing.

Amid this transformation, laserbekleding has emerged as the “universal processing tool” and the “core method of future manufacturing systems.” With its unmatched advantages in precision, adaptability, and efficiency, laserbekleding is becoming a driving force behind China’s manufacturing renaissance.

1. Laser Cladding: A Breakthrough in Surface Engineering

Over the past few decades, laserbekleding technology has evolved from laboratory research into full-scale industrial application. It now spans a wide range of industries — including mining machinery, metallurgy, energy, petrochemicals, power generation, and automotive mold manufacturing.

Unlike conventional coating methods, laserbekleding fuses alloy powders with the substrate using a high-energy laser beam to create a dense, metallurgically bonded coating. This process enhances the component’s wear resistance, corrosion resistance, and heat resistance, thereby extending service life and reducing maintenance costs.

2. Expanding Industrial Applications of Laser Cladding
Mining Machinery

In the mining sector, laserbekleding is widely used for both new part production and the remanufacturing of worn components. For example, in hydraulic support systems and cutting tools, laserbekleding significantly improves surface hardness and corrosion resistance, extending service life in abrasive environments.

Metallurgische industrie

In steel plants and rolling mills, laserbekleding is used to repair worn components on production lines. By restoring original dimensions and surface quality, laserbekleding minimizes component replacement cycles, reduces costs, and increases production efficiency.

Power and Energy

In the power industry, laserbekleding enhances the performance of generator shafts, turbine blades, and boiler water walls — improving resistance to high temperatures and oxidation. For wind turbines and waste incineration plants, laserbekleding provides long-lasting protection against corrosion and heat damage.

Petroleum and Petrochemical Industry

Drill pipes, valves, and pumps in the oil and gas sector operate under extreme pressure and corrosive conditions. Laserbekleding applies a protective coating that resists chemical erosion and mechanical wear, allowing components to function longer and more efficiently.

3. Why Laser Cladding Outperforms Traditional Techniques

Traditional repair and coating methods — such as electroplating, plasma spraying, MIG welding, or thermal spraying — have significant drawbacks. They typically involve large heat-affected zones, leading to deformation, cracks, and heat fatigue.

In tegenstelling, laserbekleding minimizes thermal impact and maintains a dilution rate ≤ 5%, ensuring precision and structural integrity. The metallurgical bond created through laserbekleding prevents layer detachment or cracking — a common failure in electroplating or thermal spraying.

Furthermore, laserbekleding produces coatings with hardness levels of 50–60 HRC, compared to only 30–40 HRC from conventional overlay welding. The resulting surface is smooth, defect-free, and exceptionally durable — ideal for precision components and large-scale industrial repairs. This makes laserbekleding a superior alternative for high-value parts requiring exact dimensional recovery and enhanced reliability.

4. Greenstone-Tech: Driving China’s Laser Cladding Innovation

In an era defined by technological transformation, Greenstone-Tech stands at the forefront of laserbekleding innovation. Guided by its commitment to “self-developed equipment, self-formulated alloy powders, and self-designed cladding processes,” Greenstone-Tech has built a fully integrated ecosystem for laserbekleding technologie.

By investing in R&D and automation, Greenstone-Tech has developed domestically produced, high-speed laserbekleding systems that outperform conventional methods. Its solutions are already being applied by major mining machinery companies — including Zhengzhou Coal Mining Machinery Group, Shaanxi Coal Machinery, and Tongmei Machinery.

The company’s lasercladden met hoge snelheid technology achieves 3–4 times higher efficiency than standard systems, meeting high-volume production demands with faster delivery and improved quality. Components processed with laserbekleding show three times the lifespan of those repaired by traditional methods, offering green, pollution-free, and intelligent manufacturing solutions for China’s industrial future.

5. The Future of Laser Cladding in Advanced Manufacturing

As industrial digitalization and automation deepen, laserbekleding is poised to become an essential pillar of intelligent manufacturing. Its versatility — from precision repair to functional surface enhancement — ensures a growing presence across aerospace, energy, automotive, and heavy equipment industries.

With continued breakthroughs in laserbekleding materials, equipment, and process design, the technology will further reduce manufacturing costs, improve sustainability, and drive global competitiveness.

In this new industrial era, laserbekleding isn’t just a surface treatment — it’s a strategic technology enabling the next generation of high-performance manufacturing.

Graham Luo

Dr. Graham Luo - Senior Engineer, Titanium MIM Specialist Dr. Graham Luo is een erkende autoriteit op het gebied van Metal Injection Molding (MIM), met een gespecialiseerde focus op titaniumlegeringen. Momenteel is hij Senior Engineer bij een Nonferro Metals Research Institute. Hij heeft een Ph.D. van de Helmholtz Association of German Research Centres en heeft gewerkt als postdoctoraal onderzoeker, waardoor hij een grondige theoretische basis heeft en ervaring heeft opgedaan bij vooraanstaande Europese onderzoeksinstellingen. Zijn onderzoek richt zich op de kern van MIM-technologie en concentreert zich op kritieke gebieden zoals de reologie van titaniumgrondstoffen, katalytische/thermische ontslijpprocessen met een laag koolstof/zuurstofgehalte en de...

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