Still worrying about the poor processing effect of high anti-materials (copper, aluminium, gold, silver)? Conventional lasers are at a loss when it comes to welding copper with insufficient depth of fusion and low cutting efficiency? GW Laser's high-brightness P series single-mode fiber lasers, covering the power range of 500W~6000W, redefine the new standard of industrial laser processing with four core advantages!

In the field of printing machinery manufacturing, composite materials are increasingly widely used, but the traditional cutting process in the face of rubber + aluminum alloy such as “hard and soft” combination, is often unable to - rubber easy to burn and deformation, aluminum alloy edge burr clusters, the yield of finished products is low, Post-processing is cumbersome, which becomes a pain point that restricts production efficiency and product quality.

In the field of materials processing, ceramic materials have been extremely widely used in electronics, aerospace, automotive, medical and many other industries due to their high hardness, high strength, high temperature and corrosion resistance, as well as good insulating properties. From ceramic substrates in electronic equipment to high-temperature-resistant parts of aircraft engines, ceramic materials are everywhere. However, the hard and brittle characteristics of ceramic materials, so that in the processing process faces many challenges, the traditional processing methods are often difficult to meet the needs of high-precision, high-quality cutting. GW Laser ten years of deep-rooted QCW quasi-continuous fiber laser technology, “ultra-fast modulation + precise energy control” as the core for ceramic cutting to bring a disruptive breakthrough. The subversive breakthrough for ceramics cutting.

The new energy vehicle industry is leading the global green revolution with a thunderous momentum. Its core components - battery electrodes, connectors, motor windings, etc. - are widely made of high-performance materials such as copper and aluminum. Copper with its excellent conductivity to reduce internal resistance, enhance the charging and discharging efficiency; aluminum with lightweight and high strength characteristics, in order to protect the stability of the structure while reducing the weight of the car, extending the range. However, the “high reflectivity” of these materials has become the “Achilles heel” of laser processing.

As global manufacturing accelerates toward intelligent and green transformation, achieving efficient production and sustainable development through technological innovation has become a critical focus for the industry. As the global leader in air-cooled 10kW+ laser technology, GW Laser has redefined the performance boundaries of laser equipment with its revolutionary Active Air Cooling (AAC) technology. From the launch of the 12kW AAC laser in 2023 to the upcoming 20kW flagship model in 2025, GW Laser has not only liberated high-power continuous fiber lasers from reliance on water-cooling systems but also elevated laser thermal management to unprecedented heights.

As HR material adoption grows, achieving high-reliability welding/cutting has become mission-critical. However, laser processing faces inherent challenges: Reflectivity >90%: Causes dual bottlenecks: Low Efficiency: Poor laser absorption → slow processing speed, excessive spatter, unstable weld seams Back-Reflection Damage: Reflected lasers degrade fiber optics and laser cavity components → reduced equipment lifespan

At the forefront of hard and brittle material processing, marble and diamond are widely used in electronics, aerospace, medical and other fields due to their unrivaled hardness and unique properties. However, its super-hard characteristics also bring great challenges to processing, and traditional processing methods are often difficult to meet the demand for high-precision, high-quality cutting. GW Laser QCW quasi-continuous fiber laser opens up a whole new path for cutting hard and brittle materials, and brings an unprecedented processing experience.

As the global laser market rapidly evolves, GW Guanghui Laser seizes the era of import substitution opportunities, leveraging laser processing technology as new quality productive forces. We actively drive technological innovation, diversified applications, global market expansion, and smart services to empower global industrial technological upgrades. Laser cladding technology, an advanced surface treatment method in laser processing, has been widely adopted across industries to address challenges beyond traditional repair techniques. The laser cladding process involves depositing selected coating materials onto substrate surfaces through various feeding methods. Under laser irradiation, both the coating material and a thin substrate layer melt simultaneously, then rapidly solidify to form a surface coating with minimal dilution and metallurgical bonding to the base material. This significantly enhances surface properties including wear resistance, corrosion resistance, heat tolerance, oxidation resistance, and electrical characteristics. The technology finds extensive applications in surface modification, repair & remanufacturing, and rapid prototyping.

Temperatures are plummeting, the cold wave is coming, people need to add clothes, lasers should also pay attention to frost protection. In order to avoid laser damage caused by freezing in the cold winter, GW Laser has prepared a guide to prevent freezing, to ensure that every laser can be safe through the winter.

In modern manufacturing fields such as automobile manufacturing, there are many challenges. Welding process is complex, high welding quality requirements, and is limited by the traditional welding process of labor intensity, human factors and other influences, seriously lead to welding quality instability. At the same time, with the increased demand for customization, the production line needs to have a higher degree of flexibility and efficiency, collaborative robots, with its flexible, efficient and safe characteristics, has become the key to solving the above problems. These robots are able to operate safely in a collaborative environment with humans, significantly improving the flexibility and productivity of the welding process.