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Mobile Robotic Laser Cladding Equipment GR-6000LD/MB

Dual-Robot Collaborative Laser Cladding Workstation GR-6000LDR/DMC

8-axis Laser Additive Manufacturing Workstation GR-6000LD/AMW

Robot Horizontal Processing Laser Cladding Equipment GR-6000LD/RHM

Robotic Laser Cladding Workstation GR-6000LD/RW

4-axis Desktop Laser Cladding Equipment GR-6000LD/DE

3D Mold Robot Laser Cladding Equipment GR-6000LD/GM

Automotive Mold Robot Laser Quenching Equipment GR-6000LHR/MA

4-axis Linkage Desktop Laser Quenching Equipment GR-6000LH/DE

Inner Hole Cladding Optical Lens GR-50ND

0102030405

3D Mold Laser Quenching Equipment GR-6000LQ.jpg

3D Mold Laser Quenching Equipment GR-6000LQ - Advanced Surface Hardening Solution from China Suppliers & Factory

The 3D Mold Laser Quenching Equipment is a cutting-edge industrial solution from leading China suppliers, designed to transform the surface hardening and strengthening processes for molds, dies, and complex curved components. This advanced system integrates high-power laser technology with intelligent 3D path planning, ensuring precise and localized heat treatment. By enhancing wear resistance, fatigue strength, and the lifespan of critical tools, this equipment maintains the dimensional integrity required in today’s competitive manufacturing landscape. As a premier factory offering state-of-the-art solutions, we are committed to delivering exceptional performance and reliability for your industrial needs.

Product Details

Equipped with a multi-axis robotic arm and dynamic focusing optics, the system effortlessly conforms to complex geometries—including deep cavities, undercuts, and freeform surfaces—ensuring uniform energy distribution and hardness depth.

The laser selectively heats targeted areas to austenitizing temperatures (up to 1500°C) within milliseconds, followed by rapid self-quenching via heat conduction, minimizing distortion and oxidation.

Integrated AI algorithms analyze component geometry in real time, adjusting laser parameters (power, scan speed, spot size) to achieve tailored hardness profiles (50-65 HRC) for diverse materials.

Eliminates traditional quenching media (oil, water), reducing waste and energy consumption by 40% compared to furnace-based methods.

Ideal for Mold Types & Applications

Injection Molds: Strengthen high-wear regions like gates and cores to resist plastic abrasion and chemical corrosion.
Stamping Dies: Enhance edge durability of cutting or forming dies for high-volume sheet metal production.
Die-Casting Molds: Apply heat-resistant coatings to critical zones exposed to molten metal erosion.
Complex Curved Components: Strengthen turbine blades, gears, or biomedical implants with micron-level accuracy.

Industry-Specific Benefits

Automotive: Extend service life of aluminum alloy die-casting molds for engine blocks or transmission housings.
Aerospace: Improve fatigue resistance of titanium alloy turbine blades or landing gear components.
Electronics: Harden micro-features on connectors or semiconductor tooling with sub-millimeter precision.
Consumer Goods: Optimize durability of plastic injection molds for high-gloss surfaces or intricate textures.

Operational Advantages

Reduced Downtime: On-site hardening eliminates disassembly and external processing delays.
Material Versatility: Compatible with tool steels (H13, P20), stainless steels, and superalloys.
Data-Driven Quality: IoT-enabled monitoring tracks process metrics (temperature, hardness) for traceability and repeatability.

Sustainability & Cost Efficiency

By minimizing material waste and energy use, the system aligns with green manufacturing initiatives. Its ability to refurbish worn molds—instead of replacement—lowers lifecycle costs by up to 60%.

Future-Ready Innovation

The equipment supports hybrid additive-subtractive workflows, enabling simultaneous hardening and precision machining for next-gen smart manufacturing lines.

Product Characteristics

6-8 axis linkage motion mode

Large-area welding range

Applicable to molds and various complex curved surface products

Surface quenching and strengthening

Product Parameters

3D mold laser quenching equipment GR-6000LQ
Model	GR-3000LH	GR-4000LH	GR-6000LH	GR-9000LH	GR-12000LH
Laser Power	3kw	4kw	6kw	9kw	12kw
Fiber System	600μm，20m	600μm，20m	600μm，20m	800μm，20m	1000μm，20m
Laser Quenching lens	GR60LQ	GR60LQ	GR60LQ	GR60LQ	GR60LQ
Spot width	5-30mm	5-40mm	5-60mm	5-60mm	5-60mm
Electrical system	Siemens1500	Siemens1500	Siemens1500	Siemens1500	Siemens1500
Motion system	Robot+Positioning machine	Robot+Positioning machine	Robot+Positioning machine	Robot+Positioning machine	Robot+Positioning machine
Auxiliary configuration	Offline programming	Offline programming	Offline programming	Offline programming	Offline programming

Line of Production

3D Mold Laser Quenching Equipment GR-6000LQ (1)

3D Mold Laser Quenching Equipment GR-6000LQ (2)

3D Mold Laser Quenching Equipment GR-6000LQ (3)

3D Mold Laser Quenching Equipment GR-6000LQ (4)

3D Mold Laser Quenching Equipment GR-6000LQ (5)

3D Mold Laser Quenching Equipment GR-6000LQ (6)

Frequently Asked Questions

What materials are compatible with this 3D laser quenching system?

The system is highly versatile and compatible with various tool steels (such as H13 and P20), stainless steels, titanium alloys, and superalloys, making it suitable for automotive, aerospace, and electronics applications.

How does the system achieve uniform energy distribution on complex geometries?

It utilizes a 6-8 axis linkage robotic arm combined with dynamic focusing optics. This configuration allows the laser to follow complex 3D profiles, including deep cavities, undercuts, and freeform surfaces, maintaining precise distance and energy delivery.

What hardness range can be achieved with the laser quenching process?

The equipment can achieve tailored hardness profiles ranging from 50 to 65 HRC, depending on the material composition and the specific requirements of the component being processed.

Why is laser quenching considered more eco-friendly than traditional methods?

Unlike furnace-based methods, laser quenching eliminates the need for chemical quenching media like oil or water. It relies on rapid self-quenching through heat conduction, reducing overall energy consumption and waste by up to 40%.

How does real-time AI integration benefit the hardening process?

Integrated AI algorithms analyze the geometry of the component in real time. They instantly adjust key laser parameters—such as output power, scan speed, and spot size—to ensure optimized and consistent hardness depths without manual intervention.