Technical Specifications
Download DatasheetLPBF (Laser Powder Bed Fusion)
1,300 × 1,300 × 1,450 mm (Height Including Build Plate)
20–120 µm
16 × 500 W Maxphotonics Laser; 16 × 1,000 W Maxphotonics Laser; 16 × 500 W IPG Photonics Laser; 16 × 1,000 W IPG Photonics Laser
≤ 10 m/s
70–200 µm
≤ 100 ppm
Fully Sealed Chamber; Automatic Oxygen Monitoring, Recirculating Purification and a Collection Coefficient of ≥ 99%
> 99.9%
0.035–0.2 mm
Titanium Alloys, Aluminum Alloys, Superalloys, Stainless Steels, Mold Steels and More
Application-Specific Parameter Set; User-Editable
Stable Meter-Scale Printing
Engineered for aerospace-grade quality: a 1,300 × 1,300 × 1,450 mm build envelope and 16 synchronously scanning lasers for integrated manufacturing of critical components.
Enhanced Build Quality
Stable bidirectional variable-speed powder recoating with dynamic monitoring and correction, combined with an optimized gas flow, reduces spatter and keeps print quality high.
Meter-Scale Build Capacity
The 1,300 × 1,300 × 1,450 mm build envelope meets the demand for integrated manufacturing of critical components in aerospace, energy and other industries.
Industrial Simplicity, Built-In Safety
A long-life filtration system beyond H13 captures up to 99.9996% of particles; closed-loop powder management handles supply, recycling and sieving automatically for safe, continuous production.
Boosted Production Efficiency
16 Lasers scan synchronously, with several optional scanning strategies for high, consistent build quality at greater efficiency.
3D printed with HBD 1300.
Aerospace Component
Liquid Rocket Engine Model
Motorcycle Frame
Topology-Optimized Frame
Turbine
From powder to finished part in twelve steps.
The entire process runs on a single line with HBD equipment and additional modules.
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Powder Drying
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3D Print Preparation
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Sieving and Suction
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Powder Feeding
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3D Printing
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Depowdering
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Stress Relief
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Removal from the Build Plate
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Support Removal
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Heat Treatment
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Sandblasting
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Grinding









