HBD 400 3D Printer – Front View
HBD 400 3D Printer – Front-Left View
HBD 400 3D Printer – Front-Right View
HBD 400 3D Printer – Front View
HBD 400 3D Printer – Front-Left View
HBD 400 3D Printer – Front-Right View
HBD

HBD 400

Developed for High-Performance

HBD 400 metal 3D printer features a large build plate and supports the simultaneous use of up to 6 lasers. It incorporates advanced features; offering bidirectional intelligent powder coating, multi-laser scanning, and precise full-plate printing.

LPBF (Laser Powder Bed Fusion)Metal Powders
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The products below are optional but included in the quote for successful operation.

Equipment: SPNA05 Multi-Purpose Forklift, LYL-18ZK Heat Treatment Furnace, YT-9080 Sandblasting Machine, BDL-A5 Nitrogen Generator, HG-AS4080 Grinding Machine, DK7745 Wire Cutting Machine, APM-D400A Powder Sieving Machine, VAC-220 Powder Suction Unit, DZF-90A Powder Drying Oven, HIF 500 Depowdering Station, MTL 451 INERT Z21-007 Vacuum Cleaner, SBW-SG-50KVA Voltage Stabilizer

Modules: Melt Pool Monitoring Module, Laser Seam Stitching Module

Technical Specifications

Download Datasheet

LPBF (Laser Powder Bed Fusion)

350 × 400 × 400 mm (Height Including Build Plate)

20–120 µm

2 × 500 W Maxphotonics Laser; 4 × 500 W Maxphotonics Laser; 6 × 500 W Maxphotonics Laser; 2 × 1,000 W Maxphotonics Laser; 4 × 1,000 W Maxphotonics Laser; 6 × 1,000 W Maxphotonics Laser; 2 × 500 W IPG Photonics Laser; 4 × 500 W IPG Photonics Laser; 6 × 500 W IPG Photonics Laser; 2 × 1,000 W IPG Photonics Laser; 4 × 1,000 W IPG Photonics Laser; 6 × 1,000 W IPG Photonics Laser

≤ 10 m/s

70–80 µm; 140–160 µm (Optional Guangchi II Beam Shaping)

≤ 100 ppm

Fully Sealed Chamber; Automatic Oxygen Monitoring, Recirculating Purification and a Collection Coefficient of ≥ 99%

> 99.9%

0.05–0.2 mm

PTFE-Coated, Self-Cleaning H13 Filter; 99.9% Retention; Filter Life Over 5 Years

HBD AMES – HBD System Machine Control Software and HBD Build Expert Path-Planning Software; Open Parameter Structure

STL

1,900 × 1,650 × 2,300 mm

~ 3,300 kg

500 W: AC 380 V, 50/60 Hz, Peak Power ≤ 14–16 kW, Average Power ≤ 5.5–8.5 kW
1,000 W: AC 380 V, 50/60 Hz, Peak Power ≤ 15–19 kW, Average Power ≤ 6.5–11.5 kW

CE

HBD 316L (Stainless Steel), HBD 15-5PH (Stainless Steel), HBD 17-4PH (Stainless Steel), HBD 18Ni300 (Maraging Steel), HBD 420 (Tool Steel), HBD CX (Tool Steel), HBD AlSi10Mg (Aluminum Alloy), HBD TC4 (Titanium Alloy), HBD TA15 (Titanium Alloy), HBD CoCrMo (Cobalt Alloy), HBD IN718 (Superalloy), HBD IN625 (Superalloy), HBD Hastelloy X (Superalloy), HBD GH99 (Superalloy), HBD GH230 (Superalloy)

The system is an open platform; besides the listed materials, it is also compatible with third-party materials that the machine specifications support. Parameters must be developed separately.

The Most Sustainable Approach to Series Production

With up to 6 fiber lasers of 500 W or 1,000 W, bidirectional recoating in 3 seconds and a 350 × 400 × 400 mm build volume, the HBD 400 offers an efficient platform with permanent filtration for series production at scale.

High-Productivity Configuration

Six precision 500 W or 1,000 W fiber lasers, a smart variable-speed design and bidirectional recoating completed in 3 seconds make an efficient solution for production at scale.

High-Productivity Configuration – HBD 400

Precision Laser Calibration System

Seamless multi-beam stitching; the automatic calibration system achieves 0.05 mm calibration accuracy with a scanning strategy adapted to process conditions.

Precision Laser Calibration System – HBD 400

Long-Life Filtration System

New-generation PTFE-coated filter elements retain 99.9% of 0.3 µm particles to the H13 standard, and self-cleaning extends filter life beyond 5 years.

Long-Life Filtration System – HBD 400

Safe Waste Recovery

An optimized gas flow configuration enables safe, efficient waste recovery in an inert gas atmosphere while maintaining ideal printing conditions.

Safe Waste Recovery – HBD 400

3D printed with HBD 400.

Finned Heat Sink – HBD 400

Finned Heat Sink

Gearbox Housing – HBD 400

Gearbox Housing

Lattice Structural Part – HBD 400

Lattice Structural Part

Motor Housing – HBD 400

Motor Housing

Perforated Lotus Leaf Part – HBD 400

Perforated Lotus Leaf Part

From powder to finished part in twelve steps.

The entire process runs on a single line with HBD equipment and additional modules.

  1. Powder Drying

  2. 3D Print Preparation

  3. Sieving and Suction

  4. Powder Feeding

  5. 3D Printing

  6. Depowdering

  7. Stress Relief

  8. Removal from the Build Plate

  9. Support Removal

  10. Heat Treatment

  11. Sandblasting

  12. Grinding

Compatible Materials

The system is an open platform; besides the listed materials, it is also compatible with third-party materials that the machine specifications support. Parameters must be developed separately.

View All
HBD 316L Stainless Steel
HBD 15-5 PH Stainless Steel
HBD 17-4 PH Stainless Steel
HBD 18Ni300 Maraging Steel
HBD 420 Tool Steel
HBD CX Tool Steel
HBD AlSi10Mg Aluminum Alloy
HBD TC4 Titanium Alloy
HBD TA15 Titanium Alloy
HBD CoCrMo Cobalt Alloy
HBD IN718 Superalloy
HBD IN625 Superalloy
HBD Hastelloy X Superalloy
HBD GH99 Superalloy
HBD GH230 Superalloy