Bambu Lab H2D FDM 3D printer

Bambu Lab H2D: Industrial Dual-Nozzle 3D Printer – Redefining Personal and Professional Manufacturing

Bambu Lab H2D is an advanced industrial 3D printer designed for professionals who demand performance, reliability and flexibility. Equipped with two independent heads, it enables multi-material and multi-colour printing using AMS. With its high speed (up to 1000 mm/s), large working volume (350 × 320 × 325 mm), actively heated chamber and compatibility with engineering filaments, the H2D is ideal for prototyping, low-volume production and research and development applications.

Key features

• Dual independent printhead system allowing printing with different materials or colours simultaneously
• AMS compatibility – supports up to 25 colours simultaneously
• Working volume up to 350 × 320 × 325 mm³
• Hotend reaching temperatures up to 350°C and active chamber heating up to 65°C
• Print speed up to 1000 mm/s and acceleration up to 20,000 mm/s²
• Optional modules: 10 W / 40 W laser and digital cutting
• Fully automated calibration – offset, stool, flow
• Sensor system: 36 sensors, 4 cameras (Nozzle, Toolhead, BirdsEye, AI)
• Filtration systems: G3 filter, HEPA H12 and carbon filter
• Advanced AI functions and safety control (EU RED, Class 1)

Expandability

• 10 W or 40 W laser module for engraving and cutting
• Digital cutting module
• Support for up to 12 AMS units (AMS 2 Pro and AMS HT)
• BirdsEye Camera and Air Assist Pump (laser versions)

Frequently asked questions (FAQ)

1. Does the H2D printer support the AMS system?

   Yes. The H2D works with AMS 2 Pro and AMS HT and can support up to 4 AMS 2 Pro units and 8 AMS HT units simultaneously, allowing you to work with up to 24 material slots and one additional external feeder (25 colours in total).

2. What are the thermal parameters for printing with engineering materials?

   The hotend reaches a temperature of up to 350°C, and the working chamber can be actively heated to 65°C. This enables stable printing with materials such as PA, PC, ABS, ASA and CF/GF composites.

3. What are the differences between 10W and 40W lasers?

   The 10W laser can cut plywood up to 5 mm thick and engrave at speeds of up to 400 mm/s. The 40W laser increases the cutting capacity to 15 mm and allows engraving at speeds of up to 1000 mm/s. Both modules support a wide range of materials.

4. Can the basic version of the H2D be upgraded with a laser?

   Yes. The machine can be upgraded with a laser module using the Laser Upgrade Kit. The Full Combo version has a built-in Air Assist pump, while the upgrade kit is equipped with an external pump.

5. What materials can be processed with the laser and cutting module?

   The laser (10W and 40W) supports wood, rubber, leather, dark acrylic, sheet metal and stone. The cutting module allows you to cut vinyl, paper, leather and materials up to 0.5 mm thick.

6. How fast is the tool head in the H2D?

   The printer achieves a maximum head movement speed of 1000 mm/s and acceleration of up to 20,000 mm/s². Precise printing with the High-Flow hotend can be performed at speeds of up to 600 mm/s.

7. Are hotends from other Bambu Lab models compatible?

   The H2D hotend is structurally different from the A1 or X1C series. To maintain durability and ideal flow, the manufacturer recommends using hotends dedicated to the H2D.

8. How many sensors monitor the printer’s operation?

   The H2D uses 36 sensors, including 15 that analyse the filament from the AMS to the nozzle. In addition, the artificial intelligence system works with cameras in real time to detect errors and deviations in the printing process.

9. Does the printer require a USB drive to operate?

   Printing can be started without a USB drive, but some functions – such as timelapse recording, LAN mode or log recording – require a FAT32 or exFAT USB drive to be connected.

10. What is the laser safety class of the H2D?

    The laser version of the H2D meets Class 1 requirements, which means the highest level of safety. Special covers and sensors ensure safe operation of the device when the chamber is closed.