Mastrex MX-220 Metal 3D Printer

MX-220
Dual-Laser LPBF Metal 3D Printing for Production Training
Mastrex MX-220 dual-laser LPBF metal 3D printer
Mastrex MX-220 Metal 3D Printer

The Mastrex MX-220 is a production-ready Laser Powder Bed Fusion (LPBF) metal 3D printer for advanced manufacturing education, applied research, prototyping, and industrial workforce training. Its 8.66 × 5.51 × 7.87-inch build volume and two independent 500 W lasers provide greater throughput for larger parts and multi-part builds.

Learners can practice production-oriented workflows that include build preparation, dual-laser operation, powder recovery, depowdering, part removal, post-processing, inspection, and process documentation. Tech-Labs provides the MX-220 as a training solution manufactured by Mastrex.

Dual-Laser LPBF Platform

Introduce learners to coordinated multi-laser processing using two independent lasers that cover the full build area.

Production-Focused Throughput

Use a larger build volume and increased build rate to support batch planning, workflow analysis, and production-oriented projects.

Advanced Process Learning

Explore how scan coordination, calibration, build layout, material selection, and post-processing influence part quality and consistency.

Prepare learners for higher-throughput metal additive manufacturing with a dual-laser LPBF system.

Hands-On Metal Additive Manufacturing Skills

When supported by the program's curriculum and operating procedures, the MX-220 can help learners develop skills in:

  • Explaining LPBF technology and the role of multi-laser processing
  • Preparing and reviewing production-oriented metal additive build jobs
  • Planning larger parts and multi-part layouts within the build area
  • Configuring, operating, and monitoring a dual-laser LPBF system
  • Explaining laser coordination, calibration, and overlap considerations
  • Relating layer height, beam diameter, build rate, and scan speed to production goals
  • Planning powder recovery, depowdering, part removal, and heat treatment
  • Inspecting surface finish, dimensional results, and build consistency
  • Documenting process settings, quality checks, and build outcomes
  • Metal additive manufacturing
  • Advanced and industrial manufacturing
  • Manufacturing and mechanical engineering technology
  • Materials science and metallurgy
  • CAD and design for additive manufacturing
  • Aerospace, automotive, energy, and industrial applications
  • Medical-device manufacturing concepts
  • Applied research and process development
  • Production planning and batch-manufacturing instruction
  • Workforce upskilling and industrial training

Dual 500 W Lasers

Two independent lasers cover the full build area, giving instructors a platform for teaching multi-laser operation and higher-throughput processing.

Multi-Laser Scan Coordination

Mastrex uses coordinated scanning and calibration to reduce overlap artifacts and support consistent results across the build platform.

Expanded Build Volume

An 8.66 × 5.51 × 7.87-inch build volume supports larger parts, multi-part layouts, and production-planning exercises.

0.0008–0.0047 in. Layer Range

Instructors can explore how layer thickness affects surface finish, detail, build time, and productivity.

Material Flexibility

Mastrex lists titanium alloy, stainless steel, aluminum, cobalt-chromium alloy, copper alloy, and additional compatible materials.

Integrated Touchscreen Computer

A centralized interface supports machine control, workflow monitoring, instructor demonstrations, and supervised learner operation.

  • Built-in computer with touchscreen
  • Three build plates
  • Tool set
  • Professional on-site installation and training
  • Two-year warranty
  • Lifetime support

Confirm transport, the final configuration, site requirements, electrical service, service scope, and included items with Tech-Labs before installation.

  • Heat-treatment oven: Supports post-build stress relief and application-specific heat-treatment workflows.
  • S400 sieving machine: Supports recovery and reuse of metal powder within an approved material-handling workflow.
  • DPS400 automatic depowdering machine: Uses controlled rotation, vibration, and airflow to remove loose powder from printed parts while reducing manual handling.
  • Powder-collection system: Supports routine printer cleaning with filtration and a stainless-steel collection container.
  • Closed-loop powder-handling system: Connects the printer with sieving and depowdering equipment to support contained powder transfer.

Mastrex identifies professional on-site installation and training as included. Its product page does not identify a packaged academic curriculum, student workbooks, assessments, eLearning library, LMS integration, or credential alignment.

Programs should plan to integrate the MX-220 into their own additive-manufacturing curriculum or confirm additional instructional resources with Tech-Labs during project planning.

The MX-220 combines a production-oriented build volume with two independent 500 W lasers and a higher build rate for advanced training and applied research.


Print Technology
Laser Powder Bed Fusion (LPBF)

Build Volume
8.66 × 5.51 × 7.87 in.

Laser Power
2 × 500 W

Layer Height
0.0008–0.0047 in.

Supported Materials
Titanium alloy, stainless steel, aluminum, cobalt-chromium alloy, copper alloy, and more

Maximum Scan Speed
2 × 23 ft/s

Maximum Build Rate
4.27 in³/h

Laser Beam Diameter
0.0020–0.0047 in.

Machine Dimensions
43.31 × 29.53 × 72.83 in.

Weight
1,102 lb

Voltage
208–480 V

More Information

Product specifications and configuration details should be confirmed with Tech-Labs. Learners should follow institution-approved procedures for metal powder handling, equipment operation, personal protective equipment, housekeeping, and emergency response.

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