Industrial CNC Machine Directory

Colibrium X Line 2000R

$2,000,000 - $4,000,000 Updated 2026-03-14
01

Key Specifications

technology

Laser Powder Bed Fusion (LPBF)

build volume

800 x 400 x 500 mm (31.5 x 15.7 x 19.7 in)

laser configuration

2 x 1,000W fiber lasers

laser overlap

Full-field overlap (both lasers access entire build platform)

layer thickness

30 - 150 um

build rate

Up to 120 cm3/hr

02

Overview

The Colibrium X Line 2000R is the largest laser powder bed fusion (LPBF) metal 3D printer in Colibrium Additive's portfolio, purpose-built for printing large structural components that simply don't fit on standard metal AM platforms. With a massive build volume of 800 x 400 x 500 mm, the X Line 2000R enables aerospace manufacturers, automotive OEMs, and energy companies to print full-size structural brackets, turbine housings, heat exchangers, and chassis components in a single build — parts that would otherwise require welding or bolting multiple smaller printed segments together.

The machine features dual 1,000W fiber lasers, each covering the full build area without zone restrictions. The 1,000W lasers provide significantly faster melt rates than the 400W lasers standard on smaller machines, enabling practical build times on large parts where a quad-400W configuration would still take weeks. The full-field overlap means both lasers can work simultaneously on any section of the build, optimizing scan strategies based on part geometry rather than laser zones. Layer thickness runs from 30 to 150 um, with thicker layers used for bulk geometry and thinner layers for fine features.

The X Line 2000R architecture follows Concept Laser's proven dual-chamber design. The build chamber and powder management chamber are physically separated, which means the machine can be set up for the next build while the previous build is cooling and being unpacked. This reduces effective machine idle time in production environments. The inert atmosphere is maintained at oxygen levels below 50 ppm — tighter than many competitors — critical for reactive metals like titanium. Qualified materials include AlSi10Mg (the most common application), Ti-6Al-4V, Inconel 718, and nickel superalloys.

At roughly $2,000,000-$4,000,000 new, the X Line 2000R is one of the most expensive LPBF systems on the market. It competes with the SLM Solutions NXG XII 600 and Nikon SLM 800 in the large-format production metal AM segment. The machine has seen notable adoption in aerospace (GE Aviation, Safran) and automotive (BMW) for large structural components. For organizations that need to print parts exceeding 250-500 mm in one dimension, the X Line 2000R eliminates the compromises of building on smaller platforms.

03

Full Specifications

Parameter Value
Technology Laser Powder Bed Fusion (LPBF)
Build Volume 800 x 400 x 500 mm (31.5 x 15.7 x 19.7 in)
Laser Configuration 2 x 1,000W fiber lasers
Laser Overlap Full-field overlap (both lasers access entire build platform)
Layer Thickness 30 - 150 um
Build Rate Up to 120 cm3/hr
Beam Diameter 100 - 500 um (variable)
Atmosphere Argon or Nitrogen, O2 < 50 ppm
Supported Materials AlSi10Mg, Ti-6Al-4V, Inconel 718, Nickel superalloys
Powder Handling Automated dual-chamber powder management
Monitoring In-situ melt pool monitoring, layer imaging, full process logging
Architecture Dual-chamber (separate build and powder management chambers)
Control Software Colibrium Additive Build Processor
Machine Weight Approx. 16,000 kg (35,274 lb)
Power Requirements 3-phase 400V, approximately 80 kW
Machine Dimensions Approx. 5,000 x 3,600 x 2,700 mm (197 x 142 x 106 in)
04

Strengths & Limitations

Strengths

  • 800 x 400 x 500 mm build volume is among the largest LPBF platforms available, enabling full-size structural components in a single build
  • Dual 1,000W lasers with full-field overlap provide the melt rate needed for practical build times on large parts
  • Dual-chamber architecture allows setup and unloading while the machine continues building, reducing effective idle time
  • Oxygen control below 50 ppm is tighter than many competitors, critical for reactive titanium alloy processing
  • Proven adoption by major aerospace (GE, Safran) and automotive (BMW) OEMs validates the platform for production applications
  • Eliminates the need to segment large parts into smaller builds and join them, improving structural integrity and reducing post-processing

Limitations

  • $2M-$4M acquisition cost plus facility requirements make this one of the most expensive metal AM investments available
  • Dual 1,000W lasers, while powerful, provide less parallelization than quad-laser systems — very large nested builds of small parts may be faster on multi-laser alternatives
  • Large build volume means long build times (potentially days to weeks), requiring robust process stability and inert gas supply
  • Limited qualified material portfolio compared to smaller machines — primarily optimized for AlSi10Mg and titanium alloys
  • Massive machine footprint and weight (16,000 kg) require significant facility planning, crane access for installation, and reinforced flooring
05

Best For

Aerospace manufacturers printing large structural brackets, housings, and airframe components that exceed 400 mm in at least one dimension Automotive OEMs producing large-format chassis, structural, and powertrain components in aluminum and titanium alloys Energy sector companies printing large turbine components, heat exchangers, and combustion hardware in nickel superalloys Organizations that currently segment large parts across multiple smaller builds and need to print them as single components Defense and space applications requiring large monolithic metal AM parts with full process traceability Advanced manufacturing R&D programs developing next-generation large-scale metal AM applications
06

Frequently Asked Questions

01 What does a Colibrium X Line 2000R cost?

The X Line 2000R typically prices between $2,000,000 and $4,000,000 depending on configuration. Total installed cost including facility preparation, inert gas infrastructure, post-processing equipment, and powder management can exceed $5M.

02 What is the X Line 2000R most commonly used for?

The most common applications are large aerospace structural components in titanium and large automotive parts in AlSi10Mg aluminum. BMW has publicly discussed using the X Line 2000R for series production of roof brackets, and aerospace companies use it for structural airframe and engine components.

03 How long does a typical build take?

Build times vary dramatically based on part volume, layer thickness, and density. A large structural bracket filling a significant portion of the build volume can take 3-7 days. Smaller parts or sparse nesting arrangements build faster. The dual 1,000W lasers help, but large-format builds are inherently time-intensive.

04 How does the X Line 2000R compare to the SLM Solutions NXG XII 600?

The NXG XII 600 offers a larger build volume (600 x 600 x 600 mm vs. 800 x 400 x 500 mm) and up to 12 lasers for higher throughput. The X Line 2000R provides a wider platform (800 mm X) and GE's aerospace qualification heritage. Both target large-format production AM.

05 Can the X Line 2000R process titanium?

Yes. The machine's oxygen control below 50 ppm meets the stringent requirements for reactive titanium alloy processing. Ti-6Al-4V is a qualified material with established process parameters, making the X Line 2000R well-suited for large titanium aerospace components.

07

Videos

X Line 2000R Virtual Tour | GE Additive

X Line 2000R Virtual Tour | GE Additive

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X Line 2000R (DMLM)

X Line 2000R (DMLM)

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M Line video

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Spectra H Arcam EBM’s next-generation additive system

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GE Additive's Amp Video with Captions

GE Additive's Amp Video with Captions

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08

Community Discussions

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