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TruPrint 5000 – Specs and Settings

TruPrint 5000 – Specs and Settings

The TRUMPF TruPrint 5000 is a high-end industrial LPBF system featuring three 500 W lasers and preheating of the build chamber to 500 °C – engineered for serial production of metal parts with zero tolerance for distortion and cracking. A Ø 300 × 400 mm build volume, automated powder-handling options and production-cell integration make it well suited to aerospace, energy and tooling.

What it is

The TruPrint 5000 applies laser powder-bed fusion (LPBF) with three fully independent 500 W laser optics each covering the entire build area simultaneously – triple throughput versus single-laser machines. The defining differentiator is integrated preheating to 500 °C: alloys with high carbon or nickel equivalent (tool steels, superalloys) are prone to thermal cracking in conventional LPBF – preheating eliminates the temperature gradient, enabling crack-free direct printing. The system supports full automation: automatic job changeover, a sieving station and a closed powder-handling option that shields the operator from reactive metals such as titanium.

Technical specifications

TechnologyLPBF (Laser Powder Bed Fusion)
Build volumeØ 300 × 400 mm (cylindrical)
Laser system3 × 500 W fiber laser, independent optics with full-field coverage
Preheatingup to 500 °C (standard for tool steels and superalloys)
Layer thickness20 – 100 µm
Class / PriceIndustrial · ~€1,000,000

Applications and industries

  • Serial production of metal parts – three lasers cover the full field in parallel, reducing build time by up to 3× versus single-laser LPBF – economically justified for repeating production batches (Industrial manufacturing and Industry 4.0)
  • Tool steels and crack-sensitive alloys – preheating to 500 °C enables direct LPBF printing of H13, 1.2344 and nickel superalloys without thermal cracking or a separate degassing furnace step (Die and mold manufacturing)
  • Aerospace and energy – heavy nickel and titanium components – combustion chambers, turbine blades, structural parts – with full closed-loop powder handling for reactive materials (Aerospace and energy)

Production workflow

  1. System preparation: load and sieve powder, verify inert atmosphere (O₂ < 0.1 %). Clean powder with correct particle size distribution and controlled atmosphere – prerequisite for defect-free layers.
  2. Start the preheating cycle – bring the platform to the target temperature (typically 200–500 °C depending on material). Uniform temperature throughout the build volume – eliminates temperature gradients that cause cracking and warping.
  3. Execute three-laser alignment: synchronization and focus calibration of each optical head. The three laser fields overlap without banding or defocused zones – guarantees homogeneous density across the full volume.
  4. Start the automated LPBF build process; the system layers, melts and re-coats powder without manual intervention. Continuous, automated build cycle with real-time melt-pool and layer-consistency monitoring.
  5. Post-build: cool down under inert gas, extract parts, separate and recover unused powder. Safe handling of reactive metals; powder recovery reduces material cost.
  6. Thermal treatment (stress-relief anneal or HIP) and machining to final tolerances. Residual stresses are relieved, density reaches > 99.9 %, and surface meets engineering requirements.

Key considerations

Residual stress / distortion – Rapid heating and cooling of each layer builds stresses that warp or crack the part – especially critical in tool steels and thick-section geometries.Enable preheating at 400–500 °C, optimise scan strategy (island / hatch rotation) and design support structures to restrain distortion.
Laser synchronisation – inter-zone banding – Overlap of the three laser fields can create visible banding or density variations if synchronisation is off.Perform full laser calibration (focus, power, positional correction of each optic) before every production run.
Powder safety and contamination – Reactive metals (Ti, Al) form pyrophoric fine powder; cross-contamination between alloys degrades mechanical properties.Use the closed-loop powder-handling option, dedicated modules per alloy and regular batch certification of powder.
High total process cost – Machine time, inert-gas consumables, powder recycling and post-processing make per-part costs significantly higher than conventional manufacturing at low volumes.Justify the investment with geometries inaccessible to subtractive methods (conformal cooling, lattice structures) or materials that cannot be machined conventionally.

Materials and applications

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Conclusion

The TruPrint 5000 sets the standard for high-throughput metal LPBF: three lasers and preheating to 500 °C unlock materials and geometries unreachable by conventional LPBF. It is the right choice for organisations targeting serial production of crack-sensitive or high-temperature alloys with automated, closed powder handling and full production-cell integration.

The full picture

This article is one page from The Big Book of 3D Printing: 704 illustrated pages covering every technology, material and fix in one reference.

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Engineer, author of The Big Book of 3D Printing and additive manufacturing expert

Updated on 5 August 2026

This article was written with AI assistance; the facts were checked against the sources on 5 August 2026.