LATI materials developed to overcome the limitations of traditional PLA, offering greater mechanical resistance, thermal stability and durability in 3D printing
Bio based, R&D, Sustainability
Bio based, R&D, Sustainabilitybyadmin

Innovation in Materials for Additive Manufacturing

In the 3D printing landscape, polymers such as PLA, ABS and PETg represent the foundation of the most widely used filaments for prototyping and small-series production.
Among these, PLA (polylactic acid) stands out for its ease of use, low cost and renewable origin, but presents technical limitations that reduce its use in industrial or functional applications.

The main weaknesses of conventional PLA include:

  • low thermal resistance (50–55 °C);
  • poor UV stability;
  • vulnerability to hydrolysis and moisture;
  • mechanical brittleness and reduced flexibility.

To overcome these critical issues, LATI3Dlab has developed a high-performance PLA compound for 3D printing, designed to combine the ease of printing of PLA with the robustness and durability of technical polymers.

LATIGEA AM B20 UVH TES/10: an Advanced Technical PLA

The result of LATI’s R&D experience in special compounds for Additive Manufacturing, the new LATIGEA AM B20 UVH TES/10 represents a breakthrough in the field of PLA-based filaments.
This material retains the simple and stable processability typical of PLA, but offers superior performance in every technical area.

Key Features

Property LATIGEA AM B20 UVH TES/10 Performance Advantage over Standard PLA
Processability More fluid and stable filament during printing Fewer defects, better extrusion quality
Mechanical resistance High toughness and flexibility Reduced risk of filament breakage
Dimensional stability Controlled shrinkage and excellent shape retention Geometric precision in printed parts
UV and hydrolytic resistance High stability in outdoor environments Outdoor and technical applications
Thermal resistance (post-treatment) > 100 °C after annealing at 100 °C for a few minutes Double that of conventional PLA
Surface finish Almost invisible layers, excellent colorability Better aesthetics and sandability

Thanks to these properties, LATIGEA AM B20 UVH TES/10 positions itself among the most advanced technical PLA compounds for industrial 3D printing, ideal for applications requiring resistance, stability and durability.

Beyond PLA: New Application Possibilities

The combination of mechanical resistance, thermal stability and aesthetic quality opens the way to PLA applications in sectors previously reserved for more technical polymers.
The high-performance PLA compound for 3D printing can be used for:

  • functional components and mechanical prototypes,
  • structural parts subject to moderate stress,
  • elements for outdoor applications,
  • high-quality aesthetic models,
  • design objects and industrial decorative components.

Furthermore, controlled thermal annealing allows for further increases in thermal and dimensional resistance without compromising surface finish.

Technical PLA and Sustainability

LATIGEA AM B20 UVH TES/10 maintains the bio-based foundation of PLA, derived from renewable sources such as corn starch, offering an ideal balance between performance and environmental sustainability.
Compared to fossil materials, it guarantees:

  • reduction of CO₂ emissions,
  • internal recyclability during processing,
  • absence of halogenated or hazardous substances.

This makes the new compound particularly suitable for companies committed to responsible production and the adoption of sustainable additive technologies.

Conclusion

Discover how the high-performance PLA compound for 3D printing can improve the quality, durability and sustainability of your Additive Manufacturing applications.

Contact LATI3Dlab for technical information or samples: info@lati3dlab.com

FAQ – High-Performance PLA Compound for 3d Printing

  1. What is the difference between standard PLA and technical PLA compound?
    Technical PLA compound maintains the ease of printing of PLA but offers greater thermal resistance, dimensional stability and durability.
  2. Can high-performance PLA be used for industrial applications?
    Yes, thanks to its resistance to heat, moisture and UV, it can also be used for functional and outdoor components.
  3. Is post-printing treatment required to achieve the best performance?
    Yes, brief annealing at 100 °C for a few minutes increases the mechanical and thermal resistance of the printed part.