Materials engineered for Xolography harness two distinct light wavelengths. At their intersection, the activated DCPI triggers precise polymerization for high-resolution outputs at unmatched speeds. These specially formulated materials guarantee true optical transparency, robust mechanical properties, cell-compatible environments, and precisely defined structures.
xoloOne, the ultimate material for resilience, ease of printing, and high precision. Engineered for robust performance, it ensures hassle-free, detailed printing with strong, durable results, ideal for prototyping and several demanding applications.
xoloClear, the first-ever true optical 3D printing material, offering unparalleled clarity and precision for high-quality, transparent printing in lenses, waveguides, and other optical components.
xoloPEGDA, a versatile and biocompatible material optimized for precision and performance in 3D printing. Ideal for creating complex biomedical structures with excellent resolution and mechanical stability.
xoloGelMA, a groundbreaking biocompatible material designed for 3D printing intricate tissue scaffolds and biomedical devices. It offers exceptional cell adhesion and growth support, ensuring precise and reliable results in regenerative medicine.
Dual-Color Photoinitiators (DCPIs) are innovative compounds that transform high viscous materials into Xolography formulations. This dual-wavelength mechanism allows for the creation of complex, high-precision structures by ensuring polymerization only at the intersection of light beams with different wavelengths. DCPIs empower users to develop their own materials and formulations, expanding the potential for customized solutions in various industries, from Biomedical to Optical applications.
375 nm
Unpolar Resins
xoloOne_375
xoloClear_375
2.2 s
2.3 s
375 nm
Polar Resins
xoloPEGDA_375
6.5 s
405 nm
Unpolar & Polar Resins
xoloOne_405
xoloPEGDA_405
11.9 s
10.5 s
375 nm
Water
xoloGelMA
4.1 s
375 nm
Water
xoloGelMA
4.1 s
Recent research in optimizing materials focuses on enhancing mechanical properties and processing efficiencies in 3D printing substances. Innovations include bio-compatible hydrogels for medical applications and refined polymers for optical clarity in imaging. These advancements promise significant strides in healthcare, engineering, and technology. Stay tuned for updates, subscribe to our newsletter, and contact us to discuss your own research ideas!