The CELLINK BIO X6 is a state-of-the-art 3D bioprinter designed for advanced tissue engineering and biofabrication. Featuring six interchangeable printheads, it allows simultaneous or sequential printing with multiple bioinks and materials—such as living cells, hydrogels, and polymers—to create complex, tissue-like structures. Its sterile Clean Chamber environment with HEPA-filtered airflow, UV-C sterilization, and temperature-controlled printbed ensures optimal conditions for cell viability and reproducibility. With its precision, flexibility, and multi-material capability, the BIO X6 enables researchers to fabricate sophisticated 3D models for applications in regenerative medicine, drug screening, organoid development, and tissue modeling.

The CELLINK BIONOVA X is a high-resolution, light-based 3D bioprinter that uses digital light projection (DLP) technology to print directly into multi-well plates, enabling efficient, high-throughput bioprinting. It achieves ultra-fine precision with 10 µm XY resolution and 4 µm Z-layer thickness, allowing the fabrication of intricate microstructures that mimic natural tissue architecture. Using a cell-friendly 405 nm LED light source, the BIONOVA X supports live-cell printing with high viability while maintaining exceptional speed and accuracy. Its ability to print directly into standard well-plates streamlines workflows for applications such as tissue engineering, disease modeling, drug discovery, organoid development, and high-throughput biological assays.

The CELLINK LUMEN X is a benchtop, light-based 3D bioprinter that uses digital light projection (DLP) technology to cure bioinks layer by layer with a 405 nm light source, enabling high-resolution and high-precision printing. It delivers fine feature detail with approximately 35 µm XY resolution and supports a range of biomaterials suitable for live-cell applications. With a temperature-controlled environment and autoclavable build platforms, the LUMEN X allows for sterile, consistent bioprinting of intricate scaffolds, vascular networks, and microfluidic structures. Its speed, accuracy, and reproducibility make it an ideal tool for researchers developing advanced tissue models and engineered biological systems.