PepGel™ PGmatrix™ Bioink – Versatile 3D Bioprinting Platform
PGmatrix™ Bioink harnesses PepGel’s advanced PGmatrix peptide-nanofiber technology to create physiologically relevant, well-defined, xeno-free 3D microenvironments. It enables precise bioprinting of living cells into both large-scale sheets and microscale constructs while preserving cellular health and function.
Core Technology
- Two-part system: Includes a vial of PGmatrix nanofiber solution and a vial of PGworks trigger solution.
- Native-like ECM: Forms a hydrogel that mimics the in-vivo ECM, supporting natural 3D cell growth and migration.
- Simple handling: All procedures run at room temperature or 37 °C under neutral pH and with no UV light or chemical crosslinkers required.
- Cellular functions: Supports the full range of cellular functions demonstrated with PGmatrix 3D Cells and PGmatrix Stem-X platforms.
- Direct bioprinting: Functions as a standalone bioink for creating large continuous sheets (up to ~2 mm thick) [1-2] or small-scale constructs (<64 mm3) by using inkjet or extrusion bioprinting, or manual pipetting [3-4].
- Hybrid constructs: PGmatrix Bioink can be mixed with high strength structural scaffolds, such as polyethylene glycol (PEG)-based bioink. PGmatrix reproduces the living cell environment while other bioinks supply mechanical strength for complex designs.
- Post-printing infusion: Infuse or perfuse PGmatrix Bioink with cells into pre-printed constructs or decellularized scaffolds.
- Custom combinations: Blend PGmatrix Bioink with other hydrogels or ECM proteins for specialized bioprinting applications.
- PG1006-010-BI, The highly selected bioink for improving cytocompatibility, it can be used alone for bioprinting large sheet (<3 mm thick), dome, 2 mm cube.
- PG1006-010-BI-C, Alternatively, it can be used as a composite bioink when combined with structural bioinks such as PEGDA, GelMA, HAMA for DLP bioprinting of highly complex constructs.
References
- Sun, XS., PGmatrix™ Enables 3D hiPSC Maintenance, Expansion, and Bioprinting, PepGel, PG No. 0002 (2025).
2. Li, Q. and Qi, G., et al. Universal Peptide Hydrogel for Scalable Physiological Formation and Bioprinting of 3D Spheroids from Human Induced Pluripotent Stem Cells. Advanced Functional Materials, 31(2104046). DOI:10.1002/adfm.202104046. (2021)
3. Soltantabar, P. et al., Heart/liver-on-a-chip as a model for the evaluation of cardiotoxicity induced by chemotherapies. Organs-on-a-Chip 3 (2021) 100008. https://doi.org/10.1016/j.ooc.2021.100008 (2021).
4. Qingfu Zhu, Q., et al., 3D-printing enabled micro-assembly of a microfluidic electroporation system for 3D tissue engineering, Lab-on-a- Chip, 2019,19,2362, DOI: 10.1039/c9lc00046a.