Extrusion-based bioprinting in practice
Extrusion-based bioprinting methods have been employed in recent years to provide researchers with cost-effective alternative methods for scaffold fabrication. The […]
Modelling in-vivo conditions in-vitro
We offer a range of hydrogel platforms for you that are three dimensional (3D), >95% water and have the same nanoscale matrix structure as human tissue. The gels can be controlled to meet the needs of any given cell type.
Our hydrogels can aid stem cell migration, differentiation, survival and integration. The stiffness of the gel matrix dictates cell fate, with soft gels favouring differentiation towards soft tissue cells (e.g. neuronal, adipose) and rigid gels favouring differentiation towards stiff tissue lineages(e.g. bone, cartilage).
Our products are biocompatible and provides a relevant surface for cell attachment that mimics the extracellular matrix environment with the advantage of offering a reproducible, highly controlled synthetic nanoscaffold system.
We offer you a hydrogel bio-ink, which is available to be used across all 3D printing platforms, including extrusion, inkjet and laser assisted. With Biogelx bio-ink you have the ability to accurately bio-fabricate biologically relevant 3D structures which are essential to achieve life-like function.
Biogelx’s range of entirely synthetic biocompatible hydrogels are free from animal derived components and are therefore ideally suited to serve as a biomaterial for cell therapy and tissue-engineering applications. Our peptide hydrogels are injectable and can be formulated as injectable cell scaffolds or drug delivery depots.
Extrusion-based bioprinting methods have been employed in recent years to provide researchers with cost-effective alternative methods for scaffold fabrication. The […]
In many respects, 3D biofabrication remains a young area of research, facing many of the same barriers to entry as […]
The future of drug screening, disease modeling, and precision medicine. In the last few decades, both high-throughput screening and three-dimensional […]