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The CellJet Cell Printer incorporates Digilab’s proprietary liquid dispensing technology, offering both on-the-fly and drop-by-drop non-contact cell printing while maintaining the viability of even the most delicate cells, matched by none.
SERVING SCIENCE & TECHNOLOGY
Digilab signs distribution agreement with Zyomic Technologies for Zyomic to distribute Digilab products in N. America.
SAMPLE. SCIENCE. SOLUTIONS.
Digilab opens demo lab at Northeastern University in Boston, MA.
Digilab partners with Open-Photonics to further develop Raman spectroscopy product offerings
Digilab Partners with Repco for Repco to offer 3rd party service on Digilab products in the USA
The scientists at Digilab have a wealth of 2D & 3D printing, tissue engineering, cell seeding, genomic & protein analysis and nano-liter dispensing application-based expertise that they would like to share with you.
Whether you are involved in the life science or biotechnology research community, our products will enable you to perform complex, high volume experiments at a lower cost and in less time than traditional techniques. You achieve rapid and less expensive drug discovery.
Embryonic stem cells ESCs are pluripotent with multilineage potential to differentiate into virtually all cell types in the organism and thus hold a great promise for cell therapy and regenerative medicine. In vitro differentiation of ESCs starts with a phase known as embryoid body EB formation. EB mimics the early stages of embryogenesis and plays an essential role in ESC differentiation in vitro. EB uniformity and size are critical parameters that directly influence the phenotype expression of ESCs. Various methods have been developed to form EBs, which involve natural aggregation of cells. However, challenges persist to form EBs with controlled size, shape, and uniformity in a reproducible manner. The current hanging-drop methods are labor intensive and time consuming. In this study, we report an approach to form controllable, uniform-sized EBs by integrating bioprinting technologies with the existing hanging-drop method. The approach presented here is simple, robust, and rapid. We present significantly enhanced EB size uniformity compared to the conventional manual hanging-drop method.
© 2011 American Institute of Physics. doi:10.1063/1.3580752