Why 3D cell culture?

Cells grown in vitro are traditionally grown as 2D monolayers, which are easy to set up and maintain. However, these are often mono-cultures (consisting of only one cell type), lack structural architecture due to the absence of extracellular matrix, and are flat with 50% of their surface exposed to tissue culture medium, rather being surrounded by other cells. Hence, 2D cell cultures are a poor approximation of tissues in living organisms.

Developing a simple, highly-consistent and easy-to-use 3D model therefore holds great promise to reduce the number of costly drug failures in clinical trials, provide a more realistic tumour model in oncology, and generally lead to more useful data and more relevant and successful research. Cancer cells grown in the Mimetix scaffolds establish contacts with each other and are thus closer to an in vivo situation. HepG2 liver cells were cultivated for 21 days in Mimetix plate, fixed, stained with DAPI and b-actin and imaged with the Nikon Eclipse C1 confocal microscope.

Why Mimetix?

  • The thickness of the scaffolds in our tissue-culture plates (50 µm) facilitates microscopic imaging in situ while providing the benefits of 3D cell culture to observe 3D cell morphology and behaviour.
  • Our scaffolds are provided in an easy-to-use, sterile well plate format, which is compatible with standard laboratory liquid handling robotics and automated image analysis equipment, requiring minimal protocol adaption when switching from 2D to 3D.
  • Highly consistent scaffold architecture, leading to very reproducible results in cell-based assays well-to-well and batch-to-batch, minimising experimental variability.


Primary Dermal Fibroblasts / Keratinocytes Co-Culture

Primary human dermal fibroblasts and keratinocytes were cultured on our Mimetix scaffold and analysed by fluorescence microsopy after 24 hours and 7 days.


3D Imaging of Cancer Cells

Confocal fluorescence microscopy is a versatile tool to image cells growing in 3D. This study presents sample images and a Z-stack video of MCF7 breast cancer cells cultured in the Mimetix scaffold.


Neural Stem Cells

The topology of Electrospinning’s scaffold matrix supports the growth of complex cell types, such as neural stem cells, and their differentiation into mature neurons.



HepG2 human liver carcinoma cells are widely-used as a research tool for drug metabolism and toxicity studies. They are easy to culture and readily available in contrast to primary hepatocytes.


Myelination Assay

Our aligned electrospun Mimetix scaffold allows the differentiation of more than 80% of oligodendrocyte precursors into mature oligodendrocytes in 14 days & the production of sheath lengths comparable to in vivo situation within 7 days by 90% of the oligodendrocytes



There is a significant need for more predictive in vitro efficacy assays in oncology to reduce both the number of costly drug failures in clinical trials and the number of animals used in pre-clinical testing.



Cardiomyocytes show a spindle shape with elongated nuclei in the Mimetix scaffold. They respond to antimycin as expected and show almost complete apoptosis in 2h00 (no mitochondrial staining left, annexin positive).