"Advanced 2D CELL culture for improved Phenotype assays"


Aim

To better mimic the in vivo environment of cells in cell culture assays to obtain in vitro experimental results that translate better to a human setting.

Approach

The CELPPLUS team has developed a method for better mimicking the natural environment in cell culture assays by using nanotechnological strategies: Proteins from the cells' natural surroundings were placed in a nanopattern on glass plates as the bottom of the traditional cell culture wells. By mimicking the in vivo environment, the cells can behave more similarly to how they would behave in the human body.

The CELPPLUS project used keratinocytes as a case study, but the methods of mimicking the natural surroundings of cells can be used for basically all cell lines that are studied in the lab.

Outcome

During the two-year project (2021–2023), the CELPPLUS team successfully developed functional cell culture wells with nanopatterned protein surfaces that better recreate the cellular microenvironment. The project demonstrated that recreating key environmental cues can help cells behave more like they do in vivo, improving the physiological relevance of in vitro experiments. The technology provides a platform that can be adapted for many different cell types and has the potential to improve the translation of laboratory findings to clinical research.

Below, you will find a link to the CELPPLUS video recorded at the beginning of the project. You can also read an article on how the CELPPLUS team developed the cell culture wells and what their hopes are for future collaborations on the CELPPLUS assay.

"It’s our aim for the CELPPLUS assay to help researchers make better and more relevant results using cell assays. We hope that the CELPPLUS assay can become a standard assay in both research labs and in the drug discovery pipeline."

 

Duncan Sutherland, Head of the CELPPLUS project

THE CELPPLUS TEAM


Academic team members

  • Duncan Sutherland, Professor, Aaarhus University
  • Claus Johansen, Assoc. Professor, Aaarhus University (Hospital)

Industrial team member

  • Andreas Herchenhan, LEO Pharma

"Cells are social. Inside the body, they interact with each other and their surroundings all the time and they receive a lot of signals that tell them how to behave. As soon as you remove them from the body, the signals changes and so does their behavior.

When we can control the pattern of proteins on the surface of plastic culture wells, we also have control of the signals that the cells sense. In this way, we can control how cells behave in the lab and thus make them better models for the human body."

 

Duncan Sutherland, Head of the CELPPLUS project



ARTICLES FROM THE CELPPLUS PROJECT


  1. Shahrokhtash A et al. 2023. Microplate Format Protein Nanopatterning for High-Throughput Screening of Cellular Microenvironments. Preprint. doi: https://doi.org/10.1101/2023.11.19.567703

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