Microtissues®

Summary

Published in PLOS ONE 13, e0196714 (2018) (2018), this study utilized 3D Petri Dish® micro-molds to generate uniform microtissues for investigating directed fusion of cardiac spheroids into larger heterocellular microtissues enables investigation of cardiac action potential propagation via cardiac fibroblasts. The research demonstrates the value of standardized 3D cell culture models in advancing our understanding of this field.

❤️ Cardiovascular

Directed Fusion of Cardiac Spheroids into Larger Heterocellular Microtissues Enables Investigation of Cardiac Action Potential Propagation Via Cardiac Fibroblasts

PLOS ONE 13, e0196714 (2018), 2018 · Kim, V. Y. et al 2018 Kim, V. Y. et al
Cite as: Citation: Kim, V. Y. et al. Directed Fusion of Cardiac Spheroids into Larger Heterocellular Microtissues Enables Investigation of Cardiac Action Potential Propagation Via Cardiac Fibroblasts. PLOS ONE 13, e0196714 (2018) 2018 doi.org/10.1371/journal.pone.0196714

3D Petri Dish® Application

3D Petri Dish®

Recommended Products

  • 12-256 Spheroid Kit
  • 24-35 Spheroid Kit
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Frequently Asked Questions

How do 3D cardiac microtissues improve heart research?

3D cardiac microtissues enable the study of contractile function, calcium handling, and electrophysiological properties in a format that closely mimics native heart tissue. This is critical for accurate assessment of drug effects and disease modeling.

What products are used for cardiac research?

Microtissues offers several mold formats suitable for cardiac research, including the 12-256 Small Spheroids and 24-35 Large Spheroids configurations, which allow researchers to optimize microtissue size for their specific cardiac applications.

Why are 3D microtissues better than traditional 2D cell cultures?

3D microtissues formed using 3D Petri Dish® micro-molds better recapitulate the complex cell-cell interactions, extracellular matrix organization, and signaling gradients found in living tissues. This leads to more physiologically relevant results compared to growing cells on flat plastic surfaces, where cells often behave differently than they do in the body.