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Sandwich-like Microenvironments to Harness Cell/Material Interactions
Published on: August 4, 2015
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Integrative Utilization of Microenvironments, Biomaterials and Computational Techniques for Advanced Tissue
Amir Shamloo1, Negar Mohammadaliha1, Mina Mohseni1
1Center of Excellence in Energy Conversion (CEEC), School of Mechanical Engineering, Sharif University of Technology, P.O. Box 11155-9567, Tehran, Iran.
Journal of Biotechnology
|August 19, 2015
Summary
Integrating microfluidic devices, biomaterials, and computational methods accelerates progress in tissue engineering and regenerative medicine. This approach enables precise control over cellular environments and aids in understanding complex biological processes for better therapeutic outcomes.
Area of Science:
- Biomedical Engineering
- Regenerative Medicine
- Materials Science
Background:
- Tissue engineering and regenerative medicine require precise control over the cellular microenvironment to mimic in vivo conditions.
- Developing artificial extracellular matrices with controllable biochemical and biomechanical cues is essential for successful research.
Purpose of the Study:
- To propose the integrative implementation of microfluidic devices, biomaterials, and computational methods for advancing tissue engineering and regenerative medicine.
- To review the benefits of combining these technologies for addressing complex biological processes.
Main Methods:
- Utilizing microfluidic devices for precise spatial and temporal control of cell microenvironments and biochemical factor gradients.
- Employing natural, synthetic, or engineered biomaterials within microfluidic platforms to construct artificial extracellular matrices.
- Integrating computational methods with experimental platforms to predict, understand, and optimize biological mechanisms and fabrication processes.
Main Results:
- Microfluidic devices offer unparalleled control over cellular microenvironments and biochemical gradients.
- Biomaterials integrated into microfluidic systems facilitate the creation of advanced in vitro models.
- Computational methods enhance the understanding of biological phenomena and optimize experimental designs.
Conclusions:
- The synergistic combination of microfluidics, biomaterials, and computational approaches significantly benefits tissue engineering and regenerative medicine.
- This integrated strategy has shown breakthroughs in understanding neuronal development, cancer cell migration, and blood vessel formation (angiogenesis).
