Engineered 3D Silk-collagen-based Model of Polarized Neural Tissue
Article 2015 en
Authors
KC
Karolina Chwalek
DS
Disha Sood
WC
William L. Cantley
Abstract
1 min read
Despite huge efforts to decipher the anatomy, composition and function of the brain, it remains the least understood organ of the human body. To gain a deeper comprehension of the neural system scientists aim to simplistically reconstruct the tissue by assembling it in vitro from basic building blocks using a tissue engineering approach. Our group developed a tissue-engineered silk and collagen-based 3D brain-like model resembling the white and gray matter of the cortex. The model consists of silk porous sponge, which is pre-seeded with rat brain-derived neurons, immersed in soft collagen matrix. Polarized neuronal outgrowth and network formation is observed with separate axonal and cell body localization. This compartmental architecture allows for the unique development of niches mimicking native neural tissue, thus enabling research on neuronal network assembly, axonal guidance, cell-cell and cell-matrix interactions and electrical functions.
Selene Lomoio, Ravi S. Pandey, Nicolas Rouleau, Beatrice Menicacci, WonHee Kim, William Cantley, Philip G. Haydon, David A. Bennett, Tracy L. Young‐Pearse, Gregory W. Carter, David Kaplan, Giuseppina Tesco
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