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3D extracellular matrix microenvironment in bioengineered tissue models of primary pediatric and adult brain tumors

Nature Communications, ISSN: 2041-1723, Vol: 10, Issue: 1, Page: 4529
2019
  • 90
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  • 75
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  • 231
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  • 10
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Most Recent Blog

3D Microenvironments to Grow Brain Tumors in Lab

Clinical researchers are constantly thwarted by the inability to quickly and easily try new therapies in tumors and other disease targets. Tumors within the brain are particularly hard to study because of the difficulty with access and the incredible fragility of nearby tissues. Researchers at Tufts University have just developed a way to create an environment that closely mimics that of the brain

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Scientists Create Brain-Mimicking Environment to Grow 3D Tissue Models of Brain Tumours

Medford/Somerville and Boston, MA — A team of Tufts University-led researchers has developed three-dimensional (3D) human tissue culture models of paediatric and adult brain cancers

Article Description

Dynamic alterations in the unique brain extracellular matrix (ECM) are involved in malignant brain tumors. Yet studies of brain ECM roles in tumor cell behavior have been difficult due to lack of access to the human brain. We present a tunable 3D bioengineered brain tissue platform by integrating microenvironmental cues of native brain-derived ECMs and live imaging to systematically evaluate patient-derived brain tumor responses. Using pediatric ependymoma and adult glioblastoma as examples, the 3D brain ECM-containing microenvironment with a balance of cell-cell and cell-matrix interactions supports distinctive phenotypes associated with tumor type-specific and ECM-dependent patterns in the tumor cells’ transcriptomic and release profiles. Label-free metabolic imaging of the composite model structure identifies metabolically distinct sub-populations within a tumor type and captures extracellular lipid-containing droplets with potential implications in drug response. The versatile bioengineered 3D tumor tissue system sets the stage for mechanistic studies deciphering microenvironmental role in brain tumor progression.

Bibliographic Details

Sood, Disha; Tang-Schomer, Min; Pouli, Dimitra; Mizzoni, Craig; Raia, Nicole; Tai, Albert; Arkun, Knarik; Wu, Julian; Black, Lauren D; Scheffler, Bjorn; Georgakoudi, Irene; Steindler, Dennis A; Kaplan, David L

Springer Science and Business Media LLC

Chemistry; Biochemistry, Genetics and Molecular Biology; Physics and Astronomy

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