Year: 2024
Type: article
Abstract: The human brain, a complex organ pivotal to the nervous system, orchestrates crucial functions for cognition and behavior.This research advances 3D brain cell modeling, overcoming traditional limitations.While mouse models present challenges in translatability to human brains, the evolution from non-invasive imaging to 3D culture models, specifically brain organoids, holds promise for understanding neurological disorders.Current limitations in 3D brain cell models, particularly the use of pluripotent stem cells, include high costs, extended development times, and a notable failure rate.In response, this study introduces a novel approach utilizing glial and neuron cells, significantly reducing costs and development time while maintaining a low failure rate.Experimental results demonstrate the successful creation and differentiation of 3D brain models, addressing key limitations.The developed mini-brain model, sustained for 21 days, exhibits resilience and responds differentially to glucose treatment, suggesting potential implications for brain morphology.Cell viability assessments confirm the predominantly live nature of the model, providing a foundation for future investigations.While limitations include a focus on two cell types and 21 days, future endeavors aim to diversify cell types and extend the maturation period.This research marks a significant stride in cost-effective, efficient, and ethical 3D brain modeling, laying the groundwork for continued exploration and comparison with established brain models.
DOI: 10.36838/v6i9.9
Author: Hailey Sung
Language: English
Subfield: Biomedical Engineering
Field: Engineering
Domain: Physical Sciences
Open Access status: bronze
OpenAlex ID: W4406906378