A Novel 3D Culture Scaffold to Shorten Development Time for Multicellular Tumor Spheroids

Author:

Yang Cian-Ru,Liang Chu-Ting,Tsai Shih-Chieh,Wu Yu-Chun,Liu Ching-Wen,Yang Hui-Hua,Tu Ting-YuanORCID,Lee Yueh-ChunORCID,Hsiao Kuei-YangORCID,Chang Wei-Chun,Ma Wen-LungORCID

Abstract

Multicellular tumor spheroids and tumoroids are considered ideal in vitro models that reflect the features of the tumor microenvironment. Biomimetic components resembling the extracellular matrix form scaffolds to provide structure to 3-dimensional (3D) culture systems, supporting the growth of both spheroids and tumoroids. Although Matrigel has long been used to support 3D culture systems, batch variations, component complexity, and the use of components derived from tumors are complicating factors. To address these issues, we developed the ACD 3D culture system to provide better control and consistency. We evaluated spheroid and tumoroid formation using the ACD 3D culture system, including the assessment of cell viability and cancer marker expression. Under ACD 3D culture conditions, spheroids derived from cancer cell lines exhibited cancer stem cell characteristics, including a sphere-forming size and the expression of stem cell marker genes. The ACD 3D culture system was also able to support patient-derived primary cells and organoid cell cultures, displaying adequate cell growth, appropriate morphology, and resistance to oxaliplatin treatment. These spheroids could also be used for drug screening purposes. In conclusion, the ACD 3D culture system represents an efficient tool for basic cancer research and therapeutic development.

Funder

Taiwan Ministry of Science and Technology

National Health Research Institute

China Medical University/Hospital

Hsing Chung inter-institutional project

Publisher

MDPI AG

Subject

Inorganic Chemistry,Organic Chemistry,Physical and Theoretical Chemistry,Computer Science Applications,Spectroscopy,Molecular Biology,General Medicine,Catalysis

Reference52 articles.

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