Hiroyuki Kato
;
Huajian Chen
(National Institute for Materials Science)
;
Kuang-Ming Shang
;
Kenji Izumi
;
Naoya Koba
;
Takanori Tsuchiya
;
Naoki Kawazoe
(National Institute for Materials Science
)
;
Janine Quijano
;
Keiko Omori
;
Chris Orr
;
Meirigeng Qi
;
Hsun Teresa Ku
;
Fouad Kandeel
;
Yu-Chong Tai
;
Guoping Chen
(National Institute for Materials Science
)
;
Hirotake Komatsu
Description:
(abstract)Pancreatic islet transplantation is one of the clinical options for certain types of diabetes. However, difficulty in maintaining islets prior to transplantation limits the clinical expansion of islet transplantations. Our study introduces a dynamic culture platform developed specifically for primary human islets by mimicking the physiological microenvironment, including tissue fluidics and extracellular matrix support. We engineered the dynamic culture system by incorporating our distinctive microwell-patterned porous collagen scaffolds for loading isolated human islets, enabling vertical medium flow through the scaffolds. The physiological microenvironment-mimetic culture platform supported the viability and quality of isolated human islets at high-seeding density.
Rights:
Keyword: pancreatic islets, collagen scaffold, dynamic culture, hypoxia, physiomimetic culture
Date published: 2024-05-14
Publisher: SAGE Publications
Journal:
Funding:
Manuscript type: Publisher's version (Version of record)
MDR DOI:
First published URL: https://doi.org/10.1177/09636897241249556
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Other identifier(s):
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Updated at: 2024-08-05 16:30:28 +0900
Published on MDR: 2024-08-05 16:30:28 +0900
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