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作为一种用于移植的冷冻保存技术的玻璃化胰岛纳米升温

Nanowarming of vitrified pancreatic islets as a cryopreservation technology for transplantation.

作者信息

Wakabayashi Taisei, Kaneko Masahiro, Nakai Tomoki, Horie Masanobu, Fujimoto Hiroyuki, Takahashi Masazumi, Tanoue Shota, Ito Akira

机构信息

Department of Chemical Systems Engineering, School of Engineering Nagoya University Nagoya Japan.

Radioisotope Research Center, Agency of Health, Safety and Environment Kyoto University Kyoto Japan.

出版信息

Bioeng Transl Med. 2022 Sep 27;8(4):e10416. doi: 10.1002/btm2.10416. eCollection 2023 Jul.

Abstract

Biobanking of pancreatic islets for transplantation could solve the shortage of donors, and cryopreservation of vitrified islets is a possible approach. However, a technological barrier is rewarming of large volumes both uniformly and rapidly to prevent ice formation due to devitrification. Here, we describe successful recovery of islets from the vitrified state using a volumetric rewarming technology called "nanowarming," which is inductive heating of magnetic nanoparticles under an alternating magnetic field. Convective warming using a 37°C water bath as the gold standard for rewarming of vitrified samples resulted in a decrease in the viability of mouse islets in large volumes (>1 ml) owing to devitrification caused by slow warming. Nanowarming showed uniform and rapid rewarming of vitrified islets in large volumes. The viability of nanowarmed islets was significantly improved and islets transplanted into streptozotocin-induced diabetic mice successfully lowered serum glucose. The results suggest that nanowarming will lead to a breakthrough in biobanking of islets for transplantation.

摘要

用于移植的胰岛生物样本库可以解决供体短缺问题,而玻璃化胰岛的冷冻保存是一种可行的方法。然而,一个技术障碍是如何将大量样本均匀且快速地复温,以防止因失玻璃化而形成冰。在此,我们描述了使用一种名为“纳米复温”的体积复温技术成功地将胰岛从玻璃化状态中恢复,该技术是在交变磁场下对磁性纳米颗粒进行感应加热。使用37°C水浴作为玻璃化样本复温的金标准进行对流复温,由于复温缓慢导致失玻璃化,使得大量(>1毫升)小鼠胰岛的活力下降。纳米复温显示出能对大量玻璃化胰岛进行均匀且快速的复温。纳米复温后的胰岛活力显著提高,并且移植到链脲佐菌素诱导的糖尿病小鼠体内的胰岛成功降低了血糖。结果表明,纳米复温将在用于移植的胰岛生物样本库方面带来突破。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ede9/10354753/36953427884f/BTM2-8-e10416-g004.jpg

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