Rodrigues Oliveira Sonia M, Rebocho António, Ahmadpour Ehsan, Nissapatorn Veeranoot, de Lourdes Pereira Maria
HMRI-Hunter Medical Research Institute, New Lambton, NSW 2305, Australia.
CICECO-Aveiro Institute of Materials, University of Aveiro, 3810-193 Aveiro, Portugal.
Micromachines (Basel). 2023 Jan 6;14(1):151. doi: 10.3390/mi14010151.
Type 1 (T1DM) is the most common autoimmune chronic disease in young patients. It is caused by the destruction of pancreatic endocrine β-cells that produce insulin in specific areas of the pancreas, known as islets of Langerhans. As a result, the body becomes insulin deficient and hyperglycemic. Complications associated with diabetes are life-threatening and the current standard of care for T1DM consists still of insulin injections. Lifesaving, exogenous insulin replacement is a chronic and costly burden of care for diabetic patients. Alternative therapeutic options have been the focus in these fields. Advances in molecular biology technologies and in microfabrication have enabled promising new therapeutic options. For example, islet transplantation has emerged as an effective treatment to restore the normal regulation of blood glucose in patients with T1DM. However, this technique has been hampered by obstacles, such as limited islet availability, extensive islet apoptosis, and poor islet vascular engraftment. Many of these unsolved issues need to be addressed before a potential cure for T1DM can be a possibility. New technologies like organ-on-a-chip platforms (OoC), multiplexed assessment tools and emergent stem cell approaches promise to enhance therapeutic outcomes. This review will introduce the disorder of type 1 , an overview of advances and challenges in the areas of microfluidic devices, monitoring tools, and prominent use of stem cells, and how they can be linked together to create a viable model for the T1DM treatment. Microfluidic devices like OoC platforms can establish a crucial platform for pathophysiological and pharmacological studies as they recreate the pancreatic environment. Stem cell use opens the possibility to hypothetically generate a limitless number of functional pancreatic cells. Additionally, the integration of stem cells into OoC models may allow personalized or patient-specific therapies.
1型糖尿病(T1DM)是年轻患者中最常见的自身免疫性慢性疾病。它是由胰腺内分泌β细胞被破坏所致,这些β细胞在胰腺的特定区域(即胰岛)产生胰岛素。因此,身体会出现胰岛素缺乏和血糖升高的情况。与糖尿病相关的并发症会危及生命,目前T1DM的标准治疗方法仍然是胰岛素注射。挽救生命的外源性胰岛素替代疗法对糖尿病患者来说是一项长期且昂贵的护理负担。替代治疗方案一直是这些领域的重点。分子生物学技术和微制造技术的进步带来了有前景的新治疗选择。例如,胰岛移植已成为恢复T1DM患者血糖正常调节的有效治疗方法。然而,这项技术受到了诸多障碍的阻碍,如胰岛供应有限、广泛的胰岛凋亡以及胰岛血管植入不佳等。在T1DM有可能找到潜在治愈方法之前,许多这些未解决的问题都需要得到解决。诸如芯片器官平台(OoC)、多重评估工具和新兴干细胞方法等新技术有望提高治疗效果。本综述将介绍1型糖尿病的病症,概述微流控设备、监测工具以及干细胞的突出应用领域的进展和挑战,以及它们如何相互关联以创建一个可行的T1DM治疗模型。像OoC平台这样的微流控设备可以重现胰腺环境,从而为病理生理学和药理学研究建立一个关键平台。干细胞的应用为理论上产生无限数量的功能性胰腺细胞带来了可能性。此外,将干细胞整合到OoC模型中可能会实现个性化或针对患者的治疗。