Kanioura Anastasia, Filippidou Myrto Kyriaki, Tsounidi Dimitra, Petrou Panagiota S, Chatzandroulis Stavros, Tserepi Angeliki
Institute of Nuclear & Radiological Sciences and Technology, Energy & Safety, NCSR "Demokritos", Patriarchou Gregoriou E' and 27 Neapoleos Str., Aghia Paraskevi, Attiki, 15341 Athens, Greece.
Institute of Nanoscience and Nanotechnology, NCSR "Demokritos", Patriarchou Gregoriou E' and 27 Neapoleos Str., 15341 Aghia Paraskevi, Greece.
Micromachines (Basel). 2025 Jun 25;16(7):740. doi: 10.3390/mi16070740.
OoC systems employing human cells mirror the functionality of human organs and faithfully simulate their physiological microfluidic environment. Despite the potential of OoC technology in emulating tissue complexity, a significant gap persists in the continuous real-time monitoring of cellular behaviors and their responses to external stimuli, arising from the lack of biosensors integrated onto OoC microfluidic platforms. Addressing this limitation constitutes the primary objective of this study. By developing and incorporating biosensors onto a modular integrated OoC platform, we aim to enable the monitoring of changes taking place in the cellular environment under various stimuli in real time. An in-series modular integration of a biosensor array into an OoC platform is demonstrated herein, along with its potential to sustain human cell proliferation and accommodate the detection of IL-6, as an example of a mediator protein secreted as part of the immune response to inflammation. The implementation of commercially fabricated PCB components also addresses the issue of cost efficiency and manufacturing scaling-up of sensor-integrated OoCs. This advancement will not only enhance the accuracy and reliability of preclinical studies, but also pave the way for improved drug development and disease treatment.
采用人类细胞的体外器官芯片系统能够反映人体器官的功能,并忠实地模拟其生理微流体环境。尽管体外器官芯片技术在模拟组织复杂性方面具有潜力,但由于缺乏集成在体外器官芯片微流体平台上的生物传感器,在对细胞行为及其对外界刺激的反应进行连续实时监测方面仍存在重大差距。解决这一限制是本研究的主要目标。通过在模块化集成的体外器官芯片平台上开发并整合生物传感器,我们旨在实时监测在各种刺激下细胞环境中发生的变化。本文展示了将生物传感器阵列串联模块化集成到体外器官芯片平台的过程,以及其维持人类细胞增殖和检测白细胞介素-6的潜力,白细胞介素-6是作为对炎症免疫反应一部分而分泌的一种介质蛋白。商业制造的印刷电路板组件的应用也解决了集成传感器的体外器官芯片的成本效益和制造扩大规模的问题。这一进展不仅将提高临床前研究的准确性和可靠性,还将为改进药物开发和疾病治疗铺平道路。