Tanaka Yo
Samsung Device Solutions R&D Japan (DSRJ), Samsung Japan Corporation, 2-7 Sugasawa-Cho, Tsurumi-ku, Yokohama, Kanagawa, 230-0027, Japan.
Anal Sci. 2025 Apr 26. doi: 10.1007/s44211-025-00774-0.
The miniaturization of chemical and biochemical sensors using microfluidics has several benefits, including small sample consumption, space reduction, and short analysis time. Polymer is typically the most commonly used material for microfluidic chips owing to its simple fabrication process and low cost, but in this review, glass is focused on as a chip material, because glass is both chemically and physically stable. To fully exploit the advantages and overcome the disadvantages of glass, we have developed ultra-thin glass sheets a few micrometers thick and applied to devices such as valves, pumps, sensors, filters, ultra-thin chips, lenses, micro-object controllers, and electric power generators. In this review, these methods and devices are introduced along with some relevant technologies. Ultra-thin glass and related technologies have possibility to be applied not only for microfluidics but also for electronic components or devices such as advanced semiconductor packaging substrates, wearable devices, flexible displays, and solar batteries.
使用微流体技术实现化学和生化传感器的小型化具有诸多优点,包括样品消耗少、节省空间和分析时间短。由于聚合物的制造工艺简单且成本低,它通常是微流体芯片最常用的材料,但在本综述中,玻璃作为芯片材料受到关注,因为玻璃在化学和物理上都很稳定。为了充分利用玻璃的优点并克服其缺点,我们开发了几微米厚的超薄玻璃板,并将其应用于阀门、泵、传感器、过滤器、超薄芯片、透镜、微物体控制器和发电机等设备。在本综述中,将介绍这些方法和设备以及一些相关技术。超薄玻璃及相关技术不仅有可能应用于微流体领域,还可应用于电子元件或设备,如先进的半导体封装基板、可穿戴设备、柔性显示器和太阳能电池。