Microfluidic technology offers sensitive detection with higher throughput, as well as reduced time and costs. For personalized cancer treatment, tumor composition and drug sensitivities are very important.

微流控（Microfluidics），是一种精确控制和操控微尺度流体，尤其特指亚微米结构的技术，又称其为芯片实验室(Lab-on-a-Chip)或 微流控芯片 技术。是把生物、化学、医学分析过程的样品制备、反应、分离、检测等基本操作单元集成到一块微米尺度的芯片上，自动完成分析全过程。

① 微流控芯片 （microfluidic chip）是当前 微全分析系统 （Miniaturized Total Analysis Systems）发展的热点领域。 微流控芯片 分析以芯片为操作平台, 同时以 分析化学 为基础,以微机电加工技术为依托,以微管道网络为结构特征,以生命科学为目前主要应用对象，是当前 微 ...

2025年1月16日 · Microfluidic devices can reduce reagent consumption, allow well controlled mixing and particle manipulation, integrate and automate multiple assays (known as...

2006年7月26日 · A microfluidic system must have a series of generic components: a method of introducing reagents and samples (probably as fluids, although ideally with the option to use powders);...

2020年11月10日 · Microfluidics has become a mature technology, providing an excellent toolbox for the handling and manipulation of fluid samples, suspended cells, and particles. About 30 years ago, the first microfluidic devices aimed mainly at miniaturizing analytical methods, particularly for improving the separation of analytes.

6 小时之前 · In recent years, microfluidic systems have evolved to incorporate increasingly complex multi-layer and multi-material structures. While conventional 2-dimensional microfluidic systems are ...

2022年1月1日 · Microfluidic systems help in transport of fluid with volumes varying from microliters to femtoliters in channels that are typically imprinted on the surface of a substrate and in certain cases may be fabricate directly on the substrate of glass.

Microfluidics have been defined in terms of microliter volumes or micrometer dimensions of channels. For this review, we utilize the latter definition, where microfluidic channels range from 1–1000 μm in width or height. Microfluidic devices are fabricated in a host of ways, with a large variety of materials.

Microfluidic design considerations play a critical role in the effectiveness and functionality of microfluidic devices. These devices are not just pieces of technology but are intricate systems that require careful planning and execution. The design choices made can significantly impact fluid behavior, reliability, and potential applications.