微流控网络:纯流体动力开关功能的设计和测试

E. Leo, L. Donvito, L. Galluccio, A. Lombardo, G. Morabito
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引用次数: 4

摘要

本文提出了基于纯流体动力微流控开关函数的流体动力控制微流控网络(HCN)范式。HCN范例可以应用于实现可编程微流控设备,例如,仅通过利用流体动力学效应,以可控的方式在微流控网络中传递化学(或生物)样品的芯片实验室(loc)。这种微流体装置预计具有高度的灵活性和廉价,因此与化学/生物分析和合成或廉价传感的替代解决方案相比极具竞争力。文中给出了实现开关功能的微流控电路的设计规则,并通过仿真说明了所提思想的可行性。
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Microfluidic networks: design and test of a pure hydrodynamic switching function
In this paper we propose the Hydrodynamic Controlled microfluidic Network (HCN) paradigm which is based on a purely hydrodynamic microfluidic switching function. The HCN paradigm can be applied to realize programmable microfluidic devices, such as for example Labs-on-a-Chip (LoCs), that by exploiting hydrodynamic effects only, route chemical (or biological) samples in a microfluidic network, in a controlled way. Such microfluidic devices are expected to be highly flexible and inexpensive, and thus to become extremely competitive with alternative solutions for chemical/biological analysis and synthesis or cheap sensing. The paper provides the design rules of the microfluidic circuit implementing the switching function and illustrates through simulations the feasibility of the proposed idea.
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