芯片实验室系统集成加热的热设计

Petra Streit, J. Nestler, A. Shaporin, R. Schulze, T. Gessner
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引用次数: 7

摘要

在芯片实验室(LoC)系统中加热的瞬态热行为对于需要温度处理的生物过程是重要的。以前已经描述了一个为loc提供集成加热功能的技术平台。为了更好地了解其热动力学的基本机制,我们建立了一个由印刷电路板、胶带、集成加热器和微流控衬底组成的测试系统。本贡献的重点是非集成和集成非线性加热器的瞬态热行为模型的建模及其实验验证。采用有限元法建立了聚合物基体系环境下发热元件的热模型。对整体式和非整体式加热元件的热性能进行了比较。详细描述了由此产生的设计注意事项。此外,对测试组件进行了电学表征和红外摄像机的实验研究,以验证模拟结果。该热模型将成为未来设计优化和稳定控制回路开发的基础。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Thermal design of integrated heating for lab-on-a-chip systems
The transient thermal behavior of heating in a Lab-on-a-Chip (LoC) system is important for biological processes that require temperature treatment. A technology platform for LoCs that provides integrated heating functionality has been previously described. For a better understanding of the underlying mechanisms of its thermal dynamics a test system has been set up consisting of a printed circuit board, adhesive tape, integrated heater and microfluidic substrate. The focus of this contribution is the modelling of a transient thermal behavior model of non-integrated and integrated nonlinear heater and its experimental validation. A thermal model of a heating element in a polymer-based system's environment is developed with Finite Element Method. The thermal performance of both, integrated and non-integrated heating elements, is compared. The resulting design considerations are described in detail. Furthermore, the test assembly is investigated experimentally with electrical characterization of the heaters and by infrared camera to verify the simulation results. The thermal model will be the basis for design optimization and the development of a stable control loop in the future.
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