本研究提出的快速微流體分餾與偵測晶片和系統提供了一種創新的，低成本的，並可在食品工業中實現檢測處理的簡單方法。這項研究證明了相對方便和快速的微流體晶片系統可以提高檢測效率。高效率的檢測系統可以提供更多樣化的檢測服務，以提高食品的安全性。
本研究中使用商用CO 2雷射加工系統來燒蝕在壓克力和玻璃基板的微流道。本研究中提出離焦的雷射束改善微流道表面粗糙度。CO2離焦雷射燒蝕技術是一種低成本的方法，可以在壓克力基板和玻璃基板上快速加工微流體裝置。此外，CO2雷射燒蝕具有低成本大量生產一次性的微流體晶片的潛力，可以應用各式的生物，化學和醫療用途。
相比傳統的蒸餾系統，在這項研究中提出的蒸餾晶片具有許多優點，包括少量樣本/試劑量需求、簡單的結構、簡單的操作過程，以及較低的成本。實驗結果表明，所提出的二氧化硫蒸餾晶片上系統實現了高達94％的蒸餾效率。此外，由那些使用商業大型系統獲得二氧化硫濃度的測量誤差不超過8.6％。同樣地，所提出的甲醇蒸餾晶片上系統實現了高達96％的蒸餾效率和其誤差不超過3％。在本研究中提出五個檢測晶片（Mks. I〜V）。Mk. I型晶片包括一個混合器，而Mk. II型晶片有兩個混合器，避免了檢測流程中額外的混合設備。Mk. III和IV型晶可以直接插入分光光度計進行檢測。Mk. V型晶片是一種具有可執行多次混合的微流體晶片，並同時可執行六到十個檢測試驗。快速晶片偵測系統包括:空氣壓力進液系統與包括一空氣壓力注射器模組和一個簡單的LED/光電二極體檢測模組。

The rapid microfluidic distillation/detection chips and systems proposed in this study provide an innovative, low-cost and straightforward means of achieving detection processes in the food industry. Relative convenient and fast microchip system still can improve the detecting efficiency, and it is proved in this study. High efficiency in detecting establishments can offer more number of service to maintain the food safety.
This study has used a commercial CO2 laser machining system to ablate microchannels on PMMA and glass substrates. The defocused laser beam technology can significant improvement in the surface roughness. The results presented in this study have confirmed that CO2 laser ablation represents a low cost and versatile approach for the rapid prototyping of PMMA-based and glass-based microfluidic devices. Furthermore, CO2 laser ablation has the potential for adaptation to the mass production of microfluidic chips; thereby making possible the fabrication of low-cost, disposable microfluidic chips for a wide variety of biological, chemical and medical applications.
Compared to traditional distillation systems, the rapid distillation microfluidic chips proposed in this study have many advantages, including fast distillation process, small sample / reagent volumes, a simple structure, a straightforward/ fast operational procedure, and a low cost. The experimental results have shown that the proposed sulfur dioxide distillation chip system achieves a distillation efficiency of as much as 94%, and the obtained measurements of the sulfur dioxide concentration deviate by no more than 8.6% from those obtained using a commercial large-scale system. Similarly, the proposed methanol distillation chip system achieves a distillation efficiency of as much as 96% and a measurement performance which deviates by no more than 3% from that of a commercial system.
Five detection chips (designated as Mks. I~V) have been proposed in this study. The Mk. I chip comprises a single mixer, while the Mk. II chip has two mixers, thereby avoiding the need for additional mixing devices in the detection process. The Mk. III and IV chips each contain a single mixer and incorporate a collection tank, which also serves as a detection chamber when the chip is inserted into the trough of the spectrophotometer. The Mk. V type chip is essentially a microfluidic mixer with additional storage and collecting functions. The Mk. V type chip can execute six to ten assignments. In the rapid microfluidic detection system has been proposed including an air pressure injector module and a simple LED / photodiode detection module.

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