分析水樣時，系統利用氣動閥門組來控制樣品的吹氣捕捉及注射，並且利用可設定多段昇溫程式的電晶控溫器來準確控制吸附管捕捉及注射時的溫度，再經由視窗界面的自動控制軟體平台上撰寫Visual Basic指令，以控制整個分析流程，可準確的在設定時間下完成閥門的動作、吸附管吸、脫附的昇降溫及層析儀的啟動，以避免吹氣捕捉裝置的殘氣干擾或者其他的人為誤差。採用疏水性質的吸附劑，可以避免水氣的干擾。此系統可針對各種不同樣品如：人體尿液、牛奶、生化樣品、及其他水樣品進行自動分析，並且可以搭配不同廠牌層析儀及偵檢器進行選擇性偵測。在分析不同濃度標準品時具有良好的線性關係（R2=0.99之上）。本系統具有優良的線性關係、低殘留、及較不受水氣的干擾等優點。
而在大氣樣品的分析部份，利用自行設計組裝完成之前濃縮裝置，在完全不須使用任何液態氮降溫的情況之下，可以針對開放大氣或者是採樣罐中的C2到C12中數十種以上之碳氫化合物進行同時自動化的分析監測，每一次的分析時間在60分鐘之內完成，而且不須任何除水裝置。
裝置中包含兩組捕捉裝置，利用不同性質的吸附劑，在-30℃及室溫30℃時分別針對低碳數及高碳數的碳氫化合物進行捕捉，而控溫方面則利用具有PID（Proportional, Integral, Derivative）功能之微處理程序控溫器準確的控制吸附管吸附及脫附時的溫度，再分別熱脫附至Al2O3/KCl PLOT管柱來分離低碳物種（C2-C6），DB-1管柱分離高碳物種（C6-C12），充分地使用到PLOT及WCOT管柱的優點，並於個別管柱的缺失處互補之，分離後再以兩具火焰離子偵測器（FID）進行同時偵測。
在此裝置中，無論是在樣品前濃縮部份或者是在管柱聚焦方面均無須使用任何冷凍劑，因此免除了大量液態氮的使用，對於架設測站後的後勤補給的方便性上有相當大助益，並且可以得到相當良好的解析度及精確性，相較於商業儀器也有價格低廉的優點，因此對於設置VOCs無人監測網確實是一大利器，也在臭氧前驅物的研究上提供了即時的監測工具。而在2000/3-2000/5亦將此儀器架設於中央氣象局之氣象測站中，進行連續一個半月的連續無人量測，而量測所得的結果與其他污染物如NOx、CO的比對相當吻合，而且搭配氣象因子的比對，也可以解釋高污染事件的來源及成因。

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