由於光纖相對傳統電子機械式的感測系統有非常多的優勢，像是一些具有危險的場所，一般電子機械式的感測器都是無法架設的，而在這些場所，如果我們的光纖感測器具有溫度和應力區分的感測能力，提早發現當下環境所造成異常的原因，那麼就更能夠減少發生災害的可能，因此具有溫度和應力辨別的感測器對於一些感測環境是必要的。
在本篇論文中，將布拉格光纖光柵蝕刻為單錐型和雙錐形的結構，由於經過蝕刻後的布拉格光纖光柵其截面積會有所改變，因此對於應力的敏感度會有所不同，在實驗中，利用不同蝕刻的樣本，量測其應力和溫度的係數，並且探討量測結果以及誤差來源。由於經過蝕刻後的布拉格光纖光柵其應力和溫度係數會有所不同，因此我們將兩個經過不同蝕刻條件的布拉格光纖光柵組合，可以達到辨別應力和溫度的功能，再將不同布拉格光纖光柵的樣本，以數學方式進行最佳化的分析，達到最佳化的組合，因此這樣的感測系統有較小的誤差值，能夠真實的反應出環境所受到應力以及溫度的狀況，有效作為環境的監控，最後再將最佳化的組合應用於一個具有自我治癒功能的感測網路，因此感測網路除了斷點的分析，更增加了環境監控的功能，使得感測網路更加的可靠，期許研究的成果將有助於光纖感測的發展。

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