本論文之研究成果顯示，改良後之CID 3.0 具有比 CID 2.0 更高的阻抗量測性 能以及更好的量測穩定性，而改良分壓公式亦有效地解決虛部阻抗造成的計算誤 差，未來可針對實際應用層面進行改良與研發，如：
1. 架設方法：CID 3.0 之最終目的是用於離岸風機等工業環境的現地檢測，然而 一般實驗室所採用的架設方法為水溶液浸泡，此方法並不適用於現地檢測，因 此未來要如何將CID 3.0 實際架設於檢測現場仍有待考量與克服。
2. 獨立供電：現階段之 CID 3.0 仍是透過 USB 介面由電腦進行有線的電源供應，
若要將CID 3.0 實際架設於檢測現場，則需具備依靠電池獨立供電的能力，且 其運作時的電量消耗應盡量節省，方能維持其進行長時間連續監測。
3. 無線傳輸：現階段之 CID 3.0 仍是透過 USB 介面與電腦進行有線的數據傳輸，
由於離岸風機屬於海上無人結構物，若要將CID 3.0 實際架設於檢測現場，則 需具備無線傳輸數據資料的功能，此功能不需將數據遠端傳輸至陸地，僅需將 數據無線傳輸至離岸風機的監控系統，便可透過風機的電纜等設備傳送回陸 地。
4. 內部儲存：現階段之 CID 3.0 不具備內部儲存功能，因此每一次量測都要進行 數據傳輸，若要將CID 3.0 實際架設於檢測現場，考慮到無線傳輸往往需要較 多的電量消耗，可能導致電池供電的使用時間縮短，若CID 3.0 具有內部儲存 空間，則可待量測數據收集達一定數量再進行回傳，以達到省電的效果。
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