本研究針對機載高光譜儀遙測之特殊規格，研發一套應用於1700nm－2500nm波段之Offner高光譜儀完整設計流程。首先為了符合空中載具之飛行速度與高度以避免失焦，由理論推導來進行光學系統的設計，驗證選定的偵測器是否合適。選定合適的偵測器規格之後，利用理論建立Offner高光譜儀架構參數，
其次，利用Code V光學成像系統軟體實現，分析各種光柵條紋間距時各項相關參數，如RMS斑點大小、元件曲率半徑，光柵閃耀角與短邊長度、製程時間、系統大小，並在分析曲率半徑時須特別篩選符合市售之光學元件，以達到成本考量，其他參數亦須符合各自的規範。衡量以上條件之後，可以得到合適的光柵間距與組件曲率半徑，並利用此參數進行系統優化，最後分析光譜總解析度與影像解析度。
最後，利用Trace pro光線追跡軟體，使用其非序列光線之特性，並加入光源與偵測器之影響，使結果與真實情況更為接近。分別分析點光源（1nm × 1nm）與狹縫光源條件在偵測器規格為底片規格與偵測器規格之參數分析。最終可得到本研究設計波段1700nm～2500nm之機載高光譜儀之影像解析度為、光譜解析度。
本研究開發1700nm～2500nm波段之Offner系統高空遙測光譜儀，從參數建立、分析流程、模擬呈現、規格篩選、數據分析等步驟，建立一套完整的Offner光譜儀設計流程。

This study focuses on the special specifications of airborne hyperspectral telemetering, and developed a complete design flow for the Offner hyperspectrometer used for 900 ~ 1700 nm wavebands. Choose the suitable detector based on aircraft speed and altitude,then use the theory to establish the Offner hyperspectral system parameters.
Second, using Code V optical imaging system software to analyze various parameters related to grating strip spacing. Analysis of radius of curvature must conform to the size of commercially available optical components and other parameters must also comply with their respective specifications. we can get the appropriate grating pitch and component radius of curvature, and use this parameter to optimize the system, and finally analyze the total spectral resolution and image resolution.
Finally, we use the Trace pro ray tracing software to add the influence of the light source and the detector to make the result closer to the real situation. Finally, we can get the image resolution and spectral resolution of the airborne hyperspectral instrument with a band of 1700nm to 2500nm, and the experimental results are satisfactory

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