本篇論文發展了一反射式頻域光子遷移系統快速量化組織血氧飽與濃度及動脈血氧飽和濃度，此架構改善了市售血氧計的缺點及限制，包含了反射式量測架構克服穿透式量測位置的限制，而優勢有可以同時量測組織血氧和動脈血氧飽和濃度和更廣泛的量測動脈血氧飽和濃度範圍。
而在實驗結果呈現我們頻域光子遷移系統快速量測假體的光學參數精確性，平均絕對誤差百分比，三個波長下最低從1.3%至最高約11%，說明本系統反算光學參數的精確性合理範圍內。
人體實驗我們共量測6位健康成年人，4位男性，2位女性，量測位置有手指和手掌兩部位，量測環境有靜態穩定下以及使用壓力帶60mmHg達到靜脈閉鎖下量測，而我們分析了各個波長下的吸收係數、縮減散射係數、帶氧和不帶氧血紅素濃度、組織血氧飽和濃度、脈動產生帶氧和不帶氧血紅素濃度變化量、動脈血氧飽和濃度、以及各個波長光學參數的頻域響應分析等資訊，本系統雖能提供相當豐富的生理資訊，但相對地系統的穩定性占了想當大的重要性，由章節4.3人體實驗，系統的穩定性還有進步的空間可以做改善，未來我們將會以系統穩定性的改善為第一目標。

A frequency domain photon migration system in the reflectance mode for rapidly quantifying the tissue oxygen saturation and arterial oxygen saturation are presented in this study. The proposed system improves the shortcomings and limitations of the commercial pulse oximeters, including the reflectance mode overcomes the position limits of the transmissive mode, while the advantages of measuremental method can simultaneously measure the tissue oxygen saturation and arterial oxygen saturation and widely measuring range of arterial oxygen saturation.
The results presented in the frequency domain photon migration system, we rapidly measured the accuracy of optical properties and mean absolute percentage error in three wavelengths which from 1.3% to about 11%, indicating the accuracy of optical properties within a reasonable range.
In vivo experiments we measured six healthy adults totally, four men and two women, the measured positions include two parts: fingers and palm, measured environment is under static stability and under pressure with 60mmHg reached vein atresia.
We analyzed the absorption coefficient, reduced scattering coefficient for each wavelength, oxy-hemoglobin concentration, deoxy-hemoglobin concentration, tissue oxygen saturation, pulsating with change amount of oxy-hemoglobin concentration and deoxy-hemoglobin concentration, arterial oxygen saturation, and optical properties of frequency domain response analysis information for each wavelength. The system can provide a wealth of physiological information, but relatively stability of the system is very important. In vivo experiments in Section 4.3, stability of the system can become better. We will improve the stability of the system for the first goal in future work.

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