本論文在前半部提出一個建立被動元件資料庫的標準流程，即先針對元件在所應用範圍內的電氣特性需求並將其等效電路模型化，再經由電磁模擬設計輔以量測驗證，最後建立出模擬與量測符合一致性的元件資料庫。另外在所建立的完整自動化模型參數萃取程式中，除了可迅速將元件量測或模擬的散射參數以等效電路 模型呈現出來外，更包括了諧振頻率、品質因子與模型化誤差的計算。
最後更以此流程，全面建構一符合現今模組設計趨勢的LTCC製程之電感與電容元件資料庫，並更提出在多層基板模組實現中內埋式電感與電容元件的最佳電氣特性表現之重要設計方法。

In this thesis, a standard flow path is proposed to establish the model library for inductors and capacitors in multilayer substrate structure. By the way of excellent agreement between simulation and measurement within self resonant frequency （SRF）, we aimed at the demanded performance of passives in modules and adopted Pi-section equivalent circuits as basic model. Meanwhile, an automatic program on CAD-based platform is used for extraction of Pi-model circuit elements and calculation of SRF, quality （Q）factor and modeling errors.
In the end, we contributed the methodology to have the best performance of embedded passives design in multilayer substrate structure and established a completed model library for inductors and capacitors embedded in low temperature co-fired ceramic（LTCC）substrate for the design need in implementation of RF modules.

目錄
圖表目錄
第一章 緒論
第二章 多層基板結構中電感與電容元件之電磁模擬與晶圓級量測
2.1 簡介
2.2 準靜態電磁模擬軟體Spicelink的應用
2.2.1 電感、電容、與電阻矩陣的定義

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