此論文的內容共分為四個章節，分別為A、B 、 C和D。
[A] 章節的內容涵蓋四個部分。第一部分是C–H化學鍵進行官能基化的介紹；第二部分為應用錸（I）催化劑在各類型的C–H化學鍵進行官能基化反應的介紹及其分析；第三部分是介紹釕（II）催化劑來催化C–H化學鍵進行官能基化反應的探討；而最後一部分則是介紹使用各類型的過渡金屬催化劑來合成喹唑啉酮。
[B] 章節包含幾個部分，主要是集中於屬於水溶性的 Re（I）催化劑的介紹。在溫和的條件以及使用水作為溶劑時，上述催化劑可應用於N-吡啶基/ N-嘧啶基吲哚系列物來進行具有區域和立體選擇性的碳（sp2）–氫烯基化反應，以及應用於N-嘧啶基苯胺衍生物與N-酰胺可進行N–H烯基化的反應。當使用水作為溶劑時，此催化系統具有可回收性的特性，同時也對反應機構以及動力學研究做了詳細的討論。最後是對於[Re（CO）3（H2O）3] Br催化劑的介紹及討論。
[C] 章節是介紹在微波的條件下，釕（II）世紀可催化炔基硫烷對N-甲氧基苯甲酰胺的C–H / N–O進行活化作用。這部分同時對反應機構進行探討以及其數據進行分析。
[D] 章節描述了在不使用金屬和氧化劑的條件下，噁唑啉酰胺可進行分子內C–N化學鍵的官能基化反應。本章還同時也對反應機構進行探討以及其數據進行分析。

The contents of this dissertation are divided into four chapters (A, B, C & D).
Chapter [A] is subdivided into four parts. Part one is the introduction of C-H bond functionalization. Likewise, part two is focusing on a detailed introduction and depth analysis of various types of C-H bond functionalization reaction using a rhenium (I) catalyst. Then part three is a feature introduction and numerous categories of C-H bond functionalization reaction using a Ruthenium (II) catalyst. Moreover, the final part is the introduction and synthesis of quinazolinones using various types of transition metal catalysts.
Chapter [B] contains several parts as mainly focus on “a water-soluble rhenium (I)-catalyst for the regio- and stereoselective C(sp2)−H alkenylation of N- pyridyl/ N-pyrimidylIndole and the N−H alkenylation of N-pyrimidylaniline derivatives with ynamides” under mild conditions using water as the solvent has been described (With includes recyclability of the catalytic system and details discussion of mechanistic as well as Kinetic studies). Finally, the preparation of catalyst [Re(CO)3(H2O)3]Br & characterization.
Chapter [C] was emphasis ruthenium (II)-catalyzed C−H/N−O bond functionalization of N- methoxybenzamides with alkynylsulfane in microwave-assisted is reported. These parts cover an exhaustive examination of mechanistic accompanied by kinetic studies to propose a logical mechanistic cycle.
Chapter [D] is metal and oxidant-free intramolecular C-N bond formation using oxazolineamide was described. This chapter also includes with introduction and results along with mechanism and characterization data.

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