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研究生: 張世玠
Shih-Chieh Chang
論文名稱: 利用中孔洞氧化矽材料形成氮化銦及氧化銦奈米棒的製備與光譜分析
Formation of InN and In2O3 Nanorods by Using Mesoporous Silica Template and Their Optical Properties
指導教授: 黃暄益
Michael Hsuan-Yi Huang
口試委員:
學位類別: 碩士
Master
系所名稱: 理學院 - 化學系
Department of Chemistry
論文出版年: 2007
畢業學年度: 95
語文別: 英文
論文頁數: 58
中文關鍵詞: 氮化銦氧化銦中孔洞二氧化矽奈米柱
外文關鍵詞: Indium Nitride, Indium Oxide, Mesoporous Silica, Nanorods, SBA-15
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  • 我們率先利用中孔洞氧化矽材料當模板合成出氮化銦及氧化銦奈米柱。經由一個簡單的步驟,先將硝酸銦溶解在甲醇中直接帶入不經修飾的中孔洞材料SBA-15中,分別經過氧化及氮化的過程後,大量的氮化銦及氧化銦奈米柱被產生在孔洞中。這些奈米柱具有一致的尺寸大小,直徑約5-7 nm,長度約 30-40 nm。這些在中孔洞形成的氮化銦及氧化銦奈米柱有使用FT-IR、固態29Si MAS NMR光譜、粉末X-ray繞射、穿透式電子顯微鏡、選區繞射電子圖譜、拉曼光譜及氮氣吸附脫附做鑑定。

    在光學性質的鑑定測量部份,奈米柱氮化銦的能帶經由吸收光譜的估計大約是1.5 eV,而其螢光放射光譜在500到700 nm波長有一個放射訊號。奈米柱氮化銦的能帶與螢光放射訊號出現在可見光波長範圍是由於所合成的氮化銦奈米柱中有少量氧化銦參雜在其中所導致。奈米柱氧化銦的吸收光譜在300 nm 有一個吸收峰,而其螢光放射光譜在波長387 nm有一個近能階邊緣放射。


    We report the first formation of InN and In2O3 nanorods by using mesoporous silica template. By a simple method, In(NO3)3 dissolved in methanol was directly incorporated into non-functionalized SBA-15 powder. Large amount of InN and In2O3 nanorods were formed in the channels of SBA-15 after nitridation and oxidation process respectively. The nanorods are uniform with diameters of 5-7 nm and lengths of 30-40 nm. The final products have been characterized by FT-IR, solid-state 29Si MAS NMR spectra, powder XRD patterns, TEM images and SAED patterns, Raman spectra and nitrogen absorption-desorption isotherm measurements.

    In terms of optical properties, the band gap energy value of InN nanorods estimated from absorption spectra is 1.5 eV and PL emission peak is at 598 nm in the visible region which is due to a small amount of In2O3 incorporated in InN. In2O3 nanorods show an absorption band around 300 nm and a near-band-edge emission at 387 nm.

    TABLE OF CONTENTS Abstract………………………………………… i Acknowledgement ……………………………… iii Table of contents …………………………… iv List of Figures ……………………………… vii List of Table ………………………………… x CHAPTER 1 AN INTRODUCTION TO INDIUM NITRIDE 1-1 Important Properties of InN 1 1-2 The Band Gap Energy of InN 1 1-3 Methods of Preparation of InN Nanostructures 3 1-3.1 Solution Phase Methods 3 1-3.2 Chemical Vapor Deposition (CVD) Methods 6 1-4 Motivation of the Thesis Study 8 1-5 References 9 CHAPTER 2 FORMATION OF INDIUM NITRIDE NANORODS BY USING MESOPOROUS SILICA TEMPLATE AND THEIR OPTICAL PROPERTIES 2-1 Experimental Section 12 2-1.1 Preparation of Mesoporous Silica SBA-15 12 2-1.2 Incorporation of Indium Precursor into SBA-15 12 2-1.3 High-Temperature Nitridation for the Formation of InN Nanorods 12 2-1.4 Instruments and Measurements 13 2-2 Results and Discussion 14 2-2.1 The Method of the Incorporation of Indium Precursor into Mesoporous Silica SBA-15 14 2-2.2 PXRD, Raman Spectra, and TEM Investigation of InN/SBA-15 16 2-2.3 Optical Properties of InN Nanorods 28 2-2.4 The Influence of Nitridation Temperature 32 2-2.5 The Influence of Nitridation Time 33 2-3 Conclusion 35 2-4 References 36 CHAPTER 3 AN INTRODUCTION TO INDIUM OXIDE 3-1 Important Properties of In2O3 38 3-2 Experimental Section 38 3-2.1 Solution Phase Methods 38 3-2.2 Template-Assisted Synthesis Methods 41 3-3 Motivation of this Thesis Study 44 3-4 References 45 CHAPTER 4 FORMATION OF INDIUM OXIDE NANORODS BY USING MESOPOROUS SILICA TEMPLATE AND THEIR OPTICAL 4-1 Experimental Section 46 4-1.1 Preparation of Mesoporous Silica SBA-15 46 4-1.2 Incorporation of Indium Precursor into SBA-15 46 4-1.3 High-Temperature Treatment for the Formation of In2O3 Nanorods 46 4-1.4 Instruments and Measurements 47 4-2 Results and Discussion 48 4-2.1 PXRD and TEM Investigation of In2O3/SBA-15 48 4-2.2 Optical Properties of In2O3 Nanorods 53 4-3 Conclusion 57 4-4 References 58

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