Please use this identifier to cite or link to this item: http://hdl.handle.net/11455/10141
標題: Effects of process parameters on the properties of carbon coatings for optical fibers prepared by plasma enhanced chemical vapor deposition
不同製程條件對以電漿輔助化學氣相沉積法製備光纖碳鍍層特性之影響
作者: 林宏謙
Lin, Hung-Chien
關鍵字: Optical Fiber
光纖
Amorphous Carbon
Plasma Enhanced Chemical Deposition
Process Parameters
非晶質碳
電漿輔助化學氣相沉積
製程參數
出版社: 材料科學與工程學系所
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摘要: 本論文主要是研究不同製程條件對以電漿輔助化學氣相沉積法製備光纖碳鍍層之效應。製程條件分別選定為不同氫氣/甲烷比、射頻功率、基材溫度、氬氣/甲烷比與氫氣/乙炔比。 藉由氬氣或氫氣稀釋甲烷會使沉積出來的碳鍍層分別趨向類石墨化碳和類高分子碳薄膜。製備具有最佳密封特性碳鍍層的氬氣/甲烷比和氫氣/甲烷比分別為4和2~4。 藉由氫氣稀釋H/C比例較甲烷(H/C=4)低的乙炔(H/C=1)來製備碳鍍層時,氫氣對於離化能相對較低的乙炔可有效減少碳粉末在製程中生成並有輔助形成非晶質碳薄膜的作用。而以大量氫氣稀釋甲烷或乙炔時,氫氣在碳薄膜沉積過程中會阻礙石墨化結構的生成。製備具有最佳密封碳鍍層的氫氣/乙炔比為8。 此外,藉改變射頻功率或基材溫度製備碳鍍層時,碳鍍層結構中sp2鍵結碳皆會大量生成。但是,相對於改變射頻功率的作用,改變基材溫度所製備的碳鍍層可擁有更低氫含量的鍍層結構,進而使得碳鍍層擁有更好的抗水性。製備具有最佳密封碳鍍層的射頻功率與基材溫度分別為200 W和300oC。 綜合以上所述,當藉改變製程條件來調變碳鍍膜結構以獲得最佳密封特性的碳鍍層光纖時,碳鍍層的結構組成可有兩種選擇:(1)結構中sp2鍵結形式的碳碳鍵數量必須要多但碳氫鍵數量必須要少;(2)結構中sp3鍵結形式的碳氫鍵數量必須要多,且以sp3-CH3鍵結對密封特性的貢獻為最佳。
The effects of process parameters on the properties of carbon coating for optical fibers prepared by plasma enhanced chemical vapor deposition are investigated. The process parameters, such as hydrogen/methane ratios, radio frequency powers, substrate temperatures, argon/methane ratios, and hydrogen/acetylene ratios, are considered. The structure of carbon coatings prepared by increasing argon/methane ratios becomes the graphite-like, while the structure of carbon coatings prepared by increasing hydrogen/methane ratios becomes the polymer-like. The best for the production of a hermetical optical fiber coating is obtained as the argon/methane and hydrogen/methane ratios are 4 and between 2 and 4, respectively. Alternatively, the H/C ratio of acetylene molecules equaling to 1 is smaller than that of methane molecules equaling to 4. When the carbon coatings are prepared by the decompositions of acetylene with the hydrogen dilution, the hydrogen effect reduces the production of the carbon powders during deposition and assists the formation of amorphous carbon coatings. If the carbon coatings are deposited by the methane or acetylene with high hydrogen dilutions, hydrogen effect retards the growth of graphitic structure. The best for the production of a hermetical optical fiber coating is obtained as hydrogen/acetylene ratio is 8. Besides, when the carbon coatings are prepared by changing the radio frequency powers or the substrate temperatures, it is found that the large number of sp2 carbon-carbon bonds is appeared in the coating structure. The coating structure with low hydrogen contents prepared by changing substrate temperatures is more conspicuous than that prepared by changing the radio frequency powers. The coating structure with low hydrogen contents is good for the water-repellency. The best for the production of a hermetical optical fiber coating is obtained as the radio frequency power and the substrate temperature are 200W and 300oC, respectively. If the hermetic property of carbon coatings is demanded, two kinds of bonding structures can be achieved and they are described as follows: (1) the sp2 type carbon bonding, but not bonded with hydrogen atoms; (2) a large number of sp3 type bonding, especially the existence of sp3-CH3 bonds.
URI: http://hdl.handle.net/11455/10141
其他識別: U0005-0707200622191700
文章連結: http://www.airitilibrary.com/Publication/alDetailedMesh1?DocID=U0005-0707200622191700
Appears in Collections:材料科學與工程學系

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