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研究生: 陳正銘
Chen, Cheng-Ming
論文名稱: 毒性潛能指標於車用化學物質之評估 技術研究
The Study of TPI Estimation Technology on Vehicles Chemical Substances
指導教授: 陳家豪
Chen, Jahau Lewis
學位類別: 碩士
Master
系所名稱: 工學院 - 機械工程學系
Department of Mechanical Engineering
論文出版年: 2005
畢業學年度: 93
語文別: 中文
論文頁數: 96
中文關鍵詞: 中文毒性潛能指標計算器毒性潛能指標危害衝擊評估結果表物質危害風險分類對水污染程度作業環境允許濃度中文語詞物質危害風險分類表
外文關鍵詞: Toxic Potential Indicator, The Table of Hazardous Substance, The Result Table of Hazardous Impact, Green Design, The Method of Unit Transformation for Allowable
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  •   隨著世界環保意識的抬頭,人們逐漸瞭解到產品的製造及使用的過程中,必須盡可能的減少對於環境及人體的影響,因此對於產品的設計階段就導入這種對於環境維護的概念,就通稱為綠色設計(GreenDesign)。同時許多環保標準及法規的陸續訂定,在在顯示人類對於地球環境維護的決心,如ISO14000系列標準、各國產品的環保標章、產品廢棄物回收法(WEEE, ELV)等。

      也由於各項法規的陸續發佈,使得做為我國經濟貢獻重要產業之一的汽車業,不得不再謹慎面對這些環保議題的挑戰,因此如何建立我國汽車產業綠色設計的能力,尤其是產品化學物質環境毒性衝擊的評估能力,對於維持我國汽車產業未來競爭力有決定性的影響力。

      本文利用現有毒性潛能指標的架構,配合本研究建構的『中文語詞物質危害風險分類表』和『危害衝擊評估結果表』,以及所發展針對工作環境中『作業環境允許濃度單位轉換』的方法,建立更適合中文語系的毒性潛能指標評估系統。更進一步發展中文毒性潛能指標計算器,方便使用者進行物質的毒性潛能評估,並且以國內之汽車用化學物質作為評估範例。本文所建立的汽車產業化學物質毒性潛能評估能力,對於我國汽車產業,因應未來的環保議題對產品的衝擊帶來的影響,提升未來綠色產品的競爭力,可先立下有利的根基。

     Because of the environmental consciousness, people consider that the impact caused by products must be reduced, especially when they are in manufacture and use stages. Therefore, the design process, which introduces environmental concept, is named “Green Design”. Moreover, many environmental standards, criterions, acts or regulations are made due to the thinking of people’s concern and enthusiasm for environmental issue, such as ISO 14000, TCO’99, Energy Star, WEEE and ELV etc. In Taiwan, the automobile manufacturers are concerned about if their products are qualified to the environmental regulations. For raising the ability of green design and evaluation, especially in the part of chemical substances’ impact, a convenient and efficient process is essential.

     In this study, a feasible Chinese Toxic Potential Indicator (TPI) evaluation process is built up based on the existing research achievement. The proposed process combines the “The Table of Hazardous Substance Declaration for Chinese Languages”, “The Result Table of Hazardous Impact Evaluation” with “The Method of Unit Transformation for Allowable Workplace Concentration”. Furthermore, the Chinese version TPI calculator is developed for evaluating chemical substances more easily. The evaluation of automobile manufacturer chemical substances are successfully illustrated the proposed process. The relative proposed research achievement could be regarded as the pillar for green design and escalate the Taiwan automobile
    industry.

    摘要....................................................................................................... i 英文摘要.............................................................................................. ii 誌謝..................................................................................................... iii 目錄..................................................................................................... iv 表目錄................................................................................................. vi 圖目錄............................................................................................... viii 符號說明............................................................................................. ix 第一章 緒論.........................................................................................1 1.1 前言.........................................................................................................1 1.2 文獻回顧.................................................................................................2 1.3 研究目的.................................................................................................5 1.4 本文架構.................................................................................................6 第二章 毒性潛能指標.........................................................................9 2.1 產品之毒性潛能指標.............................................................................9 2.2 基本物質毒性潛能指標值之評估架構與項目...................................10 2.3 基本物質毒性潛能指標值之計算架構...............................................12 2.4 毒性潛能指標值計算範例-以鉛(lead)為例...................................14 第三章 毒性潛能指標評估改良方法...............................................17 3.1 中文物質安全資料表...........................................................................17 3.2 中文物質安全資料表相關查詢...........................................................20 3.3 毒性潛能指標評估改良方法架構.......................................................21 3.4 中文語詞物質危害風險分類表...........................................................23 3.5 作業環境允許濃度單位轉換...............................................................27 3.6 危害衝擊評估結果表...........................................................................28 第四章 中文毒性潛能指標計算器...................................................33 4.1 中文毒性潛能指標計算器程式流程圖...............................................33 4.2 中文毒性潛能指標計算器介面...........................................................35 4.3 計算器介面物質危害風險判讀輔助...................................................37 第五章 車用化學物質實例應用.......................................................39 5.1 毒性潛能指標評估案例 - 汽車專用機油.........................................39 5.2 毒性潛能指標評估案例 - 乙二醇.....................................................45 5.3 汽車用輪胎...........................................................................................51 5.3.1 毒性潛能指標評估案例 - 填充劑...........................................51 第六章 結論與建議...........................................................................69 6.1 結論.......................................................................................................69 6.2 建議.......................................................................................................70 參考文獻.............................................................................................73 附錄A Material Safety Data Sheet – Lead ......................................77 附錄B 中文物質安全資料表- 鉛(Lead) ..................................85 附錄C 中文物質安全資料表 - 汽車專用機油............................91

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    相關法令1. Directive 2001/95/EC of the European Parliament and of the ouncil of 3 December 2001 on general product safety (Text with European Environment Agency relevance) Official Journal L 011, Jan. 15, 2002.

    相關法令2. WGK (Wassergefährdungsklassen), According to the VwVwS
    (Verwaltungsvorschrift wassergefährdende Stoffe), which is the national
    German regulation on water hazard classificationThe German Water
    hazard classes, May 17, 1999.

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