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摘要: 以VOCs的催化氧化為主題，利用Web of Science數據庫對4654篇論文進行了數據處理，并通過文獻計量學的方法分析了該主題的發展趨勢與研究現狀。結果表明，近25年期間，VOCs催化氧化相關課題的研究底蘊豐富，發展前景良好，年度發文數量呈指數型增長趨勢。中國是世界上發表VOCs催化氧化為主題的論文最多的國家，占研究總量的34%；研究最深的機構和期刊分別是中國科學院大學（6.66%）和Applied Catalysis B-Environmental（11.68%）；Chemistry和Engineering是最受歡迎的科目。此外，對近年來的研究熱詞分析表明，應用于VOCs催化氧化的催化劑中，最熱門的元素是Mn，實驗中最常見的VOCs類底物是甲苯。總結了常見的催化劑物質和VOCs底物，這反映了目前的主要研究方向，也為今后的研究提供了指導。Abstract: Volatile organic compounds (VOCs) have a wide variety and large emissions. VOCs are precursors of ozone and photochemical smog. Some VOCs, such as benzene, toluene, and xylene (BTX), are carcinogenic, teratogenetic, and mutagenic, which can greatly harm the skin, viscera, and nervous system. Researchers estimated in 2013 that 5.5 million people died from air pollution worldwide, thus becoming a serious threat to our daily lives. In the context of massive VOC emissions, the dramatic decline of the regional air quality, and the frequent occurrence of environmental problems, more attention has been paid to the control of VOCs. Governments have formulated a series of regulations and policies to limit the emissions of man-made VOCs. Under the guidance of strict policies, scholars have conducted extensive research on the governance technology of VOCs. Taking the catalytic oxidation of VOCs as the topic in this study, 4654 papers were processed by the Web of Science database, and the development tendency and research status of the topic were analyzed by way of bibliometrics. Results show that the VOC catalytic oxidation has abundant research depth in the past 25 years. The research prospect is found to be admirable and the number of published papers shows an exponential growth trend. China is the largest contributor of publications in the world, accounting for 34% of the total research. The biggest producing institution and journal are the University of Chinese Academy of Sciences (6.66%) and the Applied Catalysis B-Environmental (11.68%), respectively. Chemistry and Engineering are the most popular subjects. In addition, the hot word analysis in recent years shows that the most popular element in the catalyst is Mn, while toluene is the most common substrate of VOCs in the experiment. At the same time, this paper summarizes common catalyst substances and VOC substrates, which consequently reflects the current main research direction and provides guidance for future research.
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Key words:
- VOCs /
- bibliometric analysis /
- catalyst /
- oxidation /
- development tendency
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圖 1 近25年來與VOCs催化氧化相關的SCI論文數量
Figure 1. Number of SCI-indexed publications on VOCs catalytic oxidation over the past 25 years
圖 2 不同國家發表的與VOCs催化氧化相關的SCI論文數量
Figure 2. Number of SCI-indexed publications on VOCs catalytic oxidation in different countries
圖 3 2006~2020年間排行前5學科領域年度發表與VOCs催化氧化相關的論文數量
Figure 3. The annual number SCI-indexed publications on VOCs catalytic oxidation of each top 5 productive subject during 2006–2020
表 1 1996~2020年十大高產科研機構
Table 1. Top 10 productive research institutions from 1996 to 2020
Rank Institution NTI R (TI/%) R (SI/%) R (CI/%) R (FI/%) R (RI/%) 1 Chinese Acad Sci, China 343 1 (6.66) 5 (1.67) 1 (7.59) 1 (4.35) 1 (5.15) 2 Zhejiang Univ, China 85 2 (1.65) 1 (3.24) 2 (1.08) 2 (2.24) 2 (3.17) 3 Beijing Univ Technol, China 58 3 (1.13) 2 (2.46) 8 (0.60) 3 (1.44) 3 (1.84) 4 Tsinghua Univ, China 46 4 (0.89) 6 (1.47) 4 (0.69) 7 (0.86) 4 (1.27) 5 Sun Yat Sen Univ, China 42 5 (0.82) 12 (1.08) 4 (0.69) 4 (1.04) 8 (0.99) 6 Dalian Univ Technol, China 41 6 (0.80) 13 (0.88) 4 (0.69) 5 (0.98) 5 (1.16) 7 Shanghai Jiao Tong Univ, China 37 7 (0.72) 10 (1.18) 8 (0.60) 6 (0.89) 11 (0.91) 8 Xi An Jiao Tong Univ, China 33 8 (0.64) 22 (0.59) 7 (0.65) 11 (0.67) 16 (0.65) 9 Zhejiang Univ Technol, China 33 8 (0.64) 4 (1.77) 24 (0.36) 8 (0.83) 9 (0.96) 10 CSIC, Spain 32 10 (0.62) 3 (1.87) 37 (0.31) 9 (0.80) 13 (0.79) Notes: NTI, number of total publications in a certain institution; R (TI), rank and the percentage of total publications; R (SI), rank and the percentage of single institution's publications; R (CI), rank and the percentage of internationally collaborative institutions' publications; R (FI), rank and the percentage of first-author institutions' publications; R (RI), rank and the percentage of reprint author institutions' publications. 
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表 2 1996~2020年的十大高產期刊
Table 2. Top 10 productive journals from 1996 to 2020
Rank Journal NTJ TJ/% NTC CCP IF H-index 1 Applied Catalysis B-Environmental 415 11.68 24525 59.10 16.683 205 2 Chemical Engineering Journal 199 5.60 4589 23.06 10.652 172 3 Applied Catalysis A-General 125 3.52 4680 37.44 5.006 192 4 Journal of Hazardous Materials 121 3.40 4122 34.07 9.038 235 5 Catalysis Communications 77 2.17 1964 25.51 3.612 105 6 Industrial & Engineering Chemistry Research 76 2.14 943 12.41 3.573 197 7 Applied Surface Science 58 1.63 726 12.52 6.182 159 8 Environmental Science & Technology 57 1.60 3458 60.67 7.864 345 9 Rsc Advances 56 1.58 611 10.91 3.119 113 10 Chemosphere 55 1.55 1668 30.33 5.778 212 Notes: NTJ, number of total publications in a certain journal; TJ, the percentage of total publications; NTC, number of total citations; CPP, citations per publication; IF, impact factor in 2019; H-index refers to his or her having at most h papers cited at least h times.
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