吉林大学学报(地球科学版) ›› 2018, Vol. 48 ›› Issue (4): 1043-1049.doi: 10.13278/j.cnki.jjuese.20170100
日比娅, 孙友宏, 韩婧, 郭明义
Abakar Rabiea, Sun Youhong, Han Jing, Guo Mingyi
摘要: 为了发展油页岩催化热解方法,本文对油页岩中干酪根在催化剂(SnCl2,MoCl5,ZnCl2)作用下的热解转化进行了研究。运用傅里叶变换红外光谱(FT-IR)、X射线衍射(XRD)、热重(TG)分析等手段对样品在较低温度下(350℃)热解前后的半焦产物进行了分析,利用Coats-Redfern方法计算了热解后的残余半焦动力学参数。结果表明,催化剂可以使干酪根在350℃发生热解反应,同时也能够降低残余半焦的活化能,其中SnCl2、MoCl5和ZnCl2催化处理后残余半焦的活化能分别降低15.10、10.66和20.58 kJ/mol。
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| [1] Na Jeong geol, Lm Cheol hyun, Chung Soo hyun, et al. Effect of Oil Shale Retorting Temperature on Shale Oil Yield and Properties[J]. Fuel, 2012, 95(1):131-135. [2] 钱家麟,王剑秋,李述元. 世界油页岩资源利用和发展趋势[J].吉林大学学报(地球科学版), 2006, 36(6):877-887. Qian Jialin, Wang Jianqiu, Li Shuyuan. World Oil Shale Utilization and Its Future[J]. Journal of Jilin University (Earth Science Edition), 2006, 36(6):877-887. [3] Jiang X M, Han X X, Cui Z G. Progress and Recent Utilization Trends in Combustion of Chinese Oil Shale[J]. Progress in Energy and Combustion Science, 2007, 33(6):552-579. [4] Pan Yi, Zhang Xiaoming, Liu Shouhui, et al. A Review on Technologies for Oil Shale Surface Retort[J]. Journal of the Chemical Society of Pakistan, 2012, 34(6):1331-1338. [5] Al-Makhadmeh L, Maier J, Scheffknecht G. Oxyfuel Technology:No Reduction During Oxy-Oil Shale Conditions[J]. Fuel, 2014, 128(21):155-161. [6] Tiwari P, Deo M, Lin C L, et al. Characterization of Oil Shale Pore Structure Before and After Pyrolysis by Using X-Ray Micro CT[J]. Fuel, 2013, 107(9):547-554. [7] Yan Junwei, Jiang Xiumin, Han Xiangxin, et al. A TG-FTIR Investigation to the Catalytic Effect of Mineral Matrix in Oil Shale on the Pyrolysis and Combustion of Kerogen[J]. Fuel, 2013, 104(2):307-317. [8] Allawzi M, Al-Otoom A, Allaboun H, et al. CO2 Supercritical Fluid Extraction of Jordanian Oil Shale Utilizing Different Co-Solvents[J]. Fuel Processing Technology, 2011, 92(10):2016-2023. [9] Liu Zhaojun, Dong Qingshui, Ye Songqing, et al. Oil Shale Character and Exploitation & Utilization Prospect[J]. Earth Science Frontiers, 2005, 12(3):315-323. [10] Han Shuangbiao, Zhang Jinchuan, Li Yuxi, et al. Evaluation of Lower Cambrian Shale in Northern Guizhou Province, South China:Implications for Shale Gas Potential[J]. Energy & Fuels, 2013, 27(6):2933-2941. [11] 刘招君,董清水,叶松青,等.中国油页岩资源现状[J]. 吉林大学学报(地球科学版),2006,36(5):869-876. Liu Zhaojun, Dong Qingshui, Ye Songqing, et al. The Situation of Oil Shale Resources in China[J]. Journal of Jilin University (Earth Science Edition), 2006, 36(6):869-876. [12] Sun P, Sachsenhofer R F, Liu Z, et al. Organic Matter Accumulation in the Oil Shale-and Coal-Bearing Huadian Basin (Eocene; NE China)[J]. International Journal of Coal Geology, 2013, 105:1-15. [13] Sun Youhong, Bai Fengtian, Liu Baochang, et al. Characterization of the Oil Shale Products Derived via Topochemical Reaction Method[J]. Fuel, 2014, 115(1):338-346. [14] Guo Hongfan, Bie Yansong,Wang Kuikui, et al. Retorting Oil Shale by a Self-Heating Route[J]. Energ & Fuel, 2013, 27(5):2445-2451. [15] Ballice L. Stepwise Chemical Demineralization of Göynük (Turkey) Oil Shale and Pyrolysis of Demineralization Products[J]. Industrial & Engineering Chemistry Research, 2006, 45(3):906-912. [16] Patterson J H. A Review of the Effects of Minerals in Processing of Australian Oil Shales[J]. Fuel, 1994, 73(3):321-327. [17] Wlliams P T, Chishti H M. Two Stage Pyrolysis of Oil Shale Using a Zeolite Catalyst[J]. Journal of Analytical & Applied Pyrolysis, 2000, 55(2):217-234. [18] Metecan I H, Saglam M, Yanik J, et al. Effect of Pyrite Catalyst on the Hydroliquefaction of Goynuk (Turkey) Oil Shale in the Presence of Toluene[J]. Fuel, 1999, 78(5):619-622. [19] Tiikma L, Johannes I, Luik H, et al. Thermal Dissolution of Estonian Oil Shale[J]. Journal of Analytical & Applied Pyrolysis, 2009, 85(1):502-507. [20] Jiang Haifeng, Song Lihua, Cheng Zhiqiang, et al. Influence of Pyrolysis Condition and Transition Metal Salt on the Product Yield and Characterization via Huadian Oil Shale Pyrolysis[J]. Journal of Analytical and Applied Pyrolysis, 2015, 112(1):230-236. [21] Pulushev D A, Rossa J R H. Catalysis for Conversion of Biomass to Fuels via Pyroly is and Gasification[J]. Catalysis Today, 2011, 171:1-13. [22] Espitalie J, Madec M, Tissot B. Role of Mineral Matrix in Kerogen Pyrolysis:Influence on Petroleum Generation and Migration[J]. AAPG Bull, 1980, 64(1):59-66. [23] Wei Z, Moldowan J M, Paytan A. Diamondoids and Molecular Biomarkers Generated from Modern Sediments in the Absence and Presence of Minerals During Hydrous Pyrolysis[J]. Organic Geochemistry, 2006, 37(8):891-911. [24] ASTM D4749-1987(2012) Standard Test Method for Performing the Sieve Analysis of Coal and Designating Coal Size[S/OL].[2012-05-10]. http://www.zbgb.org/48/StandardDetail2310510.htm. [25] GB 474-2008煤样的制备方法[S]. 北京:中国标准出版社,2008. GB 474-2008 Method for Preparation of Coal Sample[S]. Beijing:Standards Press of China, 2008. [26] Kok M V. Effect of Clay on Crude Oil Combustion by Thermal Analysis Techniques[J]. Journal of Thermal Analysis Calorimetry, 2006, 84(2):361-366. [27] Coats A W, Redfern J P. Kinetic Parameters from Thermogravimetric Data[J]. Nature, 1964, 201:68-69. [28] Bolonkin A, Friedlander J, Neumann S, et al. Innovative Unconventional Oil Extraction Technologies[J]. Fuel Processing Technology, 2014, 124(10):228-242. [29] 刘德勋,王红岩,郑德温,等. 世界油页岩原位开采技术进展[J]. 天然气工业,2009,29(5):128-132. Liu Dexun, Wang Hongyan, Zheng Dewen, et al. World Progress of Oil Shale In-Situ Exploitation Methods[J]. Natural Gas Industry, 2009, 29(5):128-132. [30] Bhargava S, Awaja F, Subasinghe N D, et al. Characterisation of Some Australian Oil Shale Using Thermal, X-Ray and IR Techniques[J]. Fuel, 2005, 84(6):707-715. [31] Adams M J, Awaja F, Bhargava S, et al. Prediction of Oil Yield from Oil Shale Minerals Using Diffuse Reflectance Infrared Fourier Transform Spectroscopy[J]. Fuel, 2005, 84(14):1986-1991. [32] Wlliams D J, Akira S. Clay Minerals and Petroleum-Forming Reactions During Burial and Diagenesis[J]. AAPG Bull1, 1972, 56(11):2160-2167. [33] Wlliams D J. Clay Mineral Catalysis and Petroleum Generation[J]. Annual Review of Earth & Planetary Sciences, 1979, 7(1):183-198. |
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