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[1] Zhao, RB; Sun, ZQ; Sun, XG; et al. Effect of secondary water body on the in-situ combustion behaviors[J]. FUEL, 2022, 316:1-12.
[2] Zhao, RB; Wang, TT; Chen, LJ ; et al. Evolution of the Pseudo-Components of Heavy Oil during Low Temperature Oxidation Processes[J]. ENERGIES, 2022, 15 (14):1-14.
[3] Zhong, J; Zhao, RB; Ouyang, WZ; et al. Molecular Dynamics Simulation of the Soret Effect on Two Binary Liquid Solutions with Equimolar n-Alkane Mixtures[J]. ACS OMEGA, 2022, 7(1):518-527.
[4] Zhao, RB; Heng, MH; Chen, CJ; et al. Catalytic effects of Al(2)O(3 )nano-particles on thermal cracking of heavy oil during in-situ combustion process[J]. Journal of Petroleum Science & Engineering, 2121, 205: 1-10.
[5] Zhao RB; Yang J; Zhao CF*; et al. Investigation on coke zone evolution behavior during a THAI process[J]. Journal of Petroleum Science and Engineering, 2021, 196: 107667.
[6] Zhao RB*; Yu, S; Yang, J; et al. Optimization of well spacing to achieve a stable combustion during the THAI process[J]. Energy, 2018,151(3): 467-477.
[7] Zhao RB*; Li, BC; Yang, XY; et al. Analysis of a feasible field THAI pattern by the derivation of scaling criteria and combustion experiments[J]. Journal of Petroleum Science & Engineering, 2018,168(4): 380-389.
[8] Zhao RB*; Xu MF; Yan, JL; et al. Non-constant Diffusion Behavior for CO2 Diffusion into Brine: Influence of Density-driven Convection[J]. Journal of Solution Chemistry, 2018, 47(12):1926-1941.
[9] Zhao RB*; Zhang CH; Yang FX. Influence of temperature field on rock and heavy components variation during in-situ combustion process[J]. Fuel, 2018, 230(5): 244-257.
[10] Zhao RB*; Li BC; Yang J; et al. Temperature prediction via reaction heat calculation of burned pseudo-components during in-situ combustion[J]. Fuel, 2018, 214(2): 264-271.
[11] Zhao RB; Sun JD; Fang Q; et al. Evolution of Acidic Compounds in Crude Oil during In Situ Combustion[J]. Energy & Fuels, 2017, 31(6): 5926-5932.
[12] Zhao RB*; Wei YG; Wang ZM; et al. Kinetics of Low-Temperature Oxidation of Light Crude Oil[J]. Energy & Fuels, 2016, 30(4): 2647-2654.
[13] Zhao RB*; Xia XT; Luo WW; et al. Alteration of Heavy Oil Properties under in Situ Combustion: A Field Study[J]. Energy & Fuels. 2015, 29(10): 6839-6848.
[14] Zhao RB*; Chen YX; Huang RP; et al. An experimental investigation of the in-situ combustion behavior of Karamay crude oil[J]. Journal of Petroleum Science and Engineering. 2015,127(1): 82-92.
[15] Zhao RB*; Tang GQ; Kovscek AR*. Modification of heavy-oil rheology via alkaline solutions[J]. Journal of Petroleum Science and Engineering. 2013, 103: 41-50.
[16] ÕÔÈʱ£*£¬ºâÃ÷ºÆ£¬¼ÖÓ¨Ó¨. ´º¹âÓÍÌï³íÓ;®Í²²ôÏ¡½µð¤ÊÒÄÚʵÑéÑо¿[J]. Î÷°²Ê¯ÓÍ´óѧѧ±¨(×ÔÈ»¿Æѧ°æ). 2018, 33(2): 72-76.
[17] ÕÔÈʱ£*£¬°½Îľý£¬Ð¤°®¹ú. CO2ÔÚÔÓÍÖеÄÀ©É¢¼ÍÂɼ°±äÀ©É¢ÏµÊýÅÌËãÒªÁì[J]. ¿Ê±Ñ§±¨(×ÔÈ»¿Æѧ°æ). 2016, 40(3): 136-142. EI
[18] ÂÞçâçâ, ÕÔÈʱ£*, ÏÄÏþæõÈ. Ì«ÑôÄܹرղ۳íÓÍÈȲÉÊÖÒÕÔÚн®ÓÍÌïÓ¦ÓõĿÉÐÐÐÔÆÊÎö[J]. Î÷°²Ê¯ÓÍ´óѧѧ±¨, 2015, 30(5): 64-68.
[19] ÕÔÈʱ£*, ¸ßɺɺ, Ñî·ïÏéµÈ. ³íÓÍ»ðÉÕÀú³ÌÖеĻÄܲⶨҪÁì[J]. ʯÓÍѧ±¨, 2013, 34(6): 1125-1130. EI
[20] Zhao RB, Ke WQ, Wu YH, et al. Enhanced Heavy Oil Recovery from Fractured Vuggy Carbonated Reservoir of Tahe Oilfield with N2/CO2 Gas Mixture. SPE 132247, 2010. EI
[21] ÕÔÈʱ£*, ËﺣÌÎ, ÎâÑÇÉúµÈ. ¶þÑõ»¯Ì¼Âñ´æ¶ÔµØ²ãÑÒʯӰÏìµÄÊÒÄÚÑо¿[J]. Öйú¿Æѧ: ÊÖÒÕ¿Æѧ, 2010, 40(4): 378-384. SCI
[22] Zhao RB, Hou YL, Ke WQ, and Yue XA. Stability and water control of nitrogen foam in bulk phase and porous media[J]. Petroleum Science, 2009, 6: 181-187. SCI
[23] ÕÔÈʱ£. CO2¶Ô¹èËáÄÆ£±ûÏ¡õ£°·ÈÜÒº¾ÛºÏÐÐΪ¼°²úÆ·ÐÔ×ÓµÄÓ°Ïì. ¸ßµÈѧУ»¯Ñ§Ñ§±¨, 2009, 30(3): 596-600. SCI/EI
[24] ÕÔÈʱ£, ÔÀÏæ°², ¿ÂÎÄÆæµÈ. µªÆøÅÝÄϵͳÎȹÌÐÔµÄÓ°ÏìÒòËØÑо¿. ʯÓÍѧ±¨, 2009, 30(1): 84-87, 91. EI
[25] ÕÔÈʱ£, ÔÀÏæ°², ÎâÑǺì. µªÆøÔÚË®±¥ºÍÑÒÐÄÖеÄÉøÁ÷¼ÍÂÉ. ¼ªÁÖ´óѧѧ±¨(¹¤Ñ§°æ), 2009, 39(1): 244-248. EI
[26] Zhao RB, Yue XA, Wu YH, et al.. Flow characteristics and reaction properties of carbon dioxide in microtubules and porous media[J]. Chinese Science Bulletin, 2008, 53(21): 3409-3415. SCI
[27] ÕÔÈʱ£, ÔÀÏæ°², ÎâÑÇÉú. ÎÛÄàÓëÑÎËáÔÚ¶à¿×½éÖÊÖеķ´Ó¦¼°ÂþÑܼÍÂÉ. ¼ªÁÖ´óѧѧ±¨(¹¤Ñ§°æ), 2008, 38(5): 1252-1256. EI
[28] ÕÔÈʱ£, ÔÀÏæ°², ÎâÑǺìµÈ. ΢¹ÜÖеÄËữ·´Ó¦:³Áµí¼°½çÃæЧӦ. ¸ßµÈѧУ»¯Ñ§Ñ§±¨, 2008, 29(4): 793-798. SCI/EI
[29] ÕÔÈʱ£, ÔÀÏæ°², ºî¼ªÈðµÈ. ×ÔÉúÆøÄý½ºÅÝÄϵͳµ¥Òº·¨Éµ÷ÆʼÁ¿ÉÐÐÐÔÑо¿. ÓÍÌﻯѧ, 2005, 22(4): 362-365.
[30] ÕÔÈʱ£, ÔÀÏæ°², ÐíÈó诵È. Ë®²£Á§Äý½ºÔöÇ¿ÅÝÄϵͳµÄÐÔÄÜ. ¼ªÁÖ´óѧѧ±¨(¹¤Ñ§°æ), 2005, 35(6): 572-576. EI
[31] ÕÔÈʱ£, ÔÀÏæ°², Õź귽. AMPS¹²¾ÛÎïÈÜÒºµÄÐÔ×Ó¼°ÔÚ¶à¿×½éÖÊÖеÄÁ÷¶¯ÌØÕ÷. ʯÓÍѧ±¨, 2005, 26(2): 890-897. EI
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