论文著作:
[1] Zhang Long-Li*, et al. Relationships between electrical conductivity variation and coking characteristics of residue during thermal reaction through online equipment,Energy & Fuels,30(6):5404-5410,2016
[2] Zhang Long-Li*, Yang Chao-He, Wang Ji-Qian, Yang Guo-Hua, Li Li, Li Yan, Cathles Lawrence, Study on the dipole moment of asphaltene molecules through dielectric measuring. Fuel, 第140卷,609-615页,2015
[3] Zhang, Long-Li*; Yang Guo-Hua; Wang Ji-Qian; Li Yan; Li Li; Yang Chao-He, Study on the polarity, solubility, and stacking characteristics of asphaltenes, Fuel, 第128卷,366-372页, 2014
[4] 张龙力*,王春岚,赵元生,杨国华,苏梅,杨朝合. 石油沥青质含硫结构的XANES 导数光谱研究. 燃料化学学报, 第41卷,第11期, 1328-1335页, 2013. 该文章被推荐同时在该刊物与Elsevier合作的英文版发表
[5] 张龙力*,王春岚,赵元生,杨国华,杨朝合. 塔河常压渣油沥青质含硫官能团形态与其性质的关系研究, 燃料化学学报,第40卷,第9期,1081-1085页,2012. 该文章被推荐同时在该刊物与Elsevier合作的英文版发表
[6] 张龙力*,刘动动,赵愉生,杨国华,杨朝合,邢雪青. 沙特减压渣油临氮热应过程中沥青质聚集体尺寸变化研究,燃料化学学报,第41卷,第1期,46-52页,2013
[7] 张龙力*,杨国华,阙国和,杨朝合,等,大港常压渣油临氮与临氢热反应过程中胶体稳定性变化研究,燃料化学学报, 39(9):682-688页,2011
[8] 张龙力*,杨国华,阙国和,杨朝合,等,沥青质中金属的超声和均相络合萃取脱除,化工进展,第30卷,第3期,488-491页,2011
[9] 张龙力*,王善堂,杨国华,等,稠油二氧化碳降黏的化学机制研究,石油化工高等学校学报,第24卷,第2期,1-5页,2011
[10] 张龙力*,杨国华,阙国和,杨朝合,等,常减压渣油胶体稳定性与组分性质关系的研究,石油化工高等学校学报,第23卷,第3期,6-10页,2010
[11] 张龙力*,杨国华,阙国和,杨朝合,等,超声波处理对渣油胶体稳定性的改善作用初步研究,石油学报(石油加工),第26卷,第S1期(增刊),2010
[12] Zhang Long-li*, Yang Guo-hua, Que Guo-he, Yang Chao-he, Shan Hong-hong. Dipole moment variation of petroleum residue during catalytic upgrading and thermal upgrading。Energy & Fuels,第23卷,第4期,2086-2089页,2009
[13] 张龙力*,杨国华,阙国和,杨朝合,等.常压渣油组分电导率研究,石油学报(石油加工),第25卷,第4期,577-581页,2009
[14] 张龙力,杨国华,阙国和,等.渣油胶体稳定性与热反应生焦性能的关系.石油化工高等学校学报,2005,Vol.18(1):4-6
[15] 张龙力,杨国华,阙国和,等.中东常渣热反应过程中沥青质的缔合性变化规律.燃料化学学报,2004,Vol.32(2):171-174
[16] 张龙力,杨国华,孙在春,等.质量分率电导率法研究几种不同渣油的胶体稳定性.燃料化学学报,2003; 31(2):115-118
[17] 张龙力,张世杰,杨国华,等.常压渣油热反应过程中的胶体稳定性.石油学报(石油加工),2003; 19(2):82-87
[18] 张龙力,杨国华,孙在春,等.质量分率电导率法研究中东常压渣油中的沥青质聚沉.石油学报(石油加工),2002; 18(6):56-60
[19] 张龙力,杨国华,孙在春,等.超声波对沥青质分散作用的研究进展.应用声学,2002; 21(2):30-34
[20] 格尔木渣油加氢反应及生焦行为的研究,边钰清,赵元生,张龙力*,赵愉生,杨朝合,燃料化学学报,2019,47(8):1016-1024
[21] 反应条件对渣油加氢产物中碱性氮化物的影响. 乔进帅,赵愉生,曹哲哲,陈朋伟,赵琳,杨恒魁,张龙力*. 石油炼制与化工,2018,49(3):35-40
[22] 自由基引发剂强化稠油催化水热裂解降黏行为, 刘义刚,展学成,邹剑,张龙力*,王秋霞,张华,周法元. 中国科学:化学, 2018, (04):451-458
[23] 胶质和沥青质对渣油胶体稳定性的影响述评. 乔进帅,张龙力*,陈朋伟,曹哲哲,山红红. 应用化工,2017,46(6):1180-1184
[24] 双功能配体修饰的Ir催化剂在“氢甲酰化-缩醛化”串联反应中的共催化作用, 杨妲, 张龙力*, 刘欢*,化学学报, 2021, 79, 658-662.
[25] Co-catalysis for hydroamidocarbonylation of alkynes with amides over a bifunctional ligand-based Pd catalyst, 杨妲, 周广照, 张龙力*, 刘欢*, Chemistry-An Asian Journal, 2021, 16, 1-6
[26] 渣油加氢反应样品中含铁和含钙化合物溶解性能研究,王现元,张涛,张龙力*,赵愉生,边钰清,杨朝合,燃料化学学报,49(6):771-779,2021
[27] 王艳萍, 王秋霞, 杨妲, 胡婷玉, 张龙力*, 姜翠玉*. Synthesis and properties evaluation of novel Gemini surfactant with temperature tolerance and salt resistance for heavy oil, Journal of Molecular liquids, 2023, Volume 382, 121851
[28] Effect of Temperature on Asphaltene Precipitation in Crude Oils from Xinjiang Oilfield. Mingxuan Li, Yupeng Tian, Chuangye Wang, Cuiyu Jiang, Chaohe Yang, and Longli Zhang*.ACS Omega 2022 7 (41), 36244-36253.DOI: 10.1021/acsomega.2c03630
[29] Mingxuan Li, Xi Chen, Wanjun Chen, Jiqian Wang, Longli Zhang*. The effect of low-temperature oxidation on asphaltene structure and properties during air injection, Fuel,2023.129051.
[30] Xianyuan W ,Tao Z ,Longli Z* , et al.Distribution and Form of Iron and Calcium Compounds Before and After Residue Hydrogenation Under Different Space Velocities[J].China Petroleum Processing & Petrochemical Technology,2022,24(03):86-94.
[31]张玉,初伟,张龙力*,曹嫣镔,王继乾.胜利稠油水热裂解过程中沥青质结构特征的变化分析[J].油田化学,2023,40(01):93-101.DOI:10.19346/j.cnki.1000-4092.2023.01.016.
[32] Cailing Zheng, Zi Wang, Qiuxia Wang, Hongju Chen, Chuangye Wang, Jian Hou, Lina Shi, Dexin Liu, and Longli Zhang*. Effect of Fe(III) Species on the Stability of a Water-Model Oil Emulsion with an Anionic Sulfonate Surfactant as an Emulsifier,ACS Omega 2022 7 (41), 36343-36353
[33] Yanping Wang, Qiuxia Wang, Yugui Han, Cailing Zheng, Cuiyu Jiang, Chuangye Wang, Longli Zhang*, The structure effect on the physicochemical properties of Gemini surfactants used as viscosity reducer for heavy oil, Journal of Molecular Liquids, Volume 390, Part A, 2023, 123055
[34] Y Zhang, Y. , Yan, J. , Li, M. , Chen, X. , & Zhang, L. . (2024). The effect of free radical initiator in promoting aquathermolysis of heavy oil under mild conditions. Fuel, 375.
[35] Jiang J, Wang Z, Yan J, Wang C, Diao D, Zhang Y, Zhang L. Dual-responsive emulsion system: Unraveling pH and host-guest interactions for emulsion stability and enhanced oil recovery[J]. Colloids and Surfaces A: Physicochemical and Engineering Aspects, [J]. 2024, 684: 133253.
[36] Jiang J, Wang Z, Wang C, Shi L, Hou J, Zhang L. Effect of nonionic surfactants on the synergistic interaction between asphaltene and resin: emulsion phase inversion and stability[J]. Colloids and Surfaces A: Physicochemical and Engineering Aspects, [J]. 2023, 675: 132056.
[37] Jiang J, Wang Z, Wang C, Shi L, Hou J, Zhang L*. Model Emulsions Stabilized with Nonionic Surfactants: Structure and Rheology Across Catastrophic Phase Inversion[J]. ACS omega, 2022, 7(48): 44012-44020.
[38] Yanping Wang, Qiuxia Wang, Da Yang, Zhang L*,et al. Synthesis and properties evaluation of novel Gemini surfactant with temperature tolerance and salt resistance for heavy oil[J]. Journal of Molecular Liquids, 2023, 385: 121851.
[39] Yanping Wang, Qiuxia Wang, Yugui Han, Zhang L*, et al. The structure effect on the physicochemical properties of Gemini surfactants used as viscosity reducer for heavy oil[J]. Journal of Molecular Liquids, 2023, 390: 123055.
[40] Yanping Wang, Cailing Zheng, Lina Shi, Zhang L*,et al. Properties and aggregation behavior of Gemini surfactants for heavy oil Recovery in high temperature and salinity conditions[J]. Energy & Fuels, 2023.
[41] Yanping Wang, Mingxuan Li, Jian Hou, Zhang L*,et al. Design, synthesis and properties evaluation of emulsified viscosity reducers with temperature tolerance and salt resistance for heavy oil[J]. Journal of Molecular Liquids, 2022, 356: 118977.