李英杰
Professor
Visit:
Personal Information:
  • Name (Pinyin):
    liyingjie
  • Date of Employment:
    2009-07-16
  • School/Department:
    核科学与能源动力学院
  • Education Level:
    With Certificate of Graduation for Doctorate Study
  • Gender:
    Male
  • Degree:
    Doctor
  • Status:
    Employed
  • Alma Mater:
    东南大学
  • Supervisor of Doctorate Candidates
  • Supervisor of Master's Candidates
Discipline:
Thermal Power Engineering;
Biography

李英杰,男,工学博士,教授,博士生导师,能源与动力工程学院热能工程研究所所长。担任中国计量测试学会多相流测试专业委员会委员、《洁净煤技术》编委、《热能动力工程》编委、《中南大学学报(自然科学版)》客座编辑、中国化学链会议暨国际研讨会学术委员会委员、中韩清洁能源国际会议学术委员会委员。作为负责人承担和完成国家自然科学基金项目/联合基金重点项目任务(6项)、国家重点研发计划国合重点专项子课题、江苏省双碳科技创新重点专项子课题、山东省自然科学基金重点项目(课题)、山东省重点研发计划项目、教育部博士学科点基金、山东省自然科学基金、中国博士后科学基金特别资助、煤燃烧国家重点实验室开放课题等二十多项国家、省部级课题和企业课题。研究方向:固体吸附剂捕集CO2、生物质气化制氢、甲烷裂解制氢、太阳能中高温钙基热化学储能、高温熔盐储能等。获山东省优秀研究生导师(2023)、济南市领军人才(2021)、教育部自然科学奖二等奖(2014)、山东省自然科学学术创新奖(2016)、山东省高等学校科学技术奖二等奖(2020)、山东省优秀科研成果自然科学一等奖(2014)/二等奖(2015)/三等奖(2012)、山东大学优秀研究生指导教师(2021)、山东省优秀博士学位论文指导奖(2020、2022、2023)、山东省优秀硕士学位论文指导奖(2019、2021、2022、2023)、山东大学优秀博士学位论文指导奖(2020、2022、2023、2024)、山东大学优秀硕士学位论文指导奖(2016、2017、2019、2021、2022、2023)、山东大学本科课堂教学比赛二等奖(2014)、山东大学青年教学能手(2014)、山东大学课堂教学质量优秀教师(2016)、江苏省优秀博士学位论文奖(2011)等荣誉和奖励。被Chemical Engeering Journal、Applied Energy、Fuel等9个国际权威期刊授予“Outstanding Award Reviewer”和“Top Reviewer Award ”。分别入选全球前 2% 顶尖科学家榜单(2020-2024)、全球顶尖前10万科学家排名。以第一/通讯作者在Applied Catalysis B: Environmental (IF=24.32)Chemical Engineering Journal (IF=16.74)Applied Energy (IF=11.45)Energy Conversion and Management (IF=11.53)等权威期刊发表论文130多篇,其中SCI收录100多篇,Ei收录20多篇,其中6篇论文入选ESI高被引论文或热点论文;获得授权发明专利10多项,1项专利已转化。担任Nature CommunicationsACS Catalysis、Energy Storage MaterialsChemical Engineering Journal等国内外期刊的论文评审人。

培养博士生7人、硕士生30多人。研究生毕业后赴澳大利亚昆士兰大学(全奖)、德国斯图加特大学、比利时法语鲁汶大学(全奖)、英国杜伦大学及浙江大学、上海交通大学、东南大学、天津大学、山东大学等高校继续深造,或在河北大学、山东科技大学、南京工程学院、安徽工业大学、扬州大学、青岛科技大学、华能(北京总部)、南方电网、国电投战略研究院、上海电气辅机厂、中广核苏州院(大连)、国家核电、山东核电、中国重汽、中海油气电、哈汽、徐州重工等事业、央/国企单位从事教学、科研、设计等工作。所培养的研究生中,3人获得山东省优秀博士学位论文奖、4人获得山东省优秀硕士学位论文奖,3人获得山东省优秀研究生成果奖一等奖和二等奖,4人获得山东大学优秀博士论文奖,6人获山东大学优秀硕士学位论文奖,4人获得山东省优秀学生称号,4人获得山东省优秀毕业生称号,1人获第五届山东大学“学术之星奖”(研究生最高学术荣誉,当年度全校仅7人获得,学院首位入选者),1人入选山东大学“榜样的力量”学生年度人物(当年度全校仅10人/团队获得),5人获研究生校长奖(研究生最高荣誉),17人获研究生国家奖学金,9人获山东大学研究生优秀成果奖,指导4人组团获得山东大学“五四”青年科学优秀成果奖(全校仅4个团队获奖)。指导学生获得第十四届全国大学生节能减排与社会实践科技竞赛一等奖(2021)、山东大学大学生节能减排与社会实践科技竞赛特等奖(2022)、第五届全国大学生可再生能源优秀科技作品竞赛三等奖(2023)、山东省大学生节能减排与社会实践科技竞赛二等奖(2023、2024)、第十/十一届山东省大学生科技创新大赛校级选拔赛一等奖(2022/2023)、山东大学大学生节能减排与社会实践科技竞赛一等奖(2024)、山东省大学生乡村环境与能源应用创新设计大赛一等奖(2024)山东省大学生节能减排与社会实践科技竞赛一等奖(2024)


Publication
Papers

1. 房意. Cohesive behavior of CaO-based particles in fluidization during CaO/CaCO3 heat storage process: Experiments and molecular dynamics simulations .Chemical Engineering Journal.2024,487

2. 房意. Calcium Looping Energy Storage Characteristics of Mn-Impregnated Limestone in Fluidization under Direct Solar Irradiation .Energy & Fuels.2024,38 (15):14720-14729

3. 房意. Generation and elimination of defluidization caused by rapid CO2 absorption during CaO/CaCO3 energy storage process .Journal of Energy Storage.2024,97

4. 魏自豪. A DFT study on catalytic cracking mechanism of tar by Ni or Fe doped CaO during biomass steam gasification .Fuel.2024,374

5. 房意. 基于分子动力学的热化学储能过程中CaO/Ca(OH)2分子扩散机制研究 .高 等 学 校 化 学 学 报.2024,45 (05):79-88

6. 李财里. TiO2/MnFe2O4 co-modified alkaline papermaking waste for CaO-CaCO3 thermochemical energy storage .Applied energy.2024,362

7. 田之寒. Thermochemical heat storage performance of Fe-doped MgO/Mg(OH)2: Experimental and DFT investigation .Journal of Energy Storage.2024,86

8. 赵雯涵. Revealing the Role of MgO in Sorption-Enhanced Water Gas Shift Reaction for H2 Production: A DFT Study .Advanced Sustainable Systems.2024

9. 张春晓. Analysis of integrated CO2 capture and utilization via calcium-looping in-situ dry reforming of methane and Fischer-Tropsch for synthetic fuels production .Separation and Purification Technology.2024,329

10. 王浠丞. Hydrothermal-calcination synthesis of lithium orthosilicate microspheres for high-temperature CO2 capture .Carbon Capture Science & Technology.2024 (13):100303

11. 尹正宇. 生物质制氢技术研究综述 .《热力发电》.2022 :1-14

12. 赵雯涵. Revealing co-promotion mechanism of Mn/Ca3Al2O6 on CO2 adsorption performance of CaO in calcium looping by density functional theory .Separation and Purification Technology.2024,329

13. . A DFT study for in-situ CO2 utilization realized by calcium-looping dry reforming of methane based on Ni/CaCO3 .Chemical Engineering Journal.2024,481

14. 边志国. Thermochemical heat storage performance and structural stability of SiO2-coated CaO particles under fluidization in CaO/Ca(OH)2 cycles .Journal of Energy Storage.2024,85

15. 张春晓. H2 production via sorption-enhanced water-gas-shift using bimetallic catalysts doped CaO-Ca12Al14O33: Experiment and density functional theory study .Separation and Purification Technology.2024,338

16. 房意. Efficient NO reduction by CO on Cu/Ce co-modified CaO in calcium looping CO2 capture process .Chemical Engineering Journal.2024,483

17. 魏自豪. Initial reaction mechanism of lignin and polyethylene steam co-gasification based on ReaxFF molecular dynamics simulation .BIOMASS CONVERSION AND BIOREFINERY.2023

18. 张友浩. DFT Study of the Cooperative Promotion of MgO and ZnO on CaCO3/CaO Thermochemical Heat Storage Performance of CaO .energy fuels.2023,37 (20):16119

19. 张友浩. DFT Study of the Cooperative Promotion of MgO and ZnO on CaCO3/CaO Thermochemical Heat Storage Performance of CaO .Energy & Fuels.2023,37 (20):16119-16130

20. 张友浩. CaO/CaCO3 thermochemical energy storage performance of MgO/ZnO co-doped CaO honeycomb in cycles .Journal of Energy Storage.2023,66

21. 褚志炜. A review on resource utilization of oil sludge based on pyrolysis and gasification .Journal of Environmental Chemical Engineering.2023,11 (3)

22. 魏自豪. Mechanism investigations on co-pyrolysis of polyethylene and biomass using ReaxFF simulation and DFT computation .Journal of Environmental Chemical Engineering.2023,11 (5)

23. 赵建立. 基于反馈控制教学理念的高校虚拟仿真型生产实习改革与实践 ——以山东大学能源与动力工程学院能源与动力工程专业为例 .西部素质教育.2021,7 (13):24-26

24. 房意. Exothermic Performance of the Calcined Limestone Determined by Exothermic Temperature under Fluidization during CaCO<sub>3</sub>/CaO Energy Storage Cycles .JOURNAL OF THERMAL SCIENCE.2023,32 (5):1784

25. 齐建荟. Design space analysis for supercritical CO2 radial inflow turbine stators .THERMAL SCIENCE AND ENGINEERING PROGRESS.2023,38

26. 郝雅楠. Zn改性Sr/γ-Al2O3 表面吸附甲醇活化羟基的分子模拟 .《农业工程学报》.2022,38 (9):253

27. 李朝阳. Thermogravimetric analysis on the characteristics of oxy-fuel co-combustion of sub-bituminous coal and semi-coke .Journal of Fuel Chemistry and Technology.2022,50 (8):937

28. 李树琛. Investigation on co-combustion characteristics of oily sludge and ginkgo leaves through thermogravimetric analysis coupled with artificial neural network .SCIENCE CHINA Technological Sciences.2022,65 (2):261

29. 刘思彤. α-Fe2O3(001)及其掺杂表面吸附As2O3机制的密度泛函理论 .《哈尔滨工业大学学报》.2022,54 (7):20

30. 郝雅楠. Zn改性Sr/γ-Al2O3表面吸附甲醇活化羟基的分子模拟 .《农业工程学报》.2023,38 (9):253

31. 赵雯涵. 钙基工业固废循环捕集CO2性能的研究进展 .《煤炭学报》.2022,47 (11):3926

32. 张友浩. ZnO对于CaO吸附CO2性能影响的DFT研究 .中南大学学报(自然科学版).2022,53 (12):4657

33. 李财里. Ca3B2O6-modified papermaking white mud for CaCO3/CaO thermochemical energy storage .Chemical Engineering Journal.2023 (461):142096

34. 张春晓. Thermodynamic analysis of integrated sorption-enhanced staged-gasification of biomass and in-situ CO2 utilization by methane reforming process based on calcium looping .Energy Conversion and Management.2023 (278):116710

35. 边志国. Thermochemical heat storage performance of CaO particles under fluidization in coupled CaO/Ca(OH)2 cycles and CaO/CaCO3 cycles .Journal of Energy Storage.2022 (56):106045

36. 魏自豪. Revealing the mechanism on steam co-gasification of cellulose and polyethylene: A combined ReaxFF and DFT study .Fuel.2023 (334):126784

37. 褚志炜. Process analysis of H2 production from pyrolysis-CO2 gasification-water gas shift for oil sludge based on calcium looping .Fuel.2023 (342):127916

38. Sun, Rongyue. Enhancement of CO2 capture capacity by modifying limestone with propionic acid .powder technology.2013,233 :8-14

39. 房意. Effect of steam on heat storage and attrition performance of limestone under fluidization during CaO/CaCO3 heat storage cycles .REACTION CHEMISTRY & ENGINEERING.2022,7 (10):2093

40. 李财里. Thermochemical energy storage performance of papermaking soda residue during CaO-CaCO3 cycles .JOURNAL OF CO2 UTILIZATION.2022 (62):102072

41. 边志国. Understanding the acceleration effect of manganese and cerium doping on the hydration of CaO in CaO/Ca(OH)2 heat storage by density function theory .Journal of Energy Storage.2022 (56):105953

42. 张春晓. Microtubular Fe/Mn-promoted CaO-Ca12Al14O33 bi-functional material for H-2 production from sorption enhanced water gas shift .Applied Catalysis B: Environmental.2022 (314):121474

43. 杨英. Thermochemical heat storage and optical properties of red mud/Mn co-doped high alumina cement-stabilized carbide slag in CaO/CaCO3 cycles .Fuel Processing Technology.2022 (236):107419

44. 柴守冰. Simultaneous NO/CO2 removal performance using Ce-doped CaO in calcium looping process: Experimental and DFT studies .Journal of Environmental Chemical Engineering.2022 (10):108236

45. 王玉琢. Ca12Al14O33 or MgO supported Ni-carbide slag bi-functional materials for H-2 production and CO2 capture in sorption-enhanced steam gasification of cellulose/polyethylene mixture .Fuel.2022 (328):125209

46. 王菲菲. The mechanism for in-situ conversion of captured CO2 by CaO to CO in presence of H-2 during calcium looping process based on DFT study .Fuel.2022 (329):125402

47. 闫宪尧. Enhanced H2 production from steam gasification of biomass by red mud-doped Ca-Al-Ce bi-functional material .Applied energy.2022 (312):118737

48. 李财里. CaO/CaCO3 thermochemical energy storage performance of high-alumina granule stabilized papermaking soda residue .Fuel Processing Technology.2022 (237):107444

49. 张春晓. Sulfidation performance of MgO-modified calcium-based waste from calcium looping: Experimental and density functional theory study .Journal of Environmental Chemical Engineering.2022 (10):108039

50. 王菲菲. Mechanism insights into sorption enhanced methane steam reforming using Ni-doped CaO for H2 production by DFT study .Fuel.2022 (319):123849

51. 王菲菲. The mechanism for in-situ conversion of captured CO2 by CaO to CO in presence of H2 during calcium looping process based on DFT study .Fuel.2022,329

52. 闫宪尧. Enhanced H2 production from steam gasification of biomass by red mud-doped Ca-Al-Ce bi-functional material .Applied energy.2022,312

53. 刘思彤. α-Fe_(2)O_(3)(001)及其掺杂表面吸附As_(2)O_(3)机制的密度泛函理论 .Harbin Gongye Daxue Xuebao/Journal of Harbin Institute of Technology.2022,54 (7):20-28

54. 张春晓. Microtubular Fe/Mn-promoted CaO-Ca12Al14O33 bi-functional material for H2 production from sorption enhanced water gas shift .Applied Catalysis B: Environmental.2022,314

55. 张春晓. Analysis on H(2 )production process integrated CaO/Ca(OH)(2) heat storage and sorption enhanced staged gasification using calcium looping .Energy Conversion and Management.2022,253

56. 张婉. Effect of Mn-doped CaO on NO removal by CO in carbonation of calcium looping for CO2 capture in a fluidized bed reactor .Fuel.2022,310

57. 柴守冰. Effect of Mn-doped CaO on NO reduction by CO in carbonation stage of calcium looping: A density functional theory study .JOURNAL OF ENVIRONMENTAL CHEMICAL ENGINEERING.2022,10 (1)

58. 闫宪尧. Probing the mechanism of H2 production in water gas shift reaction over Ce-modified CaO: A DFT study .JOURNAL OF THE ENERGY INSTITUTE.2022,101 :149

59. 王玉琢. Revealing the effects of Ni on sorption-enhanced water-gas shift reaction of CaO for H-2 production by density functional theory .Process Safety and Environmental Protection.2022,157 :254

60. 李树琛. Investigating the co-combustion characteristics of oily sludge and ginkgo leaves through thermogravimetric analysis coupled with an artificial neural network .SCIENCE CHINA-TECHNOLOGICAL SCIENCES.2022,65 (2):261

61. 王敏瑞. Enhancing the Photoelectrochemical Water Oxidation Reaction of BiVO4 Photoanode by Employing Carbon Spheres as Electron Reservoirs .ACS catalysis.2020,10 (21):13031

62. 边志国. Heat release performance and evolution of CaO particles under fluidization for CaO/Ca(OH)2 thermochemical heat storage .Process Safety and Environmental Protection.2021 (155):166

63. 徐运飞. High-temperature thermochemical heat storage performance of CaO honeycomb during CaO/CaCO3 cycles .Energy & Fuels.2021 (35):16882

64. 赵建立. DISSOLUTION CHARACTERISTICS OF CALCIUM-BASED ALKALINE INDUSTRIAL DERIVED WASTES .Canadian Journal of Chemical Engineering.2015 (93)

65. 徐运飞. MgO吸附剂捕集CO2的研究进展 .洁净煤技术.2021,27 (1):125

66. 孙浩. 基于CaO/CaCO3体系的热化学储能研究进展 .中南大学学报(自然科学版).2021,52 (1):189

67. 张婉. NO removal performance of CO in carbonation stage of calcium looping for CO2 capture .CHINESE JOURNAL OF CHEMICAL ENGINEERING Journal.2021 (37):30

68. 张春晓. 等速升温流态化下CaO/生物质焦的SO2/NO联合脱除特性 .洁净煤技术.2021,27 (2):246

69. 杨英. Development of Thermochemical Heat Storage Based on CaO/CaCO3 Cycles: A Review .energies.2021 (14)

70. 闫宪尧. Understanding the enhancement of CaO on water gas shift reaction for H2 production by density functional theory .Fuel.2021 (303)

71. 马张珂. Calcium looping heat storage performance and mechanical property of CaO-based pellets under fluidization .CHINESE JOURNAL OF CHEMICAL ENGINEERING Journal.2021 (36):170

72. 张春晓. Simultaneous CO2 capture and thermochemical heat storage by modified carbide slag in coupled calcium looping and CaO/Ca(OH)2 cycles .CHINESE JOURNAL OF CHEMICAL ENGINEERING Journal.2021 (36):76

73. 王玉琢. The effect of Cu on NO reduction by char with density functional theory in carbonation stage of calcium looping .Fuel.2021 (283)

74. 赵建立. 基于反馈控制教学理念的高校虚拟仿真型生产实习改革与实践 .西部素质教育.2021,7 (13):24

75. 赵建立. Thermogravimetric Analysis and Kinetics of Combustion of Raw and Torrefied Pine Sawdust .Journal of Chemical Engineering of Japan.2015 (48)

76. 张婉. Efficient NO reduction by carbon-deposited CaO in the carbonation step of calcium looping for the CO2 capture .REACTION CHEMISTRY & ENGINEERING.2021

77. 李博宇. SiC/Mn co-doped CaO pellets with enhanced optical and thermal properties for calcium looping thermochemical heat storage .Chemical Engineering Journal.2021,423

78. 李博宇. SiC/Mn co-doped CaO pellets with enhanced optical and thermal properties for calcium looping thermochemical heat storage .Chemical Engineering Journal.2021,423

79. 胡玉平. H2S removal performance of Ca3Al2O6-stabilized carbide slag from CO2 capture cycles using calcium looping .FUEL PROCESSING TECHNOLOGY Journal.2021,218

80. 王玉琢. A study on co-pyrolysis mechanisms of biomass and polyethylene via ReaxFF molecular dynamic simulation and density functional theory .Process Safety and Environmental Protection.2021,150 :22

81. 张继刚. Co-combustion characteristics and kinetics of meager coal and spent cathode carbon block by TG-MS analysis .ARABIAN JOURNAL OF CHEMISTRY.2021,14 (7)

82. 张春晓. Simultaneous CO2 capture and heat storage by a Ca/Mg-based composite in coupling calcium looping and CaO/Ca(OH)(2) cycles using air as a heat transfer fluid .REACTION CHEMISTRY & ENGINEERING.2021,6 (1):100

83. 闫宪尧. Hydrogen production from absorption-enhanced steam gasification of Enteromorpha prolifera and its char using Ce-doped CaO material .Fuel.2021,287

84. 边志国. CaO/Ca(OH)(2) heat storage performance of hollow nanostructured CaO-based material from Ca-looping cycles for CO2 capture .FUEL PROCESSING TECHNOLOGY Journal.2021,217

85. 吕泽康. Theoretical insights into the poisoning effect of Na and K on alpha-Fe2O3 catalyst for selective catalytic reduction of NO with NH3 .Applied Catalysis A: General.2021,610

86. 王丛. Vanadium Nitride/Porous Carbon Composites on Ni Foam for High-Performance Supercapacitance .ChemistrySelect.2019,4 (37):11189

87. 周文波. 钛改性对γ-Fe2O3选择催化还原脱硝性能强化机制的分子模拟研究 .燃料化学学报.2020,48 (10):1224

88. 厉志鹏. Sr掺杂对CaO(100)表面吸附甲醇影响的分子模拟 .燃料化学学报.2020,48 (2):172

89. 孙超颖. Coupled CO(2)capture and thermochemical heat storage of CaO derived from calcium acetate .GREENHOUSE GASES-SCIENCE AND TECHNOLOGY.2020,10 (5):1027

90. 赵建立. 能源与动力工程专业虚拟仿真型生产实习教学模式研究 .教育教学论坛.2020 (12)

91. 马晓彤. Development of Mn/Mg-copromoted carbide slag for efficient CO2 capture under realistic calcium looping conditions .Process Safety and Environmental Protection.2020,141 :380

92. 李博宇. Simultaneous NO/SO2 removal by coconut shell char/CaO from calcium looping in a fluidized bed reactor .KOREAN JOURNAL OF CHEMICAL ENGINEERING Journal.2020,37 (4):688

93. 孙超颖. 钙循环捕集CO2后CaO的水合/脱水热化学储热性能研究 .《化工进展》.2020,39 (5):1734

94. 边志国. SO2 removal performances of Al- and Mg-modified carbide slags from CO2 capture cycles at calcium looping conditions .Journal of Thermal Analysis and Calorimetry.2020

95. 张婉. Simultaneous NO/CO2 removal by Cu-modified biochar/CaO in carbonation step of calcium looping process .Chemical Engineering Journal.2020,392

96. 闫宪尧. Density Functional Theory Study on CO2 Adsorption by Ce-Promoted CaO in the Presence of Steam .ENERGY & FUELS Journal.2020,34 (5):6197

97. 张婉. Simultaneous NO/CO2 removal performance of biochar/limestone in calcium looping process .Fuel.2020,262

98. 马张珂. Energy storage and attrition performance of limestone under fluidization during CaO/CaCO3 cycles .energy.2020,207

99. 汪鑫. Simultaneous SO2 and NO removal by pellets made of carbide slag and coal char in a bubbling fluidized-bed reactor .Process Safety and Environmental Protection.2020,134 :83

100. 孙浩. Thermochemical energy storage performance of Al2O3/CeO2 co-doped CaO-based material under high carbonation pressure .Applied energy.2020,263

101. 孙浩. CaO/CaCO3 thermochemical heat storage performance of CaO-based micrometre-sized tubular composite .Energy Conversion and Management.2020,222

102. 李博宇. Thermochemical Heat Storage Performance of CaO Pellets Fabricated by Extrusion-Spheronization under Harsh Calcination Conditions .ENERGY & FUELS Journal.2020,34 (5):6462

103. 闫宪尧. CeO2-modified CaO/Ca12Al14O33 bi-functional material for CO2 capture and H-2 production in sorption-enhanced steam gasification of biomass .energy.2020,192

104. 马张珂. 基于钙循环的Mn-Mg修饰石灰石流态化储热及磨损特性研究 .石油学报.石油加工.2020,36 (6):1370

105. 边志国. CaO/H2O Thermochemical Heat Storage Capacity of a CaO/CeO2 Composite from CO2 Capture Cycles .INDUSTRIAL & ENGINEERING CHEMISTRY RESEARCH Journal.2020,59 (38):16741

106. 李慧亮. In situ extract nucleate sites for the growth of free-standing carbon nitride films on various substrates .Ctalysis today.2020,340 :92

107. 王丛. Molybdenum Nitride Electrocatalysts for Hydrogen Evolution More Efficient than Platinum/Carbon: Mo2N/CeO2@Nickel Foam .ACS Applied Materials & Interfaces.2020,12 (26):29153

108. 厉志鹏. Investigation into influences of methanol pre-adsorption on CaO(100) surface in transesterification for biodiesel production with molecular simulation .APPLIED CATALYSIS A-GENERAL.2021,609 (1):117908

109. 吕泽康. Theoretical insights into the poisoning effect of Na and K on alpha-Fe2O3 catalyst for selective catalytic reduction of NO with NH3 .Applied catalysis A : General.2021,610 (1):117968

110. 张玉娇. Synthesis of the SrO-CaO-Al2O3 trimetallic oxide catalyst for transesterification to produce biodiesel .Renewable Energy .2021,168 (1):981

111. liyingjie , wangzeyan  and 马晓彤. A Carbide Slag-Based, Ca12Al14O33-Stabilized Sorbent Prepared by the Hydrothermal Template Method Enabling Efficient CO2 Capture .energies.2019,12 (13):2617

112. liyingjie , wangzeyan  and 迟长云. Synthesis of a hollow microtubular Ca/Al sorbent with high CO2 uptake by hard templating .Applied Energy.2019,251 :113382

113. liyingjie , wangzeyan  and sunhao. Thermochemical energy storage performances of Ca-based natural and waste materials under high pressure during CaO/CaCO3 cycles .Energy Conversion and Management.2019,197 :111885

114. liyingjie , zhaojianli , wangzeyan  and 汪鑫. Simultaneous SO<inf>2</inf>/NO removal performance of carbide slag pellets by bagasse templating in a bubbling fluidized bed reactor .Fuel Processing Technology.2018,45 :75

115. liyingjie  and 马晓彤. CO<inf>2</inf>capture performance of calcium-based synthetic sorbent with hollow core-shell structure under calcium looping conditions .Applied Energy.2018,47 :402

116. liyingjie , zhaojianli , wangzeyan  and 苑艺. CaO/Ca(OH)<inf>2</inf> thermochemical heat storage of carbide slag from calcium looping cycles for CO<inf>2</inf> capture .Energy Conversion and Management.2018,37 :2019

117. liyingjie , zhaojianli , wangzeyan  and 张婉. A study of the synergistic effects of Mn/steam on CO2 capture performance of CaO by experiment and DFT calculation .GREENHOUSE GASES-SCIENCE AND TECHNOLOGY.2019,9 (2):409

118. wangzeyan , liyingjie , Huang Baibiao , Zhaoke Zheng , wangpeng , liuyuanyuan , zhangxiaoyang , qinxiaoyan  and Dai Ying. Graphitic carbon nitride tetragonal hollow prism with enhanced photocatalytic hydrogen evolution .International journal of hydrogen energy.2019,44 (54):28780

119. wangzeyan , Huang Baibiao , zhangxiaoyang , qinxiaoyan , wangpeng , liuyuanyuan , Dai Ying  and liyingjie. Fabrication of In2O3/ZnO hetero-epitaxial-junctions with enhanced PEC performances .Materials Today Energy.2017,6 :65

120. luchunmei  and liyingjie. Enhancement of CO2 capture capacity by modifying limestone with propionate acid .Powder technology.2013,233 (1):8

121. luchunmei  and liyingjie. CO2 capture performance of calcium-based sorbent doped with manganese salts during calcium looping cycle .Applied energy.2012,89 (1):368

122. wangzeyan , Huang Baibiao , zhangxiaoyang , qinxiaoyan , Dai Ying  and liyingjie. Anisotropic Photoelectrochemical (PEC) Performances of ZnO Single-Crystalline Photoanode: Effect of Internal Electrostatic Fields on the Separation of Photo-generated Charge Carriers during PEC Water Splitting .Chemistry of Materials.2016,28 :6613

123. luchunmei  and liyingjie. Utilization of lime mud from paper mill as CO2 sorbent in calcium looping process .Chemical Engineering Journal.2013,221 (1):124

124. luchunmei , liyingjie  and zhaojianli. CO2 capture using carbide slag modified by propionic acid in calcium looping process for hydrogen production .International journal of hydrogen energy.2013,38 (31 ):13655

125. Dai Ying , Huang Baibiao , wangzeyan , liuyuanyuan , wangpeng , Zhaoke Zheng , liyingjie  and 李慧亮. Effect of the intra- and inter-triazine N-vacancies on the photocatalytic hydrogen evolution of graphitic carbon nitride .Chemical Engineering Journal.2019,369 :263

126. Huang Baibiao , wangzeyan , wangpeng , Zhaoke Zheng , liuyuanyuan , Dai Ying , liyingjie  and 黄慧宁. Efficient near-infrared photocatalysts based on NaYF4:Yb3+,Tm3+@ NaYF4:Yb3+, Nd3+@TiO2 core@shell nanoparticles .Chemical Engineering Journal.2019,361 :1089

127. liyingjie , zhaojianli , wangzeyan  and 李英杰. Preparation of a morph-genetic CaO-based sorbent using paper fibre as a biotemplate for enhanced CO2 capture .Chemical Engineering Journal.2019

128. liyingjie  and 李英杰. 钙基碳载体造粒的捕集CO2特性及力学性能 .化工学报(中、英文版).2018

129. liyingjie , zhaojianli , wangzeyan  and 李英杰. Performance of Li4SiO4 Material for CO2 Capture: A Review .INTERNATIONAL JOURNAL OF MOLECULAR SCIENCES .2019

130. liyingjie , zhaojianli , wangzeyan  and 李英杰. CO2 capture by a novel CaO/MgO sorbent fabricated from industrial waste and dolomite under calcium looping conditions .New Journal of Chemistry .2019

131. liyingjie , wangzeyan , zhaojianli  and 李英杰. DFT study of CO2 adsorption across a CaO/Ca12Al14O33 sorbent in the presence of H2O under calcium looping conditions .Chemical Engineering Journal.2019

132. liyingjie , zhaojianli , wangzeyan  and 苑艺. CaO/Ca(OH)(2) thermochemical heat storage of carbide slag from calcium looping cycles for CO2 capture .ENERGY CONVERSION AND MANAGEMENT.2018,174 :8

133. liyingjie , zhaojianli  and 苑艺. Development on Thermochemical Energy Storage Based on CaO-Based Materials: A Review .Sustainability.2018,10 (8)

134. liyingjie  and 马晓彤. CO2 capture performance of calcium-based synthetic sorbent with hallow core-shell structure under calcium looping conditions .Applied energy.2018,225 :402

135. liyingjie  and 李英杰. 钙基吸收剂脱除HCl的研究进展 .《化工进展》.2013,32 (8):1921

136. wangzeyan , zhangxiaoyang , qinxiaoyan , Dai Ying , liuyuanyuan , wangpeng , liyingjie  and 张博. Doping strategy to promote the charge separation in BiVO<inf>4</inf>photoanodes .Appl. Catal. B Environ..2017,211 :258

137. liyingjie  and 李英杰. Enhanced CO2 capture capacity of limestone by discontinuous addition of hydrogen chloride in carbonation at calcium looping conditions .Chemical Engineering Journal.2017, 316 :438

138. liyingjie  and 史杰文. CO2 capture performance of a novel synthetic CaO/sepiolite sorbent at calcium looping conditions .Applied energy.2017, 203 :412

139. liyingjie  and 何梓睿. Effect of re-carbonation on CO2 capture by carbide slag and energy consumption in the calciner .ENERGY CONVERSION AND MANAGEMENT.2017, 148 :1468

140. liyingjie  and 马晓彤. CO2 Capture Performance of Mesoporous Synthetic Sorbent Fabricated Using Carbide Slag under Realistic Calcium Looping Conditions .energy & fuels.2017, 31 (7):7299

141. Huang Baibiao , wangzeyan , zhangxiaoyang , qinxiaoyan , Dai Ying , liuyuanyuan , wangpeng , liyingjie  and 张博. Doping strategy to promote the charge separation in BiVO4 photoanodes .Applied Catalysis B-Environmental.2017, 211 :258

142. liyingjie  and 李英杰. Synthesis of highly reactive sorbent from industrial wastes and its CO2 capture capacity .Journal of Southeast University (English Edition).2015,31 (2):209

143. liyingjie , wangzeyan  and 马晓彤. CO2 capture performance of cement-modified carbide slag .Korean Journal of Chemical Engineering.2017, 34 (2):580

144. liyingjie  and 李英杰. 间歇氯化对电石渣循环捕集CO2性能的影响 .化工学报.2016,67 (12):5268

145. liyingjie , zhaojianli , luchunmei , wangzeyan  and 李英杰. Simultaneous CO2/SO2 adsorption performance of carbide slag in adsorption/desorption cycles .Canadian Journal of Chemical Engineering.2016,94 (1):33

146. liyingjie  and 张婉. CO2 capture by carbide slag calcined under high-concentration steam and energy requirement in calcium looping conditions .Applied energy.2017, 206 :869

147. liyingjie  and 迟长云. CO2 capture performance of CaO modified with by-product of biodiesel at calcium looping conditions .Chemical Engineering Journal.2017, 326 :378

148. liyingjie  and 李英杰. Simultaneous CO2/HCl removal using carbide slag in repetitive adsorption/desorption cycles .Fuel.2015,142 :21

149. liyingjie  and 李英杰. CO2 capture performance of synthetic sorbent prepared from carbide slag and aluminum nitrate hydrate by combustion synthesis .Applied energy.2015,145 :60-68

150. liyingjie  and luchunmei. Enhancement of CO2 capture capacity by modifying limestone with propionate acid .Powder technology.2013,233 (1):8

151. luchunmei  and liyingjie. 电石渣高温协同捕集CO2/SO2实验研究 .《工程热物理学报》.2013,34 (5):973

152. liyingjie  and 李英杰. 流态化下电石渣循环煅烧/碳酸化捕集CO2研究 .《中国电机工程学报》.2014,34 (26):4447

153. liyingjie  and 李英杰. Synthesis of highly reactive sorbent from industrial wastes and its CO2 capture capacity .4th International Workshop on Oxy-fuel FBC Technology.2014

154. liyingjie  and 李英杰. HCl改善电石渣循环捕集CO2性能研究 .2014年国工程热物理学会燃烧学学术年会论文集.2014

155. Niu Shengli , liyingjie , Han Kuihua , zhaojianli  and luchunmei. Thermal decomposition characteristics of calcium based organic compounds under carbon dioxide enriched atmosphere through thermogravimetric analysis .Advanced Materials research.2012,516-517 :494

156. liyingjie  and 李英杰. H2S Removal by Cycled Carbide Slag in Calcium Looping Process .4th International Workshop on Oxy-fuel FBC Technology.2014

157. liyingjie  and 李英杰. SO2 retention by highly cycled modified CaO-based sorbent in calcium looping process .Journal of Thermal Analysis and Calorimetry.2014,116 (2):955

158. liyingjie  and 李英杰. HCl removal behavior of Mg-stabilized carbide slag from CO2 capture cycles using calcium looping .RSC advances.2016,6 :104303

159. liyingjie  and 李英杰. 改性钙基吸收剂高温循环捕集CO2过程中的分形维数研究 .《中国电机工程学报》.2011,31 (29):35

160. luchunmei  and liyingjie. 白泥高温循环捕集CO2实验研究 .中国工程热物理学会燃烧学学术会议.2011,0 (0):46

161. liyingjie  and luchunmei. CO2 capture performance of calcium-based sorbent doped with manganese salts during calcium looping cycle .Applied energy.2012,89 (1):368

162. liyingjie  and 李英杰. Influence of Different Steam Concentration On Carbonation Reaction of the Carbide Slag .32nd Annual International Pittsburgh Coal Conference.2015 :35

163. liyingjie , wangzeyan , luchunmei  and 李英杰. Attrition behavior of calcium-based waste during CO2 capture cycles using calcium looping in a fluidized bed reactor .Chemical Engineering Research and Design.2016,109 :806

164. liyingjie , wangzeyan  and 李英杰. Fabrication and CO2 capture performance of magnesia-stabilized carbide slag by by-product of biodiesel during calcium looping process .Applied energy.2016,168 :85

165. liyingjie , wangzeyan  and 李英杰. Influence of Steam in Carbonation Stage on CO2 Capture by Ca-Based Industrial Waste during Calcium Looping Cycles .International journal of hydrogen energy.2016,41 (7):4296

166. liyingjie  and 李英杰. HCl absorption by CaO/Ca3Al2O6 sorbent from CO2 capture cycles using calcium looping .Fuel Processing Technology.2015,138 :508

167. liyingjie , zhangxiaoyang , qinxiaoyan , Dai Ying , Huang Baibiao  and wangzeyan. Anisotropic Photoelectrochemical (PEC) Performances of ZnO Single-Crystalline Photoanode: Effect of Internal Electrostatic Fields on the Separation of Photo-generated Charge Carriers during PEC Water Splitting .Chemistry of Materials.2016

168. liyingjie  and 李英杰. 造纸白泥循环煅烧/碳酸化捕集CO2后的硫酸化特性 .《燃烧科学与技术》.2013,19 (4):299

169. liyingjie  and 李英杰. 木醋废液调质石灰石循环捕集CO2反应特性 .山东大学学报(工学版).2013,43 (3):82

170. liyingjie , luchunmei  and 李英杰. Sulfation behavior of CaO from long-term carbonation/calcination cycles for CO2 capture at FBC temperatures .Journal of Thermal Analysis and Calorimetry.2013,111 (2):1335

171. luchunmei  and liyingjie. 白泥循环煅烧/碳酸化捕集CO2反应特性 .《煤炭学报》.2013,38 (4):675

172. liyingjie  and luchunmei. Utilization of lime mud from paper mill as CO2 sorbent in calcium looping process .chemical engineering journal.2013,221 (1):124

173. liyingjie  and 李英杰. 铝饰电石渣循环捕集CO2后的脱氯特性研究 .2014年中国工程热物理学会燃烧学学术年会论文集.2014

174. luchunmei  and liyingjie. 循环碳酸化/煅烧后CaO的H2S吸收特性研究 .2014年中国工程热物理学会燃烧学学术年会论文集.2014

175. liyingjie  and 李英杰. 电石渣在煅烧/氯化反应中的HCl脱除特性研究 .《燃料化学学报》.2014,42 (5):560

176. liyingjie  and 李英杰. HCl removal using cycled carbide slag from calcium looping cycles .Applied energy.2014,135 (12):391

177. liyingjie  and 李英杰. Effect of the presence of HCl on cyclic CO2 capture of calcium-based sorbent in calcium looping process .Applied energy.2014,125 :246

178. liyingjie  and 李英杰. Studies on adsorption of carbon dioxide on alkaline paper mill waste using cyclic process .ENERGY CONVERSION AND MANAGEMENT.2014,82 (6):46

179. liyingjie  and 李英杰. Cyclic CO2 capture of carbide slag modified by pyroligneous acid in calcium looping cycles .Asia-Pacific Journal of Chemical Engineering.2014,9 (5):678

180. liyingjie , luchunmei  and 李英杰. 循环捕集CO2 后煅烧石灰石的硫化特性 .化工学报.2015

181. liyingjie  and 李英杰. Cyclic carbonation properties of calcium-based industrial wastes during calcium looping cycle .2nd International Workshop on Oxyfuel FBC Technology.2012

182. liyingjie  and 李英杰. CO2 capture by carbonated carbide slag seriflux after drying in calcium looping cycles .4th International Workshop on Oxy-fuel FBC Technology.2014

183. liyingjie  and 李英杰. CO2 Capture by Carbonated Carbide Slag Seriflux after Drying in Calcium Looping Cycles .Journal of Southeast University (English Edition).2015,31 (2):204

184. liyingjie  and 李英杰. Studies on CO2 uptake by CaO/Ca3Al2O6 sorbent in calcium looping cycles .Journal of Thermal Analysis and Calorimetry.2015,120 (3):1519

185. zhaojianli , liyingjie , Han Kuihua , Niu Shengli  and luchunmei. Dissolution Characteristics of Calcium-based Alkaline Industrial Wastes .Journal of Chemical Engineering of Japan.2013,46 (12):827

186. liyingjie , luchunmei  and 李英杰. Sequential SO2/CO2 Capture of Calcium-Based Solid Waste from the Paper Industry in the Calcium Looping Process .industrial & engineering chemistry research.2012,51 (49):16042

187. liyingjie , luchunmei  and 李英杰. Thermal analysis of cyclic carbonation behavior of CaO derived from carbide slag at high temperature .Journal of Thermal Analysis and Calorimetry.2012,110 (2):685

188. liyingjie , luchunmei  and 李英杰. CO2 capture by carbide slag from chlor-alkali plant in calcination/carbonation cycles .International Journal of Greenhouse Gas Control.2012,9 :117

189. zhaojianli , liyingjie  and luchunmei. CO2 capture using carbide slag modified by propionic acid in calcium looping process for hydrogen production .International journal of hydrogen energy.2013,38 (31 ):13655

190. liyingjie , Han Kuihua , luchunmei , zhaojianli  and 李英杰. 流化床锅炉温度条件下钙基工业废弃物的固硫反应性能 .化工学报.2010,61 (3):712

191. liyingjie  and 李英杰. 基于钙循环的燃煤电站燃气/蒸汽联合循环捕集CO2系统模拟 .《煤炭学报》.2011,36 (1):118

192. liyingjie  and 李英杰. Thermodynamic Simulation of CO2 Capture for IGCC Power Plant Using Calcium Looping Cycle .Chemical Engineering & Technology.2011,34 (6):946

193. liyingjie , zhaojianli , Han Kuihua , luchunmei  and 李英杰. 石灰石和白云石高温循环脱除CO2过程分析 .化工学报.2011,62 (6):1693

194. liyingjie , luchunmei  and 李英杰. Capture Behavior of Limestone Modified with Pyroligneous Acid (PA) during Calcium Looping Cycle .industrial & engineering chemistry research.2011,50 (17):10222

195. luchunmei  and liyingjie. CO2 capture performance using limestone modified with propionate acid during calcium looping cycle .The 7th International Symposium on Coal Combustion.2011,0 (0):1

196. liyingjie , zhaojianli , Han Kuihua , luchunmei  and 李英杰. Sulfation behavior of white mud from paper manufacture as SO2 sorbent at fluidized bed combustion temperatures .Journal of Thermal Analysis and Calorimetry.2012,107 (1):241

197. liyingjie , luchunmei  and 李英杰. Reactivation Properties of Carbide Slag as a CO2 Sorbent during Calcination/Carbonation Cycles .The 7th International Symposium on Coal Combustion.2011,0 (0):1

198. luchunmei  and liyingjie. 硝酸锰对钙基吸收剂循环煅烧碳酸化捕集CO2的影响 .《煤炭学报》.2011,36 (8):1391

199. liyingjie , zhaojianli , wangzeyan  and 汪鑫. Simultaneous SO2/NO removal performance of carbide slag pellets by bagasse templating in a bubbling fluidized bed reactor .Fuel Processing Technology.2018,180 :75

200. liyingjie  and 李英杰. 废液调质石灰石的循环捕集CO2反应特性 .中国工程热物理学会燃烧学学术会议.2010,0 (0):155

201. liyingjie , luchunmei  and 李英杰. Cl对钙基吸收剂捕集CO2性能的影响 .《工程热物理学报》.2014

202. liyingjie , luchunmei  and 李英杰. 硫酸化反应对天然CO2载体CaO高温循环碳捕集的影响 .《煤炭学报》.2011,36 (7):1206

203. zhaojianli , wangzeyan  and 李英杰. Preparation of a morph-genetic CaO-based sorbent using paper fibre as a biotemplate for enhanced CO2 capture .Chemical Engineering Journal.2019

204. 李英杰. 钙基碳载体造粒的捕集CO2特性及力学性能 .化工学报(中、英文版).2018

205. zhaojianli , wangzeyan  and 李英杰. Performance of Li4SiO4 Material for CO2 Capture: A Review .INTERNATIONAL JOURNAL OF MOLECULAR SCIENCES .2019

206. zhaojianli , wangzeyan  and 李英杰. CO2 capture by a novel CaO/MgO sorbent fabricated from industrial waste and dolomite under calcium looping conditions .New Journal of Chemistry .2019

207. wangzeyan , zhaojianli  and 李英杰. DFT study of CO2 adsorption across a CaO/Ca12Al14O33 sorbent in the presence of H2O under calcium looping conditions .Chemical Engineering Journal.2019

208. liyingjie  and luchunmei. Enhancement of CO2 capture capacity by modifying limestone with propionate acid .Powder technology.2013,233 (1):8

209. liyingjie  and luchunmei. 电石渣高温协同捕集CO2/SO2实验研究 .《工程热物理学报》.2013,34 (5):973

210. liyingjie  and luchunmei. 白泥高温循环捕集CO2实验研究 .中国工程热物理学会燃烧学学术会议.2011,0 (0):46

211. liyingjie  and luchunmei. CO2 capture performance of calcium-based sorbent doped with manganese salts during calcium looping cycle .Applied energy.2012,89 (1):368

212. liyingjie , zhangxiaoyang , qinxiaoyan , Dai Ying , Huang Baibiao  and wangzeyan. Anisotropic Photoelectrochemical (PEC) Performances of ZnO Single-Crystalline Photoanode: Effect of Internal Electrostatic Fields on the Separation of Photo-generated Charge Carriers during PEC Water Splitting .Chemistry of Materials.2016

213. liyingjie  and luchunmei. 白泥循环煅烧/碳酸化捕集CO2反应特性 .《煤炭学报》.2013,38 (4):675

214. liyingjie  and luchunmei. Utilization of lime mud from paper mill as CO2 sorbent in calcium looping process .chemical engineering journal.2013,221 (1):124

215. liyingjie  and luchunmei. 循环碳酸化/煅烧后CaO的H2S吸收特性研究 .2014年中国工程热物理学会燃烧学学术年会论文集.2014

216. zhaojianli , liyingjie  and luchunmei. CO2 capture using carbide slag modified by propionic acid in calcium looping process for hydrogen production .International journal of hydrogen energy.2013,38 (31 ):13655

217. liyingjie  and luchunmei. CO2 capture performance using limestone modified with propionate acid during calcium looping cycle .The 7th International Symposium on Coal Combustion.2011,0 (0):1

218. liyingjie  and luchunmei. 硝酸锰对钙基吸收剂循环煅烧碳酸化捕集CO2的影响 .《煤炭学报》.2011,36 (8):1391

219. Dai Ying , Huang Baibiao , wangzeyan , liuyuanyuan , wangpeng , Zhaoke Zheng , liyingjie  and 李慧亮. Effect of the intra- and inter-triazine N-vacancies on the photocatalytic hydrogen evolution of graphitic carbon nitride .Chemical Engineering Journal.2019,369 :263

220. wangzeyan , wangpeng , Zhaoke Zheng , liuyuanyuan , Dai Ying , liyingjie , Huang Baibiao  and 黄慧宁. Efficient near-infrared photocatalysts based on NaYF4:Yb3+,Tm3+@ NaYF4:Yb3+, Nd3+@TiO2 core@shell nanoparticles .Chemical Engineering Journal.2019,361 :1089

221. zhaojianli , wangzeyan  and 李英杰. Performance of Li4SiO4 Material for CO2 Capture: A Review .INTERNATIONAL JOURNAL OF MOLECULAR SCIENCES .2019

222. zhaojianli , wangzeyan  and 李英杰. CO2 capture by a novel CaO/MgO sorbent fabricated from industrial waste and dolomite under calcium looping conditions .New Journal of Chemistry .2019

223. wangzeyan , zhaojianli  and 李英杰. DFT study of CO2 adsorption across a CaO/Ca12Al14O33 sorbent in the presence of H2O under calcium looping conditions .Chemical Engineering Journal.2019

224. zhaojianli , wangzeyan  and 李英杰. Preparation of a morph-genetic CaO-based sorbent using paper fibre as a biotemplate for enhanced CO2 capture .Chemical Engineering Journal.2019

225. 李英杰. 钙基碳载体造粒的捕集CO2特性及力学性能 .化工学报(中、英文版).2018

226. wangzeyan , zhangxiaoyang , qinxiaoyan , Dai Ying , liuyuanyuan , wangpeng , liyingjie  and 张博. Doping strategy to promote the charge separation in BiVO<inf>4</inf>photoanodes .Appl. Catal. B Environ..2017,211 :258

227. Huang Baibiao , wangzeyan , zhangxiaoyang , qinxiaoyan , Dai Ying , liuyuanyuan , wangpeng , liyingjie  and 张博. Doping strategy to promote the charge separation in BiVO4 photoanodes .Applied Catalysis B-Environmental.2017, 211 :258

228. zhangxiaoyang , qinxiaoyan , Dai Ying , liyingjie , Huang Baibiao  and wangzeyan. Anisotropic Photoelectrochemical (PEC) Performances of ZnO Single-Crystalline Photoanode: Effect of Internal Electrostatic Fields on the Separation of Photo-generated Charge Carriers during PEC Water Splitting .Chemistry of Materials.2016

229. liyingjie  and luchunmei. Enhancement of CO2 capture capacity by modifying limestone with propionate acid .Powder technology.2013,233 (1):8

230. zhaojianli , liyingjie  and luchunmei. CO2 capture using carbide slag modified by propionic acid in calcium looping process for hydrogen production .International journal of hydrogen energy.2013,38 (31 ):13655

231. liyingjie  and luchunmei. Utilization of lime mud from paper mill as CO2 sorbent in calcium looping process .chemical engineering journal.2013,221 (1):124

232. liyingjie  and luchunmei. 循环碳酸化/煅烧后CaO的H2S吸收特性研究 .2014年中国工程热物理学会燃烧学学术年会论文集.2014

233. liyingjie  and luchunmei. 白泥循环煅烧/碳酸化捕集CO2反应特性 .《煤炭学报》.2013,38 (4):675

234. liyingjie  and luchunmei. 电石渣高温协同捕集CO2/SO2实验研究 .《工程热物理学报》.2013,34 (5):973

235. liyingjie  and luchunmei. CO2 capture performance using limestone modified with propionate acid during calcium looping cycle .The 7th International Symposium on Coal Combustion.2011,0 (0):1

236. liyingjie  and luchunmei. CO2 capture performance of calcium-based sorbent doped with manganese salts during calcium looping cycle .Applied energy.2012,89 (1):368

237. liyingjie , Han Kuihua , zhaojianli , luchunmei  and Niu Shengli. Thermal decomposition characteristics of calcium based organic compounds under carbon dioxide enriched atmosphere through thermogravimetric analysis .Advanced Materials research.2012,516-517 :494

238. liyingjie , Han Kuihua , Niu Shengli , luchunmei  and zhaojianli. Dissolution Characteristics of Calcium-based Alkaline Industrial Wastes .Journal of Chemical Engineering of Japan.2013,46 (12):827

239. liyingjie  and luchunmei. 硝酸锰对钙基吸收剂循环煅烧碳酸化捕集CO2的影响 .《煤炭学报》.2011,36 (8):1391

240. liyingjie  and luchunmei. 白泥高温循环捕集CO2实验研究 .中国工程热物理学会燃烧学学术会议.2011,0 (0):46

241. liyingjie , zhaojianli  and 苑艺. Development on Thermochemical Energy Storage Based on CaO-Based Materials: A Review .Sustainability.2018,10 (8)

242. liyingjie  and 张婉. CO2 capture by carbide slag calcined under high-concentration steam and energy requirement in calcium looping conditions .Applied energy.2017, 206 :869

243. liyingjie  and 马晓彤. CO2 capture performance of calcium-based synthetic sorbent with hallow core-shell structure under calcium looping conditions .Applied energy.2018,225 :402

244. liyingjie , zhaojianli , wangzeyan  and 苑艺. CaO/Ca(OH)(2) thermochemical heat storage of carbide slag from calcium looping cycles for CO2 capture .ENERGY CONVERSION AND MANAGEMENT.2018,174 :8

245. liyingjie , wangzeyan  and 马晓彤. CO2 capture performance of cement-modified carbide slag .Korean Journal of Chemical Engineering.2017, 34 (2):580

246. liyingjie , zhaojianli , wangzeyan  and 汪鑫. Simultaneous SO2/NO removal performance of carbide slag pellets by bagasse templating in a bubbling fluidized bed reactor .Fuel Processing Technology.2018,180 :75

247. liyingjie  and 何梓睿. Effect of re-carbonation on CO2 capture by carbide slag and energy consumption in the calciner .ENERGY CONVERSION AND MANAGEMENT.2017, 148 :1468

248. liyingjie  and 迟长云. CO2 capture performance of CaO modified with by-product of biodiesel at calcium looping conditions .chemical engineering journal.2017, 326 :378

249. liyingjie  and 史杰文. CO2 capture performance of a novel synthetic CaO/sepiolite sorbent at calcium looping conditions .Applied energy.2017, 203 :412

250. liyingjie  and 马晓彤. CO2 Capture Performance of Mesoporous Synthetic Sorbent Fabricated Using Carbide Slag under Realistic Calcium Looping Conditions .energy & fuels.2017, 31 (7):7299

251. 李英杰. 间歇氯化对电石渣循环捕集CO2性能的影响 .化工学报.2016,67 (12):5268

252. 李英杰. HCl removal behavior of Mg-stabilized carbide slag from CO2 capture cycles using calcium looping .RSC advances.2016,6 :104303

253. wangzeyan , luchunmei  and 李英杰. Attrition behavior of calcium-based waste during CO2 capture cycles using calcium looping in a fluidized bed reactor .Chemical Engineering Research and Design.2016,109 :806

254. wangzeyan  and 李英杰. Fabrication and CO2 capture performance of magnesia-stabilized carbide slag by by-product of biodiesel during calcium looping process .Applied energy.2016,168 :85

255. wangzeyan  and 李英杰. Influence of Steam in Carbonation Stage on CO2 Capture by Ca-Based Industrial Waste during Calcium Looping Cycles .International journal of hydrogen energy.2016,41 (7):4296

256. zhaojianli , luchunmei , wangzeyan  and 李英杰. Simultaneous CO2/SO2 adsorption performance of carbide slag in adsorption/desorption cycles .Canadian Journal of Chemical Engineering.2016,94 (1):33

257. 李英杰. Influence of Different Steam Concentration On Carbonation Reaction of the Carbide Slag .32nd Annual International Pittsburgh Coal Conference.2015 :35

258. 李英杰. HCl absorption by CaO/Ca3Al2O6 sorbent from CO2 capture cycles using calcium looping .Fuel Processing Technology.2015,138 :508

259. 李英杰. Synthesis of highly reactive sorbent from industrial wastes and its CO2 capture capacity .Journal of Southeast University (English Edition).2015,31 (2):209

260. 李英杰. CO2 Capture by Carbonated Carbide Slag Seriflux after Drying in Calcium Looping Cycles .Journal of Southeast University (English Edition).2015,31 (2):204

261. 李英杰. Studies on CO2 uptake by CaO/Ca3Al2O6 sorbent in calcium looping cycles .Journal of Thermal Analysis and Calorimetry.2015,120 (3):1519

262. 李英杰. CO2 capture performance of synthetic sorbent prepared from carbide slag and aluminum nitrate hydrate by combustion synthesis .Applied energy.2015,145 :60-68

263. 李英杰. Simultaneous CO2/HCl removal using carbide slag in repetitive adsorption/desorption cycles .Fuel.2015,142 :21

264. luchunmei  and 李英杰. 循环捕集CO2 后煅烧石灰石的硫化特性 .化工学报.2015

265. 李英杰. Cyclic carbonation properties of calcium-based industrial wastes during calcium looping cycle .2nd International Workshop on Oxyfuel FBC Technology.2012

266. 李英杰. CO2 capture by carbonated carbide slag seriflux after drying in calcium looping cycles .4th International Workshop on Oxy-fuel FBC Technology.2014

267. 李英杰. H2S Removal by Cycled Carbide Slag in Calcium Looping Process .4th International Workshop on Oxy-fuel FBC Technology.2014

268. 李英杰. 铝饰电石渣循环捕集CO2后的脱氯特性研究 .2014年中国工程热物理学会燃烧学学术年会论文集.2014

269. 李英杰. HCl改善电石渣循环捕集CO2性能研究 .2014年国工程热物理学会燃烧学学术年会论文集.2014

270. 李英杰. 流态化下电石渣循环煅烧/碳酸化捕集CO2研究 .《中国电机工程学报》.2014,34 (26):4447

271. 李英杰. 电石渣在煅烧/氯化反应中的HCl脱除特性研究 .《燃料化学学报》.2014,42 (5):560

272. 李英杰. HCl removal using cycled carbide slag from calcium looping cycles .Applied energy.2014,135 (12):391

273. 李英杰. Effect of the presence of HCl on cyclic CO2 capture of calcium-based sorbent in calcium looping process .Applied energy.2014,125 :246

274. 李英杰. Studies on adsorption of carbon dioxide on alkaline paper mill waste using cyclic process .ENERGY CONVERSION AND MANAGEMENT.2014,82 (6):46

275. 李英杰. SO2 retention by highly cycled modified CaO-based sorbent in calcium looping process .Journal of Thermal Analysis and Calorimetry.2014,116 (2):955

276. 李英杰. Cyclic CO2 capture of carbide slag modified by pyroligneous acid in calcium looping cycles .Asia-Pacific Journal of Chemical Engineering.2014,9 (5):678

277. 李英杰. 造纸白泥循环煅烧/碳酸化捕集CO2后的硫酸化特性 .《燃烧科学与技术》.2013,19 (4):299

278. 李英杰. 钙基吸收剂脱除HCl的研究进展 .《化工进展》.2013,32 (8):1921

279. 李英杰. 木醋废液调质石灰石循环捕集CO2反应特性 .山东大学学报(工学版).2013,43 (3):82

280. luchunmei  and 李英杰. Sulfation behavior of CaO from long-term carbonation/calcination cycles for CO2 capture at FBC temperatures .Journal of Thermal Analysis and Calorimetry.2013,111 (2):1335

281. luchunmei  and 李英杰. Cl对钙基吸收剂捕集CO2性能的影响 .《工程热物理学报》.2014

282. luchunmei  and 李英杰. Sequential SO2/CO2 Capture of Calcium-Based Solid Waste from the Paper Industry in the Calcium Looping Process .industrial & engineering chemistry research.2012,51 (49):16042

283. luchunmei  and 李英杰. Thermal analysis of cyclic carbonation behavior of CaO derived from carbide slag at high temperature .Journal of Thermal Analysis and Calorimetry.2012,110 (2):685

284. luchunmei  and 李英杰. CO2 capture by carbide slag from chlor-alkali plant in calcination/carbonation cycles .International Journal of Greenhouse Gas Control.2012,9 :117

285. luchunmei  and 李英杰. 硫酸化反应对天然CO2载体CaO高温循环碳捕集的影响 .《煤炭学报》.2011,36 (7):1206

286. zhaojianli , Han Kuihua , luchunmei  and 李英杰. 石灰石和白云石高温循环脱除CO2过程分析 .化工学报.2011,62 (6):1693

287. Han Kuihua , luchunmei , zhaojianli  and 李英杰. 流化床锅炉温度条件下钙基工业废弃物的固硫反应性能 .化工学报.2010,61 (3):712

288. 李英杰. 改性钙基吸收剂高温循环捕集CO2过程中的分形维数研究 .《中国电机工程学报》.2011,31 (29):35

289. 李英杰. 废液调质石灰石的循环捕集CO2反应特性 .中国工程热物理学会燃烧学学术会议.2010,0 (0):155

290. 李英杰. 基于钙循环的燃煤电站燃气/蒸汽联合循环捕集CO2系统模拟 .《煤炭学报》.2011,36 (1):118

291. 李英杰. Thermodynamic Simulation of CO2 Capture for IGCC Power Plant Using Calcium Looping Cycle .Chemical Engineering & Technology.2011,34 (6):946

292. zhaojianli , Han Kuihua , luchunmei  and 李英杰. Sulfation behavior of white mud from paper manufacture as SO2 sorbent at fluidized bed combustion temperatures .Journal of Thermal Analysis and Calorimetry.2012,107 (1):241

293. luchunmei  and 李英杰. Reactivation Properties of Carbide Slag as a CO2 Sorbent during Calcination/Carbonation Cycles .The 7th International Symposium on Coal Combustion.2011,0 (0):1

294. luchunmei  and 李英杰. Capture Behavior of Limestone Modified with Pyroligneous Acid (PA) during Calcium Looping Cycle .industrial & engineering chemistry research.2011,50 (17):10222

295. 李英杰. Enhanced CO2 capture capacity of limestone by discontinuous addition of hydrogen chloride in carbonation at calcium looping conditions .chemical engineering journal.2017, 316 :438

Patens
Research project

1. 化学链甲烷裂解制氢过程催化剂失活机理研究, 2023/11/29-2026/11/30

2. 多元熔盐体系构建与性能调控研究, 2023/10/07-2027/03/31

3. 太阳能辅助固体材料捕集、转化CO2基础研究, 2022/11/08-2026/12/31

4. 基于钙循环的中空微结构钙基材料强化生物质氢/储热基础研究, 2023/02/15-2024/12/31

5. 有机固废高温裂解及转化研究, 2022/10/12-2025/09/22

6. 基于修饰钙基固废的CaCO3/CaO/Ca(OH)2双循环梯级储热机理及性能研究, 2022/09/07-2026/12/31

7. 面向碳中和目标的碳捕集利用与封存的技术路线及实施策略研究, 2021/11/12-2022/01/31

8. 纳米多孔钙基材料合成及其在制氢/储能耦合体系中的性能研究, 2020/12/12-2023/12/31

9. 农林有机固废气化制氢关键技术研究, 2021/01/01-2023/12/31

10. 煤掺烧电解铝废阴极炭块的氟释放机理研究, 2020/06/02-2021/12/01

11. 基于大数据智慧型并网机组网源协同调频关键技术研究与工程应用, 2020/04/16-2021/11/30

12. 电机热管理优化设计计算, 2019/12/14-2020/12/31

13. 钙基工业废料在燃煤烟气捕集CO2和储能耦合中的反应机理研究, 2019/01/01-2020/12/31

14. 碱基工业废弃物用作燃煤脱硫剂的开发与研究, 2007/01/01-2009/12/30

15. 山东电力产业低碳化技术路线与对策研究, 2010/10/01-2011/12/31

16. 粉煤灰基添加剂对生物质燃烧过程中积灰、结渣与腐蚀的作用机制研究, 2017/08/01-2020/06/30

17. 新型铁基催化剂低温SCR脱硝性能与优化机理, 2013/01/01-2015/12/31

18. 生物质燃烧中气相KCl/HCl/NOx/SO2一体化协同脱除机理研究, 2012/08/17-2015/12/31

19. 基于电石渣高效催化废油脂转酯化制备生物燃油的特性研究, 2012/07/01-2014/12/31

20. 电站锅炉原煤燃烧特性测试技术协议, 2010/11/25-2010/12/31

21. 混煤燃烧特性与技术研究, 2010/10/08-2010/12/31

22. 纳米多孔钙基材料合成及其在制氢/储能耦合体系中的性能研究, 2018/01/01-2020/12/01

23. 基于钙基CO2载体的生物质气化制氢和储能耦合体系基础研究, 2018/08/16-2022/12/31

24. 煤制氢过程中CO2捕集与催化转化一体化研究, 2015/01/01-2017/12/01

25. 含氯燃料燃烧/气化过程中氯化对钙基材料循环捕集CO2影响机理, 2012/01/01-2014/12/01

26. 循环流化床煤解耦燃烧SO2/NOx超低排放关键技术研究, 2016/09/01-2017/12/31

27. 钙基吸收剂循环吸收烟气CO2过程耦合生物质焦还原NOx机理研究, 2016/01/01-2018/12/31

28. 微波煅烧钙基吸收剂循环脱除锅炉烟气中CO2的方法及装置, 2014/06/20-2019/06/20

29. 修饰钙基废料重整制氢中捕集CO2机理及循环特性研究, 2013/08/15-2017/12/31

30. 煤加氢气化中钙基废料循环同步吸收H2S/CO2反应规律及机理, 2011/07/01-2014/07/01

31. 钙基废弃物循环煅烧/碳酸化-硫酸化反应捕集CO2/SO2机理, 2011/01/01-2013/12/31

32. 钙基废弃物作为CO2高温载体的循环反应规律及机理研究, 2011/01/01-2013/12/31

33. 钙基吸收剂循环吸收烟气CO2过程耦合生物质焦还原NOx机理研究 , 2016/01/01-2018/12/31

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