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王亚杰等:中国lyperCoal清洁高值化应用研究现状与展望 ·1759 行大规模的工业化试验.因此,未来需要着重解 ash-free coal fuel cell.Electrochimica Acta,2014,115:511 决HP℃的规模化生产问题,设计和制造经济性 [12]Wang Q,Cheng Y,Wu C N,et al.A novel energy conservation 高、运行可靠、清洁高效的HPC工业化生产装置 process for zero emission of carbon dioxide:Chemical looping combustion.Prog Chem,2008,20(10):1612 是关键.此外,还需要对HPC的萃取机理和作用 (王琦,程易,吴昌宁,等.新型节能C0,零排放工艺:化学循环燃 机制进行更加深入研究,这有助于提高我们对 烧技术.化学进展,2008,20(10):1612) HPC的认知水平,进一步拓展和丰富HPC的应用 [13]Shabani A,Rahman M,Pudasainee D,et al.Evaluation of ash-free 价值 coal for chemical looping combustion-part I:Thermogravimetric single cycle study and the reaction mechanism.CanChem Eng. 参考文献 2017,95(4):623 [1]Wang YY.Research on current situation and countermeasures of [14]Shabani A,Rahman M,Pudasainee D,et al.Evaluation of ash-free coal-fired air pollutants control in China.Coal Econ Res,2019, coal for chemical looping combustion-part Il:Thermogravimetric 39(8):66 multi-cycle performance.Can J Chem Eng,2017,95(5):832 [15]Liu H W,Ni W D,Li Z,et al.Strategic thinking on IGCC (王永英.我国燃煤大气污染物控制现状及对策研究.煤炭经济 development in China.Energy Policy,2008,36(1):1 研究,2019,39(8)片:66) [2]Zhao L J.Current situation of coal deashing technology and its [16]Kong Y J,Kim J,Chun D,et al.Comparative studies on steam gasification of ash-free coals and their original raw coals.IntJ development in future.Energy Sci Technol,2021,19(1):83 Hydrog Energ,2014,39(17):9212 (赵利军.煤炭除灰技术的现状和发展.能源科技,2021,19(1): [17]Park S H,Chung S W,Lee S K,et al.Thermo-economic 83) evaluation of 300 MW class integrated gasification combined [3]Zhang S.The Application of Pre-Treatment in Producing Ash-Free cycle with ash free coal (AFC)process.Appl Therm Eng,2015,89: Coal by Low Rank Coals [Dissertation].Tangshan:North China 843 University of Science and Technology,2016 [18]Sharma A,Kawashima H,Saito I,et al.Structural characteristics (张帅.预处理在低阶煤制备无灰煤中的应用学位论文】.唐山: and gasification reactivity of chars prepared from K2CO3 mixed 华北理工大学,2016) HyperCoals and coals.Energy Fuels,2009,23(4):1888 [4]Song X,Peng Y,Gong L S.Research and prospect in coal [19]Sharma A,Saito I,Takanohashi T.Effect of steam partial pressure reprocessing field of chemical deashing in rare coking coal.Coal on gasification rate and gas composition of product gas from Technol,2020,39(8:202 catalytic steam gasification of HyperCoal.Energy Fuels,2009. (宋璇,彭垠,巩林盛.化学脱灰在稀缺炼焦煤中煤再选领域的 23(10):4887 研究与前景探讨.煤炭技术,2020,39(8):202) [20]Sharma A,Takanohashi T,Morishita K,et al.Low temperature [5]Rahman M,Pudasainee D,Gupta R.Review on chemical catalytic steam gasification of HyperCoal to produce Ha and upgrading of coal:Production processes,potential applications and synthesis gas.Fuel,2008,87(4-5):491 recent developments.Fuel Process Technol,2017,158:35 [21]Sharma A,Takanohashi T,Saito I.Effect of catalyst addition on [6]Okuyama N,Komatsu N,Shigehisa T,et al.Hyper-coal process to gasification reactivity of HyperCoal and coal with steam at 775- produce the ash-free coal.Fuel Process Technol,2004,85(8-10): 700℃.Fel,2008,87(12):2686 947 [22]Sharma A,Takanohashi T.Controlling the H,/CO ratio of the [7]Yang J X,Wei W J.Qi Y,et al.Research progress on hyper-coal synthesis gas in a single step by catalytically gasifying coal in a for efficient utilization.J China Coal Soc,2020,45(9):3301 steam and carbon dioxide mixed environment at low temperatures. (杨建校,魏文杰,祁勇,等.无灰煤高效利用研究进展.煤炭学 Energy Fuels,2010,24(3):1745 报,2020,45(9):3301) [23]Koyano K,Takanohashi T,Saito I.Catalytic hydrogenation of [8]Fan L H,Liang Y H,Hou C X.Research progress on ash-free coal HyperCoal (ashless coal)and reusability of catalyst.Energy Fuels, preparation and application.Coal Sci Technol,2011,39(3):120 2009,23(7):3652 (樊丽华,梁英华,侯彩霞.无灰煤的制备及应用研究进展.煤炭 [24]Zou D H,Yang X,Shui H F,et al.Liquefaction of thermal extracts 科学技术,2011,39(3):120) from co-thermal dissolution of a sub-bituminous coal with lignin [9]Kim J P,Choi HK,Chang Y J,et al.Feasibility of using ash-free and reusability of Ni-Mo-S/A2O;catalyst.J Fuel Chem Technol, coal in a solid-oxide-electrolyte direct carbon fuel cell.Int 2019.47(1):23 Hydrog Energ,2012,37(15):11401 [25]Takanohashi T,Shishido T,Saito I.Effects of HyperCoal addition [10]Dudek M,Tomczyk P,Socha R,et al.Use of ash-free "Hyper- on coke strength and thermoplasticity of coal blends.Energy coal"as a fuel for a direct carbon fuel cell with solid oxide Fues,2008,22(3):1779 electrolyte.IntJHydrog Energy,2014,39(23):12386 [26]Sekine Y,Fujimoto H.Evaluation of the structure and strength of [11]Ju H,Eom J,Lee JK,et al.Durable power performance of a direct coke with HPC binder under various preparation conditions./SL/行大规模的工业化试验. 因此,未来需要着重解 决 HPC 的规模化生产问题,设计和制造经济性 高、运行可靠、清洁高效的 HPC 工业化生产装置 是关键. 此外,还需要对 HPC 的萃取机理和作用 机制进行更加深入研究 ,这有助于提高我们对 HPC 的认知水平,进一步拓展和丰富 HPC 的应用 价值. 参    考    文    献 Wang Y Y. Research on current situation and countermeasures of coal-fired  air  pollutants  control  in  China. Coal Econ Res,  2019, 39(8): 66 (王永英. 我国燃煤大气污染物控制现状及对策研究. 煤炭经济 研究, 2019, 39(8):66) [1] Zhao  L  J.  Current  situation  of  coal  deashing  technology  and  its development in future. Energy Sci Technol, 2021, 19(1): 83 (赵利军. 煤炭除灰技术的现状和发展. 能源科技, 2021, 19(1): 83) [2] Zhang S. The Application of Pre-Treatment in Producing Ash-Free Coal by Low Rank Coals [Dissertation].  Tangshan:  North  China University of Science and Technology, 2016 ( 张帅. 预处理在低阶煤制备无灰煤中的应用[学位论文]. 唐山: 华北理工大学, 2016) [3] Song  X,  Peng  Y,  Gong  L  S.  Research  and  prospect  in  coal reprocessing field of chemical deashing in rare coking coal. Coal Technol, 2020, 39(8): 202 (宋璇, 彭垠, 巩林盛. 化学脱灰在稀缺炼焦煤中煤再选领域的 研究与前景探讨. 煤炭技术, 2020, 39(8):202) [4] Rahman  M,  Pudasainee  D,  Gupta  R.  Review  on  chemical upgrading of coal: Production processes, potential applications and recent developments. Fuel Process Technol, 2017, 158: 35 [5] Okuyama N, Komatsu N, Shigehisa T, et al. Hyper-coal process to produce the ash-free coal. Fuel Process Technol, 2004, 85(8-10): 947 [6] Yang J X, Wei W J, Qi Y, et al. Research progress on hyper-coal for efficient utilization. J China Coal Soc, 2020, 45(9): 3301 (杨建校, 魏文杰, 祁勇, 等. 无灰煤高效利用研究进展. 煤炭学 报, 2020, 45(9):3301) [7] Fan L H, Liang Y H, Hou C X. Research progress on ash-free coal preparation and application. Coal Sci Technol, 2011, 39(3): 120 (樊丽华, 梁英华, 侯彩霞. 无灰煤的制备及应用研究进展. 煤炭 科学技术, 2011, 39(3):120) [8] Kim J P, Choi H K, Chang Y J, et al. Feasibility of using ash-free coal  in  a  solid-oxide-electrolyte  direct  carbon  fuel  cell. Int J Hydrog Energy, 2012, 37(15): 11401 [9] Dudek  M,  Tomczyk  P,  Socha  R,  et  al.  Use  of  ash-free “Hyper￾coal” as  a  fuel  for  a  direct  carbon  fuel  cell  with  solid  oxide electrolyte. Int J Hydrog Energy, 2014, 39(23): 12386 [10] [11] Ju H, Eom J, Lee J K, et al. Durable power performance of a direct ash-free coal fuel cell. Electrochimica Acta, 2014, 115: 511 Wang Q, Cheng Y, Wu C N, et al. A novel energy conservation process  for  zero  emission  of  carbon  dioxide:  Chemical  looping combustion. Prog Chem, 2008, 20(10): 1612 (王琦, 程易, 吴昌宁, 等. 新型节能CO2零排放工艺: 化学循环燃 烧技术. 化学进展, 2008, 20(10):1612) [12] Shabani A, Rahman M, Pudasainee D, et al. Evaluation of ash-free coal for chemical looping combustion - part I: Thermogravimetric single cycle study and the reaction mechanism. Can J Chem Eng, 2017, 95(4): 623 [13] Shabani A, Rahman M, Pudasainee D, et al. Evaluation of ash-free coal for chemical looping combustion - part II: Thermogravimetric multi-cycle performance. Can J Chem Eng, 2017, 95(5): 832 [14] Liu  H  W,  Ni  W  D,  Li  Z,  et  al.  Strategic  thinking  on  IGCC development in China. Energy Policy, 2008, 36(1): 1 [15] Kong  Y  J,  Kim  J,  Chun  D,  et  al.  Comparative  studies  on  steam gasification  of  ash-free  coals  and  their  original  raw  coals. Int J Hydrog Energy, 2014, 39(17): 9212 [16] Park  S  H,  Chung  S  W,  Lee  S  K,  et  al.  Thermo-economic evaluation  of  300  MW  class  integrated  gasification  combined cycle with ash free coal (AFC) process. Appl Therm Eng, 2015, 89: 843 [17] Sharma A, Kawashima H, Saito I, et al. Structural characteristics and  gasification  reactivity  of  chars  prepared  from  K2CO3 mixed HyperCoals and coals. Energy Fuels, 2009, 23(4): 1888 [18] Sharma A, Saito I, Takanohashi T. Effect of steam partial pressure on  gasification  rate  and  gas  composition  of  product  gas  from catalytic  steam  gasification  of  HyperCoal. Energy Fuels,  2009, 23(10): 4887 [19] Sharma  A,  Takanohashi  T,  Morishita  K,  et  al.  Low  temperature catalytic  steam  gasification  of  HyperCoal  to  produce  H2 and synthesis gas. Fuel, 2008, 87(4-5): 491 [20] Sharma A, Takanohashi T, Saito I. Effect of catalyst addition on gasification  reactivity  of  HyperCoal  and  coal  with  steam  at  775- 700 ℃. Fuel, 2008, 87(12): 2686 [21] Sharma  A,  Takanohashi  T.  Controlling  the  H2 /CO  ratio  of  the synthesis  gas  in  a  single  step  by  catalytically  gasifying  coal  in  a steam and carbon dioxide mixed environment at low temperatures. Energy Fuels, 2010, 24(3): 1745 [22] Koyano  K,  Takanohashi  T,  Saito  I.  Catalytic  hydrogenation  of HyperCoal (ashless coal) and reusability of catalyst. Energy Fuels, 2009, 23(7): 3652 [23] Zou D H, Yang X, Shui H F, et al. Liquefaction of thermal extracts from  co-thermal  dissolution  of  a  sub-bituminous  coal  with  lignin and reusability of Ni‒Mo‒S/Al2O3 catalyst. J Fuel Chem Technol, 2019, 47(1): 23 [24] Takanohashi T, Shishido T, Saito I. Effects of HyperCoal addition on  coke  strength  and  thermoplasticity  of  coal  blends. Energy Fuels, 2008, 22(3): 1779 [25] Sekine Y, Fujimoto H. Evaluation of the structure and strength of coke  with  HPC  binder  under  various  preparation  conditions. ISIJ [26] 王亚杰等: 中国 HyperCoal 清洁高值化应用研究现状与展望 · 1759 ·
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