Page 81 - 《精细化工》2022年第10期
P. 81

第 10 期                      任   爽,等:  零价铁材料还原水中硝酸盐的研究进展                                 ·2015·


                 Degradation of tetrachloride carbon by ultrasound synergized with   [71]  WANG  R, XU S  Y, ZHANG  M, et al. Iron as electron donor for
                 nanoscale iron[J]. Chemical Industry and Engineering Progress (化工  denitrification: The efficiency, toxicity and mechanism[J]. Ecotoxicology
                 进展), 2005, 24(12): 1401-1404.                     and Environmental Safety, 2020, 194: 110343.
            [60]  RYU A, JEONG S W, JANG A, et al. Reduction of highly concentrated   [72]  SUN H W, WANG J, JIANG Y, et al. Rapid aerobic inactivation and
                 nitrate using nanoscale zero-valent iron: Effects of aggregation and   facile removal of escherichia coli with amorphous zero-valent iron
                 catalyst on reactivity[J]. Applied Catalysis B: Environmental, 2011,   microspheres: Indispensable roles of  reactive oxygen species and
                 105(1/2): 128-135.                                iron corrosion products[J]. Environmental Science  &Technology,
            [61]  VILARDI  G,  DI PALMA L. Kinetic  study of nitrate removal from   2019, 53(7): 3707-3717.
                 aqueous solutions using copper-coated iron nanoparticles[J]. Bulletin   [73] YU Y (于妍), LIU N (刘宁), LIAO Z G (廖祖刚), et al. Research
                 of Environmental Contamination and Toxicology, 2017, 98(3): 359-365.   progress  of iron-type denitrification removal technology[J]. China
            [62]  KHALIL  A M,  ELJAMAL O, SAHA B B,  et al. Performance of   Environmental Science (中国环境科学), 2022, 42(1): 83-91.
                 nanoscale zero-valent iron in nitrate reduction from water using a   [74]  WANG C, XU Y, HOU J, et al. Zero valent iron supported biological
                 laboratory-scale continuous-flow system[J].  Chemosphere, 2018,   denitrification for farmland drainage treatments with low organic
                 197: 502-512.                                     carbon: Performance  and potential mechanisms[J]. Science of the
            [63]  LIU H Y, GUO M, ZHANG Y. Nitrate removal by Fe0/Pd/Cu nano-   Total Environment, 2019, 689: 1044-1053.
                 composite in groundwater[J]. Environmental Technology, 2014, 35(7):   [75]  LIU X H, WEI J, WU Y D, et al. Performances and mechanisms of
                 917-924.                                          microbial nitrate removal coupling  sediment-based biochar and
            [64]  SONG G L. Corrosion electrochemistry of magnesium (Mg) and its   nanoscale zero-valent iron[J]. Bioresource Technology, 2021: 126523.
                 alloys[M]//Corrosion of Magnesium  Alloys. Sawston: Woodhead   [76]  SU Z Q, ZHANG Y, JIA X, et al. Research on enhancement of zero-
                 Publishing, 2011: 3-65.                           valent iron on dissimilatory nitrate/nitrite reduction to ammonium of
            [65]  ANBIA M, KAMEL L. Preparation of pyramids structured silicon as   Desulfovibrio sp. CMX[J]. Science of the Total Environment, 2020,
                 a support for nano sized zero valent iron particles for nitrate removal   746: 141126.
                 from water[J]. Silicon, 2018, 10(5): 1851-1859.   [77]  GUO C, RAN J, VASILEFF A, et al. Rational design of electrocatalysts
            [66]  DONG L, LIN L, LI Q Y, et al. Enhanced nitrate-nitrogen removal   and photo (electro) catalysts for nitrogen reduction to ammonia
                 by modified attapulgite-supported nanoscale zero-valent iron treating   (NH 3) under ambient conditions[J]. Energy & Environmental Science,
                 simulated groundwater[J]. Journal of  Environmental Management,   2018, 11(1): 45-56.
                 2018, 213: 151-158.                           [78]  LI N, WAN Y X, WANG X. Nutrient conversion and recovery from
            [67]  DIAO Z H, QIAN W, LEI Z X, et al. Insights on the nitrate reduction   wastewater using  electroactive bacteria[J]. Science of the Total
                 and norfloxacin oxidation over a novel nanoscale zero  valent iron   Environment, 2020, 706: 135690.
                 particle: Reactivity, products, and mechanism[J]. Science of the Total   [79]  BECKINGHAUSEN A, ODLARE M, THORIN E, et al. From removal
                 Environment, 2019, 660: 541-549.                  to recovery: An evaluation of nitrogen recovery techniques from
            [68]  WANG J, LING L, DENG Z L, et al. Nitrogen-doped iron for selective   wastewater[J]. Applied Energy, 2020, 263: 114616.
                 catalytic reduction of nitrate to dinitrogen[J]. Science Bulletin, 2020,   [80]  MA  Y H, DAI W Q,  ZHENG P R,  et al. Iron scraps enhance
                 65(11): 926-933.                                  simultaneous  nitrogen and phosphorus removal in subsurface flow
            [69]  HE Y H, LIN H, LUO M K, et al. Highly efficient remediation of   constructed wetlands[J]. Journal of Hazardous Materials, 2020, 395:
                 groundwater co-contaminated with Cr (Ⅵ) and  nitrate by using   122612.
                 nano-Fe/Pd bimetal-loaded zeolite: Process product and interaction   [81]  AMOAKO-NIMAKO G K, YANG X, CHEN F. Denitrification using
                 mechanism[J]. Environmental Pollution, 2020, 263: 114479.   permeable reactive barriers with organic substrate or zero-valent iron
            [70]  LI P J, LIN  K R,  FANG Z Q,  et al. Enhanced nitrate removal by   fillers: Controlling mechanisms, challenges, and future perspectives[J].
                 novel bimetallic Fe/Ni nanoparticles supported on biochar[J]. Journal   Environmental Science and Pollution Research, 2021, 28(17): 21045-
                 of Cleaner Production, 2017, 151: 21-33.          21064.


            (上接第 2004 页)                                       [44]  WU L Q (武立强). Study on carbon black doped carbon nanofibers
            [39]  SHAHRAKI R S, BENALLY C, MOHAMED G E. High efficiency   and their capacitive properties[D]. Tianjin: Tiangong University (天
                 removal of heavy metals using  tire-derived activated carbon  vs   津工业大学), 2019.
                 commercial  activated  carbon: Insights into the adsorption   [45]  GONG  H X, WANG D, JIANG Y. Phosphorus-doped mesoporous
                 mechanisms[J]. Chemosphere, 2021, 264: 128455.     carbon derived from  waste tires as  anode for K-ion batteries[J].
            [40]  LIN J H, WANG  S B.  An effective route to  transform scrap tire   Materials Letters, 2021, 285: 128983.
                 carbons  into  highly-pure activated carbons with a high adsorption   [46]  PASSAPONTI M, ROSI L, SAVATANO M, et al. Recycling of waste
                 capacity of ethylene blue through thermal and chemical treatments[J].   automobile tires:  Transforming char in oxygen reduction reaction
                 Environmental Technology & Innovation, 2017, 8(1): 17-27.     catalysts for alkaline fuel cells[J]. Journal of Power Sources, 2019,
            [41]  LIU W Y (刘雯燕), WANG X L (王晓露), LU Z J (卢振杰), et al.   427(1): 85-90.
                 Study on supercapacitor performance of transition metal/activated   [47]  ZHOU Z Y  (周作艳). The  modification and application of waste
                 carbon electrode[J]. Journal of University of Science and Technology   tire′s pyrolytic  carbon black[D]. Qingdao: Qingdao University of
                 Liaoning (辽宁科技大学学报), 2020, 43(3): 188-193.        Science and Technology (青岛科技大学), 2017.
            [42]  ZHI M J, YANG F, MENG F K, et al. Effects of pore structure on   [48]  ZHOU J, WANG  J D, REN X H,  et al. Surface  modification of
                 performance of an activated-carbon supercapacitor electrode recycled   pyrolytic carbon black from waste tires and its  use as pigment for
                 from scrap waste tires[J]. ACS Sustainable Chemistry &   offset printing ink[J]. Chinese Journal of Chemical Engineering,
                 Engineering, 2014, 2(1): 1592-1598.               2006, 14(5): 654-659.
            [43]  BELLO A, MOMODU D  Y, MADITO M J,  et al. Influence of   [49]  TIAN Q (田泉). The research on  preparation for pyrolytic carbon
                 K 3Fe(CN) 6 on the electrochemical performance of carbon derived   black from used tire asphalt and  performance for the mixture[D].
                 from waste tyres by K 2CO 3 activation[J]. Materials Chemistry and   Changsha: Changsha Univesity of Science & Technology (长沙理工
                 Physics, 2018, 209(1): 262-270.                   大学), 2015.
   76   77   78   79   80   81   82   83   84   85   86