[1] Du Y L, Liu L L, Feng Y L, et al. Enhancement of NH₃-SCR performance of LDH-based MMnAl (M = Cu, Ni, Co) oxide catalyst: influence of dopant M [J]. RSC Advances, 2019,9(68):39699-39708.
[2] Elkaee S, Phule A D, Yang J H. Advancements in (SCR) technologies for NO_x reduction: A comprehensive review of reducing agents [J]. Process Safety and Environmental Protection, 2024,184:854-880.
[3] Hu X, Zheng W Y, Wu M C, et al. Composites of metal-organic frameworks (MOFs) and LDHs for energy storage and environmental applications: Fundamentals, progress, and perspectives [J]. Sustainable Materials and Technologies, 2023,37:e00691.
[4] Altalhi A A, Mohamed E A, Negm N A. Recent advances in layered double hydroxide (LDH)-based materials: fabrication, modification strategies, characterization, promising environmental catalytic applications, and prospective aspects [J]. Energy Advances, 2024,3(9): 2136-2151.
[5] Li F, Duan X. Applications of layered double hydroxides [M]. Layered Double Hydroxides, 2005:193-223.
[6] Zhao X F, Zhang F Z, Xu S L, et al. From layered double hydroxides to ZnO-based mixed metal oxides by thermal decomposition: transformation mechanism and UV-blocking properties of the product [J]. Chemistry of Materials, 2010,22(13):3933-3942.
[7] Manohara G V, Norris D, Maroto-Valer M M, et al. Acetate intercalated Mg–Al layered double hydroxides (LDHs) through modified amide hydrolysis: a new route to synthesize novel mixed metal oxides (MMOs) for CO₂ capture [J]. Dalton Transactions, 2021, 50(21):7474-7483.
[8] Nie Y, Yan Q H, Chen S N, et al. CuTi LDH derived NH₃-SCR catalysts with highly dispersed CuO active phase and improved SO₂ resistance [J]. Catalysis Communications, 2017:47-50.
[9] Luan X R, Yang Z, Zhai Y J, et al. A superior MnNiAlO_x catalyst for low-temperature NH₃-SCR: Performance enhancement and denitration mechanism [J]. Fuel, 2024,376:132756.
[10] Feng X B, Zeng J L, Zhu J R, et al. Gd-modified Mn-Co oxides derived from layered double hydroxides for improved catalytic activity and H₂O/SO₂ tolerance in NH₃-SCR of NO_x reaction [J]. Journal of Colloid and Interface Science, 2024,659:1063-1071.
[11] Chen S N, Vasiliades M A, Yan Q H, et al. Remarkable N₂-selectivity enhancement of practical NH₃-SCR over Co_0.5Mn₁Fe_0.25Al_0.75O_x-LDO: The role of Co investigated by transient kinetic and DFT mechanistic studies [J]. Applied Catalysis B-Environmental, 2020,277:119186.
[12] Wang B, Wang Z P, Yang Z, et al. Highly active MnO_x supported on the MgAlO_x oxides derived from LDHs for low temperature NH₃- SCR [J]. Fuel, 2022,329:125519.
[13] Feng X B, Zhu J R, Song K L, et al. Insight into the reasons for enhanced NH₃-SCR activity and SO₂ tolerance of Mn-Co layered oxides [J]. Separation and Purification Technology, 2024,336:126285.
[14] Yan Q H, Xiao J W, Gui R R, et al. Insights into enhancement of NH₃-SCR activity and N₂selectivity of LDHs-derived NiMnAlO_x catalysts: Combination of experiments and DFT calculations [J]. Applied Catalysis B: Environmental, 2024,343:123489.
[15] Li X Y, Lu G, Qu Z P, et al. The role of titania pillar in copper-ion exchanged titania pillared clays for the selective catalytic reduction of NO by propylene [J]. Applied Catalysis A: General, 2011,398(1/2): 82-87.
[16] 孙佳兴,张志越,支静涛,等.过渡金属氧化物(MnO_x-CeO₂)改性铜基催化剂的低温SCR脱硝性能研究 [J]. 动力工程学报, 2018,38(9): 732-739. Sun J X, Zhang Z Y, Zhi J T, et al. Low-temperature SCR denitrification performance of a Cu-based catalyst modified by MnO_x-CeO₂ [J]. Journal of Chinese Society of Power Engineering, 2018,38(9):732-739.
[17] Mrad R, Cousin R, Poupin C, et al. Propene oxidation and NO reduction over MgCu–Al(Fe) mixed oxides derived from hydrotalcite- like compounds [J]. Catalysis Today, 2015,257:98-103.
[18] Basag S, Kocol K, Piwowarska Z, et al. Activating effect of cerium in hydrotalcite derived Cu-Mg-Al catalysts for selective ammonia oxidation and the selective reduction of NO with ammonia [J]. Reaction Kinetics Mechanisms and Catalysis, 2017,121(1):225-240.
[19] Zhang Y S, Li C M, Yu C, et al. Synthesis, characterization and activity evaluation of Cu-based catalysts derived from layered double hydroxides (LDHs) for DeNO reaction [J]. Chemical Engineering Journal, 2017,330:1082-1090.
[20] Wei F J, Liu L F, Wang C, et al. Cu(Mn)MgAl mixed oxides with enhanced performance for simultaneous removal of NO_x and toluene: Insight into the better collaboration of CuO and MnO_x via layered double hydroxides (LDHs) precursor template [J]. Chemical Engineering Journal, 2023,462:142150.
[21] Li Q, Yang H S, Ma Z X, et al. Selective catalytic reduction of NO with NH₃over CuO_x-carbonaceous materials [J]. Catalysis Communications, 2012,17:8-12.
[22] Gonçalves R G L, Petrolini D D, Marcos F C F, et al. Highly porous CuZnAl layered double hydroxides prepared by biochar-templated co-precipitation method as catalysts for the preferential oxidation of CO reaction [J]. Applied Clay Science, 2023,232:106776.
[23] Wu X F, Liu J N, Liu X Z, et al. Fabrication of carbon doped Cu-based oxides as superior NH₃-SCR catalysts via employing sodium dodecyl sulfonate intercalating CuMgAl-LDH [J]. Journal of Catalysis, 2022,407:265-280.
[24] Niu K, Liu Q L, Liu C X, et al. Unraveling the role of oxygen vacancies in metal oxides: Recent progress and perspectives in NH₃- SCR for NO_x removal [J]. Chemical Engineering Journal, 2024,487: 150714.
[25] Du Y, Gao F Y, Tang X L, et al. Mechanistic insight into the enhanced NO reduction by CO over a pre-reduced Cu_xO_y-CeO₂ multiphase catalyst [J]. Journal of Environmental Chemical Engineering, 2023, 11(5):110386.
[26] Pan K K, Yu F, Liu Z S, et al. Enhanced low-temperature CO-SCR denitration performance and mechanism of two-dimensional CuCoAl layered double oxide [J]. Journal of Environmental Chemical Engineering, 2022,10(3):108030.
[27] Liu J, Zang P C, Liu X Q, et al. A novel highly active catalyst form CuFeMg layered double oxides for the selective catalytic reduction of NO by CO [J]. Fuel, 2022,317:123469.
[28] Yan Q H, Chen S N, Zhang C, et al. Synthesis of Cu_0.5Mg_1.5Mn_0.5Al_0.5O_x mixed oxide from layered double hydroxide precursor as highly efficient catalyst for low-temperature selective catalytic reduction of NO_x with NH₃ [J]. Journal of Colloid and Interface Science, 2018,526:63-74.
[29] Chen J Y, Fu W, Cai C, et al. Activity of CuCoCe layered double hydroxides catalysts and mechanism for C₃H₆-SCR [J]. Fuel, 2024, 369:131789.
[30] 聂 瑀.铜钛基选择性催化还原催化剂的制备及脱硝性能评价 [D]. 北京:北京林业大学, 2017. Nie Y. Preparation and NO_x conversion performance of CuTi selective catalytic reduction catalyst [D]. Beijing: Beijing Forestry University, 2017.
[31] 黎 哲.堇青石负载CuCoFe类水滑石衍生催化剂的制备及同时去除VOCs和NO_x性能研究 [D]. 北京:北京林业大学, 2020. Li Z. Synthesis of cordierite supported layered double hydroxides- derived CuCoFe mixed metal oxide catalysts and their performance for simultaneous removal of VOCs and NO_x [D]. Beijing: Beijing Forestry University, 2020.
[32] Szymaszek-Wawryca A, Summa P, Duraczynska D, et al. Hydrotalcite-Modified Clinoptilolite as the Catalyst for Selective Catalytic Reduction of NO with Ammonia (NH₃-SCR) [J]. Materials, 2022,15(22):7884.
[33] Cheng X X, Zhang X Y, Su D X, et al. NO reduction by CO over copper catalyst supported on mixed CeO₂ and Fe₂O₃: Catalyst design and activity test [J]. Applied Catalysis B: Environmental, 2018,239: 485-501.
[34] Patel A, Shukla P, Pan G T, et al. Influence of copper loading on mesoporous alumina for catalytic NO reduction in the presence of CO [J]. Journal of Environmental Chemical Engineering, 2017,5(3):2350- 2361.
[35] Chmielarz L, Kuśtrowski P, Rafalska-Łasocha A, et al. Catalytic activity of Co-Mg-Al, Cu-Mg-Al and Cu-Co-Mg-Al mixed oxides derived from hydrotalcites in SCR of NO with ammonia [J]. Applied Catalysis B: Environmental, 2002,35(3):195-210.
[36] 钱俊宁,李 斌,董丽辉,等.类水滑石负载铜基催化剂的CO还原NO催化性能的研究 [J]. 广西大学学报(自然科学版), 2017,42(5): 1843-1850. Qian J N, Li B, Dong L H, et al. Study on catalytic performance of hydrotalcite like compounds supported copper based catalysts on NO reduction with CO [J]. Journal of Guangxi University (Nat Sci Ed), 2017,42(5):1843-1850.
[37] Zhu W J, Li Y, Zhao C X, et al. Insights into the catalytic performance of LDHs-derived CoAlO oxides with different anions intercalation for propane total oxidation [J]. Applied Surface Science, 2024,642: 158546.
[38] Kameda T, Uchida H, Kumagai S, et al. Regeneration of carbonate- intercalated Mg–Al layered double hydroxides (CO₃·Mg–Al LDHs) by CO₂-induced desorption of anions (X) from X·Mg–Al LDH (X = Cl, SO₄, or NO₃): A kinetic study [J]. Chemical Engineering Research and Design, 2021,165:207-213.
[39] Iyi N, Sasaki T. Deintercalation of carbonate ions and anion exchange of an Al-rich MgAl-LDH (layered double hydroxide) [J]. Applied Clay Science, 2008,42(1):246-251.
[40] Barrabés N, Frare A, Föttinger K, et al. Pt-Cu bimetallic catalysts obtained from layered double hydroxides by an anion-exchange route [J]. Applied Clay Science, 2012,69:1-10.
[41] Carja G, Delahay G. Mesoporous mixed oxides derived from pillared oxovanadates layered double hydroxides as new catalysts for the selective catalytic reduction of NO by NH₃ [J]. Applied Catalysis B: Environmental, 2004,47(1):59-66.
[42] Zhang L H, Zhu J, Jiang X R, et al. Influence of nature of precursors on the formation and structure of Cu–Ni–Cr mixed oxides from layered double hydroxides [J]. Journal of Physics and Chemistry of Solids, 2006,67(8):1678-1686.
[43] Muñoz V, Zotin F M Z, Palacio L A. Copper–aluminum hydrotalcite type precursors for NO_x abatement [J]. Catalysis Today, 2015,250: 173-179.
[44] Lopes D, Zotin F, Palacio L A. Copper-nickel catalysts from hydrotalcite precursors: The performance in NO reduction by CO [J]. Applied Catalysis B: Environmental, 2018,237:327-338.
[45] Barbosa A C d A, Fonseca C G, Wypych F, et al. Structural analysis of dehydrated gibbsite-based layered double hydroxides Li-Al-X (X = F^-, Cl^-, Br^-, I^-, OH^-, NO₃^-, CO₃^2-, and SO₄^2-) by DFT calculations [J]. New journal of Chemistry, 2020,44(24):10137-10145.
[46] Miyata S. Anion-exchange properties of hydrotalcite-like compounds [J]. Clays and Clay Minerals, 1983,31(4):305-311.
[47] Costa D G, Rocha A B, Souza W F, et al. Comparative structural, thermodynamic and electronic analyses of Zn-Al-An- hydrotalcite- like compounds (A^n-=Cl^-, F^-, Br^-, OH^-, CO₃^2- or NO₃^-): An ab initio study [J]. Applied Clay Science, 2012,56:16-22.
[48] Tao L, Wang J K, Qin Q J, et al. Simple anion-modified layered double oxides use for controlling Cu valence states for low- temperature CO-SCR [J]. Surfaces and Interfaces, 2024,44:103654.
[49] Gholami F, Tomas M, Gholami Z, et al. Technologies for the nitrogen oxides reduction from flue gas: A review [J]. Science of The Total Environment, 2020,714:136712.
[50] Chen L, Agrawal V, Tait S L. Sulfate promotion of selective catalytic reduction of nitric oxide by ammonia on ceria [J]. Catalysis Science & Technology, 2019,9(8):1802-1815.
[51] Wu X F, Liu J N, Liu L L, et al. Superior CuMgFe mixed oxide catalysts engineered by tuning the redox cycle for enhancing NO_x removal performance [J]. Journal of Environmental Chemical Engineering, 2022,10(6):108824.
[52] Du Y L, Liu X Z, Liu J N, et al. DeNO_x performance enhancement of Cu-based oxides via employing a TiO₂ phase to modify LDH precursors [J]. RSC Advances, 2022,12(16):10142-10153.
[53] Yang F, Wang X P, Qu C, et al. Boosting NO removal performance of selective catalytic reduction with NH₃on hydrotalcite derived NiCuFe mixed oxides synthesized via urea hydrothermal method [J]. Reaction Kinetics Mechanisms and Catalysis, 2024,137(3):1435-1454.
[54] Wei F J, Liu L F, Wu X F, et al. Simultaneous removal of NO_x and toluene on CuMnMgAl layered double oxides (LDO) derived from layered double hydroxides (LDHs) Precursor [J]. Catalysis Letters, 2024,154(3):1184-200.
[55] Zang P C, Liu J, He Y J, et al. LDH-derived preparation of CuMgFe layered double oxides for NH₃-SCR and CO oxidation reactions: Performance study and synergistic mechanism [J]. Chemical Engineering Journal, 2022,446:137414.
[56] Wu X, Meng H, Du Y L, et al. Insight into Cu₂O/CuO collaboration in the selective catalytic reduction of NO with NH₃: Enhanced activity and synergistic mechanism [J]. Journal of Catalysis, 2020,384:72-87.
[57] Zhang Y, Zhao L, Duan J, et al. Insights into deNO_x processing over Ce-modified Cu-BTC catalysts for the CO-SCR reaction at low temperature by in situ DRIFTS [J]. Separation and Purification Technology, 2020,234:116081.
[58] Li T C, Li L S, Wang J K, et al. Selective catalytic reduction of NO by CO over α-Fe₂O₃ catalysts [J]. Inorganic Chemistry Communications, 2023,150:110018.
[59] Wang H, Dang X Q, Huang Y, et al. Research progress of Cu-based and Ce-based catalysts for the selective catalytic reduction of NO with CO [J]. Surfaces and Interfaces, 2024,48:104310.
[60] Zang P C, Liu J, Zhang G J, et al. Insights into the highly activity CuMgFe oxides for the selective catalytic reduction of NO by CO: Structure-activity relationships and K/SO₂ poisoning mechanism [J]. Fuel, 2023,331:125800.
[61] Li J F, Zhu J X, Fu S Y, et al. Insight into copper-cerium catalysts with different Cu valence states for CO-SCR and in-situ DRIFTS study on reaction mechanism [J]. Fuel, 2023,339:126962.
[62] 周远松,高凤雨,唐晓龙,等.金属氧化物催化CO还原NO的研究进展 [J]. 化工进展, 2019,38(11):4941-4948. Zhou Y S, Gao F Y, Tang X L, et al. Research progress on NO reduction by CO over metal oxide catalysts [J]. Chemical Industry and Engineering Progress, 2019,38(11):4941-4948.
[63] Zhang Y, Zhao L, Kang M D, et al. Insights into high CO-SCR performance of CuCoAlO catalysts derived from LDH/MOFs composites and study of H₂O/SO₂ and alkali metal resistance [J]. Chemical Engineering Journal, 2021,426:131873.
[64] Gilea D, Seftel E M, Van Everbroeck T, et al. NO reduction with CO on metal nanoparticles/layered double hydroxides heterostructures obtained via the structural memory effect [J]. Catalysis Today, 2024,425:114342.
[65] Hamada H. Selective reduction of NO by hydrocarbons and oxygenated hydrocarbons over metal oxide catalysts [J]. Catalysis Today, 1994,22(1):21-40.
[66] Xu J Q, Wang H L, Guo F, et al. Recent advances in supported molecular sieve catalysts with wide temperature range for selective catalytic reduction of NO_x with C₃H₆ [J]. Rsc Advances, 2019,9(2): 824-838.
[67] Zhou J Y, Li N, Wang X R, et al. Effects of the preparation method of Cu⁃SAPO⁃34catalysts in de-NO_x SCR by propylene [J]. Journal of Environmental Chemical Engineering, 2022,10(4):108160.
[68] Lee K, Kosaka H, Sato S, et al. Effects of Cu loading and zeolite topology on the selective catalytic reduction with C₃H₆ over Cu/zeolite catalysts [J]. Journal of Industrial and Engineering Chemistry, 2019,72:73-86.
[69] Yuan D L, Li X Y, Zhao Q D, et al. Effect of surface Lewis acidity on selective catalytic reduction of NO by C₃H₆ over calcined hydrotalcite [J]. Applied Catalysis A: General, 2013,451:176-183.
[70] Yuan D L, Li X Y, Zhao Q D, et al. A novel CuTi-containing catalyst derived from hydrotalcite-like compounds for selective catalytic reduction of NO with C₃H₆ under lean-burn conditions [J]. Journal of Catalysis, 2014,309:268-279.
[71] Wen N N, Su Y X, Deng W Y, et al. Selective catalytic reduction of NO with C₃H₆ over CuFe-containing catalysts derived from layered double hydroxides [J]. Fuel, 2021,283:119296.
[72] Wen N N, Su Y X, Deng W Y, et al. Synergy of CuNiFe-LDH based catalysts for enhancing low-temperature SCR-C₃H₆ performance: Surface properties and reaction mechanism [J]. Chemical Engineering Journal, 2022,438:135570.
[73] Xu W Q, He H, Yu Y B. Deactivation of a Ce/TiO₂ Catalyst by SO₂ in the Selective Catalytic Reduction of NO by NH₃ [J]. The Journal of Physical Chemistry C. American Chemical Society, 2009,113(11): 4426-4432.
[74] Yan Q H, Chen S N, Zhang C, et al. Synthesis and catalytic performance of Cu₁Mn_0.5Ti_0.5O mixed oxide as low-temperature NH₃-SCR catalyst with enhanced SO₂ resistance [J]. Applied Catalysis B: Environmental, 2018,238:236-247.
[75] Xiong Y, Tang C J, Yao X J, et al. Effect of metal ions doping (M=Ti⁴⁺, Sn⁴⁺) on the catalytic performance of MnO_x/CeO₂catalyst for low temperature selective catalytic reduction of NO with NH₃ [J]. Applied Catalysis A: General, 2015,495:206-216.
[76] Yan Q H, Chen S N, Qiu L, et al. The synthesis of Cu_yMn_zAl_1−zO_x mixed oxide as a low-temperature NH₃-SCR catalyst with enhanced catalytic performance [J]. Dalton Transactions, 2018,47(9):2992-3004.
[77] Zhao L, Duan J, Yang S W, et al. Cu promoted hydrotalcite-based NiAl mixed oxides in adsoption and oxidation of SO₂ reaction: Experimental and theoretical study [J]. Separation and Purification Technology, 2018,207:231-239.
[78] Wen N N, Zhou H, Ning S Y, et al. Research on resistance of Cu_xNi_yFe_z-LDHs derived catalysts to poisoning components and insight into the complex role of SO₂ on C₃H₆-SCR performance [J]. Journal of Environmental Chemical Engineering, 2023,11(2):109464.
[79] He Z H, Wang Y, Liu Y X, et al. Recent advances in sulfur poisoning of selective catalytic reduction (SCR) denitration catalysts [J]. Fuel, 2024,365:131126.
[80] Yan Q H, Nie Y, Yang R Y, et al. Highly dispersed Cu_yAlO_x mixed oxides as superior low-temperature alkali metal and SO₂ resistant NH₃-SCR catalysts [J]. Applied Catalysis A: General, 2017,538:37- 50.
[81] Wu X, Meng H, Du Y L, et al. Fabrication of highly dispersed Cu-based oxides as desirable NH₃-SCR catalysts via employing CNTs to decorate the CuAl-layered double hydroxides [J]. ACS Applied Materials & Interfaces, 2019,11(36):32917-32927.
[82] 刘江宁.强抗硫CuAl基复合氧化物脱硝催化剂的构筑及其性能提升机制研究 [D]. 太原:太原理工大学, 2021. Liu J N. Study on fabrication of CuAl-based mixed oxides catalysts with strong SO₂ resistance and its performance promotion mechanism [D]. Taiyuan: Taiyuan University of Technology, 2021.
[83] Meng H, Liu J N, Du Y L, et al. Novel Cu-based oxides catalyst from one-step carbothermal reduction decomposition method for selective catalytic reduction of NO with NH₃ [J]. Catalysis Communications, 2019,119:101-105.
[84] Zhao L, Li X Y, Zhao J. Correlation of structural and chemical characteristics with catalytic performance of hydrotalcite-based CuNiAl mixed oxides for SO₂ abatement [J]. Chemical Engineering Journal, 2013,223:164-171.
[85] Sun P L, Cheng X X, Lai Y H, et al. NO_x reduction by CO over ASC catalysts in a simulated rotary reactor: effect of CO₂, H₂O and SO₂ [J]. Rsc Advances, 2018,8(64):36604-36615.
[86] Xu G Y, Guo X L, Cheng X X, et al. A review of Mn-based catalysts for low-temperature NH₃-SCR: NO_x removal and H₂O/SO₂ resistance [J]. Nanoscale, 2021,13(15):7052-7080.
[87] Yan Q H, Gao Y S, Li Y R, et al. Promotional effect of Ce doping in Cu₄Al₁O_x-LDO catalyst for low-T practical NH₃-SCR: Steady-state and transient kinetic studies [J]. Applied Catalysis B: Environmental, 2019,255:117749.
[88] Yao X J, Wang Z, Yu S H, et al. Acid pretreatment effect on the physicochemical property and catalytic performance of CeO₂ for NH₃-SCR [J]. Applied Catalysis A: General, 2017,542:282-288.
[89] Shen B X, Yao Y, Chen J H, et al. Alkali metal deactivation of Mn–CeO_x/Zr-delaminated-clay for the low-temperature selective catalytic reduction of NO_x with NH₃ [J]. Microporous and Mesoporous Materials, 2013,180:262-269.