參考文獻

[1]環境保護部.“環境保護部發布《2013年中國機動車污染防治年報》”[EB/OL].[2014-01-26]..//www.mep.gov.cn/gkml/hbb/qt/201401/t20140126_266973.htm.

[2]賀泓，翁端，資新運.柴油車尾氣排放污染控制技術綜述[J].環境科學，2007，28：1169-1177.

[3]郝鄭平，翁端，沈美慶，等.我國機動車排放污染控制與稀土催化劑的應用[J].稀土，2000，21：74-77.

[4]KA?PAR J，FORNASIERO P，HICKEY N.Automotive catalytic converters： current status and some perspectives[J].Catalysis Today，2003，77（4）： 419-449.

[5]王亞軍，彭希，馮長根.汽車催化劑技術發展及研究概況[J].工業催化，2000，8（2）：3-10.

[6]GRANGER P，PARVULESCU V I.Catalytic NOxabatement systems for mobile sources： from three-way to lean burn after-treatment technologies[J].Chemical Reviews，2011，111： 3155-3207.

[7]MONTE R D，KA?PAR J.On the role of oxygen storage in three-way catalysis[J].Topics in Catalysis，2001，28（1-4）： 47-57.

[8]MILLER A L，GINTER D，SEABA J P，et al.A study to investigate the capability of adsorbents for reduction of cold-start emissions[J].Proceedings of the Institution of Mechanical Engineers Part D-Journal of Automobile Engineering，1998，212（6）： 525-532.

[9]SHELEF M，MCCABE R W.Twenty-five years after introduction of automotive catalysts： what next？ [J].Catalysis today，2000，62： 35-50.

[10]ROY S，HEGDE M，MADRAS G.Catalysis for NOxabatement[J].Applied Energy，2009，86（11）： 2283-2297.

[11]MADIA G，ELSENER M，KOEBEL M，et al.Thermal stability of vanadia-tungsta-titania catalysts in the SCR process[J].Applied Catalysis B： Environmental，2002，39（2）： 181-190.

[12]KANG M，PARK E D，KIM J M，et al.Manganese oxide catalysts for NOxreduction with NH3at low temperatures[J].Applied Catalysis A： General，2007，327（2）： 261-269.

[13]ZHANG L，PIERCE J，LEUNG V L，et al.Characterization of ceria’s interaction with NOxand NH3[J].The Journal of Physical Chemistry C，2013，117（16）： 8282-8289.

[14]FICKEL D W，D’ADDIO E，LAUTERBACH J A，et al.The ammonia selective catalytic reduction activity of copper-exchanged small-pore zeolites[J].Applied Catalysis B： Environmental，2011，102（3）： 441-448.

[15]FINO D.Diesel emission control： catalytic filters for particulate removal[J].Science and Technology of Advanced Materials，2007，8： 93-100.

[16]STAKHEEV A，GOLOLOBOV A，BAEVA G，et al.Oxidation of soot with NO+O2over Pt catalyst： directevaluation of Pt catalyst efficiency in NO to NO2recycling[J].Mendeleev Communications，2010，20： 269-270.

[17]AZAMBRE B，COLLURA S，DARCY P，et al.Effects of a Pt/Ce0.68Zr0.32O2catalyst and NO2on the kinetics of diesel soot oxidationfrom thermogravimetric analysis[J].Fuel Process Technology，2011，92： 363-371.

[18]LPEZ-SUREZ FE，BUENO-LOPEZ A，ILLN-GMEZ MJ.Cu/Al2O3catalysts for soot oxidation： copper loading effect[J].Applied Catalysis B： Environmental，2008，84 ： 651-658.

[19]REICHERT D，FINKE T，ATANASSOVA N，et al.Global kinetic modeling of the reaction of soot with O2and NOxon Fe2O3catalyst[J].Applied Catalysis B： Environmental，2008，84： 803-812.

[20]SETIABUDI A，CHEN J，MUL G，et al.CeO2catalyzed soot oxidation The role of active oxygen to accelerate the oxidation conversion [J].Applied Catalysis B： Environmental，2004，51： 9-19.

[21]BUENO-LPEZ A，KRISHNA K，MAKKEE M，et al.Enhanced soot oxidation by lattice oxygen via La3+-doped CeO2[J].Journal of Catalysis，2005，230： 237-248.

[22]KRISHNA K，BUENO-LPEZ A，MAKKEE M，et al.Potential rare earth modified CeO2catalysts for soot oxidation： I.Characterisation and catalytic activity with O2[J].Applied Catalysis B： Environmental，2007，75： 189-200.

[23]PIETA IS，GARCA-DIGUEZ M，HERRERA C，et al.In situ DRIFT-TRM study of simultaneous NOxand soot removal over Pt-Ba and Pt-K NSR catalysts[J].Journal of Catalysis，2010，270： 256-267.

[24]ZHANG Z，HAN D，WEI S，et al.Determination of active site densities and mechanisms for soot combustionwith O2on Fe-doped CeO2mixed oxides[J].Journal of Catalysis，2010，276： 16-23.

[25]WU X，LIN F，XU H，et al.Effects of adsorbed and gaseous NOxspecies on catalytic oxidation of dieselsoot with MnOx-CeO2mixed oxides[J].Applied Catalysis B： Environmental，2010，96： 101-109.

[26]AN H，MCGINN P J.Catalytic behavior of potassium containing compoundsfor diesel soot combustion[J].Applied Catalysis B： Environmental，2006，62： 46-56.

[27]GROSS M S，ULLA M A，QUERINI C A.Catalytic oxidation of diesel soot： New characterization and kinetic evidence related to the reaction mechanism on K/CeO2catalyst[J].Applied Catalysis A： General，2009，360： 81-88.

[28]PERALTA MA，ULLA MA，QUERINI CA.Diesel soot and NOxabatement： K/La2O3catalyst stability[J].Applied Catalysis B： Environmental，2010，101： 38-44.

[29]ZHAO B，WANG R，YANG X.Simultaneous catalytic removal of NOxand diesel soot particulates over La1-xCexNiO3perovskite oxide catalysts[J].Catalysis Communications，2009，10： 1029-1033.

[[30]LIU J，ZHAO Z，LAN J，et al.Catalytic combustion of soot over the highly active（La0.9K0.1CoO3）x/nmCeO2catalysts[J].The Journal of Physical Chemistry C，2009，113： 17114-17123.

[31]WANG K，QIAN L，ZHANG L，et al.Simultaneous removal of NOxand soot particulates over La0.7Ag0.3MnO3perovskite oxide catalysts[J].Catalysis Today，2010，158： 423-426.

[32]LIU J，ZHAO Z，XU C，et al.Simultaneous removal of NOxand diesel soot over nanometer Ln-Na-Cu-O perovskite-like complex oxide catalysts[J].Applied Catalysis B： Environmental，2008，78： 61-72.

[33]崔梅生，張娜.稀土催化材料及其應用[J].產業聚焦，2013，7：19-21.

[34]王斌，吳曉東，冉銳，等.稀土在機動車尾氣催化凈化中的應用與研究進展[J].中國科學：化學，2012，42：1315-1327.

[35]SHINJO H.Rare earth metals for automotive exhaust catalysts[J].Journal of Alloys and Compounds，2006，408-412： 1061-1064.

[36]CARLSSON P，SKOGLUNDH M.Low-temperature oxidation of carbon monoxide and methane over alumina and ceria supported platinumcatalysts[J].Applied Catalysis B： Environmental，2011，101： 669-675.

[37]ZHANG L，WENG D，WANG B，et al.Effects of sulfation on the activity of Ce0.67Zr0.33O2supported Pt catalyst for propane oxidation[J].Catalysis Communications，2010，11： 1229-1232.

[38]SHARMA S，HEGDE MS，DAS RN，et al.Hydrocarbon oxidation and three-way catalytic activity on a single step directly coated cordieritemonolith： high catalytic activity of Ce0.98Pd0.02O2-δ[J].Applied Catalysis A： General，2008，337： 130-137.

[39]WANG G，MENG M，ZHA Y Q，et al.High-temperature close coupled catalysts Pd/Ce-Zr-M/Al2O3（M = Y，Ca or Ba）used for the total oxidation of propane[J].Fuel，2010，89： 2244-2251.

[40]WANG Q Y，LI G F，ZHAO B，et al.The effect of La doping on the structure of Ce0.2Zr0.8O2and the catalytic performance of its supported Pd-only three-way catalyst[J].Applied Catalysis B： Environmental，2010，101： 150-159.

[41]YAO Y L，FANG R M，SHI Z H，et al.The effect of La2O3on Pd close-coupled catalysts[J].Chinese Journal ofCatalysis，2011，32： 589-594.

[42]RAO G R，KA?PAR J，MERIANI S，et al.NO decomposition over partially reduced metallized CeO2-ZrO2solid solutions[J].Catalysis letters，1994，24： 107-112.

[43]RAO G R，FORNASIERO P，MONTE R D，et al.Reduction of NO over partially reduced metal-loaded CeO2-ZrO2solid solutions[J].Journal of Catalysis，1996，162： 1-9.

[44]DJGA-MARIADASSOU G，FAJARDIE F，TEMPèRE J F，et al.A general model for both three-way and deNOxcatalysis： x dissociative or associative nitric oxide adsorption，and its assisted decomposition in the presence of a reductant： Part I.Nitric oxide decomposition assisted by CO over reduced or oxidized rhodium species supported on ceria[J].Journal of Molecular Catalysis A： Chemical，2000，161： 179-189.

[45]KAWABATA H，KODA Y，SUMIDA H，et al.Self-regeneration of three-way catalyst rhodium supported on La-containing ZrO2in an oxidative atmosphere[J].Catalysis Science and Technology，2014，4： 697-707.

[46]ZHANG H Y，ZHU A M，WANG X K，et al.Catalytic performance of Ag-Co/CeO2catalyst in NO-CO and NO-CO-O2systems[J].Catal systems[J].Catalysis Communications，2007，8： 612-618.

[47]蔣曉原，丁光輝，劉琪，等.CuO在CeO2和γ-Al2O3上的表面性質及對NO+CO反應性能的研究[J].浙江大學學報：理學版，2003，30：289-295.

[48]張可新.CuO/Ce0.9Zr0.1O2-Al2O3催化劑的合成及其催化CO還原NO的研究[D].黑龍江大學碩士研究生學位論文，2012.

[49]盧冠中，汪仁.氧化鈰在非貴金屬氧化物催化劑中的作用：NO+CO反應[J].中國稀土學報，1991，9：329-333.

[50]程曉慶.NiO/CeO2催化劑上NO-CO反應機理研究[D].大連理工大學碩士學位論文，2009.

[51]VISVANATHAN B.CO oxidation and NO reduction on perovskite oxides[J].Catalysis Reviews - Science and Engineering，1992，34： 337-354.

[52]TABATA K，MISONO M.Elimination of pollution gases-oxidation of CO，reduction and decomposition of NO[J].Catalysis Today，1990，8： 249-256.

[53]SORENSON S C，WRONKIEWICZ J A，SIS L B，et al.Properties of LaCoO3as a catalyst in engine exhaust gases[J].Bulletin of the American Ceramics Society，1974，53： 446-450.

[54]BELESSI V C，BAKAS T V，COSTAC N.Synergistic effects of crystal phases and mixed valences in La-Sr-Ce-Fe-O mixed oxidic/perovskitic solids on their catalytic activity for the NO+CO reaction[J].Applied Catalysis B： Environmental，2000，28： 13-28.

[55]WU Y，ZHAO Z，LIU Y，et al.The role of redox property of La2-x（Sr，Th）xCuO4+λplaying in the reaction of NO decomposition and NO reduction by CO[J].Journal of Molecular Catalysis A： Chemical，2000，155： 89-100.

[56]劉鈺，楊向光，趙震，等.層狀La-Ba-Cu復合氧化物在CO還原NO反應中活性的研究[J].科學通報，1997，42：2172-2175.

[57]劉鈺，楊向光，吳越.層狀復合氧化物La4BaCu5-xMxO13+λ的制備、表征及對CO還原NO的活性[J].催化學報，2000，21：59-63.

[58]KASPAR J，FOMASIERO P，GRAZIANI M.Use of CeO2-based oxides in the three-way catalysis[J]，Catalysis Today，1999，50： 285-298.

[59]WANG X，LU G，GUO Y，et al.Structure，thermal-stability and reducibilityof Si-doped Ce-Zr-O solid solution[J].Catalysis Today，2007，126： 412-419.

[60]HANEDA M，HOUSHITO O，SATO T，et al.Improvedactivity of Rh/CeO2-ZrO2three-way catalyst by high-temperature ageing[J].Catalysis Communications，2010，11：317-321.

[61]WANG Q Y，LI G F，ZHAO B，et al.The effect of Nd on the properties of ceria-zirconia solid solution and the catalytic performance of itssupported Pd-only three-way catalyst for gasoline engine exhaust reduction[J].Journal ofHazardous Materials，2011，189： 150-157.

[62]WANG Q Y，LI G F，ZHAO B，et al.Investigation on properties of a novel ceria-zirconia-praseodymia solid solution and its application in Pd-only three-way catalyst for gasoline engine emission control[J].Fuel，2011，90： 3047-3055.

[63]WANG Q Y，LI G F，ZHAO B，et al.The effect of rare earth modification on ceria-zirconia solid solution and its application in Pd-onlythree-way catalyst[J].Journal of Molecular Catalysis A： Chemical，2011，339： 52-60.

[64]何洪，戴宏興，李佩恒，等.Ce0.6Zr0.35Y0.05O2和Pr0.6Zr0.35Y0.05O2固溶體的氧儲存能力及氧化-還原性能的研究[J].中國稀土學報，2002，20：43-46.

[65]IKRYANNIKOVA L N，AKSENOV A A，MAKARYAN G L，et al.The red-ox treatments influence on the structure and properties of M2O3-CeO2-ZrO2（M = Y，La）solidsolutions[J].Applied Catalysis A： General，2001，210： 225-235.

[66]LI G F，WANG Q Y，ZHAO B，et al.The promotional effect of transition metals on the catalytic behavior of model Pd/Ce0.67Zr0.33O2three-way catalyst[J].Catalysis Today，2010，158： 385-392.

[67]YUE B H，ZHOU R X，WANG Y J，et al.Influence of transition metals（Cr，Mn，Fe，Co and Ni）onthe methane combustion over Pd/Ce-Zr/Al2O3catalyst[J].Applied Surface Science，2006，252： 5820-5828.

[68]GUO Y，LU G Z，ZHANG Z G，et al.Preparation of CexZr1-xO2（x= 0.75，0.62）solid solution and its application in Pd-only three-way catalysts[J].Catalysis Today，2007，126： 296-302.

[69]FAN J，WENG D，WU X D，et al.Modification of CeO2-ZrO2mixed oxides by coprecipitated/impregnated Sr： Effect on themicrostructure and oxygen storage capacity[J].Journal of Catalysis，2008，258： 177-186.

[70]MIURA M，HIRATA H，ISHIBASHI K.Study of large OSC materials（Ln2O2SO4）on the basis of sulfur redox reaction[J].SAE Technical Paper，2009：5.

[71]MA Z R，WENG D，WU X D，et al.Effects of WOxmodification on the activity，adsorption and redox properties of CeO2catalyst for NOxreduction with ammonia[J].Journal of Environmental Sciences，2012，24： 1305-1316.

[72]CHEN L，WENG D，SI Z C，et al.Synergistic effect between ceria and tungsten oxide on WO3-CeO2-TiO2catalysts for NH3-SCR reaction[J].Progress in Natural Science： Materials International，2012，22： 265-272.

[73]MA Z R，WENG D，WU X D，et al.A novel Nb-Ce/WOx-TiO2catalyst with high NH3-SCR activity and stability[J].Catalysis Communications，2012，27： 97-100.

[74]SI Z C，WENG D，WU X D，et al.NH3-SCRactivity，hydrothermalstability，sulfurresistanceandre-generationofCe0.75Zr0.25O2-catalyst[J].Catalysis Communications，2012，17： 146-149.

[75]SI Z C，WENG D，WU X D，et al.Lattice oxygen mobility and acidity improvements of NiO-CeO2-ZrO2catalyst by sulfation for NOxreduction by ammonia[J].Catalysis Today，2013，201： 122-130.

[76]PENG Y，LIU Z M，NIU X W，et al.Manganese doped CeO2-WO3catalysts for the selective catalyticreduction of NOxwith NH3： An experimental and theoretical study[J].Catalysis Communications，2012，19： 127-131.

[77]GAO X，JIANG Y，FU Y C，et al.Preparation and characterization of CeO2/TiO2catalysts for selective catalytic reduction of NO with NH3[J].Catalysis Communications，2010，11： 465-469.

[78]SHAN W P，LIU F D，HE H，et al.An environmentally-benign CeO2-TiO2catalyst for the selective catalytic reduction of NOxwith NH3in simulated diesel exhaust[J].Catalysis Today，2012，184： 160-165.

[79]XU H D，ZHANG Q L，QIU C T，et al.Tungsten modified MnOx-CeO2/ZrO2monolith catalysts for selective catalytic reduction of NOxwith ammonia[[J].Chemical Engineering Science，2012，76： 120-128.

[80]ZHANG QL，QIU CT，XU HD，et al.Low-temperature selective catalytic reduction of NO with NH3over monolith catalyst of MnOx/CeO2-ZrO2-Al2O3[J].Catalysis Today，2011，175： 171-173.

[81]CASANOVA M，SCHERMANZ K，LLORCA J，et al.Improved high temperature stability of NH3-SCR catalysts based on rare earth vanadates supported on TiO2-WO3-SiO2[J].Catalysis Today，2012，184： 227-236.

[82]LIN F，WU XD，WENG D.Effect of barium loading on CuOx-CeO2catalysts： NOxstorage capacity，NO oxidation ability and soot oxidation activity[J].Catalysis Today，2011，175： 124-132.

[83]WENG D，LI J，WU XD，et al.Promotional effect of potassium on soot oxidation activity and SO2-poisoning resistance of Cu/CeO2catalyst[J].Catalysis Communications，2008，9： 1898-1901.

[84]WU XD，LIN F，XU HB，et al.Effects of adsorbed and gaseous NOxspecies on catalytic oxidation of diesel soot with MnOx-CeO2mixed oxides[J].Applied Catalysis B： Environmental，2010，96： 101-109.

[85]WU XD，ZHOU Z，WENG D，et al.Role of stable nitrates stored on BaCoCe in soot catalytic oxidation[J].Catalysis Communications，2010，11： 749-752.

[86]WU XD，YU H N，WENG D，et al.Synergistic effect between MnO and CeO2in the physical mixture： Electronic interaction and NO oxidation activity[J].Journal of Rare Earths，2013，31： 1141-1147.

[87]WU X D，LIU S，LIN F，et al.Nitrate storage behavior of Ba/MnOx-CeO2catalyst and its activity for soot oxidation with heat transfer limitations[J].Journal of Hazardous Materials，2010，181： 722-728.

[88]WU XD，LIN F，WANG L，et al.Preparation methods and thermal stability of Ba-Mn-Ce oxide catalyst for NOx-assisted soot oxidation[J].Journal of Environmental Science，2011，23： 205-210.

[89]WU X D，LIU S，LIN F，et al.Textural-structural properties and soot oxidation activity of MnOx-CeO2mixed oxides[J].Catalysis Communications，2011，12： 345-348.

[90]WU X D，LIU S，WENG D，et al.MnOx-CeO2-Al2O3mixed oxides for soot oxidation： Activity and thermal stability[J].Journal of Hazardous Materials，2011，187： 283-290.

[91]WU X D，LEE H R，LIU S，et al.Regeneration of sulfated MnOx-CeO2-Al2O3soot oxidation catalyst by reduction with hydrogen[J].Industrial & Engineering Chemistry Research，2013，52： 716-721.

[92]LIU S，WU X D，WENG D，et al.Combined promoting effects of platinum and MnOx-CeO2supported on alumina on NOx-assisted soot oxidation： Thermal stability and sulfur resistance[J].Chemical Engineering Journal，2013，203： 25-35.

[93]WEI YC，LIU J，ZHAO Z，et al.Highly active catalysts of gold nanoparticles supported on three-dimensionally ordered macroporous LaFeO3for soot oxidation[J].Angewandte Chemie International Edition，2011，123： 2374-2377.

[94]WEI YC，LIU J，ZHAO Z，et al.The catalysts of three-dimensionally ordered macroporous Ce1-xZrxO2-supported gold nanoparticles for soot combustion： The metal-support interaction[J].Journal of Catalysis，2012，287： 13-29.

[95]PENG XS，LIN H，SHANGGUAN WF，et al.A highly efficient and porous catalyst for simultaneous removal of NOxand diesel soot[J].Catalysis Communications，2007，8： 157-161.

[96]ZHANG ZL，HAN D，WEI SJ，et al.Determination of active site densities and mechanisms for soot combustion with O2on Fe-dopedCeO2mixed oxides[J].Journal of Catalysis，2010，276： 16-23.

[97]KIM CH，QI GS，DAHLBERG K，et al.Strontium-doped perovskites rival platinum catalysts for treating NOxin simulated diesel exhaust[J].Science，2010，26： 1624-1627.

[98]WANG W C，MCCOOL G，KAPUR N，et al.Mixed-phase oxide catalyst based on Mn-mullite（Sm，Gd）Mn2O5for NO oxidation in diesel exhaust[J].Science，2012，337： 832-835.

[99]AZAMBRE B，COLLURA S，DARCY P，et al.Effects of a Pt/Ce0.68Zr0.32O2catalyst and NO2on the kinetics of diesel soot oxidation from thermogravimetric analyses[J].Fuel Processing Technology，2011，92： 363-371.

[100]LIU S，WU X D，LIN Y，et al.Active oxygen-assisted NO-NO2recycling and decomposition of surface oxygenated species in diesel soot when employing a Pt/Ce0.6Zr0.4O2[J].Chinese Journal of Catalysis，2014，35： 407-415.

[101]SUZUKI A，NAKAMURA K，SATO R，et al.Multi-scale theoretical study of support effect on sintering dynamics of Pt[J].Surface Science，2009，603： 3049-3056.

[102]NAGAI Y，HIRABAYASHI T，DOHMAE K，et al.Sintering inhibition mechanism of platinum supported on ceria-based oxide and Pt-oxide-support interaction[J].Journal of Catalysis，2006，242： 103-109.

[103]YOSHIDA H，YAZAWA Y，HATTORI T.Effects of support and additive on oxidation state and activity of Pt catalyst in propane combustion[J].Catalysis Today，2003，87： 19-28.

[104]BERNAL S，BLANCO G，CALVINO J，et al.HRTEM and TPO Study of the behavior under oxidizing conditions of some Rh/CeO2catalysts[J].Studies in Surface Science and Catalysis，1994，82： 507-514.

[105]ALVAREZ-GALVAN M C，NAVARRO R M，ROSA F，et al.Hydrogen production for fuel cell by oxidative reforming of diesel surrogate： Influence of ceria and/or lanthana over the activity of Pt/Al2O3catalysts[J].Fuel，2008，87： 2502-2511.

[106]WANG G，YOU R，MENG M.An optimized highly active and thermo-stable oxidation catalyst Pd/Ce-Zr-Y/Al2O3calcined at super high temperature and used for C3H8total oxidation[J].Fuel，2013，103： 799-804.

[107]SHYU J Z，OTTO K，WATKINS W L H，et al.Characterization of Pd/γ-alumina catalysts containing ceria[J].Journal of Catalysis，1988，114： 23-33.

[108]KRAUSE K R，SCHABES-RETCHKIMAN P，SCHMIDT L D.Microstructure of Rh-Ce particles on silica： Interactions between Ce and SiO2[J].Journal of Catalysis，1992，134： 204-219.

[109]AOKI Y，YOSHIDA T，TANABE T，et al，Development of double-layered three-way catalysts[J]，SAE Technical Paper，2009： 459-463.

[110]ARAI H，MACHIDA M.Thermal stabilization of catalyst supports and their application to high-temperature catalytic combustion[J].Applied Catalysis A： General，1996，138： 161-176.

[111]VLAICG，FORNASIERO P.Morphology of rhodium particles in ex-chloride Rh/Ce0.5Zr0.5O2catalyst[J].Journal of Catalysis，2000，190： 182-190.

[112]WU X，YANG B，WENG D.Effect of Ce-Zr mixed oxides on the thermal stability of transition aluminas at elevated temperature[J].Journal of Alloys and Compounds，2004，376： 241-245.

[113]周文龍.共沉淀法制備鈰鋯氧化鋁復合氧化物的性能研究[D].天津大學碩士學位論文，2007.

[114]OZAWA M，KIMURA M，ISOGAI A.The application of Ce-Zr oxide solid-solution to oxygen storage promoters in automotive catalysts[J].Journal of Alloys and Compounds，1993，193： 73-75.

[115]QI G，YANG RT.Performance and kinetics study for low-temperature SCR of NO with NH3over MnOx-CeO2catalyst[J].Journal of Catalysis，2003，217： 434-441.

[116]WU ZB，JIN RB，WANG HQ，et al.Effect of ceria doping on SO2resistance of Mn/TiO2for selective catalytic reduction of NO with NH3at low temperature[J].Catalysis Communications，2009，10： 935-939.

[117]KWAK J H，KIM DH，SZANYI J，et al.Excellent sulfur resistance of Pt/BaO/CeO2lean NOxtrap catalysts[J].Applied Catalysis B： Environmental，2008，84： 545-551.

[118]ROHART E，LARCHER O，OTTAVIANI E，et al.High thermostable hybrid zirconia materials for low loading precious metal catalyst technology[J].Sae Technical Papers 2005.

[119]PAPAVASILIOU A，TSETSEKOU A，MATSOUKA V，et al.Development of a Ce-Zr-La modified Pt/γ-Al2O3TWC's washcoat： Effect of synthesis procedure on catalytic behaviour and thermal durability[J].Applied Catalysis B： Environmental，2009，90： 162-174.

[120]LETICHEVSKY S，TELLEZ C A，DE AVILLEZ R R.Obtaining CeO2-ZrO2mixed oxides by coprecipitation： role of preparation conditions[J].Applied Catalysis B： Environmental，2005，58： 203-210.

[121]吳介達，牛明勤，陸世鑫，等.納米錦鋯復合氧化物的制備及表征[J].同濟大學學報，2003，31：1127-1130.

[122]ZHANG L，ZHENG L M，GUO J X，et al.Structure evolution process of Ce0.65Zr0.25Y0.1O1.95prepared by oxidation-coprecipitation method[J].Acta Physico-Chimica Sinica，2008，24： 1342-1346.

[123]張俊卿，郭軍平，郝茂榮.納米鈰鋯氧化物粉末的制備和表征[J].包頭鋼鐵學院學報，2006，25：55-58.

[124]TERRIBLE D，TROVARELLI A，LLORCA J，et al.The preparation of high surface area CeO2-ZrO2mixed oxides by a surfactant-assisted approach[J].Catalysis Today，1998，43： 79-88.

[125]劉偉，李佩珩，戴洪興，等.不同類型表面活性劑對鈰鋯固溶體性能的影響[J].中國稀土學報，2005，23：17-17.

[126]翟彥青，劉源，王麗.超臨界干燥法制備鈰鋯氧化物固溶體[J].內蒙古工業大學學報：自然科學版，2009，001.

[127]WANG Q Y，LI G F，ZHAO B，et al.Synthesis of La modified ceria-zirconia solidsolution by advanced supercritical ethanol drying technology and its application in Pd-only three-way catalyst[J].Applied Catalysis B： Environmental，2010，100： 516-528.

[128]阮詠恩.（CeZrLaPr）O稀土汽車尾氣催化劑的超臨界法制備研究[J].廣西輕工業，2007，23：22-24.

[129]周新木，徐招弟，李永繡，等.鈰鋯固溶體的水熱晶化及拋光性能[J].南昌大學學報：理科版，2006，30：162-165.

[130]古映瑩，王海利，王曼娟，等.以PEG為模板劑水熱合成高比表面介孔Ce0.5Zr0.5O2固溶體[J].中國稀土學報，2009：297-301.

[131]WENG X L，PERSTON B，WANG X Z，et al.Synthesis and characterization of doped nano-sized ceria-zirconia solid solutions[J].Applied Catalysis B： Environmental，2009，90： 405-415.

[132]ROHART E，LARCHER O，HDOUIN C，et al.Innovative materials with high stability，high OSC，and low light-offfor low PGM technology[R].SAE Technical Paper，2004.

[133] ROSSIGNOL S，GERARD F，DUPREZ D.Effect of the preparation method on the properties of zirconia-ceria materials[J].Journal ofMaterials Chemistry，1999，9： 1615-1620.

[134]THAMMACHART M，MEEYOO V，RISKSOMBOON T，et al.Catalytic activity of CeO2-ZrO2mixedoxide catalysts prepared via sol-gel technique： CO oxidation[J].Catalysis Today，2001，68： 53-61.

[135]楊志柏，林培琰.改進的溶膠-凝膠法制備CeO2-ZrO2固溶體及其物性表征[J].功能材料，2000，31：657-659.

[136]NUNANJ G.Methods of making highly dispersed substantially uniform cerium and zirconium mixed-metal-oxide composite supports for exhaust conversion catalysts：US，6040265[P].2000-03-21.

[137]TRUSOVA E A，KHRUSHCHEVA A A，VOKHMINTCEV K V.Sol-gel synthesis and phase composition ofultrafine ceria-doped zirconia powders for functional ceramics[J].Journal of the European CeramicSociety，2012，32： 1977-1981.

[138]馮長根，張江山，王亞軍.高分子凝膠法合成納米鈰鋯氧化物固溶體及其熱穩定性研究[J].北京理工大學學報，2005，25：82-86.

[139]ROSSIGNOL S，MADIER Y，DUPREZ D.Preparation of zirconiaceria materialsby soft chemistry[J].Catalysis Today，1999，50： 261-270.

[140]MARTINEZ-ARIAS A，FERNNDEZ-GARCA M，BALLESTEROS V，et al.Characterization of high surface area Zr-Ce（11）mixed oxide prepared by a microemulsion method[J].Langmuir，1999，15： 4796-4802.

[141]MARTINEZ-ARIAS A，FERNNDEZ-GARCA M，IGLESIAS-JUEZ A，et al.Structural characteristics and redox behavior of CeO2-ZrO2/Al2O3supports[J].Journal of Catalysis，2000，194： 385-392.

[142]WU X D，FAN J，RAN R，et al.Effect of preparation method on the surface and redox properties of Ce0.67Zr0.33O2mixed oxides[J].Journal of Alloys and Compounds，2005，395： 135-140.

[143]JIANG P P，LU G Z，LI Y Y，et al.Preparation of La2O3-doped CeO2-ZrO2solid solution with high thermal stability by water-in-oil microemulsion[J].Chemistry Letters，2004，33： 1064-1065.

[144]YU J C，ZHANG L，LIN J.Direct sonochemical preparation of high-surface—area nanoporous ceria and ceria-zirconia solid solutions[J].Journal of Colloid and Interface Science，2003，260： 240-243.

[145]鐘依均，羅孟飛.陶瓷蜂窩載體表面鈰鋯固溶體圖層的表征[J].浙江師范大學學報：自然科學版，2003，26：158-160.

[146]QI G，YANG R T，CHANG R.MnO2-CeO2oxides prepared by co-precipitation for selective catalytic reduction of NO with NH3at low temperatures[J].Applied Catalysis B： Environmental，2004，51： 93-106.

[147]LIOTTA L F，DI CARLOB G，PANTALEOB G，et al.Co3O4/CeO2and Co3O4/CeO2-ZrO2composite catalysts for methane combustion： Correlation between morphology reduction properties and catalytic activity[J].Catalysis Communications，2005，6： 329-336.

[148]徐海波，吳曉東，翁端.過渡金屬-鈰基復合氧化物的制備與碳煙燃燒催化性能[J].中國稀土學報，2010，28：10-15.

[149]SHENG YQ，ZHOU Y，LU H F.Soot combustion performance and H2-TPR study on ceria-based mixed oxides[J].Chinese Journal of Catalysis，2013，34： 567-577.

[150]ZHANG Q，QIU C，XU H，et al.Novel promoting effects of tungsten on the selective catalytic of NO by NH3over MnOx-CeO2monolith catalyst[J].Catalysis Communications，2011，16： 20-24.

[151]HARRISON PG，BALL I K，DANIELL W，et al.Cobalt catalysts for the oxidation of diesel soot particulate[J].Chemical Engineering Journal.2003，95： 47-55.

[152]宋崇林，沈美慶，王軍，等.稀土鈣鈦礦型催化劑LaBO3對NOx催化性能及反應機理的研究，1-催化劑的合成工藝及催化性能[J].燃燒科學與技術，1999，5：91-95.

[153]SHU J，KALIAGUINE S.Well-dispersed perovskite-type oxidation catalysts[J].Applied Catalysis B： Environmental，1998，16： L303-L308.

[154]KALIAGUINE S，VAN NESTE A，SZABO V，et al.Perovskite-type oxides synthesized by reactive grinding Part Ⅰ： Preparation and characterization[J].Applied Catalysis A： General，2001，209： 345-358.

[155]SZABO V，BASSIR M，VAN NESTE A，et al.Perovskite-type oxides synthesized by reactive grinding Part Ⅱ： Catalytic properties of LaCo1-xFexO3in VOC oxidation[J].Applied Catalysis B： Environmental，2002，37： 175-180.

[156]梁珍成，秦永寧，喬冠東，等.La-Ce-Mn系鈣鈦礦型催化性能研究[J].化學物理學報，1997，10：60-66.

[157]劉源.鈣鈦礦型LaCoO3和LaMnO3超細粒子的制備[J].內蒙古工業大學學報，2000，19：192-196.

[158]徐魯華，翁端，吳曉東，等.La0.7Sr0.3Mn0.7Zn0.3O3鈣鈦礦的制備及稀燃條件下氮氧化物的催化還原性能[J].中國稀土學報，2002，20：378-381.

[159]XIA C T，SHI E W，ZHONG W Z，et al.Hydrothermal synthesis of BaTiO3nano/microcrystals[J].Journal of Crystal Growth，1996，166： 961-966.

[160]WANG H，LIU J B，ZHU M K，et al.Hydrothermal synthesis of strontium bismuth tantalite powder[J].Materials Letters，2003，57： 2371-2374.

[161]CHEN D，XU R.Hydrothermal synthesis and characterization of La2M2O7（M=Ti，Zr）powders[J].Materials Research Bulletin，1998，33： 409-417.

[162]HUANG K Q，GOODENOUGH J B.Wet chemical synthesis of Sr and Mg-doped LaGaO3，a perovskite-type oxide-ion conductor[J].Journal of Solid State Chemistry，1998，136： 274-283.

[163]OUTZOURHIT A，ELLDRISSI RAGHNI M A，HAFID M L.Characterization of hydrothermally prepared BaTi1-xZrxO3[J].Journal of Alloys and Compounds，2002，340： 214-219.

[164]李寶華，鄭文君，龐文琴.A離子缺陷型鈣鈦礦La0.66TiO2.993的水熱合成和表征[J].無機材料學報，1997，12：809-813.