复合电沉积的最新研究动态

电化学（中英文） ›› 2003, Vol. 9 ›› Issue (2): 117-125.

• 研究论文 • 下一篇

复合电沉积的最新研究动态

刘小兵,王徐承,陈煜,成旦红,郁祖湛

上海大学化学系,复旦大学化学系,上海大学环境与化工学院,上海大学化学系,复旦大学化学系上海200436 ,上海200433 ,上海200072 ,上海200436 ,上海200433

收稿日期:2003-05-28 修回日期:2003-05-28 出版日期:2003-05-28 发布日期:2003-05-28

Recent Progress in the Research on Electrodeposition of Composite Coatings

LIU Xiao_bing, WANG Xu_cheng, CHEN Yu, CHENG Dan_hong*, YU Zu_zhan

(1.Depart. of Chem., Shanghai Univ., Shanghai 200436, China, 2.Depart. of Chem., Fudan Univ., Shanghai 200433, China, 3. Inst. of Environment and Chemistry, Shanghai Univ., Shanghai 200072, China)

Received:2003-05-28 Revised:2003-05-28 Published:2003-05-28 Online:2003-05-28

摘要/Abstract

摘要： 　综述近年来国内外复合电沉积技术最新研究动态.重点探讨纳米复合镀层,电催化复合镀层以及光活性复合镀层等方面的研究现状和发展趋势.纳米复合镀层比一般的复合镀层具有更高的硬度,更好的耐磨性和耐蚀性;电催化复合镀层则可在纯金属电极,合金电极的基础上进一步降低电极反应的过电位.以金属氧化物,导电聚合物作为基质材料的电催化复合镀层已为现代复合电沉积技术开辟了一个新领域.

关键词: 复合电沉积, 复合镀层, 纳米粒子, 电催化, 光活性

Abstract: Recent progress in the research on composite coatings prepared by electroplating technology is reviewed. The nanoscaled particles, electrocatalytic, photoactive composite coatings are emphatically discussed. The composite coatings prepared by dispersing nanoscaled particles could attain better hardness, wear resistance and corrosion resistance than those of composite coatings which prepared by adding micronscaled particles. As compared with pure metal electrode and alloy electrode, some electrocatalytic composite coatings electrode could markedly reduce the overvoltages of cathodic and anodic electrode reaction. In recent years, the electrocatalytic composite coatings which based on metal oxides and conductive polymer as matrix materials become a newest field of composite electroplating technology.

中图分类号:

TQ153

刘小兵, 王徐承, 陈煜, 成旦红, 郁祖湛. 复合电沉积的最新研究动态[J]. 电化学（中英文）, 2003, 9(2): 117-125.

LIU Xiao_bing, WANG Xu_cheng, CHEN Yu, CHENG Dan_hong, YU Zu_zhan. Recent Progress in the Research on Electrodeposition of Composite Coatings[J]. Journal of Electrochemistry, 2003, 9(2): 117-125.

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链接本文: https://electrochem.xmu.edu.cn/CN/

https://electrochem.xmu.edu.cn/CN/Y2003/V9/I2/117

参考文献

[1]　GuoHe＿tong,ZhangSan＿yuan.CompositeCoatings[M].Tianjin:TianjinUniversityPress,1991,123～129. [2]　GuoZhong＿cheng,ZhuXiao＿yun,ZhengYan＿ping,etal.StudyoncorrosionresistanceofelectrodepositedRE＿Ni＿W＿P＿SiC[J].Mater.Prop.,2000,33(2):329. [3]　SapuGN,RameshKR,ThiruchelvamT.Validityofadsorptionmechanismforelectrodepositedzinccomposites[J].BulletinofElectrochemistry,2001,17(9):405～408. [4]　GuoZhong＿cheng,DengGuan＿hao,YangXian＿wan,etal.WearresistanceofelectrodepositedRE＿Ni＿W＿P＿SiC＿PTFEcompositecoating[J].MaterialProtection(材料保护),2001,34(1):4～11. [5]　MusianiM.Electrodepositionofcomposites:anexpandingsubjectinelectrchemicalmaterialsscience[J].Electrochim.Acta,2000,45:3397. [6]　HiratoT,FransaerJ,CelisJP.ElectrolyticcodepositionofsilicaparticleswithaluminumfromAlCl3＿dmethylsulfoneelectrolytes[J].J.Electrochem.Soc.,2001,148(4):C280. [7]　LeeWun＿hsing,TangSen＿chen,ChungKung＿cheng.Effectsofdirectcurrentandpulse＿platingonco＿depositionofnickelandnanometerdiamondpowder[J].SurfaceandCoatingsTechnology,1999,120～121:607. [8]　VidrineAB,PodlahaEJ.Compositeelectrodepositionofultrafineγ＿aluminaparticlesinnickelmatricesPartI:Citrateandchlorideelectrolytes[J].J.App1.Electrochem.,2001,31:461. [9]　0rlovskajaL,PerieneN,KurtinaitieneM,etal.Ni＿SiCcompositeplatedunderamodulatedcurrent[J].SurfaceandCoatingsTechnology,1999,111:234. [10]　SteinbachJ,FerkelH.NanaostructuredNi＿Al2O3filmspreparedbyD.C.andpulsedD.C.electroplating[J].ScriptaMater.,2001,44:1813. [11]　MandichNV,DennisJK.Codepositionofnanodiamondswithchromium[J].MetalFinishing,2001,99(6):117. [12]　BeneaL,BonoraPL,BorelloA,etal.Wearcorrosionpropertiesofnano＿structuredSiC＿nickelcompositecoatingsobtainedbyelectroplating[J].Wear,2002,249:995. [13]　DeguchiT,ImaiK,MatsuiH,etal.RapidelectroplatingofphotocatalyticallyhighlyactiveTiO2＿Znnanocompositefilmsonsteel[J].Mater.Sci.,2001,36:4723. [14]　MollerA,HahnH.SynthesisandcharacterizationofnanocrystalineNi/ZrO2compositecoating[J].NanostructuredMaterials,1999,12:259. [15]　StojakJL,TalbotJB.Effectofparticlesonpolarizationduringelectrodepositionusingarotatingcylinderelelctrode[J].J.Appl.Electrochem.,2001,31:559. [16]　PetrovaM,KupperM,LoweH,etal.Electrodepositednickeldispersioncoatingswithhardnano＿sizeparticlesformicrotechnologyapplication[J].Galvanotechnik,2001,92(5):1366(inGerman,CA,Vol135:217565d). [17]　YuJing＿ku,ZhaoYu＿cheng,GaoYu＿Wei,etal.Compositebrush＿platingNi＿diamondcoating[J].DiamondandMould,WearMaterial(金刚石与磨料磨具工程),2001,2(122):7. [18]　MullerB,FerkelH.Al2O3＿nanoparticledistributioninplatednickelcompositefilms[J].NanostructuredMaterials,1998,10(8):1285. [19]　FerkelH,MullerB,RiehemannW,etal.Electrodepositionofparticle＿strengthenednickelfilms[J].MaterialsScienceandEngineeringA,1997,234＿236:474. [20]　JeongDH,GonzalezF,PalumboG,etal.Theeffectofgrainsizeonthewearpropertiesofelectrodepositednanocrystallinenickelcoatings[J].ScriptaMater.,2001,44:493. [21]　GyttouP,PavlatoEA,SpyellisN,etal.HardeningmodificationofnickelmatrixcompositeelectrocoatingscontainingSiCnanoparticles[J].Electroplating＆SurfaceTreatment,2001.9(1):23～28. [22]　ChenXH,DengFM,LuXN,etal.Carbonnanotubes＿Nicompositecoatingwithhigh＿wearability[C]　.Beijing:3rdInternationalSymposiumonTribo＿Fatigue,2000. [23]　WangJiang＿xiong,ChengXiao＿hua,PengJing＿cui,etal.ApreliminaryinvestigationofthecorrosionresistanceofNi＿carbonnanotubescompositecoating[J].Corrosion＆Protection(腐蚀与防护),2002,23(1):6. [24]　BurkatGK,DolmatovVYu.Electrodepositionandpropertiesofzinc＿diamondcoatingsobtainedinzincatesolutions[J].Electroplating＆SurfaceTreatment,2001.9(2):35. [25]　KunugiY,FuchigamiT,NonakaT,etal.Electrolysisusingcomposite＿platedelectrodePartⅡ.Electrooxidationofalcoholsatahydrophobicnickel/poly(terafluoroethylene)composite＿platedanode[J].J.Electroanal.Chem.,1990,287:385. [26]　KunugiY,KumadaR,NonakaT,etal.Electrolysisusingcomposite＿platedelectrodePartⅢ.Electroorganicreactionsonahydrophobicnickel/PTFEcomposite＿platednickelelectrode[J].J.Electroanal.Chem.,1991,313:215. [27]　KunugiY.NonakaT,ChongYB,et

复合电沉积的最新研究动态

Recent Progress in the Research on Electrodeposition of Composite Coatings

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