安阳师范学院学报
安暘師範學院學報
안양사범학원학보
JOURNAL OF ANYANG TEACHERS COLLEGE
2010年
2期
60-67
,共8页
纳米材料%合成方法%合成机理
納米材料%閤成方法%閤成機理
납미재료%합성방법%합성궤리
Nanomaterials%Synthesis methods%Formation mechanism
过去十年,纳米点,纳米棒和纳米线的可控合成取得了巨大进展,这源于纳米材料尺寸和形貌可以改变材料的性质.为了更好调控纳米材料的形貌,根据已经取得的实验结果去研究纳米材料的合成机理成为研究的热点.在本综述中,我们系统了归纳了化学可控合成纳米材料的方法,包括共沉淀方法、溶胶-凝胶法、微乳液法以及水热/溶剂热法.而且,根据纳米材料的合成机理,我们总结并分析了均核合成机理、异核合成机理、软模板诱导机理、液体-液体-同体合成机理以及气相-液相-固相合成机理.另外,对纳米材料的在纳米器件、光催化、太阳能电池以及纳米记忆材料的应用进行了介绍.本综述对材料科学家和化学家在可控合成纳米材料核更好地理解纳米材料的合成机理必有指导作用.
過去十年,納米點,納米棒和納米線的可控閤成取得瞭巨大進展,這源于納米材料呎吋和形貌可以改變材料的性質.為瞭更好調控納米材料的形貌,根據已經取得的實驗結果去研究納米材料的閤成機理成為研究的熱點.在本綜述中,我們繫統瞭歸納瞭化學可控閤成納米材料的方法,包括共沉澱方法、溶膠-凝膠法、微乳液法以及水熱/溶劑熱法.而且,根據納米材料的閤成機理,我們總結併分析瞭均覈閤成機理、異覈閤成機理、軟模闆誘導機理、液體-液體-同體閤成機理以及氣相-液相-固相閤成機理.另外,對納米材料的在納米器件、光催化、太暘能電池以及納米記憶材料的應用進行瞭介紹.本綜述對材料科學傢和化學傢在可控閤成納米材料覈更好地理解納米材料的閤成機理必有指導作用.
과거십년,납미점,납미봉화납미선적가공합성취득료거대진전,저원우납미재료척촌화형모가이개변재료적성질.위료경호조공납미재료적형모,근거이경취득적실험결과거연구납미재료적합성궤리성위연구적열점.재본종술중,아문계통료귀납료화학가공합성납미재료적방법,포괄공침정방법、용효-응효법、미유액법이급수열/용제열법.이차,근거납미재료적합성궤리,아문총결병분석료균핵합성궤리、이핵합성궤리、연모판유도궤리、액체-액체-동체합성궤리이급기상-액상-고상합성궤리.령외,대납미재료적재납미기건、광최화、태양능전지이급납미기억재료적응용진행료개소.본종술대재료과학가화화학가재가공합성납미재료핵경호지리해납미재료적합성궤리필유지도작용.
Much progress has been made over the past ten years on the controlled synthesis of nanomatefials including nanodots,nanorods and nanowires due to size and shape-dependent properties.For the sake of better tunable morphologies of nanomaterials,it is important to investigate the nanomaterial formation mechanism based on some outcomes obtained upto date.Hence,this review will summarize recent scientific articles and govemment pubhcations that address the uses of wet chemistry with some emphasis on solvothermal synthetic mthods and formaion mechanisms.Particularly,the reported method include coprecipitation method,so-gel method, microemulsion method and hydrothermal/solvothemal method.On the other hand,some formation mechanism of hornogeneous-nuclear formaiton mechanism,heterogeneous-nuclear formation mechanism,vapor-liquid-solid formation mechanism,liquid-liquid-solid formation mechanism,surfactant -induced formation mechanism and template-con-trolled formation mechanisms.Meanwhile,some applications of nanodevices, catalyst, solar cell and so on are also discussed in this review.This current review would be useful for material scientist and chemists to controllederably synthesize nanomaterials and better understand the formation mechanism for nanomaterials.