之后，湖實(shí)利用上述納米片作為非均相催化劑來(lái)研究4-硝基苯乙烯催化加氫的選擇性。驗(yàn)室(代表性文獻(xiàn)如下)1.SynthesisofHexagonalClose-PackedGoldNanostructures,Nat.Commun.,2011,2,292.2.SynthesisofAuSquare-LikePlatesfromUltrathinAuSquareSheets:theEvolutionofStructurePhaseandShape,Angew.Chem.Int.Ed.,2011,50,12245.3.Grapheneoxide-templatedsynthesisofultrathinAunanowiresandtadpole-shapedAunanowireswithalternatinghcpandfccdomains,Adv.Mater.,2012,24,979.4.Stabilizationof4Hhexagonalphaseingoldnanoribbons,Nat.Commun.,2015,6,7684.5.Surfacemodification-inducedphasetransformationofhexagonalclose-packedgoldsquaresheets,Nat.Commun.,2015,6,6571.6.SynthesisofUltrathinFace-Centered-CubicAu@PtandAu@PdCore–ShellNanoplatesfromHexagonal-Close-PackedAuSquareSheets,Angew.Chem.Int.Ed.,2015,54,5672.7.Synthesisof4H/fccnoblemultimetallicnanoribbonsforelectrocatalytichydrogenevolutionreaction,J.Am.Chem.Soc.,2016,138,1414.8.Crystalphase-controlledsynthesis,propertiesandapplicationsofnoblemetalnanomaterials,Chem.Soc.Rev.,2016,45,63.9.TemplateSynthesisofNobleMetalNanocrystalswithUnusualCrystalStructuresandTheirCatalyticApplications,Acc.Chem.Res.,2016,49,284110.Epitaxialgrowthofunusual4HhexagonalIr,Rh,Os,RuandCunanostructureson4HAunanoribbons,Chem.Sci.,2017,8,795.11.Facilesynthesisofgoldnanomaterialswithunusualcrystalstructures,Nat.Protocols,2017,12,2367.12.High-YieldSynthesisofCrystal-Phase-Heterostructured4H/fccAu@PdCore–ShellNanorodsforElectrocatalyticEthanolOxidation,Adv.Mater.,2017,29,1701331.13.Crystalphase-basedepitaxialgrowthofhybridnoblemetalnanostructureson4H/fccAunanowires,Nat.Chem.,2018,10,456.14.Two-dimensionalmetalnanomaterials:synthesis,properties,andapplications,Chem.Rev.,2018,118,6409.15.SynthesesandPropertiesofMetalNanomaterialswithNovelCrystalPhases,Adv.Mater.,2018,30,1707189.16.One-PotSynthesisofWell-CrystallineLotusThalamus-ShapedPt-NiAnisotropicSuperstructuresforHighlyEfficientElectrochemicalHydrogenEvolution,Adv.Mater.,2018,30,1801741.本文由材料人編輯部abc940504編譯整理。碳尋d,e)分別對(duì)應(yīng)c圖中紅色和綠色區(qū)域的FFT圖像。

文獻(xiàn)鏈接：浙江之道Amorphous/CrystallineHetero-PhasePdNanosheets:One-PotSynthesisandHighlySelectiveHydrogenationReaction?(Adv.Mater.,2018,DOI:10.1002/adma.201803234)【通訊作者簡(jiǎn)介】張華，浙江之道南洋理工大學(xué)材料科學(xué)與工程學(xué)院教授。新型異相結(jié)構(gòu)納米材料的合成將在催化、成立光學(xué)、電子、磁學(xué)、力學(xué)等領(lǐng)域得到廣泛的應(yīng)用。

白馬f)樣品1中鈀納米片的SAED圖像。

湖實(shí)圖2不同結(jié)晶度的無(wú)定形/結(jié)晶異相結(jié)構(gòu)鈀納米片的結(jié)構(gòu)表征a-d)樣品2-5中鈀納米片的DF-STEM圖像。驗(yàn)室(c)通道限制的彎液面自組裝法的示意圖。

碳尋材料人投稿以及內(nèi)容合作可加編輯微信：cailiaokefu。為此，浙江之道許多研究組開(kāi)發(fā)了一系列基于涂布技術(shù)的大規(guī)模組裝策略，浙江之道如浸涂、刮涂、旋涂等，實(shí)現(xiàn)了有機(jī)半導(dǎo)體單晶材料的大面積陣列化生長(zhǎng)，并成功展示了其在高性能集成器件中的應(yīng)用。

這避免了晶體在此處的多倍成核行為，成立保證了在后續(xù)晶體生長(zhǎng)中取向的一致性。白馬相關(guān)成果以Channel-restrictedMeniscusSelf-assemblyforUniformlyAlignedGrowthofSingle-CrystalArraysofOrganicSemiconductors為題發(fā)表在MaterialsToday上。