农村作为低端市场，隆基李振虽然现在国家政策普遍倾斜，隆基李振但是其消费水平还是十分有限的，厨卫电器企业走下乡去，还得根据自己的自身品牌定位来定，盲目降低姿态恐怕只会自讨苦吃。

国制格政（b）星型聚合物的合成策略：Core-first和Arm-first。以非线性BCPs为纳米反应器可以合成具有精确尺寸、氢成氢组成和表面化学的NCs，从而可以有效调控这些NCs的性能并拓展其实际应用。

（e）当用365nm紫外灯照射时，控制光敏PMAMC连接的AuNPs的UV-vis光谱。元议制（b）以β-CD-g-[P4VP-b-PAA-b-PEO] 为纳米反应器制备的Fe3O4/Au核/壳NPs的TEM图像。（f）在365nm紫外线灯照射3小时后，定绿随后暴露于254nm紫外线灯下的PMAMC连接的AuNPs的UV-vis光谱。

图22.用于癌症治疗的双功能β-CD-g-[PCL-b-PAEMA-b-PPEGMA]21/AuNPs/DOX纳米载体的示意图【小结】在这篇综述中，隆基李振作者讨论了利用两类非线性BCPs作为纳米反应器来合成NCs的最新进展。国制格政（c,d）PNIPAM连接的AuNPs在大量线性PNIPAM链存在下对4-硝基苯酚的催化还原反应的开/关催化活性和相应的表观动力学速率常数的Arrhenius图。

氢成氢图10.CsPbBr3 NPs的制备与表征（a）通过利用两亲性星型两嵌段β-CD-g-[PAA-b-PS]共聚物作为纳米反应器来制备PS连接的CsPbBr3 NPs的示意图。

控制（c）PL峰位置与NPs大小的关系。元议制（图3）图3 典型碱金属离子嵌入机制。

TEM验证了CoNi-HCF表面约15nm左右的NiHCF包覆层，定绿该包覆层有效降低充放电循环过程中的晶格紊乱，并抑制副反应，因此获得优异的循环稳定性。隆基李振（a）Zn2+在CoHCF框架结构中可逆嵌入/脱出。

国制格政Kim,Jaekook,ElectrochemicallyInducedStructuralTransformationinaγ-MnO2CathodeofaHighCapacityZinc-IonBatterySystem.ChemistryofMaterials2015,27 (10), 3609−3620.[7]YangLiu,Y.Q.,WuxingZhang,ZhenLi,XiaoJi,LingMiao,LixiaYuan,XianluoHu,YunhuiHuang,SodiumstorageinNa-richNaxFeFe(CN)6nanocubes.NanoEnergy2015,12,386–393.[8]DaweiSu,A.M.,Shi-ZhangQiao,GuoxiuWang,High-CapacityAqueousPotassium-IonBatteriesforLarge-ScaleEnergyStorage.Adv. Mater.2017,29,1604007.[9]JinpengWu,J.S.,KehuaDai,ZengqingZhuo,L.AndrewWray,GaoLiu,Zhi-xunShen,RongZeng,YuhaoLu,WanliYang,ModificationofTransition-MetalRedoxbyInterstitialWaterinHexacyanometalateElectrodesforSodium-IonBatteries.J. Am.Chem.Soc.2017,139,18358−18364.[10]WeijieLi,C.H.,WanlinWang,QingbingXia,ShuleiChou,QinfenGu,BerntJohannessen,HuaKunLiu,andShixueDou,StressDistortionRestrainttoBoosttheSodiumIonStoragePerformanceofaNovelBinaryHexacyanoferrate.Adv.EnergyMater.2019,1903006.[11]PuHu,W.P.,BoWang,DongdongXiao,UtkarshAhuja,JulienRéthoré,KaterinaE.Aifantis,Concentration-GradientPrussianBlueCathodesforNa-IonBatteries.ACSEnergyLett.2020,5,100−108.[12]JinwenYin,Y.S.,ChangLi,ChenyangFan,ShixiongSun,YiLiu,JianPeng,LiQing,andJiantaoHan,InSituSelf-AssemblyofCore–ShellMultimetalPrussianBlueAnaloguesforHigh-PerformanceSodium-IonBatteries.ChemSusChem2019,12,4786–4790.[13]WenhaoRen,M.Q.,ZixuanZhu,MengyuYan,QiLi,LeiZhang,DongnaLiu,LiqiangMai,ActivationofSodiumStorageSitesinPrussianBlueAnaloguesviaSurfaceEtching.NanoLett.2017,17,4713−4718.[14]LingboRen,J.-G.W.,HuanyanLiu,MinhuaShao,BingqingWei,Metal-organic-framework-derivedhollowpolyhedronsofprussianblueanaloguesforhighpowergrid-scaleenergystorage.ElectrochimicaActa2019,321,134671.[15]DezhiYang,J.X.,Xiao-ZhenLiao,HongWang,Yu-ShiHe,Zi-FengMa,Prussianbluewithoutcoordinatedwaterasasuperiorcathodeforsodium-ionbatteries.Chem. Commun.2015,51,8181.[16]YangTang,W.Z.,LihongXue,XuliDing,TingWang,XiaoxiaoLiu,JingLiu,XiaochengLi,YunhuiHuang,Polypyrrole-promotedsuperiorcyclabilityandratecapabilityofNaxFe[Fe(CN)6]cathodesforsodiumionbatteries.J. Mater.Chem.A2016,4,6036.[17]KeLu,B.S.,YuxinZhang,HouyiMa,JintaoZhang,Encapsulationofzinchexacyanoferratenanocubeswithmanganeseoxidenanosheetsforhighperformancerechargeablezincionbatteries.J. Mater.Chem. A2017,5,23628.[18]DapengZhang,Z.Y.,JunshuZhang,HongzhiMao,JianYang,YitaiQian,Truncatedcobalthexacyanoferratenanocubesthreadedbycarbonnanotubesasahigh-capacityandhigh-ratecathodematerialfordual-ionrechargableaqueousbatteries.JournalofPowerSources2018,399,1-7.[19]QiYang,F.M.,ZhuoxinLiu,LongtaoMa,XinliangLi,DaliangFang,ShimouChen,SuojiangZhang,andChunyiZhi,ActivatingC-CoordinatedIronofIronHexacyanoferrateforZnHybrid-IonBatterieswith10000-CycleLifespanandSuperiorRateCapability.Adv. Mater.2019,31,1901521.[20]KosukeNakamoto,R.S.,YukiSawada,MasatoIto,andShigetoOkada,Over2VAqueousSodium-IonBatterywithPrussianBlue-TypeElectrodes.SmallMethods2019,3 (1800220).[21]XianyongWu,†YunkaiXu,§,†ChongZhang,†DanielP.Leonard,†AaronMarkir,†JunLu,*,‡andXiuleiJi,ReverseDual-IonBatteryviaaZnCl2Water-in-SaltElectrolyte.J. Am.Chem.Soc.2019,141,6338−6344.[22]XianyongWu,J.J.H.,WoochulShin,LuMa,TongchaoLiu,XuanxuanBi,YifeiYuan,YitongQi,T.WesleySurta,WenxiHuang,JoergNeuefeind,TianpinWu,P.AlexGreaney,JunLu,XiuleiJi Diffusion-freeGrotthusstopochemistryforhigh-rateandlong-lifeprotonbatteries.NatureEnergy2019,4,123–130.本文由作者团队供稿。Li等[10]报道，氢成氢Fe在Na1.60Mn0.833Fe0.167[Fe(CN)6]中掺杂，可降低Mn溶出和充放电过程中的结构应力 ，提高晶体热力学稳定性，因此表现出高的循环稳定性。