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| 1 | Recent progress and perspectives on silicon anode:Synthesis and prelithiation for LIBs energy storage显示文摘The ever-increasing environmental/energy crisis as well as the rapid upgrading of mobile devices had stimulated intensive research attention on promising alternative energy storage and conversion devices.Among these devices,alkali metal ion batteries,such as lithium-ion batteries(LIBs) had attracted increasing research attention due to its several advantages including,environmental friendliness,high power density,long cycle life and excellent reversibility.It had been widely used in consumer electronics,electric vehicles,and large power grids et ac.Silicon-based(silicon and their oxides,carbides) anodes had been widely studied.Its several advantages including low cost,high theoretical capacity,natural abundance,and environmental friendliness,which shows great potential as anodes of LIBs.In this review,we summarized the recently progress in the synthetic method of silicon matrix composites.The empirical method for prelithiation of silicon-based materials were also provided.Further,we also reviewed some novel characterization methods.Finally,the new design,preparation methods and properties of these nano materials were reviewed and compared.We hoped that this review can provide a general overview of recent progress and we briefly highlighted the current challenges and prospects,and will clarify the future trend of silicon anode LIBs research. | Yuanxing Zhang Borong Wu Ge Mu Chengwei Ma Daobin Mu Feng Wu | 2022 | Journal of Energy Chemistry2022，31，1： | 7 |
| 2 | A review:Modification strategies of nickel-rich layer structure cathode(Ni≥0.8)materials for lithium ion power batteries显示文摘Lithium ion power batteries have undoubtedly become one of the most promising rechargeable batteries at present;nonetheless,they still suffer from the challenges such as requirement of even higher energy density and capacity retention.Nickel-rich layer oxides(Ni≥0.8)become ideal cathode materials to achieve the high specific capacity.Integration of optimization of synthesis process and modification of crystal structure to suppress the capacity fading can obviously improve the performance of the lithium ion batteries.This review presents the recent modification strategies of the nickel-rich layered oxide materials.Unlike in previous reviews and related papers,the specific mechanism about each type of the modification strategies is specially discussed in detail,which is mainly about inhibiting the anisotropic lattice strain and adjusting the cation mixing degree to maintain crystal structure.Based on the recent progress,the prospects and challenges of the modified nickel-rich layer cathodes to upgrade the property of lithium ion batteries are also comprehensively analyzed,and the potential applications in the field of plug-in hybrid vehicles and electric vehicles are further discussed. | Haijian Lv Chunli Li Zhikun Zhao Borong Wu Daobin Mu | 2021 | Journal of Energy Chemistry2021，30，9： | 6 |
| 3 | Progress in electrolyte and interface of hard carbon and graphite anode for sodiumion battery显示文摘It is essential to replace lithium-ion batteries(LIBs)from the perspective of the Earth's resources and the sustainable development of mankind.Sodium-ion batteries(SIBs)are important candidates due to their low price and abundant storage capacity.Hard carbon(HC)and graphite have important applications in anode materials of SIBs.In this review,the research progress in electrolyte and interface between HC and graphite anode for SIBs is summarized.The properties and performance of three types of widely used electrolytes(carbo nate ester,ether,and ionic liquid)with additives,as well as the formation of solid electrolyte interface(SEI),which are crucial to the reversible capacity and rate capability of HC anodes,are also discussed.In this review,the co-intercalation performance and mechanism of solvation Na+into graphite are summarized.Besides,the faced challenges and existing problems in this field are also succinctly highlighted. | Qi Liu Rigan Xu Daobin Mu Guoqiang Tan Hongcai Gao Ning Li Renjie Chen Feng Wu | 2022 | Carbon Energy2022，4，3： | 3 |
| 4 | SIMULATING EXPERIMENTS OF HOT CORROSION CELL显示文摘SIMULATINGEXPERIMENTSOFHOTCORROSIONCELLMuDaobin;HeYedong;ZhuRizhang(DepartmentofSurfaceScienceandCorrosionEngineering,Univers... | Mu Daobin He Yedong Zhu Rizhang(Department of Surface Science and Corrosion Engineering,University of Science and Technology Beijing,Beijing 100083) | 1995 | 中国有色金属学会会刊:英文版1995，5，4： | 1 |
| 5 | En- hanced electrochemical performance of LiFePO4 cathode with the addition of fluoroethylene car- bonate in electrolyte显示文摘 | Wu Borong Ren Yonghuan Mu Daobin | 2013 | J Solid State Electro- chem2013，17，： | 1 |
| 6 | Nano silica aerogel-induced formation of an organic/alloy biphasic interfacial layer enables construction of stable high-energy lithium metal batteries显示文摘Lithium metal batteries represent promising candidates for high-energy-density batteries, however, many challenges must still be overcome,e.g., interface instability and dendrite growth. In this work, nano silica aerogel was employed to generate a hybrid film with high lithium ion conductivity(0.6 mS cm^(-1)at room temperature) via an in situ crosslinking reaction. TOF-SIMS profile analysis has revealed conversion mechanism of hybrid film to Li–Si alloy/Li F biphasic interface layer, suggesting that the Li–Si alloy and Li F-rich interface layer promoted rapid Li+transport and shielded the Li anodes from corrosive reactions with electrolyte-derived products. When coupled with nickel-cobalt-manganese-based cathodes, the batteries achieve outstanding capacity retention over 1000 cycles at 1 C. Additionally the developed film coated on Li enabled high coulombic efficiency(99.5%) after long-term cycling when coupled with S cathodes. Overall, the results presented herein confirm an effective strategy for the development of high-energy batteries. | Chengwei Ma Xinyu Zhang Chengcai Liu Yuanxing Zhang Yuanshen Wang Ling Liu Zhikun Zhao Borong Wu Daobin Mu | 2023 | Green Energy & Environment2023，8，4： | 1 |
| 7 | Study of an odized Al substrate for electronic pack aging显示文摘 | Mu Daobin Ying Jin | 2000 | Journal of Materials Sience:Materials in Electronics2000，11，3： | 1 |
| 8 | A novel composite with highly dispersed Fe3 04 nanocrystals on ordered mesoporous carbon as an anode for lithium ion batteries 显示文摘 | Wu Feng Huang Rong Mu Daobin | 2014 | Journal of Alloys and Compounds2014，585，： | 1 |
| 9 | A prediction model based on artificial neural network for surface temperature simulation of nickel–metal hydride battery during charging显示文摘 | Kaizheng Fang Daobin Mu Shi Chen Borong Wu Feng Wu | 2012 | Journal of Power Sources2012，，： | 1 |
| 10 | Lithium insertion/desertion properties of LiFePO 4 cathode in a low temperature electrolyte modified with sodium chloride additive显示文摘 | Borong Wu Yonghuan Ren Daobin Mu Xiaojiang Liu Guchang Yang Zhe Sun | 2014 | Solid State Ionics2014，，： | 1 |
| 11 | Stable cycling of LiNi_(0.9)Co_(0.05)Mn_(0.05)O_(2)/lithium metal batteries enabled by synergistic tuning the surface stability of cathode/anode显示文摘Ni-rich layered oxides(LiNi_(0.9)Co_(0.05)Mn_(0.05)O_(2))show great potential in long-range and low-cost lithiumion batteries.However,due to the high surface sensitivity,their practical application is hindered by interfacial instability with electrolytes under high voltage for long cyclic life.Herein,by combining both firstprinciple calculations and time-of-flight secondary ion mass spectrometry(TOF-SIMS),a novel surface fluorinated reconstruction(SFR)mechanism is proposed to improve the interfacial stability under high voltage,which could effectively regulate the surface fluoride species to desensitize the LiNi_(0.9)Co_(0.05)Mn_(0.05)O_(2)interface.We demonstrate here that by tuning the ratio of fluoride species,the LiNi_(0.9)Co_(0.05)Mn_(0.05)O_(2)/Li battery could achieve excellent long-term and high voltage performance(163.5 mA h g^(-1)at 0.5 C for 300 cycles under 4.4 V),while the controlled sample decayed to 125.4 mA h g^(-1)after 300 cycles.Moreover,the favorable cross-talk effect induced by SFR further facilitates the incorporation of suitable amounts of Ni ions into the construction of stable solid electrolyte interface(SEI)layer for anode surface.Therefore,the ultra-long cycling stability under high voltage can be achieved by the robust cathode/electrolyte and Li/electrolyte interfaces,which results in excellent interfacial stability after long cycling.This work provides new insights into the surface design of cathode materials and improves the stability of the electrode-electrode interface under high voltage. | Chunli Li Xinyu Zhang Zhuolin Yang Haijian Lv Tinglu Song Shijie Lu Yuxiang Zhang Tianwen Yang Fan Xu Feng Wu Daobin Mu | 2023 | Journal of Energy Chemistry2023，，12： | 0 |
| 12 | Lithiated VO2(M)@Carbon Fibers Hybrid Host for Improving the Cycling Stability of Sulfur Cathode in Lithium-Sulfur Batteries显示文摘of main observation and conclusion We successfully prepared the Li-VO2(M)nanosheets via a facile lithiation method.After compositing with conductive carbon fibers,the sulfur host(Li-VO2(M)@CFs)combines the efficient adsorption ability of the VO2(M)with superior electronic conductivity of the carbon fibers.Besides,carbon fiber cloth used as the current collector can provide the 30 electronic channels.Therefore,the coin cells exhibited the superior reversible capacity of 1250 mA h g^-1 at 0.2 C and a low capacity decay value of 0.068%per cycle within 416 cycles at 1C,indicative of the favorable cycling stability.Moreover,even at a high rate of 5C,it also kept at a high discharge capacity of 401 mA h g^-1.In conclusion,this work discloses an attractive route to reduce the dissolution loss of lithium polysulfides(UPSs)and enhance the overall performance of Li-S batteries. | Yuxin Wang Ling Zhang Jiaying Bi Hao Yang Zhikun Zhao Daobin Mu Borong Wu | 2020 | Chinese Journal of Chemistry2020，38，12： | 0 |
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