text:
{2008},
  volume = {93},
  pages = {211902},
  issn = {00036951},
  doi = {10.1063/1.2998299},
  file = {/Users/shyue/Zotero/storage/S2DDTN8R/2008 - Liang, Chang, Chang - Applied Physics Letters.pdf},
  journal = {Applied Physics Letters},
  number = {21}
}

@article{liangUniversalQuinoneElectrodes2017,
  title = {Universal Quinone Electrodes for Long Cycle Life Aqueous Rechargeable Batteries},
  author = {Liang, Yanliang and Jing, Yan and Gheytani, Saman and Lee, Kuan-Yi and Liu, Ping and Facchetti, Antonio and Yao, Yan},
  year = {2017},
  volume = {16},
  pages = {841--848},
  issn = {1476-1122},
  doi = {10.1038/nmat4919},
  abstract = {Aqueous rechargeable batteries provide the safety, robustness, aaordability, and environmental friendliness necessary for grid storage and electric vehicle operations, but their adoption is plagued by poor cycle life due to the structural and chemical instability of the anode materials. Here we report quinones as stable anode materials by exploiting their structurally stable ion-coordination charge storage mechanism and chemical inertness towards aqueous electrolytes. Upon rational selection/design of quinone structures, we demonstrate three systems that coupled with industrially established cathodes and electrolytes exhibit long cycle life (up to 3,000 cycles/3,500 h), fast kinetics ({$\geq$}20C), high anode specific capacity (up to 200\textendash 395 mAh g -1), and several examples of state-of-the-art specific energy/energy density (up to 76\textendash 92 Wh kg -1 / 161\textendash 208 Wh l -1) for several operational pH values (-1 to 15), charge carrier species (H + , Li + , Na + , K + , Mg 2+), temperature (-35 to 25 \textbullet{} C), and atmosphere (with/without O 2), making them a universal anode approach for any aqueous battery technology. T he increasing demand for integration of electricity generated from renewable energies into the grid and electrification of transportation vehicles call for batteries that are envi-ronmentally friendly, safe, inexpensive, and long lasting 1,2 . Aque-ous rechargeable batteries 3\textendash 6 featuring low-cost and nonflammable water-based electrolytes are intrinsically safe and do not rely heav-ily on the protection from complex battery management systems, thereby providing robustness and cost advantages over competing lithium-ion batteries that use volatile organic electrolytes and are responsible for recent catastrophic explosions. However, state-of-the-art aqueous rechargeable batteries show short cycle life 7 and fall short of meeting large-scale applications where frequent replace-ment of batteries is undesirable. The anode materials have been the cycle-life-limiting component for most, if not all, aqueous rechargeable batteries 8\textendash 10 . For example, lead-based acidic batteries are inexpensive and reliable but have poor cycle life (200 cycles for deep cycling 7) due to the premature ageing of the lead (Pb) anode into a thick PbSO 4 passivation layer 8 . No other faradaic electrode material has been discovered to work as anode for acid batteries. Recent efforts to substitute Pb with non-faradaic activated carbon (AC) extend cycle life at the cost of {$\sim$}60\% reduction in specific energy 11\textendash 13 . Another established family of aqueous rechargeable batteries are nickel-based alkaline batteries, including nickel\textendash iron, nickel\textendash cadmium, nickel\textendash zinc, and nickel\textendash{} metal hydride (MmH) batteries, which consist of the same nickel hydroxide (Ni(OH) 2) cathode but varying anodes 10,14 . However, iron, cadmium, and zinc anodes undergo dissolution\textendash precipitation, while MmH volume expansion\textendash contraction during battery charge\textendash{} discharge cycling negatively impacts cycle life. The comparatively most stable MmH is made of rare earth metals and the expensive cobalt, with the latter accounting for one-half of the total material cost for a nickel\textendash MmH battery 15 . The emerging aqueous lithium-ion batteries (ALIBs) use less corrosive, near-neutral electrolytes and store charge via an ion intercalation mechanism where the structure of the electrode material does not alter significantly 16\textendash 19 . Therefore, ALIBs could achieve a much longer cycle life than those of their commercial acidic and alkaline siblings. However, the only two practical anodes for ALIBs, lithium metal phosphates 9,20 and polyimides 21,22 , are unstable to oxygen and alkalis, respectively, severely restricting applications. Finally, recent developments of aqueous sodium-ion batteries highlight the use of low-cost and highly stable AC and Prussian Blue anodes; however, both approaches exhibit very low capacities ({$\sim$}50 mAh g -1) (refs 23,24). With the lack of anode materials meeting all requirements, the application of aqueous rechargeable batteries for large-scale energy storage has been stagnant. The major challenges for aqueous anodes lie in the search for materials that are chemically robust towards aqueous electrolytes, easily accessible and inexpensive, have high specific capacity, store charge via a structurally reversible/stable mechanism, and fit in the electrochemical stability window of the electrolyte solvent, thus water. Quinones, of which the most common motif comprises the 1,2-benzoquinone or 1,4-benzoquinone units (Fig. 1), have been considered for nonaqueous metal-ion batteries and aqueous flow batteries 25\textendash 30 . These compounds store charge via an 'ion-coordination' mechanism where the cations coordinate to the neg-atively charged oxygen atoms upon electrochemical reduction of the carbonyl groups, and uncoordinate reversibly during the reverse oxidation (Fig. 1; not to be confused with quinone derivatives where the carbonyls are converted to redox-inactive groups 31). Properly functionalized quinones have shown excellent chemical stability 30 and their reduction potentials can be readily tuned from 1.7 to 3.2 V versus Li upon molecular engineering 27 . Despite these advantages, there are only very few pioneering reports on their use in aqueous batteries. Alt et al. investigated tetrachloro-1,4-benzoquinone (TCBQ) in 2 M sulfuric acid and demonstrated},
  file = {/Users/shyue/Zotero/storage/YARBHXAI/2017 - Liang et al. - Nature Materials.pdf},
  journal = {Nature Materials},
  number = {8}
}

@article{liaoDevelopmentPerspectiveInsertion2017,
  title = {Development and Perspective of the Insertion Anode {{Li3VO4}} for Lithium-Ion Batteries},
  author = {Liao, Chaoyi and Zhang, Qing and Zhai, Tianyou and Li, Huiqiao and Zhou, Haoshen},
  year = {2017},
  volume = {7},
  pages = {17--31},
  issn = {24058297},
  doi = {10.1016/j.ensm.2016.11.009},
  abstract = {With a large capacity and low, safe voltage, Li3VO4 is considered to be a promising new insertion type anode for lithium-ion batteries. However, its poor electrical conductivity limits its practical application. Many works have been made to improve the electrochemical performance such as reducing the particle size via different synthesis methods, enhancing the conductivity by carbon coating or compositing. Within three years, the reversible capacity of Li3VO4 increased from 320 to 590 mA h g-1, its capacity can be remained at 230 mA h g-1 even at a high current density of 125 C (50 A g-1), long cycle life of 5000 cycles at 50 C (20 A g-1) with little capacity decay is also achieved. Simultaneously, the in-depth study by in-situ and ex-situ XRD push forward for the better understanding of Li3VO4 on its insertion mechanism and structure evolution processes. In this article, we review the current research development of Li3VO4, discuss its merits/demerits for practical use, and analyze the challenges and perspectives of Li3VO4 as an insertion anode for lithium-ion batteries.},
  file = {/Users/shyue/Zotero/storage/KGLRTFDN/2017 - Liao et al. - Energy Storage Materials.pdf},
  journal = {Energy Storage Materials},
  keywords = {Electrochemical performance,Insertion anode,Li3VO4,Lithium ion battery},
  number = {July 2016}
}

@article{liApplicationArtificialNeural2017,
  title = {Application of {{Artificial Neural Networks}} for {{Catalysis}}: {{A Review}}},
  author = {Li, Hao and Zhang, Zhien and Liu, Zhijian},
  year = {2017},
  month = oct,
  volume = {7},
  pages = {306},
  issn = {2073-4344},
  doi = {10.3390/catal7100306},
  file = {/Users/shyue/Zotero/storage/NPX9TAUV/2017 - Li, Zhang, Liu - Catalysts.pdf},
  journal = {Catalysts},
  keywords = {ann,artificial neural network,catalysis,catalyst,experiment,machine learning,theory},
  number = {10}
}

@article{liBothCationicAnionic2018,
  title = {Both {{Cationic}} and {{Anionic Co}}-(de)Intercalation into a {{Metal}}-{{Oxide Material}}},
  author = {Li, Qi and Qiao, Yu and Guo, Shaohua and Jiang, Kezhu and Li, Qinghao and Wu, Jinpeng and Zhou, Haoshen},
  year = {2018},
  pages = {1--12},
  issn = {25424351},
  doi = {10.1016/j.joule.2018.03.010},
  abstract = {Although great efforts have been made in investigating layered metal oxides for high-energy rocking-chair batteries, the capacities of conventional materials have reached the bottlenecks of theoretical values, which are critically dependent on the ability to (de)intercalate the single cation. In this work, we demonstrate a proof of concept, i.e., both cationic and anionic co-(de)intercalation into a typical layered oxide, which is firstly investigated in a P3-Na0.5Ni0.25Mn0.75O2. During the electrochemical process, the energy storage is not only provided by the conventional cationic (Na+) (de)intercalation with the charge compensation of cationic (Ni2+{$\leftrightarrow$}Ni4+) reversible redox, but also achieved by the release and uptake of anions (ClO4-) accompanied by an anionic (O2-{$\leftrightarrow$}O-) reversible redox. Furthermore, the results show that the anion-participating electrochemical process is a fast-kinetics process, and the feasibility of this mechanism could extend to various anions. Conventional rocking-chair batteries, such as alkali metal-ion batteries, operate by shuttling a single type of cation (Li+, Na+, K+, etc.) between two intercalating electrodes during charge and discharge processes, thus the capacity is critically limited by the ability to (de)intercalate these cations. Here, we report a synergetic (de)intercalation of cation and anion in a typical layered cathode, demonstrating a proof of concept beyond the theoretical capacity for conventional cathodes. Results reveal that the anions can be reversibly inserted/extracted into layered structures followed by a Na-ion extraction/insertion, both of which unambiguously improve the energy performance. Our findings highlight new intercalation chemistry for typical layered materials, and moreover open up new opportunities for designing high-energy cathode materials in sodium storage. Both cationic and anionic co-(de)intercalation have been proposed in a layered metal-oxide cathode and demonstrate a proof of concept beyond the theoretical capacity for conventional metal oxides with only cationic (de)intercalation. Our findings enrich the new intercalation and redox chemistry and could extend to other electrodes for further large-scale energy storage.},
  file = {/Users/shyue/Zotero/storage/CVMGTRBE/2018 - Li et al. - Joule.pdf},
  journal = {Joule},
  keywords = {cation and anion redox,cationic and anionic co-(de)intercalation,excess capacity,layered oxide,oxygen activity,sodium-ion battery}
}

@article{liCathodeMaterialsModified2006,
  title = {Cathode Materials Modified by Surface Coating for Lithium Ion Batteries},
  author = {Li, C. and Zhang, H.P. and Fu, L.J. and Liu, H. and Wu, Y.P. and Rahm, E. and Holze, R. and Wu, H.Q.},
  year = {2006},
  month = may,
  volume = {51},
  pages = {3872--3883},
  issn = {00134686},
  doi = {10.1016/j.electacta.2005.11.015},
  file = {/Users/shyue/Zotero/storage/DSJ44MB5/2006 - Li et al. - Electrochimica Acta.pdf},
  journal = {Electrochimica Acta},
  keywords = {cathode materials,coating,lithium ion battery,surface modification},
  number = {19}
}

@article{liCleanCoalConversion2008,
  title = {Clean Coal Conversion Processes \textendash{} Progress and Challenges},
  author = {Li, Fanxing and Fan, Liang-Shih},
  year = {2008},
  volume = {1},
  pages = {248},
  issn = {1754-5692},
  doi = {10.1039/b809218b},
  journal = {Energy \& Environmental Science},
  number = {2}
}

@article{liCoherentSpinPumping2020,
  title = {Coherent {{Spin Pumping}} in a {{Strongly Coupled Magnon}}-{{Magnon Hybrid System}}},
  author = {Li, Yi and Cao, Wei and Amin, Vivek P. and Zhang, Zhizhi and Gibbons, Jonathan and Sklenar, Joseph and Pearson, John and Haney, Paul M. and Stiles, Mark D. and Bailey, William E. and Novosad, Valentine and Hoffmann, Axel and Zhang, Wei},
  year = {2020},
  month = mar,
  volume = {124},
  pages = {117202},
  issn = {0031-9007, 1079-7114},
  doi = {10.1103/PhysRevLett.124.117202},
  file = {/Users/shyue/Zotero/storage/MAHBQIKB/Li et al. - 2020 - Coherent Spin Pumping in a Strongly Coupled Magnon.pdf},
  journal = {Physical Review Letters},
  language = {en},
  number = {11}
}

@article{liComparisonSingleCrystal2017,
  title = {Comparison of {{Single Crystal}} and {{Polycrystalline LiNi}} {\textsubscript{0.5}} {{Mn}} {\textsubscript{0.3}} {{Co}} {\textsubscript{0.2}} {{O}} {\textsubscript{2}} {{Positive Electrode Materials}} for {{High Voltage Li}}-{{Ion Cells}}},
  author = {Li, Jing and Cameron, Andrew R. and Li, Hongyang and Glazier, Stephen and Xiong, Deijun and Chatzidakis, M. and Allen, Jenn and Botton, G. A. and Dahn, J. R.},
  year = {2017},
  volume = {164},
  pages = {A1534-A1544},
  issn = {0013-4651, 1945-7111},
  doi = {10.1149/2.0991707jes},
  file = {/Users/shyue/Zotero/storage/X4T7IAQU/Li et al. - 2017 - Comparison of Single Crystal and Polycrystalline L.pdf},
  journal = {Journal of The Electrochemical Society},
  language = {en},
  number = {7}
}

@article{liComplexStrengtheningMechanisms2020,
  title = {Complex Strengthening Mechanisms in the {{NbMoTaW}} Multi-Principal Element Alloy},
  author = {Li, Xiang-Guo and Chen, Chi and Zheng, Hui and Zuo, Yunxing and Ong, Shyue Ping},
  year = {2020},
  month = dec,
  volume = {6},
  pages = {70},
  issn = {2057-3960},
  doi = {10.1038/s41524-020-0339-0},
  abstract = {Refractory multi-principal element alloys (MPEAs) have exceptional mechanical properties, including high strength-to-weight ratio and fracture toughness, at high temperatures. Here we elucidate the complex interplay between segregation, short-range order, and strengthening in the NbMoTaW MPEA through atomistic simulations with a highly accurate machine learning interatomic potential. In the single crystal MPEA, we find greatly reduced anisotropy in the critically resolved shear stress between screw and edge dislocations compared to the elemental metals. In the polycrystalline MPEA, we demonstrate that thermodynamically driven Nb segregation to the grain boundaries (GBs) and W enrichment within the grains intensifies the observed short-range order (SRO). The increased GB stability due to Nb enrichment reduces the von Mises strain, resulting in higher strength than a random solid solution MPEA. These results highlight the need to simultaneously tune GB composition and bulk SRO to tailor the mechanical properties of MPEAs.},
  copyright = {All rights reserved},
  file = {/Users/shyue/Zotero/storage/JTMUIGCH/Li et al. - 2020 - Complex strengthening mechanisms in the NbMoTaW mu.pdf},
  journal = {npj Computational Materials},
  keywords = {corresponding},
  language = {en},
  number = {1}
}

@article{liDataDrivenDiscoveryFullVisibleSpectrum2019,
  title = {Data-{{Driven Discovery}} of {{Full}}-{{Visible}}-{{Spectrum Phosphor}}},
  author = {Li, Shuxing and Xia, Yonghui and Amachraa, Mahdi and Hung, Nguyen Tuan and Wang, Zhenbin and Ong, Shyue Ping and Xie, Rong-Jun},
  year = {2019},
  month = aug,
  volume = {31},
  pages = {6286--6294},
  issn = {0897-4756, 1520-5002},
  doi = {10.1021/acs.chemmater.9b02505},
  abstract = {The development of extra-broadband phosphors is essential for next-generation illumination with better color experience. In this work, we report the discovery of the first-known Eu2+-activated full-visible-spectrum phosphor, Sr2AlSi2O6N:Eu2+, identified by combining data mining of high-throughput density functional theory calculations and experimental characterization. Excited by UV-light-emitting diodes (LEDs), Sr2AlSi2O6N:Eu2+ shows a superbroad emission with a bandwidth of 230 nm, the broadest emission bandwidth ever reported, and has excellent thermal quenching resistance (88\% intensity at 150 \textdegree C). A prototype white LED utilizing only this full-visible-spectrum phosphor exhibits superior color quality (Ra = 97, R9 = 91), outperforming commercial tricolor phosphor-converted LEDs. These findings not only show great promise of Sr2AlSi2O6N:Eu2+ as a single white emitter but also open up in silico design of full-visible-spectra phosphor in a single-phase material to address the reabsorption energy loss in commercial tricolor phosphor mixture.},
  copyright = {All rights reserved},
  file = {/Users/shyue/Zotero/storage/ZECR9Q2D/Li et al. - 2019 - Data-Driven Discovery of Full-Visible-Spectrum Pho.pdf},
  journal = {Chemistry of Materials},
  keywords = {corresponding},
  language = {en},
  number = {16}
}

@incollection{lideElectronWorkFunction2010,
  title = {Electron {{Work Function}} of the {{Elements}}},
  booktitle = {{{CRC Handbook}} of {{Chemistry}} and {{Physics}}, {{Internet Version}} 2011},
  editor = {Lide, David R.},
  year = {2010},
  edition = {91st},
  pages = {12--114},
  publisher = {{CRC Press}},
  file = {/Users/shyue/Zotero/storage/QMS4ESLH/2010 - Unknown - CRC Handbook of Chemistry and Physics, Internet Version 2011.pdf},
  isbn = {1-4398-2077-5}
}

@incollection{lideIonizationEnergiesAtoms2010,
  title = {Ionization Energies of Atoms and Atomic Ions},
  booktitle = {{{CRC Handbook}} of {{Chemistry}} and {{Physics}}, {{Internet Version}} 2011},
  editor = {Lide, David R.},
  year = {2010},
  edition = {91st},
  pages = {10--203 -- 10--205},
  publisher = {{CRC Press}},
  file = {/Users/shyue/Zotero/storage/HU9CMN9M/2010 - Unknown - CRC Handbook of Chemistry and Physics, Internet Version 2011(2).pdf}
}

@article{liDensificationIonicconductionImprovement2014,
  title = {Densification and Ionic-Conduction Improvement of Lithium Garnet Solid Electrolytes by Flowing Oxygen Sintering},
  author = {Li, Yiqiu and Wang, Zheng and Li, Chilin and Cao, Yang and Guo, Xiangxin},
  year = {2014},
  volume = {248},
  pages = {642--646},
  issn = {03787753},
  doi = {10.1016/j.jpowsour.2013.09.140},
  abstract = {High density (???96\%) garnet-type Al-contained Li6.75La 3Zr1.75Ta0.25O12 (LLZTO-Al) solid electrolytes are prepared by conventional solid-state reaction and the following flowing oxygen sintering process. An overall ionic conductivity as high as 7.4 ?? 10-4 S cm-1 at 25 C is achievable, remarkably higher than that obtained by sintering in other atmospheres. The dependence of density and conductivity of solid electrolytes on sintering under different oxygen partial pressures is discussed. Atmosphere sintering is proved to be an effective method to improve the relative density of lithium oxide ceramics. ?? 2013 Elsevier B.V. All rights reserved.},
  file = {/Users/shyue/Zotero/storage/GCYPMQ7K/2014 - Li et al. - Journal of Power Sources.pdf},
  journal = {Journal of Power Sources},
  keywords = {Densification,Flowing oxygen sintering,Ionic conductivity,Lithium garnet electrolytes}
}

@article{liDirectVisualizationJahn2014,
  title = {Direct Visualization of the {{Jahn}}\textendash{{Teller}} Effect Coupled to {{Na}} Ordering in {{Na5}}/{{8MnO2}}},
  author = {Li, Xin and Ma, Xiaohua and Su, Dong and Liu, Lei and Chisnell, Robin and Ong, Shyue Ping and Chen, Hailong and Toumar, Alexandra and Idrobo, Juan-carlos and Lei, Yuechuan and Bai, Jianming and Wang, Feng and Lynn, Je W and Lee, Young S and Ceder, Gerbrand},
  year = {2014},
  volume = {AOP},
  doi = {10.1038/NMAT3964},
  copyright = {All rights reserved},
  file = {/Users/shyue/Zotero/storage/3YJS9TEA/2014 - Li et al. - Nat Mater.pdf;/Users/shyue/Zotero/storage/IXC66CU9/2014 - Li et al. - Nature Materials.pdf},
  journal = {Nat Mater}
}

@article{liechtensteinDensityfunctionalTheoryStrong1995,
  title = {Density-Functional Theory and Strong Interactions: {{Orbital}} Ordering in {{Mott}}-{{Hubbard}} Insulators},
  author = {Liechtenstein, A. I. and Anisimov, V. I. and Zaanen, J.},
  year = {1995},
  month = aug,
  volume = {52},
  pages = {R5467--R5470},
  issn = {0163-1829},
  doi = {10.1103/PhysRevB.52.R5467},
  file = {/Users/shyue/Zotero/storage/J4RTFS4R/1995 - Liechtenstein, Anisimov, Zaanen - Physical Review B.pdf},
  journal = {Physical Review B},
  number = {8}
}

@article{lieserElectrochemicalCharacterizationLiMnFeF62014,
  title = {Electrochemical {{Characterization}} of {{LiMnFeF6}} for {{Use}} as {{Positive Electrode}} in {{Lithium}}-{{Ion Batteries}}},
  author = {Lieser, G. and Biasi, L. D. and Gesswein, H. and Indris, S. and Drager, C. and Schroeder, M. and Glatthaar, S. and Ehrenberg, H. and Binder, J. R.},
  year = {2014},
  volume = {161},
  pages = {A1869--A1876},
  issn = {0013-4651},
  doi = {10.1149/2.0651412jes},
  abstract = {To replace common commercial lithium metal oxides or polyanionic cathode materials, lithium transition metal fluorides are of particular interest, as they potentially provide a high energy density, safety, and cyclability. The quaternary fluoride LiMnFeF6 that crystallizes in the Na2SiF6-type structure was synthesized without toxic chemicals by a sol-gel process with trifluoroacetic acid as fluorine source. After structural and morphological characterization, the as-synthesized material was ball-milled with carbon. The novel composite cathode material produced in this way was cycled versus lithium. The electrochemical potential range, cycling ability, and rate performance were investigated and the electrochemically active redox couple Fe3+/Fe2+ was confirmed by M\"ossbauer spectroscopy. Structural changes of the LiMnFeF6 host structure after Li insertion were investigated by X-ray powder diffraction.},
  file = {/Users/shyue/Zotero/storage/TWYS6775/2014 - Lieser et al. - Journal of the Electrochemical Society(2).pdf},
  journal = {Journal of the Electrochemical Society},
  number = {12}
}

@article{lieserSolGelBasedSynthesis2014,
  title = {Sol-{{Gel Based Synthesis}} of {{LiNiFeF6}} and {{Its Electrochemical Characterization}}},
  author = {Lieser, G. and Dr{\"a}ger, C. and Schroeder, M. and Indris, S. and {de Biasi}, L. and {Ge{\textbackslash}s swein}, H. and Glatthaar, S. and Ehrenberg, H. and Binder, J. R.},
  year = {2014},
  volume = {161},
  pages = {A1071--A1077},
  issn = {0013-4651},
  doi = {10.1149/2.070406jes},
  file = {/Users/shyue/Zotero/storage/PHL7K392/2014 - Lieser et al. - Journal of the Electrochemical Society.pdf},
  journal = {Journal of the Electrochemical Society},
  number = {6}
}

@article{liFabricationElectrochemicalProperties2015,
  title = {Fabrication and Electrochemical Properties of a {{LiCoO2}} and {{Li10GeP2S12}} Composite Electrode for Use in All-Solid-State Batteries},
  author = {Li, Wen Jing and Hirayama, Masaaki and Suzuki, Kota and Kanno, Ryoji},
  year = {2015},
  pages = {1--7},
  issn = {01672738},
  doi = {10.1016/j.ssi.2015.05.007},
  file = {/Users/shyue/Zotero/storage/4ZGZ7FUZ/2015 - Li et al. - Solid State Ionics.pdf},
  journal = {Solid State Ionics},
  keywords = {All-solid-state battery,Lithium battery,Lithium cobalt oxide,Sulfide electrolyte,Surface coating}
}

@article{liFluorineDopedAntiperovskiteElectrolyte2016,
  title = {Fluorine-{{Doped Antiperovskite Electrolyte}} for {{All}}-{{Solid}}-{{State Lithium}}-{{Ion Batteries}}},
  author = {Li, Yutao and Zhou, Weidong and Xin, Sen and Li, Shuai and Zhu, Jinlong and L{\"u}, Xujie and Cui, Zhiming and Jia, Quanxi and Zhou, Jianshi and Zhao, Yusheng and Goodenough, John B},
  year = {2016},
  month = jun,
  volume = {2},
  pages = {1--6},
  issn = {14337851},
  doi = {10.1002/anie.201604554},
  file = {/Users/shyue/Zotero/storage/SDSIF87F/2016 - Li et al. - Angewandte Chemie International Edition.pdf},
  journal = {Angewandte Chemie International Edition}
}

@article{liFutureBlueLEDs2019,
  title = {The {{Future Is Blue}} ({{LEDs}}): {{Why Chemistry Is}} the {{Key}} to {{Perovskite Displays}}},
  shorttitle = {The {{Future Is Blue}} ({{LEDs}})},
  author = {Li, C.-H. Angus and Zhou, Zhicong and Vashishtha, Parth and Halpert, Jonathan E.},
  year = {2019},
  month = jul,
  issn = {0897-4756},
  doi = {10.1021/acs.chemmater.9b01650},
  abstract = {In this Perspective, we review the recent work on metal halide perovskite light-emitting devices (peLEDs) with a focus on current challenges and the prospect of commercialization of perovskite displays. Metal halide perovskites have shown remarkable hole and electron mobilities, high photoluminescence quantum yield and color tunability, and thin line width emission peaks making them ideal materials for the emissive layer in LEDs. Red- and green-emitting perovskites have already achieved very high external quantum efficiencies of greater than 20\% in the last year and may be ready to begin the commercialization process. However, blue peLEDs still lag behind in efficiency and stability. After reviewing recent attempts to improve the blue peLED efficiency, we then list the current challenges in the field and suggest possible avenues of future research, including improvements in materials chemistry and device architecture. In particular, we find that advancements are needed in color stability and lifetime, by using doping and nanostructured materials to avoid ion migration effects, and in the synthesis of novel compounds. We then compare the current state of the art in peLEDs with the competitive landscape and conclude that fixing the blue peLEDs is the key to building micropixel LEDs from perovskites. Without blue-emitting perovskites, high PLQY perovskite films can still be useful for down-conversion color filters but may have difficulty displacing existing technologies. Thus, for perovskites, the future is indeed blue (LEDs).},
  file = {/Users/shyue/Zotero/storage/QELWHY64/Li et al. - 2019 - The Future Is Blue (LEDs) Why Chemistry Is the Ke.pdf;/Users/shyue/Zotero/storage/QN24RF6B/acs.chemmater.html},
  journal = {Chemistry of Materials}
}

@article{liHighCrystallineNaVTextlesssub2018,
  title = {A {{High}}-{{Crystalline NaV}} \textbackslash textlesssub\textbackslash textgreater1.25\textbackslash textless/Sub\textbackslash textgreater {{Ti}} \textbackslash textlesssub\textbackslash textgreater0.75\textbackslash textless/Sub\textbackslash textgreater {{O}} \textbackslash textlesssub\textbackslash textgreater4\textbackslash textless/Sub\textbackslash textgreater {{Anode}} for {{Wide}}-{{Temperature Sodium}}-{{Ion Battery}}},
  author = {Li, Qi and Jiang, Kezhu and Li, Xiang and Qiao, Yu and Zhang, Xiaoyu and He, Ping and Guo, Shaohua and Zhou, Haoshen},
  year = {2018},
  volume = {1801162},
  pages = {1801162},
  issn = {16146832},
  doi = {10.1002/aenm.201801162},
  file = {/Users/shyue/Zotero/storage/IY9SIKLZ/2018 - Li et al. - Advanced Energy Materials.pdf},
  journal = {Advanced Energy Materials}
}

@article{liHighLiConduction2013,
  title = {High {{Li}}+ Conduction in {{NASICON}}-Type {{Li1}}+{{xYxZr2}}-x({{PO4}})3 at Room Temperature},
  author = {Li, Yutao and Liu, Meijing and Liu, Kai and Wang, Chang- An},
  year = {2013},
  month = apr,
  volume = {240},
  pages = {50--53},
  issn = {03787753},
  doi = {10.1016/j.jpowsour.2013.03.175},
  file = {/Users/shyue/Zotero/storage/758R28TF/2013 - Li et al. - Journal of Power Sources.pdf},
  journal = {Journal of Power Sources},
  keywords = {li solid electrolyte}
}

@article{liHighLithiumIon2011,
  title = {High Lithium Ion Conduction in Garnet-Type {{Li6La3ZrTaO12}}},
  author = {Li, Yutao and Wang, Chang- An and Xie, Hui and Cheng, Jinguang and Goodenough, John B.},
  year = {2011},
  month = aug,
  issn = {13882481},
  doi = {10.1016/j.elecom.2011.07.008},
  abstract = {The garnet-related oxide with general formula Li6La3ZrTaO12 was prepared by conventional solid-state reaction. X-ray diffraction (XRD) and AC impedance were used to determine phase formation and the lithium-ion conductivity. The structures were refined by the Rietveld method from powder X-ray diffraction data. Li6La3ZrTaO12 is cubic and crystallizes in the space group Ia-3d with room-temperature lattice parameter a=12.8873 \textbackslash AA. The bulk and total lithium ion conductivities of Li6La3ZrTaO12 at 25 C were 2.5\texttimes 10-4 Scm-1 and 1.8\texttimes 10-4 Scm-1, respectively; the activation energy was about 0.42 eV in the temperature range 298-450 K.},
  file = {/Users/shyue/Zotero/storage/FKIRFK6Z/2011 - Li et al. - Electrochemistry Communications(2).pdf;/Users/shyue/Zotero/storage/FW4WJ5HZ/2011 - Li et al. - Electrochemistry Communications.pdf},
  journal = {Electrochemistry Communications},
  keywords = {Li garnet,Li+-ion solid electrolyte,Lithium ion batteries}
}

@article{liHighPowerHigh2013,
  title = {Towards {{High Power High Energy Aqueous Sodium}}-{{Ion Batteries}}: {{The NaTi}} 2 ({{PO}} 4 ) 3 /{{Na}} 0.44 {{MnO}} 2 {{System}}},
  author = {Li, Zheng and Young, David and Xiang, Kai and Carter, W. Craig and Chiang, Yet-Ming},
  year = {2013},
  month = mar,
  volume = {3},
  pages = {290--294},
  issn = {16146832},
  doi = {10.1002/aenm.201200598},
  file = {/Users/shyue/Zotero/storage/4FQKV4NC/2013 - Li et al. - Advanced Energy Materials.pdf},
  journal = {Advanced Energy Materials},
  number = {3}
}

@article{liHighthroughputComputationalDesign2019,
  title = {High-Throughput Computational Design of Organic\textendash Inorganic Hybrid Halide Semiconductors beyond Perovskites for Optoelectronics},
  author = {Li, Yuheng and Yang, Kesong},
  year = {2019},
  volume = {12},
  pages = {2233--2243},
  issn = {1754-5692, 1754-5706},
  doi = {10.1039/C9EE01371G},
  abstract = {This work demonstrates a pathway for the large-scale design of novel organic\textendash inorganic functional materials in a high-throughput fashion.           ,              Organic\textendash inorganic lead halide perovskites show great promise in optoelectronic applications such as light-emitting diodes and solar energy conversion. However, the poor stability and toxicity of lead halide perovskites severely limit their large-scale applications. Here we show a high-throughput design of lead-free hybrid halide semiconductors with robust materials stability and desired material properties beyond perovskites. On the basis of 24 prototype structures that include perovskite and non-perovskite structures and several typical organic cations, a comprehensive quantum materials repository that contains 4507 hypothetical hybrid compounds was built using large-scale first-principles calculations. After a high-throughput screening of this repository, we have rapidly identified 23 candidates for light-emitting diodes and 13 candidates for solar energy conversion. Our work demonstrates a new avenue to design novel organic\textendash inorganic functional materials by exploring a great variety of prototype structures.},
  file = {/Users/shyue/Zotero/storage/V9QNPQS9/Li and Yang - 2019 - High-throughput computational design of organic–in.pdf},
  journal = {Energy \& Environmental Science},
  language = {en},
  number = {7}
}

@article{liIdealEngineeringAlloys2007,
  title = {``{{Ideal}}'' {{Engineering Alloys}}},
  author = {Li, Tianshu and Morris, J. W. and Nagasako, N. and Kuramoto, S. and Chrzan, D. C.},
  year = {2007},
  month = mar,
  volume = {98},
  pages = {105503},
  issn = {0031-9007},
  doi = {10.1103/PhysRevLett.98.105503},
  abstract = {A newly discovered group of alloys, called Gum Metals, approaches ideal strength in bulk form, exhibits significant plastic deformation prior to failure, and shows no indications of conventional-dislocation activity. Two conditions must be met for a material to exhibit this "ideal" behavior: (1) the stress required to trigger conventional-dislocation plasticity in the material must exceed its ideal strength, and (2) the material must be intrinsically ductile when stressed to ideal strength. Gum Metals satisfy both criteria, explaining their remarkable mechanical properties. \textcopyright{} 2007 The American Physical Society.},
  journal = {Physical Review Letters},
  number = {10}
}

@article{liInitioStudyIdeal2006,
  title = {Ab Initio Study of the Ideal Shear Strength and Elastic Deformation Behaviors of {{B2 FeAl}} and {{NiAl}}},
  author = {Li, Tianshu and Morris, J. W. and Chrzan, D. C.},
  year = {2006},
  month = jan,
  volume = {73},
  pages = {024105},
  issn = {1098-0121},
  doi = {10.1103/PhysRevB.73.024105},
  abstract = {The elastic deformation behaviors of perfect NiAl and FeAl are investigated using an ab initio electronic structure total energy method. The calculated ideal shear strengths for the \{112\}111 and \{110\}111 slip show qualitatively different features between the two intermetallics. In NiAl, the shear deformation can be understood by exploring the transition among different stress-free structures on the strain paths, while in FeAl the instabilities under shear are found to be dictated by filling of the unstable anti-bonding d states. The failure modes under uniaxial 100 tension are also explored for NiAl and FeAl using two methods, a straightforward comparison of the resolved shear stress with the ideal shear strength and a detailed examination of the internal stability condition. Both methods yield the same conclusion: FeAl fails by tension while NiAl fails by shear. These predictions are consistent with the experimentally observed cleavage behaviors. \textcopyright{} 2006 The American Physical Society.},
  journal = {Physical Review B},
  number = {2}
}

@article{liJahnTellerAssisted2016,
  title = {Jahn\textendash{{Teller Assisted Na Diffusion}} for {{High Performance Na Ion Batteries}}},
  author = {Li, Xin and Wang, Yan and Wu, Di and Liu, Lei and Bo, Shouhang and Ceder, Gerbrand},
  year = {2016},
  month = sep,
  volume = {28},
  pages = {6575--6583},
  issn = {0897-4756},
  doi = {10.1021/acs.chemmater.6b02440},
  file = {/Users/shyue/Zotero/storage/F8WTJHZL/2016 - Li et al. - Chemistry of Materials.pdf},
  journal = {Chemistry of Materials},
  number = {18}
}

@article{liLi3VO4PromisingInsertion2013,
  title = {{{Li3VO4}} : {{A}} Promising Insertion Anode Material for Lithium-Ion Batteries},
  author = {Li, Huiqiao and Liu, Xizheng and Zhai, Tianyou and Li, De and Zhou, Haoshen},
  year = {2013},
  volume = {3},
  pages = {428--432},
  issn = {16146832},
  doi = {10.1002/aenm.201200833},
  abstract = {Li3VO4 was prepared by a solid-state method. Appropriate ratios of dried V 2 O 5 and Li 2 CO 3 powders (Li:V = 3:1 in mol/mol) were mixed thoroughly using an agate mortar, then the mixture were annealed at 600 \textdegree C for 5 h followed by 900 \textdegree C for 3 h in air in an temperature-controlled furnaces. The obtained powder was grounded for use as an active electrode material for battery tests. Powder X-ray diffraction (XRD) patterns were collected with a Bruker D8 Advanced Diffractometer using Cu K a radiation. The morphologies of the samples were examined by fi eld-emission scanning electron microscopy (FE-SEM, Hitachi S-4800) and high-resolution transmission electron microscopy (HRTEM, JEOL JEM-3000F). For Ex-situ XRD measurements, the electrode was picked from a freshly charge/ discharged coin-type cell and sealed with Mylar fi lm in an argon-fi lled glove box, and then immediately performed the XRD measurement. The electrochemical performances were measured with coin-type cells which coupled a Li3VO4 composite electrode and a Li metal electrode. The Li3VO4 composite electrode was made by 75\% of Li3VO4 , 20\% of conducting agent and 5\% of binder in weight. Cu grid was used as the current collector and 1 M LiPF 6 in EC/DEC (EC:DEC = 1:1 in v/v) was used as the electrolyte. The specifi c capacity was based on the weight of Li 3VO4 in the composite electrode. \textcopyright{} 2013 WILEY-VCH Verlag GmbH and Co.},
  journal = {Advanced Energy Materials},
  number = {4}
}

@article{liLi3VO4PromisingInsertion2013a,
  title = {{{Li3VO4}}: {{A Promising Insertion Anode Material}} for {{Lithium}}-{{Ion Batteries}}},
  shorttitle = {{{Li3VO4}}},
  author = {Li, Huiqiao and Liu, Xizheng and Zhai, Tianyou and Li, De and Zhou, Haoshen},
  year = {2013},
  volume = {3},
  pages = {428--432},
  issn = {1614-6840},
  doi = {10.1002/aenm.201200833},
  abstract = {A new insertion anode material, Li3VO4, is reported for lithium ion batteries. It shows both a larger reversible capacity (323 mAh g-1) and a lower insertion voltage (0.5{$\sim$}1.0 V vs. Li/Li+) thus can promise higher energy density than the typical insertion anode of Li4Ti5O12.},
  annotation = {\_eprint: https://onlinelibrary.wiley.com/doi/pdf/10.1002/aenm.201200833},
  file = {/Users/shyue/Zotero/storage/W6HV62QY/Li et al. - 2013 - Li3VO4 A Promising Insertion Anode Material for L.pdf;/Users/shyue/Zotero/storage/Q4JN5CQB/aenm.html},
  journal = {Advanced Energy Materials},
  keywords = {anode,insertion,Li3VO4,lithium-ion batteries},
  number = {4}
}

@article{liLiMnPOSubCathode2002,
  title = {{{LiMnPO}}[Sub 4] as the {{Cathode}} for {{Lithium Batteries}}},
  author = {Li, Guohua and Azuma, Hideto and Tohda, Masayuki},
  year = {2002},
  volume = {5},
  pages = {A135},
  issn = {10990062},
  doi = {10.1149/1.1475195},
  file = {/Users/shyue/Zotero/storage/32YHYEQ2/2002 - Li, Azuma, Tohda - Electrochemical and Solid-State Letters.pdf},
  journal = {Electrochemical and Solid-State Letters},
  number = {6}
}

@article{liLiquidlikeThermalConduction2018,
  title = {Liquid-like Thermal Conduction in Intercalated Layered Crystalline Solids},
  author = {Li, B and Wang, H and Kawakita, Y and Zhang, Q and Feygenson, M and Yu, H L and Wu, D and Ohara, K and Kikuchi, T and Shibata, K and Yamada, T and Ning, X K and Chen, Y and He, J Q and Vaknin, D and Wu, R Q and Nakajima, K and Kanatzidis, M G},
  year = {2018},
  issn = {1476-1122},
  doi = {10.1038/s41563-017-0004-2},
  abstract = {As a generic property, all substances transfer heat through microscopic collisions of constituent particles 1 . A solid con-ducts heat through both transverse and longitudinal acoustic phonons, but a liquid employs only longitudinal vibrations 2,3 . As a result, a solid is usually thermally more conductive than a liquid. In canonical viewpoints, such a difference also serves as the dynamic signature distinguishing a solid from a liq-uid. Here, we report liquid-like thermal conduction observed in the crystalline AgCrSe 2 . The transverse acoustic phonons are completely suppressed by the ultrafast dynamic disorder while the longitudinal acoustic phonons are strongly scat-tered but survive, and are thus responsible for the intrinsically ultralow thermal conductivity. This scenario is applicable to a wide variety of layered compounds with heavy intercalants in the van der Waals gaps, manifesting a broad implication on suppressing thermal conduction. These microscopic insights might reshape the fundamental understanding on thermal transport properties of matter and open up a general opportu-nity to optimize performances of thermoelectrics. Thermal transport is one of the most fundamental proper-ties of matter 1 . As a persistent challenge, rationalizing anomalous thermal transport properties has been reforming our understand-ing on solid materials, such as the birth of phonon glasses 4\textendash 6 and the observation of wave\textendash particle duality of phonon transport in superlattices 7 . Meanwhile, materials with small thermal conductiv-ity are desirable for a great diversity of applications such as thermal insulation 8 , optical phase-change memory devices 9 and efficient thermoelectric energy conversion 10 . Therefore, it is of both funda-mental significance and technological interest to explore suppressed thermal transport in solids. By conducting a comprehensive study combining state-of-the-art neutron/X-ray scattering with density-functional-perturbation-theory (DFPT) calculations on the chal-cogenide AgCrSe 2 , we found that the low-lying intense transverse acoustic (TA) phonons that are exclusively dominated by motions of Ag atoms compete with fluctuations inherent in the order-to-disor-der transition of Ag occupation. Phonons are significantly damped as temperature rises. Above the transition temperature, transverse vibrations of Ag atoms are suppressed by the ultrafast atomic fluctu-ations while the longitudinal acoustic (LA) mode remains, charac-teristic of liquid-like thermal conduction with extremely low lattice thermal conductivity},
  file = {/Users/shyue/Zotero/storage/MDWSXZ4G/2018 - Li et al. - Nature Materials.pdf},
  journal = {Nature Materials}
}

@article{liLithiationDelithiationDynamics2017,
  title = {Lithiation and {{Delithiation Dynamics}} of {{Different Li Sites}} in {{Li}}-{{Rich Battery Cathodes Studied}} by {{{\emph{Operando}}}} {{Nuclear Magnetic Resonance}}},
  author = {Li, Xiang and Tang, Mingxue and Feng, Xuyong and Hung, Ivan and Rose, Alyssa and Chien, Po-Hsiu and Gan, Zhehong and Hu, Yan-Yan},
  year = {2017},
  month = oct,
  volume = {29},
  pages = {8282--8291},
  issn = {0897-4756, 1520-5002},
  doi = {10.1021/acs.chemmater.7b02589},
  abstract = {Li in Li-rich cathodes mostly resides at octahedral sites in both Li layers (LiLi) and transition metal layers (LiTM). Extraction and insertion of LiLi and LiTM are strongly influenced by surrounding transition metals. pjMATPASS and operando Li nuclear magnetic resonance are combined to achieve both high spectral and temporal resolution for quantitative real time monitoring of lithiation and delithiation at LiLi and LiTM sites in Li2MnO3, Li1.2Ni0.2Mn0.6O2, and Li1.2Ni0.13Mn0.54Co0.13O2 cathodes. The results have revealed that LiTM are preferentially extracted for the first 20\% of charge and then LiLi and LiTM are removed at the same rate. No preferential insertion or extraction of LiLi and LiTM is observed beyond the first charge. Ni and Co promote faster and more complete removal of LiTM. The recovery of the removed Li is {$<$}60\% for LiTM and {$>$}80\% for LiLi upon first discharge. The study sheds light on the activity of LiLi and LiTM during electrochemical processes as well as their respective contributions to cathode capacity.},
  file = {/Users/shyue/Zotero/storage/X7EVUS5J/Li et al. - 2017 - Lithiation and Delithiation Dynamics of Different .pdf},
  journal = {Chemistry of Materials},
  language = {en},
  number = {19}
}

@article{liLithiumIonConductivity2008,
  title = {Lithium Ion Conductivity in Single Crystal {{LiFePO4}}},
  author = {Li, J and Yao, W and Martin, S and Vaknin, D},
  year = {2008},
  month = oct,
  volume = {179},
  pages = {2016--2019},
  issn = {01672738},
  doi = {10.1016/j.ssi.2008.06.028},
  file = {/Users/shyue/Zotero/storage/B2RPCDCZ/2008 - Li et al. - Solid State Ionics.pdf},
  journal = {Solid State Ionics},
  keywords = {lithium rechargeable battery},
  number = {35-36}
}

@article{liMnO2NanoflakesCoated2011,
  title = {{{MnO2}} Nanoflakes Coated on Multi-Walled Carbon Nanotubes for Rechargeable Lithium-Air Batteries},
  author = {Li, Jiaxin and Wang, Ning and Zhao, Yi and Ding, Yunhai and Guan, Lunhui},
  year = {2011},
  month = jul,
  volume = {13},
  pages = {698--700},
  issn = {13882481},
  doi = {10.1016/j.elecom.2011.04.013},
  file = {/Users/shyue/Zotero/storage/8T3BTQJA/2011 - Li et al. - Electrochemistry Communications(4).pdf},
  journal = {Electrochemistry Communications},
  keywords = {Air electrodes,electrochemical performance,lithium-air batteries,mno 2,MnO2/MWNT cathodes,mwnt cathodes},
  number = {7}
}

@article{liMolecularDynamicsOnthefly2015,
  title = {Molecular Dynamics with On-the-Fly Machine Learning of Quantum-Mechanical Forces},
  author = {Li, Zhenwei and Kermode, James R. and De Vita, Alessandro},
  year = {2015},
  volume = {114},
  pages = {1--5},
  issn = {10797114},
  doi = {10.1103/PhysRevLett.114.096405},
  abstract = {We present a molecular dynamics scheme which combines first-principles and machine-learning (ML) techniques in a single information-efficient approach. Forces on atoms are either predicted by Bayesian inference or, if necessary, computed by on-the-fly quantum-mechanical (QM) calculations and added to a growing ML database, whose completeness is, thus, never required. As a result, the scheme is accurate and general, while progressively fewer QM calls are needed when a new chemical process is encountered for the second and subsequent times, as demonstrated by tests on crystalline and molten silicon.},
  file = {/Users/shyue/Zotero/storage/QX7CEIK4/2015 - Li, Kermode, De Vita - Physical Review Letters(2).pdf},
  journal = {Physical Review Letters},
  number = {9},
  pmid = {25793835}
}

@article{linComparisonPolymorphsVOPO42017,
  title = {Comparison of the {{Polymorphs}} of {{VOPO4}} as {{Multi}}-{{Electron Cathodes}} for {{Rechargeable Alkali}}-{{Ion Batteries}}},
  author = {Lin, Yuh-Chieh and Hidalgo, Marc F. V. and Chu, Iek-Heng' and Chernova, Natasha A. and Whittingham, M. Stanley and Ong, Shyue Ping},
  year = {2017},
  volume = {submitted},
  issn = {2050-7488},
  doi = {10.1039/C7TA04558A},
  copyright = {All rights reserved},
  file = {/Users/shyue/Zotero/storage/PFZRN8YQ/2017 - Lin et al. - Journal of Materials Chemistry A(2).pdf;/Users/shyue/Zotero/storage/WX2M2WR3/2017 - Lin et al. - J. Mater. Chem. A.pdf},
  journal = {J. Mater. Chem. A},
  keywords = {corresponding}
}

@article{lingPhaseStabilityIts2014,
  title = {Phase Stability and Its Impact on the Electrochemical Performance of {{VOPO}} 4 and {{LiVOPO}} 4},
  author = {Ling, Chen and Zhang, Ruigang and Mizuno, Fuminori},
  year = {2014},
  month = jun,
  volume = {2},
  pages = {12330},
  issn = {2050-7488},
  doi = {10.1039/C4TA01708K},
  abstract = {Vanadyl phosphate (VOPO4) is an attractive candidate as a Li-ion battery cathode with potential to reach higher energy density than that of olivine LiFePO4. However, the limited knowledge of the complex polymorphism of VOPO4 and LiVOPO4 prevents any systematic optimization. Here we present a comprehensive first-principles study on the phase stability of VOPO4 and LiVOPO4 and its impact on the electrochemical properties. bVOPO4 and aLiVOPO4 are predicted to be the most stable phases of VOPO4 and LiVOPO4, respectively. The crucial factor that determines the phase stability is the connection between cation polyhedra including the tilting of VO6 octahedra and the distance between cations, but not the bonding between cations and anions. The calculated data well explain the experimentally observed transition from the aII- to the aI-phase and from the 3- to the a-phase induced by lithiation. The transition from the b- to the a-phase is also possible but is associated with much larger structural deformation. The voltages calculated using possible phase transitions taken into account are in excellent agreement with experimental measurements. The diffusivity in bLiVOPO4 and aLiVOPO4 differs by five orders of magnitude at 300 K. These results elucidate the importance of the phase stability of VOPO4 and LiVOPO4 in the application of Li-ion battery cathodes and pave the way for their future improvements.},
  file = {/Users/shyue/Zotero/storage/SY43AEAL/2014 - Ling, Zhang, Mizuno - Journal of Materials Chemistry A.pdf},
  journal = {Journal of Materials Chemistry A},
  number = {31}
}

@article{liNitrogendopedCarbonNanotubes2011,
  title = {Nitrogen-Doped Carbon Nanotubes as Novel Cathode for Lithium-Air Batteries},
  author = {Li, Yongliang and Wang, Jiajun and Li, Xifei and Liu, Jian and Geng, Dongsheng and Yang, Jinli and Li, Ruying and Sun, Xueliang},
  year = {2011},
  month = apr,
  volume = {13},
  pages = {668--672},
  issn = {13882481},
  doi = {10.1016/j.elecom.2011.04.004},
  file = {/Users/shyue/Zotero/storage/ZWK4GDJI/2011 - Li et al. - Electrochemistry Communications(3).pdf},
  journal = {Electrochemistry Communications},
  keywords = {air batteries,electrocatalytic activity,lithium,Lithium–air batteries,nitrogen-doped carbon nanotubes},
  number = {7}
}

@article{linMetalSegregationHierarchically2016,
  title = {Metal Segregation in Hierarchically Structured Cathode Materials for High-Energy Lithium Batteries},
  author = {Lin, Feng and Nordlund, Dennis and Li, Yuyi and Quan, Matthew K. and Cheng, Lei and Weng, Tsu-Chien and Liu, Yijin and Xin, Huolin L. and Doeff, Marca M.},
  year = {2016},
  volume = {1},
  pages = {15004},
  issn = {2058-7546},
  doi = {10.1038/nenergy.2015.4},
  file = {/Users/shyue/Zotero/storage/K4W444FA/2016 - Lin et al. - Nature Energy.pdf},
  journal = {Nature Energy},
  keywords = {10,1038,11 january 2016,15004,2015,4,article number,cathode materials for high-energy,doi,icles,metal segregation in hierarchically,nenergy,published,structured},
  number = {1}
}

@article{liNovelElectrolyteSalt2017,
  title = {A {{Novel Electrolyte Salt Additive}} for {{Lithium}}-{{Ion Batteries}} with {{Voltages Greater}} than 4.7 {{V}}},
  author = {Li, Yunchao and Wan, Shun and Veith, Gabriel M. and Unocic, Raymond R. and Paranthaman, Mariappan Parans and Dai, Sheng and Sun, Xiao-Guang},
  year = {2017},
  month = feb,
  volume = {7},
  pages = {1601397},
  issn = {16146832},
  doi = {10.1002/aenm.201601397},
  file = {/Users/shyue/Zotero/storage/LKBU3IBZ/2017 - Li et al. - Advanced Energy Materials.pdf},
  journal = {Advanced Energy Materials},
  keywords = {electrolyte additives,high‐voltage batteries,solid‐electrolyte interfaces (SEI),spinel LiNi1.5Mn0.5O4 (LNMO)},
  number = {4}
}

@article{linReconstructionsSrTiO30012011,
  title = {The (2\texttimes 2) Reconstructions on the {{SrTiO3}} (001) Surface: {{A}} Combined Scanning Tunneling Microscopy and Density Functional Theory Study},
  author = {Lin, Yuyuan and {Becerra-Toledo}, Andres E. and Silly, Fabien and Poeppelmeier, Kenneth R. and Castell, Martin R. and Marks, Laurence D.},
  year = {2011},
  volume = {605},
  pages = {L51--L55},
  issn = {00396028},
  doi = {10.1016/j.susc.2011.06.001},
  file = {/Users/shyue/Zotero/storage/9QDW9S79/2011 - Lin et al. - Surface Science.pdf},
  journal = {Surface Science},
  keywords = {density functional theory,Density functional theory,scanning tunneling microscopy,Scanning tunneling microscopy,Simulation,Strontium titanate,surface reconstruction,Surface reconstruction,Surface structure},
  number = {17-18}
}

@article{linSilicoScreeningCarboncapture2012,
  title = {In Silico Screening of Carbon-Capture Materials.},
  author = {Lin, Li-Chiang and Berger, Adam H and Martin, Richard L and Kim, Jihan and a Swisher, Joseph and Jariwala, Kuldeep and Rycroft, Chris H and Bhown, Abhoyjit S and Deem, Michael W and Haranczyk, Maciej and Smit, Berend},
  year = {2012},
  month = jul,
  volume = {11},
  pages = {633--41},
  issn = {1476-1122},
  doi = {10.1038/nmat3336},
  abstract = {One of the main bottlenecks to deploying large-scale carbon dioxide capture and storage (CCS) in power plants is the energy required to separate the CO(2) from flue gas. For example, near-term CCS technology applied to coal-fired power plants is projected to reduce the net output of the plant by some 30\% and to increase the cost of electricity by 60-80\%. Developing capture materials and processes that reduce the parasitic energy imposed by CCS is therefore an important area of research. We have developed a computational approach to rank adsorbents for their performance in CCS. Using this analysis, we have screened hundreds of thousands of zeolite and zeolitic imidazolate framework structures and identified many different structures that have the potential to reduce the parasitic energy of CCS by 30-40\% compared with near-term technologies.},
  file = {/Users/shyue/Zotero/storage/C4Q2F4JC/2012 - Lin et al. - Nature materials.pdf},
  journal = {Nature materials},
  keywords = {Adsorption,Carbon Dioxide,Carbon Dioxide: chemistry,Carbon Dioxide: isolation \& purification,Imidazoles,Imidazoles: chemistry,Informatics,Models,Molecular,Molecular Conformation,Pressure,Silicon Dioxide,Silicon Dioxide: chemistry,Temperature,Zeolites,Zeolites: chemistry},
  number = {7},
  pmid = {22635045}
}

@article{linSodiumCobaltatesCrystal2006,
  title = {Sodium Cobaltates: {{Crystal}} Growth, Structure, Thermoelectricity, and Superconductivity},
  author = {Lin, C.T. and Chen, D.P. and Maljuk, a. and Lemmens, P.},
  year = {2006},
  month = jul,
  volume = {292},
  pages = {422--428},
  issn = {00220248},
  doi = {10.1016/j.jcrysgro.2006.04.104},
  file = {/Users/shyue/Zotero/storage/TTZNK3GX/2006 - Lin et al. - Journal of Crystal Growth.pdf},
  journal = {Journal of Crystal Growth},
  keywords = {a1,a2,b2,crystal growth,hydration,na x coo 2,structure,superconductivity,thermoelectricity},
  number = {2}
}

@book{linstromNISTChemistryWebBook2015,
  title = {{{NIST Chemistry WebBook}}, {{NIST Standard Reference Database Number}} 69},
  author = {Linstrom, P.J. and Mallard, W.G.},
  year = {2015},
  publisher = {{National Institute of Standards and Technology}},
  address = {{Gaithersburg MD 20899}}
}

@article{linSurfaceReconstructionChemical2014,
  title = {Surface Reconstruction and Chemical Evolution of Stoichiometric Layered Cathode Materials for Lithium-Ion Batteries.},
  author = {Lin, Feng and Markus, Isaac M and Nordlund, Dennis and Weng, Tsu-Chien and Asta, Mark D and Xin, Huolin L and Doeff, Marca M},
  year = {2014},
  volume = {5},
  pages = {3529},
  issn = {2041-1723},
  doi = {10.1038/ncomms4529},
  abstract = {The present study sheds light on the long-standing challenges associated with high-voltage operation of LiNi(x)Mn(x)Co(1-2x)O2 cathode materials for lithium-ion batteries. Using correlated ensemble-averaged high-throughput X-ray absorption spectroscopy and spatially resolved electron microscopy and spectroscopy, here we report structural reconstruction (formation of a surface reduced layer, to transition) and chemical evolution (formation of a surface reaction layer) at the surface of LiNi(x)Mn(x)Co(1-2x)O2 particles. These are primarily responsible for the prevailing capacity fading and impedance buildup under high-voltage cycling conditions, as well as the first-cycle coulombic inefficiency. It was found that the surface reconstruction exhibits a strong anisotropic characteristic, which predominantly occurs along lithium diffusion channels. Furthermore, the surface reaction layer is composed of lithium fluoride embedded in a complex organic matrix. This work sets a refined example for the study of surface reconstruction and chemical evolution in battery materials using combined diagnostic tools at complementary length scales.},
  file = {/Users/shyue/Zotero/storage/GAGGD8B9/2014 - Lin et al. - Nature communications.pdf},
  journal = {Nature communications},
  pmid = {24670975}
}

@article{linThermodynamicsKineticsStructural2016,
  title = {Thermodynamics, {{Kinetics}} and {{Structural Evolution}} of {$\epsilon$}-{{LiVOPO4}} over {{Multiple Lithium Intercalation}}},
  author = {Lin, Yuhchieh and Wen, Bohua and Wiaderek, Kamila M. and Sallis, Shawn and Liu, Hao and Lapidus, Saul H. and Borkiewicz, Olaf J. and Quackenbush, Nicholas F. and Chernova, Natasha A. and Karki, Khim and Omenya, Fredrick and Chupas, Peter J. and Piper, Louis F. J. and Whittingham, M. Stanley and Chapman, Karena W. and Ong, Shyue Ping},
  year = {2016},
  month = mar,
  volume = {28},
  pages = {1794--1805},
  issn = {0897-4756},
  doi = {10.1021/acs.chemmater.5b04880},
  abstract = {In this work, we demonstrate the stable cycling of more than one Li in solid-state-synthesized {$\epsilon$}-LiVOPO4 over more than 20 cycles for the first time. Using a combination of density functional theory (DFT) calculations, X-ray pair distribution function (PDF) analysis and X-ray Absorption Near Edge Structure (XANES) measurements, we present a comprehensive analysis of the thermodynamics, kinetics and structural evolution of {$\epsilon$}-LixVOPO4 over the entire lithiation range. We identify two intermediate phases at x = 1.5 and 1.75 in the low-voltage regime using DFT calculations, and the computed and electrochemical voltage profiles are in excellent agreement. Operando PDF and EXAFS techniques show a reversible hysteretic change in the short (\textbackslash textless 2 \textbackslash AA) V-O bond lengths coupled with an irreversible extension of the long V-O bond (\textbackslash textgreater 2.4 \textbackslash AA) during low-voltage cycling. Hydrogen intercalation from electrolyte decomposition is a possible explanation for the {$\sim$} 2.4 \textbackslash AA V-O bond and its irreversible extension. Finally, we show that LixVOPO4 is likely a pseudo-1D ionic diffuser with low electronic conductivity using DFT calculations, which suggests that nano-sizing and carbon coating is necessary to achieve good electrochemical performance in this material.},
  copyright = {All rights reserved},
  file = {/Users/shyue/Zotero/storage/SFV8FW38/2016 - Lin et al. - Chemistry of Materials(2).pdf},
  journal = {Chemistry of Materials},
  keywords = {corresponding},
  number = {6}
}

@article{linUltrafastRechargeableAluminiumion2015,
  title = {An Ultrafast Rechargeable Aluminium-Ion Battery},
  author = {Lin, Meng-Chang and Gong, Ming and Lu, Bingan and Wu, Yingpeng and Wang, Di-Yan and Guan, Mingyun and Angell, Michael and Chen, Changxin and Yang, Jiang and Hwang, Bing-Joe and Dai, Hongjie},
  year = {2015},
  month = apr,
  volume = {520},
  pages = {324--328},
  issn = {0028-0836},
  doi = {10.1038/nature14340},
  file = {/Users/shyue/Zotero/storage/GZMMEMYW/2015 - Lin et al. - Nature.pdf},
  journal = {Nature},
  number = {7547}
}

@article{linUnderstandingInteractionsVibrational2018,
  title = {Understanding the {{Interactions}} between {{Vibrational Modes}} and {{Excited State Relaxation}} in {{Y}} \textbackslash textlesssub\textbackslash textgreater 3\textendash{} \textbackslash textlessi\textbackslash textgreaterx\textbackslash textless/I\textbackslash textgreater \textbackslash textless/Sub\textbackslash textgreater {{Ce}} \textbackslash textlesssub\textbackslash textgreater \textbackslash textlessi\textbackslash textgreaterx\textbackslash textless/I\textbackslash textgreater \textbackslash textless/Sub\textbackslash textgreater {{Al}} \textbackslash textlesssub\textbackslash textgreater5\textbackslash textless/Sub\textbackslash textgreater {{O}} \textbackslash textlesssub\textbackslash textgreater12\textbackslash textless/Sub\textbackslash textgreater : {{Design Principles}} for {{Phosphors Based}} on 5 \textbackslash textlessi\textbackslash textgreaterd\textbackslash textless/I\textbackslash textgreater \textendash 4 \textbackslash textlessi\textbackslash textgreaterf\textbackslash textless/I\textbackslash textgreater {{Transitions}}},
  author = {Lin, Yuan-Chih and Erhart, Paul and Bettinelli, Marco and George, Nathan C. and Parker, Stewart F. and Karlsson, Maths},
  year = {2018},
  pages = {acs.chemmater.7b04348},
  issn = {0897-4756},
  doi = {10.1021/acs.chemmater.7b04348},
  file = {/Users/shyue/Zotero/storage/5KA8ZGWP/2018 - Lin et al. - Chemistry of Materials.pdf},
  journal = {Chemistry of Materials}
}

@article{linUnravelingMechanismsThermal2019,
  title = {Unraveling the {{Mechanisms}} of {{Thermal Quenching}} of {{Luminescence}} in {{Ce3}}+-{{Doped Garnet Phosphors}}},
  author = {Lin, Yuan-Chih and Bettinelli, Marco and Karlsson, Maths},
  year = {2019},
  month = jun,
  volume = {31},
  pages = {3851--3862},
  issn = {0897-4756},
  doi = {10.1021/acs.chemmater.8b05300},
  abstract = {The environmental and economic benefits of phosphor-converted white-light-emitting diodes (pc-WLEDs) have been increasingly appreciated in recent years. However, a significant challenge in this field pertains to a phenomenon known as thermal quenching, which takes place inside phosphors and leads to a pronounced reduction of the emission intensity under high-power light-emitting diode operation. The development of new, more thermally stable phosphors depends on a better understanding of the mechanisms underpinning thermal quenching in phosphors. Here we review the current understanding of thermal quenching mechanisms in Ce3+-doped garnet phosphors, which are widely considered one of the most important families of phosphors for application in pc-WLEDs. In particular, we highlight key structural and dynamical properties, such as the coordination environment of the Ce3+ ions, phonons and local vibrational modes, and structural and chemical defects, which are shown to correlate with phosphor performance. We also discuss the perspectives for future studies in this field in hopes of accelerating the development of new efficient phosphors featuring suppressed thermal quenching of luminescence.},
  file = {/Users/shyue/Zotero/storage/ASQ56FAX/Lin et al. - 2019 - Unraveling the Mechanisms of Thermal Quenching of .pdf;/Users/shyue/Zotero/storage/FFHDP9QG/Lin et al. - 2019 - Unraveling the Mechanisms of Thermal Quenching of .pdf;/Users/shyue/Zotero/storage/L8BCBPX9/acs.chemmater.html},
  journal = {Chemistry of Materials},
  number = {11}
}

@article{linVersatilePhosphatePhosphors2010,
  title = {Versatile {{Phosphate Phosphors ABPO}} 4 in {{White Light}}-{{Emitting Diodes}}: {{Collocated Characteristic Analysis}} and {{Theoretical Calculations}}},
  author = {Lin, Chun Che and Xiao, Zhi Ren and Guo, Guang-Yu and Chan, Ting-Shan and Liu, Ru-Shi},
  year = {2010},
  volume = {132},
  pages = {3020--3028},
  issn = {0002-7863},
  doi = {10.1021/ja9092456},
  abstract = {The orthophosphate host family, A(I)B(II)PO(4) (A(I) = monovalent cation, B(II) = divalent cation), has recently been made available as phosphors that combine with near-UV lighting chips for use in solid-state white light-emitting diodes (LEDs). This study elucidates the crystalline structure and lattice parameters of the products via a solid-state reaction, using powder X-ray diffraction (XRD) and GSAS refinement. The versatility of the phosphor host A(I)B(II)PO(4) is established by examining isovalent substitutions of four cations in the structure-Li or K for A(I), Sr or Ba for B(II)-and three doped activators, RE = Eu(2+), Tb(3+), and Sm(3+). The luminescence properties, decay time, and Commission Internationale de l'Eclairage (CIE) chromaticity index are determined for various concentrations of these activators and metal constituents of the host. The thermal stabilities of all of these compounds are determined for the first time from the crystal structure and the coordination environment of the rare-earth metal. The morphology, composition, and particle size were measured in detail. Finally, density functional calculations were performed using the generalized gradient approximation plus an on-site Coulombic interaction correction (GGA+U) scheme to investigate the electronic structures of the KSrPO(4) system. A concise model was proposed to explain the luminescence mechanism.},
  file = {/Users/shyue/Zotero/storage/524BI5W7/2010 - Lin et al. - Journal of the American Chemical Society.pdf},
  journal = {Journal of the American Chemical Society},
  number = {9},
  pmid = {20155924}
}

@article{liPerovskiteElectrolyteThat2018,
  title = {A {{Perovskite Electrolyte That Is Stable}} in {{Moist Air}} for {{Lithium}}-{{Ion Batteries}}},
  author = {Li, Yutao and Xu, Henghui and Chien, Po-Hsiu and Wu, Nan and Xin, Sen and Xue, Leigang and Park, Kyusung and Hu, Yan-Yan and Goodenough, John B.},
  year = {2018},
  month = jul,
  volume = {57},
  pages = {8587--8591},
  issn = {14337851},
  doi = {10.1002/anie.201804114},
  abstract = {Solid-oxide Li+ electrolytes of a rechargeable cell are generally sensitive to moisture in the air as H+ exchanges for the mobile Li+ of the electrolyte and forms insulating surface phases at the electrolyte interfaces and in the grain boundaries of a polycrystalline membrane. These surface phases dominate the total interfacial resistance of a conventional rechargeable cell with a solid\textendash electrolyte separator. We report a new perovskite Li+ solid electrolyte, Li0.38Sr0.44Ta0.7Hf0.3O2.95F0.05, with a lithium-ion conductivity of sLi = 4.8  10\`A4 S cm\`A1 at 25 8C that does not react with water having 3 pH 14. The solid electrolyte with a thin Li+-conducting polymer on its surface to prevent reduction of Ta5+ is wet by metallic lithium and provides low-impedance dendrite-free plating/stripping of a lithium anode. It is also stable upon contact with a composite polymer cathode. With this solid electrolyte, we demonstrate excellent cycling performance of an all-solid-state Li/LiFePO4 cell, a Li-S cell with a polymer-gel cathode, and a supercapacitor.},
  file = {/Users/shyue/Zotero/storage/ZYXKLV5C/Li et al. - 2018 - A Perovskite Electrolyte That Is Stable in Moist A.pdf},
  journal = {Angewandte Chemie International Edition},
  language = {en},
  number = {28}
}

@article{lipomiMechanicallyRobustIntrinsically2012,
  title = {Toward Mechanically Robust and Intrinsically Stretchable Organic Solar Cells: {{Evolution}} of Photovoltaic Properties with Tensile Strain},
  author = {Lipomi, Darren J. and Chong, Halbert and Vosgueritchian, Michael and Mei, Jianguo and Bao, Zhenan},
  year = {2012},
  month = dec,
  volume = {107},
  pages = {355--365},
  issn = {09270248},
  doi = {10.1016/j.solmat.2012.07.013},
  file = {/Users/shyue/Zotero/storage/V5T3T58W/2012 - Lipomi et al. - Solar Energy Materials and Solar Cells.pdf},
  journal = {Solar Energy Materials and Solar Cells},
  keywords = {bulk heterojunction,mechanical properties,organic photovoltaics,P3HT,stretchable electronics,stretchable solar cells}
}

@article{liPredictingThermodynamicStability2018,
  title = {Predicting the Thermodynamic Stability of Perovskite Oxides Using Machine Learning Models},
  author = {Li, Wei and Jacobs, Ryan and Morgan, Dane},
  year = {2018},
  volume = {150},
  pages = {454--463},
  issn = {09270256},
  doi = {10.1016/j.commatsci.2018.04.033},
  abstract = {Perovskite materials have become ubiquitous in many technologically relevant applications, ranging from catalysts in solid oxide fuel cells to light absorbing layers in solar photovoltaics. The thermodynamic phase stability is a key parameter that broadly governs whether the material is expected to be synthesizable, and whether it may degrade under certain operating conditions. Phase stability can be calculated using Density Functional Theory (DFT), but the significant computational cost makes such calculation potentially prohibitive when screening large numbers of possible compounds. In this work, we developed machine learning models to predict the thermodynamic phase stability of perovskite oxides using a dataset of more than 1900 DFT-calculated perovskite oxide energies. The phase stability was determined using convex hull analysis, with the energy above the convex hull (Ehull) providing a direct measure of the stability. We generated a set of 791 features based on elemental property data to correlate with the Ehullvalue of each perovskite compound, and found through feature selection that the top 70 features were sufficient to produce the most accurate models without significant overfitting. For classification, the extra trees algorithm achieved the best prediction accuracy of 0.93 ({$\pm$}0.02), with an F1score of 0.88 ({$\pm$}0.03). For regression, leave-out 20\% cross-validation tests with kernel ridge regression achieved the minimal root mean square error (RMSE) of 28.5 ({$\pm$}7.5) meV/atom between cross-validation predicted Ehullvalues and DFT calculations, with the mean absolute error (MAE) in cross-validation energies of 16.7 ({$\pm$}2.3) meV/atom. This error is within the range of errors in DFT formation energies relative to elemental reference states when compared to experiments and therefore may be considered sufficiently accurate to use in place of full DFT calculations. We further validated our model by predicting the stability of compounds not present in the training set and demonstrated our machine learning models are a fast and effective means of obtaining qualitatively useful guidance for a wide-range of perovskite oxide stability, potentially impacting materials design choices in a variety of technological applications.},
  file = {/Users/shyue/Zotero/storage/R6RWRMCQ/2018 - Li, Jacobs, Morgan - Computational Materials Science.pdf},
  journal = {Computational Materials Science},
  keywords = {Density Functional Theory,Machine learning,Materials discovery,Perovskite oxides,Thermodynamic stability},
  number = {March}
}

@article{liQuantumaccurateSpectralNeighbor2018,
  title = {Quantum-Accurate Spectral Neighbor Analysis Potential Models for {{Ni}}-{{Mo}} Binary Alloys and Fcc Metals},
  author = {Li, Xiang-Guo and Hu, Chongze and Chen, Chi and Deng, Zhi and Luo, Jian and Ong, Shyue Ping},
  year = {2018},
  month = sep,
  volume = {98},
  pages = {094104},
  issn = {2469-9950},
  doi = {10.1103/PhysRevB.98.094104},
  abstract = {In recent years, efficient inter-atomic potentials approaching the accuracy of density functional theory (DFT) calculations have been developed using rigorous atomic descriptors satisfying strict invariances, for example, to translation, rotation, permutation of homonuclear atoms, among others. However, most such potential development efforts have largely focused on simple elemental systems. In this work, we generalize the spectral neighbor analysis potential (SNAP) model to bcc-fcc binary alloy systems. We demonstrate that machine-learned SNAP models can yield significant improvements even over well-established, high-performing embedded atom method (EAM) and modified EAM (MEAM) potentials for fcc Cu and Ni. We also report on the development of a SNAP model for the fcc Ni-bcc Mo binary system by machine learning a carefully-constructed large computed data set of elemental and intermetallic compounds. We demonstrate that this binary Ni-Mo SNAP model can achieve excellent agreement with experiments in the prediction of Ni-Mo phase diagram as well as near-DFT accuracy in the prediction of many key properties such as elastic constants, formation energies, melting points, etc., across the entire binary composition range. In contrast, the existing Ni-Mo EAM has significant errors in the prediction of the phase diagram and completely fails in binary compounds. This work provides a systematic model development process for multi-component systems, including an efficient procedure to optimize the hyper-parameters in the model fitting, and paves the way to long-time, large-scale simulations of non-elemental systems.},
  copyright = {All rights reserved},
  file = {/Users/shyue/Zotero/storage/WMT3D69W/2018 - Li et al. - Physical Review B(2).pdf},
  journal = {Physical Review B},
  keywords = {corresponding},
  number = {9}
}

@article{liReviewNarrowBandNitride2018,
  title = {Review \textemdash{} {{Narrow}}-{{Band Nitride Phosphors}} for {{Wide Color}}-{{Gamut}}},
  author = {Li, Shuxing and Xie, Rong-jun and Takeda, Takashi and Hirosaki, Naoto},
  year = {2018},
  volume = {7},
  pages = {3064--3078},
  issn = {2162-8769},
  doi = {10.1149/2.0051801jss},
  file = {/Users/shyue/Zotero/storage/P4IAPBGW/2018 - Li et al. - ECS Journal of Solid State Science and Technology.pdf},
  journal = {ECS Journal of Solid State Science and Technology},
  number = {1}
}

@article{liRobustPinholefreeLi3N2018,
  title = {Robust {{Pinhole}}-Free {{Li3N}} Solid Electrolyte Grown from Molten Lithium},
  author = {Li, Yanbin and Sun, Yongming and Pei, Allen and Chen, Kaifeng and Vailionis, Arturas and Li, Yuzhang and Zheng, Guangyuan and Sun, Jie and Cui, Yi},
  year = {2018},
  volume = {4},
  pages = {97--104},
  issn = {23747951},
  doi = {10.1021/acscentsci.7b00480},
  abstract = {Lithium metal is the ultimate anode choice for high energy density rechargeable lithium batteries. However, it suffers from inferior electrochemical performance and safety issues due to its high reactivity and the growth of lithium dendrites. It has long been desired to develop a materials coating on Li metal, which is pinhole-free, mechanically robust without fracture during Li metal deposition and stripping, and chemically stable against Li metal and liquid electrolytes, all while maintaining adequate ionic conductivity. However, such an ideal material coating has yet to be found. Here we report a novel synthesis method by reacting clean molten lithium foil directly with pure nitrogen gas to generate instantaneously a pinhole-free and ionically conductive {$\alpha$}-Li3N film directly bonded onto Li metal foil. The film consists of highly textured large Li3N grains (tens of {$\mu$}m) with (001) crystalline planes parallel to the Li metal surface. The bonding between textured grains is strong, resulting in a mechanical...},
  file = {/Users/shyue/Zotero/storage/5RC9DRRA/2018 - Li et al. - ACS Central Science(2).pdf},
  journal = {ACS Central Science},
  number = {1},
  pmid = {29392181}
}

@article{liSelfheatingInducedHealing2018,
  title = {Self-Heating\textendash Induced Healing of Lithium Dendrites},
  author = {Li, Lu and Basu, Swastik and Wang, Yiping and Chen, Zhizhong and Hundekar, Prateek and Wang, Baiwei and Shi, Jian and Shi, Yunfeng and Narayanan, Shankar and Koratkar, Nikhil},
  year = {2018},
  month = mar,
  volume = {359},
  pages = {1513--1516},
  issn = {0036-8075},
  doi = {10.1126/science.aap8787},
  abstract = {Lithium (Li) metal electrodes are not deployable in rechargeable batteries because electrochemical plating and stripping invariably leads to growth of dendrites that reduce coulombic efficiency and eventually short the battery. It is generally accepted that the dendrite problem is exacerbated at high current densities. Here, we report a regime for dendrite evolution in which the reverse is true. In our experiments, we found that when the plating and stripping current density is raised above {$\sim$}9 milliamperes per square centimeter, there is substantial self-heating of the dendrites, which triggers extensive surface migration of Li. This surface diffusion heals the dendrites and smoothens the Li metal surface. We show that repeated doses of high-current-density healing treatment enables the safe cycling of Li-sulfur batteries with high coulombic efficiency.},
  file = {/Users/shyue/Zotero/storage/U4CS38S7/2018 - Li et al. - Science.pdf},
  journal = {Science},
  number = {6383}
}

@article{liShapeControlConcave2017,
  title = {Shape {{Control}} in {{Concave Metal Nanoparticles}} by {{Etching}}},
  author = {Li, Qiang and {Rellan-Pineiro}, Marcos and {Almora-Barrios}, Neyvis and {Garcia-Rates}, Miquel and Remediakis, Ioannis and Lopez, Nuria},
  year = {2017},
  issn = {2040-3364},
  doi = {10.1039/C7NR03889E},
  abstract = {The shape control of nanoparticles constitutes one of the main challenges in today's nanotechnology. The synthetic procedures are based on trial-and-error methods and are difficult to rationalize as many ingredients...},
  file = {/Users/shyue/Zotero/storage/UDU4EFHK/2017 - Li et al. - Nanoscale.pdf},
  journal = {Nanoscale}
}

@article{liSituXrayDiffraction1993,
  title = {In Situ X-Ray Diffraction and Electrochemical Studies of {{Li1}}-{{xNiO2}}},
  author = {Li, W and Reimers, J and Dahn, J},
  year = {1993},
  month = dec,
  volume = {67},
  pages = {123--130},
  issn = {01672738},
  doi = {10.1016/0167-2738(93)90317-V},
  file = {/Users/shyue/Zotero/storage/52I6UBU3/1993 - Li, Reimers, Dahn - Solid State Ionics.pdf},
  journal = {Solid State Ionics},
  number = {1-2}
}

@article{liSolidElectrolyteKey2014,
  title = {Solid {{Electrolyte}}: The {{Key}} for {{High}}-{{Voltage Lithium Batteries}}},
  author = {Li, Juchuan and Ma, Cheng and Chi, Miaofang and Liang, Chengdu and Dudney, Nancy J.},
  year = {2014},
  month = oct,
  pages = {n/a--n/a},
  issn = {16146832},
  doi = {10.1002/aenm.201401408},
  file = {/Users/shyue/Zotero/storage/5Z4HMWYJ/2014 - Li et al. - Advanced Energy Materials.pdf;/Users/shyue/Zotero/storage/MX3ZRN4M/2015 - Li et al. - Advanced Energy Materials.pdf},
  journal = {Advanced Energy Materials},
  keywords = {high-voltage cathodes,LiNi0.5Mn1.5O4 spinels,lithium-ion batteries,solid electrolytes,solid-state batteries}
}

@article{liStrengtheningMultiprincipalElement2019,
  title = {Strengthening in Multi-Principal Element Alloys with Local-Chemical-Order Roughened Dislocation Pathways},
  author = {Li, Qing-Jie and Sheng, Howard and Ma, Evan},
  year = {2019},
  month = dec,
  volume = {10},
  pages = {3563},
  issn = {2041-1723},
  doi = {10.1038/s41467-019-11464-7},
  file = {/Users/shyue/Zotero/storage/KZNUYQ4Z/Li et al. - 2019 - Strengthening in multi-principal element alloys wi.pdf},
  journal = {Nature Communications},
  language = {en},
  number = {1}
}

@article{liStudyLiAtom2017,
  title = {Study of {{Li}} Atom Diffusion in Amorphous {{Li}} \textbackslash textlesssub\textbackslash textgreater3\textbackslash textless/Sub\textbackslash textgreater {{PO}} \textbackslash textlesssub\textbackslash textgreater4\textbackslash textless/Sub\textbackslash textgreater with Neural Network Potential},
  author = {Li, Wenwen and Ando, Yasunobu and Minamitani, Emi and Watanabe, Satoshi},
  year = {2017},
  volume = {147},
  pages = {214106},
  issn = {0021-9606},
  doi = {10.1063/1.4997242},
  file = {/Users/shyue/Zotero/storage/C92LM8E2/2017 - Li et al. - The Journal of Chemical Physics(2).pdf;/Users/shyue/Zotero/storage/GCDA7HGN/2017 - Li et al. - The Journal of Chemical Physics.pdf},
  journal = {The Journal of Chemical Physics},
  number = {21}
}

@article{liSuperiorCatalyticActivity2013,
  title = {Superior Catalytic Activity of Nitrogen-Doped Graphene Cathodes for High Energy Capacity Sodium-Air Batteries.},
  author = {Li, Yongliang and Yadegari, Hossein and Li, Xifei and Banis, Mohammad N and Li, Ruying and Sun, Xueliang},
  year = {2013},
  month = dec,
  volume = {49},
  pages = {11731--3},
  issn = {1364-548X},
  doi = {10.1039/c3cc46606j},
  abstract = {Nitrogen-doped graphene nanosheets (N-GNSs) displayed a discharge capacity two times greater than their pristine counterpart, as well as superior electrocatalytic activity as a cathode material for sodium-air batteries. The enhanced performance of N-GNSs is attributed to the active sites introduced by nitrogen doping.},
  file = {/Users/shyue/Zotero/storage/E34WSUL8/2013 - Li et al. - Chemical communications (Cambridge, England).pdf},
  journal = {Chemical communications (Cambridge, England)},
  number = {100},
  pmid = {24136098}
}

@article{liSuperiorEnergyCapacity2011,
  title = {Superior Energy Capacity of Graphene Nanosheets for a Nonaqueous Lithium-Oxygen Battery},
  author = {Li, Yongliang and Wang, Jiajun and Li, Xifei and Geng, Dongsheng and Li, Ruying and Sun, Xueling},
  year = {2011},
  pages = {9438--9440},
  issn = {1359-7345},
  doi = {10.1039/c1cc13464g},
  file = {/Users/shyue/Zotero/storage/KA3Q2HXI/2011 - Li et al. - Chemical Communications.pdf},
  journal = {Chemical Communications}
}

@article{liuAnomalousHighIonic2013,
  title = {Anomalous {{High Ionic Conductivity}} of {{Nanoporous}} {$\beta$}-{{Li}} {\textsubscript{3}} {{PS}} {\textsubscript{4}}},
  author = {Liu, Zengcai and Fu, Wujun and Payzant, E. Andrew and Yu, Xiang and Wu, Zili and Dudney, Nancy J. and Kiggans, Jim and Hong, Kunlun and Rondinone, Adam J. and Liang, Chengdu},
  year = {2013},
  month = jan,
  volume = {135},
  pages = {975--978},
  issn = {0002-7863, 1520-5126},
  doi = {10.1021/ja3110895},
  abstract = {Lithium-ion-conducting solid electrolytes hold promise for enabling high-energy battery chemistries and circumventing safety issues of conventional lithium batteries. Achieving the combination of high ionic conductivity and a broad electrochemical window in solid electrolytes is a grand challenge for the synthesis of battery materials. Herein we show an enhancement of the room-temperature lithium-ion conductivity by 3 orders of magnitude through the creation of nanostructured Li3PS4. This material has a wide electrochemical window (5 V) and superior chemical stability against lithium metal. The nanoporous structure of Li3PS4 reconciles two vital effects that enhance the ionic conductivity: (1) the reduction of the dimensions to a nanometer-sized framework stabilizes the high-conduction {$\beta$} phase that occurs at elevated temperatures, and (2) the high surface-to-bulk ratio of nanoporous {$\beta$}-Li3PS4 promotes surface conduction. Manipulating the ionic conductivity of solid electrolytes has far-reaching implications for materials design and synthesis in a broad range of applications, including batteries, fuel cells, sensors, photovoltaic systems, and so forth.},
  file = {/Users/shyue/Zotero/storage/CWYYE8EN/2013 - Liu et al. - Journal of the American Chemical Society.pdf;/Users/shyue/Zotero/storage/DX73PWV7/Liu et al. - 2013 - Anomalous High Ionic Conductivity of Nanoporous β-.pdf},
  journal = {Journal of the American Chemical Society},
  language = {en},
  number = {3},
  pmid = {23305294}
}

@article{liuCyclingLiO2Batteries2015,
  title = {Cycling {{Li}}-{{O2}} Batteries via {{LiOH}} Formation and Decomposition},
  author = {Liu, T. and Leskes, M. and Yu, W. and Moore, A. J. and Zhou, L. and Bayley, P. M. and Kim, G. and Grey, C. P.},
  year = {2015},
  month = oct,
  volume = {350},
  pages = {530--533},
  issn = {0036-8075},
  doi = {10.1126/science.aac7730},
  file = {/Users/shyue/Zotero/storage/SJMW8IWA/2015 - Liu et al. - Science.pdf},
  journal = {Science},
  number = {6260}
}

@article{liuDisorderedRockSalt2020,
  title = {A Disordered Rock Salt Anode for Fast-Charging Lithium-Ion Batteries},
  author = {Liu, Haodong and Zhu, Zhuoying and Yan, Qizhang and Yu, Sicen and He, Xin and Chen, Yan and Zhang, Rui and Ma, Lu and Liu, Tongchao and Li, Matthew and Lin, Ruoqian and Chen, Yiming and Li, Yejing and Xing, Xing and Choi, Yoonjung and Gao, Lucy and Cho, Helen Sung-yun and An, Ke and Feng, Jun and Kostecki, Robert and Amine, Khalil and Wu, Tianpin and Lu, Jun and Xin, Huolin L. and Ong, Shyue Ping and Liu, Ping},
  year = {2020},
  month = sep,
  volume = {585},
  pages = {63--67},
  doi = {10.1038/s41586-020-2637-6},
  abstract = {Rechargeable lithium-ion batteries with high energy density that can be safely charged and discharged at high rates are desirable for electrified transportation and other applications. However, the sub-optimal intercalation potentials of current anodes result in a trade-of between energy density, power and safety. Here we report that disordered rock salt Li3+xV2O5 can be used as a fast-charging anode that can reversibly cycle two lithium ions at an average voltage of about 0.6 volts versus a Li/Li+ reference electrode. The increased potential compared to graphite reduces the likelihood of lithium metal plating if proper charging controls are used, alleviating a major safety concern (short-circuiting related to Li dendrite growth). In addition, a lithium-ion battery with a disordered rock salt Li3V2O5 anode yields a cell voltage much higher than does a battery using a commercial fast-charging lithium titanate anode or other intercalation anode candidates (Li3VO4 and LiV0.5Ti0.5S2). Further, disordered rock salt Li3V2O5 can perform over 1,000 charge\textendash discharge cycles with negligible capacity decay and exhibits exceptional rate capability, delivering over 40 per cent of its capacity in 20 seconds. We attribute the low voltage and high rate capability of disordered rock salt Li3V2O5 to a redistributive lithium intercalation mechanism with low energy barriers revealed via ab initio calculations. This low-potential, high-rate intercalation reaction can be used to identify other metal oxide anodes for fast-charging, long-life lithium-ion batteries.},
  copyright = {All rights reserved},
  file = {/Users/shyue/Zotero/storage/N2LFDKR8/Liu - A disordered rock salt anode for fast-charging lit.pdf},
  journal = {Nature},
  keywords = {Ars Technica: https://arstechnica.com/science/2020/09/could-disordered-rock-salts-bring-order-to-next-gen-lithium-batteries/,corresponding,EurekAlert!: https://www.eurekalert.org/pub_releases/2020-09/uoc--nam082720.php,UCSD News: https://ucsdnews.ucsd.edu/pressrelease/new-anode-material-could-lead-to-safer-fast-charging-batteries},
  language = {en}
}

@article{liuEfficientCoNanocrystalBasedCatalyst2017,
  title = {Efficient {{Co}}-{{Nanocrystal}}-{{Based Catalyst}} for {{Hydrogen Generation}} from {{Borohydride}}},
  author = {Liu, Bingrui and Rose, Alyssa and Zhang, Ning and Hu, Yan-Yan and Ma, Mingming},
  year = {2017},
  month = jun,
  volume = {121},
  pages = {12610--12616},
  issn = {1932-7447, 1932-7455},
  doi = {10.1021/acs.jpcc.7b03094},
  file = {/Users/shyue/Zotero/storage/KH64LMEJ/Liu et al. - 2017 - Efficient Co-Nanocrystal-Based Catalyst for Hydrog.pdf},
  journal = {The Journal of Physical Chemistry C},
  language = {en},
  number = {23}
}

@article{liuEfficientPlanarHeterojunction2013,
  title = {Efficient Planar Heterojunction Perovskite Solar Cells by Vapour Deposition.},
  author = {Liu, Mingzhen and Johnston, Michael B and Snaith, Henry J},
  year = {2013},
  month = sep,
  volume = {501},
  pages = {395--398},
  issn = {1476-4687},
  doi = {10.1038/nature12509},
  abstract = {Many different photovoltaic technologies are being developed for large-scale solar energy conversion. The wafer-based first-generation photovoltaic devices have been followed by thin-film solid semiconductor absorber layers sandwiched between two charge-selective contacts and nanostructured (or mesostructured) solar cells that rely on a distributed heterojunction to generate charge and to transport positive and negative charges in spatially separated phases. Although many materials have been used in nanostructured devices, the goal of attaining high-efficiency thin-film solar cells in such a way has yet to be achieved. Organometal halide perovskites have recently emerged as a promising material for high-efficiency nanostructured devices. Here we show that nanostructuring is not necessary to achieve high efficiencies with this material: a simple planar heterojunction solar cell incorporating vapour-deposited perovskite as the absorbing layer can have solar-to-electrical power conversion efficiencies of over 15 per cent (as measured under simulated full sunlight). This demonstrates that perovskite absorbers can function at the highest efficiencies in simplified device architectures, without the need for complex nanostructures.},
  file = {/Users/shyue/Zotero/storage/ENN2KBEI/2013 - Liu, Johnston, Snaith - Nature.pdf},
  journal = {Nature},
  number = {7467},
  pmid = {24025775}
}

@article{liuElectrochemicalInsertionDeinsertion2011,
  title = {Electrochemical Insertion/Deinsertion of Sodium on {{NaV6O15}} Nanorods as Cathode Material of Rechargeable Sodium-Based Batteries},
  author = {Liu, Haimei and Zhou, Haoshen and Chen, Lipeng and Tang, Zhanfeng and Yang, Wensheng},
  year = {2011},
  month = jan,
  volume = {196},
  pages = {814--819},
  issn = {03787753},
  doi = {10.1016/j.jpowsour.2010.07.062},
  abstract = {Awell defined nano-structured material,NaV6O15 nanorods,wassynthesized by a facile low temperature hydrothermal method. It can perform well as the cathode material of rechargeable sodium batteries. It was found that the NaV6O15 nanorods exhibited stable sodium-ion insertion/deinsertion reversibility and delivered 142mAhg-1 sodium ions when worked at a current density of 0.02Ag-1. In galvanostatic cycling test, a specific discharge capacity of around 75mAhg-1 could be obtained after 30 cycles under 0.05Ag-1 current density. Concerned to its good electrochemical performance for reversible delivery of sodium ions, it is thus expected that NaV6O15 may be used as cathode material for rechargeable sodium batteries with highly environmental friendship and low cost. \textcopyright},
  file = {/Users/shyue/Zotero/storage/KT9M2ANK/2011 - Liu et al. - Journal of Power Sources.pdf},
  journal = {Journal of Power Sources},
  keywords = {rechargeable sodium battery},
  number = {2}
}

@article{liuElectrochemicalTuningOlivinetype2015,
  title = {Electrochemical Tuning of Olivine-Type Lithium Transition-Metal Phosphates as Efficient Water Oxidation Catalysts},
  author = {Liu, Yayuan and Wang, Haotian and Lin, Dingchang and Liu, Chong and Hsu, Po-Chun and Liu, Wei and Chen, Wei and Cui, Yi},
  year = {2015},
  volume = {8},
  pages = {1719--1724},
  issn = {1754-5692},
  doi = {10.1039/C5EE01290B},
  file = {/Users/shyue/Zotero/storage/EUE27MT8/2015 - Liu et al. - Energy Environ. Sci.pdf},
  journal = {Energy Environ. Sci.},
  number = {6}
}

@article{liuElucidatingLimitLi2019,
  title = {Elucidating the {{Limit}} of {{Li Insertion}} into the {{Spinel Li4Ti5O12}}},
  author = {Liu, Haodong and Zhu, Zhuoying and Huang, Jason and He, Xin and Chen, Yan and Zhang, Rui and Lin, Ruoqian and Li, Yejing and Yu, Sicen and Xing, Xing and Yan, Qizhang and Li, Xiangguo and Frost, Matthew J. and An, Ke and Feng, Jun and Kostecki, Robert and Xin, Huolin and Ong, Shyue Ping and Liu, Ping},
  year = {2019},
  month = jul,
  volume = {1},
  pages = {96--102},
  issn = {2639-4979, 2639-4979},
  doi = {10.1021/acsmaterialslett.9b00099},
  abstract = {In this work, we show that the well-known lithium-ion anode material, Li4Ti5O12 , exhibits exceptionally high initial capacity of 310 mAh g-1 when it is discharged to 0.01 V. It maintains a reversible capacity of 230 mAh g-1 , far exceeding the ``theoretical'' capacity of 175 mAh g-1 when this anode is lithiated to the composition Li7Ti5O12 . Neutron diffraction analyses identify that additional Li reversibly enters into the Li7Ti5O12 to form Li8Ti5O12. Density functional theory (DFT) calculations reveal the average potentials of the Li4Ti5O12 to Li7Ti5O12 step and the Li7Ti5O12 to Li8Ti5O12 step are 1.57 and 0.19 V, respectively, which are in excellent agreement with experimental results. Transmission electron microscopy (TEM) studies confirm that the irreversible capacity of Li4Ti5O12 during its first cycle originates from the formation of a solid electrolyte interface (SEI) layer. This work clarifies the fundamental lithiation mechanism of the Li4Ti5O12 , when lithiated to 0.01 V vs Li.},
  copyright = {All rights reserved},
  file = {/Users/shyue/Zotero/storage/7HU7CDEE/Liu et al. - 2019 - Elucidating the Limit of Li Insertion into the Spi.pdf;/Users/shyue/Zotero/storage/P8VSD3Q9/Liu et al. - 2019 - Elucidating the Limit of Li Insertion into the Spi.pdf;/Users/shyue/Zotero/storage/2GRH8VIE/acsmaterialslett.html},
  journal = {ACS Materials Letters},
  keywords = {corresponding},
  language = {en},
  number = {1}
}

@article{liuEnhancedElectrochemicalPerformance2013,
  title = {An Enhanced Electrochemical Performance of a Sodium-Air Battery with Graphene Nanosheets as Air Electrode Catalysts.},
  author = {Liu, Wen and Sun, Qian and Yang, Yin and Xie, Jing-Ying and Fu, Zheng-Wen},
  year = {2013},
  month = mar,
  volume = {49},
  pages = {1951--3},
  issn = {1364-548X},
  doi = {10.1039/c3cc00085k},
  abstract = {Graphene nanosheets (GNS) were employed as an air electrode for a sodium-air battery (SAB). High discharge capacity of 9268 mA h g(-1) with low overpotential was achieved, indicating its superiority to a normal carbon film electrode. Our results indicate that GNS as air electrodes could improve the electrochemical performance of rechargeable SABs.},
  file = {/Users/shyue/Zotero/storage/IKPZD6HD/2013 - Liu et al. - Chemical communications (Cambridge, England).pdf},
  journal = {Chemical communications (Cambridge, England)},
  number = {19},
  pmid = {23370447}
}

@article{liuEvaluationSulfurSpinel2016,
  title = {Evaluation of Sulfur Spinel Compounds for Multivalent Battery Cathode Applications},
  author = {Liu, Miao and Jain, Anubhav and Rong, Ziqin and Qu, Xiaohui and Canepa, Pieremanuele and Malik, Rahul and Ceder, Gerbrand and Persson, Kristin},
  year = {2016},
  issn = {1754-5692},
  doi = {10.1039/C6EE01731B},
  file = {/Users/shyue/Zotero/storage/YTS2WUWU/2016 - Liu et al. - Energy Environ. Sci.pdf},
  journal = {Energy Environ. Sci.}
}

@article{liuHighPerformanceP2TypeNa2015,
  title = {High-{{Performance P2}}-{{Type Na}} \textbackslash textlesssub\textbackslash textgreater2/3\textbackslash textless/Sub\textbackslash textgreater ({{Mn}} \textbackslash textlesssub\textbackslash textgreater1/2\textbackslash textless/Sub\textbackslash textgreater {{Fe}} \textbackslash textlesssub\textbackslash textgreater1/4\textbackslash textless/Sub\textbackslash textgreater {{Co}} \textbackslash textlesssub\textbackslash textgreater1/4\textbackslash textless/Sub\textbackslash textgreater ){{O}} \textbackslash textlesssub\textbackslash textgreater2\textbackslash textless/Sub\textbackslash textgreater {{Cathode Material}} with {{Superior Rate Capability}} for {{Na}}-{{Ion Batteries}}},
  author = {Liu, Lei and Li, Xin and Bo, Shou-Hang and Wang, Yan and Chen, Hailong and Twu, Nancy and Wu, Di and Ceder, Gerbrand},
  year = {2015},
  volume = {3},
  pages = {n/a--n/a},
  issn = {16146832},
  doi = {10.1002/aenm.201500944},
  file = {/Users/shyue/Zotero/storage/8PFZI6V9/2015 - Liu et al. - Advanced Energy Materials(2).pdf},
  journal = {Advanced Energy Materials}
}

@article{liuInfluenceLiIons2011,
  title = {Influence of {{Li}} Ions on the Oxygen Reduction Reaction of Platinum Electrocatalyst},
  author = {Liu, Hao and Xing, Yangchuan},
  year = {2011},
  month = jun,
  volume = {13},
  pages = {646--649},
  issn = {13882481},
  doi = {10.1016/j.elecom.2011.03.036},
  file = {/Users/shyue/Zotero/storage/JQG7GJSI/2011 - Liu, Xing - Electrochemistry Communications.pdf},
  journal = {Electrochemistry Communications},
  keywords = {Li-air battery,Lithium cation,Oxygen reduction reaction,Platinum electrocatalyst},
  number = {6}
}

@article{liuIonicConductionCubic2014,
  title = {Ionic {{Conduction}} in {{Cubic Na}} 3 {{TiP}} 3 {{O}} 9 {{N}}, a {{Secondary Na}}-{{Ion Battery Cathode}} with {{Extremely Low Volume Change}}},
  author = {Liu, Jue and Chang, Donghee and Whitfield, Pamela and Janssen, Yuri and Yu, Xiqian and Zhou, Yongning and Bai, Jianming and Ko, Jonathan and Nam, Kyung-wan and Wu, Lijun and Zhu, Yimei and Feygenson, Mikhail and Amatucci, Glenn and {Van der Ven}, Anton and Yang, Xiao-qing and Khalifah, Peter},
  year = {2014},
  month = may,
  volume = {26},
  pages = {3295--3305},
  issn = {0897-4756},
  doi = {10.1021/cm5011218},
  abstract = {It is demonstrated that Na ions are mobile at room temperature in the nitridophosphate compound Na3TiP3O9N, with a diffusion pathway that is calculated to be fully three-dimensional and isotropic. When used as a cathode in Na-ion batteries, Na3TiP3O9N has an average voltage of 2.7 V vs Na+/Na and cycles with good reversibility through a mechanism that appears to be a single solid solution process without any intermediate plateaus. X-ray and neutron diffraction studies as well as first-principles calculations indicate that the volume change that occurs on Na-ion removal is only about 0.5\%, a remarkably small volume change given the large ionic radius of Na+. Rietveld refinements indicate that the Na1 site is selectively depopulated during sodium removal. Furthermore, the refined displacement parameters support theoretical predictions that the lowest energy diffusion pathway incorporates the Na1 and Na3 sites while the Na2 site is relatively inaccessible. The measured room temperature ionic conductivity of Na3TiP3O9N is substantial (4 \texttimes{} 10-7 S/cm), though both the strong temperature dependence of Na-ion thermal parameters and the observed activation energy of 0.54 eV suggest that much higher ionic conductivities can be achieved with minimal heating. Excellent thermal stability is observed for both pristine Na3TiP3O9N and desodiated Na2TiP3O9N, suggesting that this phase can serve as a safe Na-ion battery electrode. Moreover, it is expected that further optimization of the general cubic framework of Na3TiP3O9N by chemical substitution will result in thermostable solid state electrolytes with isotropic conductivities that can function at temperatures near or just above room temperature.},
  file = {/Users/shyue/Zotero/storage/ZWGHEKG2/2014 - Liu et al. - Chemistry of Materials.pdf},
  journal = {Chemistry of Materials},
  number = {10}
}

@article{liUltrafineJaggedPlatinum2016,
  title = {Ultrafine Jagged Platinum Nanowires Enable Ultrahigh Mass Activity for the Oxygen Reduction Reaction},
  author = {Li, M and Li, Mufan and Zhao, Zipeng and Cheng, Tao and Fortunelli, Alessandro and Chen, Chih-yen and Yu, Rong and Gu, Lin and Merinov, Boris and Lin, Zhaoyang and Zhu, Enbo and Yu, Ted and Jia, Qingying and Guo, Jinghua and Zhang, Liang and Iii, William A Goddard and Huang, Yu and Duan, Xiangfeng},
  year = {2016},
  volume = {9050},
  pages = {In Press},
  issn = {0036-8075},
  doi = {10.1126/science.aaf9050},
  abstract = {Improving the platinum (Pt) mass activity for the oxygen reduction reaction (ORR) should optimize both the specific activity and the electrochemical active surface area (ECSA). We show solution-synthesized Pt/NiO core/shell nanowires can be converted into PtNi alloy nanowires through a thermal annealing process, and then transformed into jagged Pt nanowires via an electrochemical dealloying. The jagged nanowires exhibit an ECSA of 118 m2 per gram Pt and a specific activity of 11.5 mA per square centimeter for ORR (at 0.9 V versus reversible hydrogen electrode) for a mass activity of 13.6 ampere per milligram Pt, nearly doubling previously reported best values. Reactive molecular dynamics simulations suggest that highly stressed, under-coordinated rhombohedral-rich surface configurations of the jagged nanowires enhanced ORR activity versus more relaxed surfaces.\%U http://science.sciencemag.org/content/sci/early/2016/11/16/science.aaf9050.full.pdf},
  file = {/Users/shyue/Zotero/storage/XPPI6J9N/2016 - Li et al. - Science.pdf},
  journal = {Science},
  number = {November}
}

@article{liuMultiscaleModellingMorphology2017,
  title = {Multiscale Modelling of the Morphology and Spatial Distribution of {$\Theta{'}$} Precipitates in {{Al}}-{{Cu}} Alloys},
  author = {Liu, H. and Bell{\'o}n, B. and LLorca, J.},
  year = {2017},
  month = jun,
  volume = {132},
  pages = {611--626},
  issn = {1359-6454},
  doi = {10.1016/j.actamat.2017.04.042},
  abstract = {A multiscale approach based on the phase-field model is developed to simulate homogeneous and heterogeneous formation of \texttheta{${'}$} precipitates during high temperature ageing in Al-Cu alloys. The model parameters that determine the different energy contributions (chemical free energy, interfacial energy, lattice parameters, elastic constants) were obtained from either computational thermodynamics databases or from first-principles density functional theory and molecular statics simulations. From this information, the evolution and equilibrium morphology of the \texttheta{${'}$} precipitates is simulated in 3D using the phase-field model. The model was able to reproduce the evolution of the different orientation variants of plate-like shaped \texttheta{${'}$} precipitates with orientation relationship (001)\texttheta '//(001){$\alpha$} and [100]\texttheta '//[100]{$\alpha$} during homogeneous nucleation as well as the heterogeneous nucleation on dislocations, leading to the formation of precipitate arrays. Heterogeneous nucleation on pre-existing dislocation(s) was triggered by the interaction energy between the dislocation stress field and the stress-free transformation strain associated to the nucleation of the \texttheta{${'}$} precipitates. Moreover, the mechanisms controlling the evolution of the morphology and the equilibrium aspect ratio of the precipitates were ascertained. All the predictions of the multiscale model were in good agreement with experimental data.},
  file = {/Users/shyue/Zotero/storage/ZKAE98JI/Liu et al. - 2017 - Multiscale modelling of the morphology and spatial.pdf;/Users/shyue/Zotero/storage/SPUSF9CN/S135964541730335X.html},
  journal = {Acta Materialia},
  keywords = {Al alloys,Dislocation,Multiscale modelling,Phase field model,θ′ precipitates}
}

@article{liUnderstandingElectrochemicalMechanisms2018,
  title = {Understanding the {{Electrochemical Mechanisms Induced}} by {{Gradient Mg2}}+ {{Distribution}} of {{Na}}-{{Rich Na3}}+{{xV2}}-{{xMgx}}({{PO4}})3 /{{C}} for {{Sodium Ion Batteries}}},
  author = {Li, Hui and Tang, Hanmei and Ma, Chuze and Bai, Ying and Alvarado, Judith and Radhakrishnan, Balachandran and Ong, Shyue Ping and Wua, Feng and Meng, Ying Shirley and Wu, Chuan},
  year = {2018},
  month = apr,
  volume = {30},
  pages = {2498--2505},
  issn = {0897-4756},
  doi = {10.1021/acs.chemmater.7b03903},
  abstract = {Metal-ion doping can improve the electrochemical performance of Na3V2(PO4)3. However, the reason for the enhanced electrochemical performance and the effects of cation doping on the structure of Na3V2(PO4)3 have yet been probed. Herein, Mg2+ is doped into Na3V2(PO4)3/C according to the first-principles calculation. The results indicate that Mg2+ prefers to reside in the V site and an extra electrochemical active Na+ is introduced to the Na3V2(PO4)3/C crystal to maintain the charge balance. The distribution of Mg2+ in the particle of Na3V2(PO4)3/C is further studied by electrochemical impedance spectroscopy. We find that the highest distribution of Mg2+ on the surface of the particles leads to facile surface electrochemical reactions for Mg2+ doped samples, especially at high rates.},
  copyright = {All rights reserved},
  file = {/Users/shyue/Zotero/storage/WNTRZFRY/2018 - Li et al. - Chemistry of Materials.pdf},
  journal = {Chemistry of Materials},
  keywords = {corresponding},
  number = {8}
}

@article{liUnderstandingRoleDifferent2013,
  title = {Understanding the {{Role}} of {{Different Conductive Polymers}} in {{Improving}} the {{Nanostructured Sulfur Cathode Performance Understanding}} the {{Role}} of {{Different Conductive Polymers}} in {{Improving}} the {{Nanostructured Sulfur Cathode Performance}}},
  author = {Li, Weiyang and Zhang, Qianfan and Zheng, Guangyuan and Seh, Zhi Wei and Yao, Hongbin and Cui, Yi},
  year = {2013},
  doi = {10.1021/nl403130h},
  file = {/Users/shyue/Zotero/storage/D7HWHAVJ/2013 - Li et al. - Unknown.pdf},
  keywords = {and fl exible and,conductive polymer,dominate the,echargeable lithium-ion batteries currently,energy density,energy storage,lightweight,lithium sulfur battery,long lifespan,nanostructure,owing to their high,portable consumer electronics market}
}

@article{liuRecentProgressSynchrotronbased2014,
  title = {Recent Progress on Synchrotron-Based in-Situ Soft {{X}}-Ray Spectroscopy for Energy Materials},
  author = {Liu, X and Yang, W and Liu, Z},
  year = {2014},
  volume = {26},
  pages = {7710--7729},
  doi = {10.1002/adma.201304676},
  journal = {Adv Mater},
  number = {46},
  pmid = {24799004}
}

@article{liuSpinelCompoundsMultivalent2014,
  title = {Spinel Compounds as Multivalent Battery Cathodes: A Systematic Evaluation Based on Ab Initio Calculations},
  author = {Liu, Miao and Rong, Ziqin and Malik, Rahul and Canepa, Pieremanuele and Jain, Anubhav and Ceder, Gerbrand and a. Persson, Kristin},
  year = {2014},
  volume = {00},
  pages = {1--11},
  issn = {1754-5692},
  doi = {10.1039/C4EE03389B},
  file = {/Users/shyue/Zotero/storage/IKF2TLBP/2014 - Liu et al. - Energy Environ. Sci.pdf},
  journal = {Energy Environ. Sci.}
}

@article{liuStrainInducedUltrahardUltrastable2013,
  title = {Strain-{{Induced Ultrahard}} and {{Ultrastable Nanolaminated Structure}} in {{Nickel}}},
  author = {Liu, X. C. and Zhang, H. W. and Lu, K.},
  year = {2013},
  month = oct,
  volume = {342},
  pages = {337--340},
  issn = {0036-8075, 1095-9203},
  doi = {10.1126/science.1242578},
  file = {/Users/shyue/Zotero/storage/VDXBYVQR/Liu et al. - 2013 - Strain-Induced Ultrahard and Ultrastable Nanolamin.pdf},
  journal = {Science},
  language = {en},
  number = {6156}
}

@article{liuStudySynthesisElectrochemical2007,
  title = {Study on Synthesis and Electrochemical Performances of {{NaV1}}-{{xAlxPO4F}}.},
  author = {Liu, Zhi-ming and Wang, Xian-you and Tang, An-ping and Zhuo, Hai-tao.},
  year = {2007},
  volume = {31},
  pages = {465--468},
  issn = {1002-087X},
  abstract = {Al-doped NaV1-xAlxPO4F (x = 0 and 0.02) cathode material for sodium-ion batteries was prepd. by high temp. solid-phase method. The NaV1-xAlxPO4F powders were characterized by FT-IR, X-ray diffraction (XRD), and scan electronic microscopy (SEM). The results showed that the crystal structure of NaV1-xAlxPO4F was monoclinic. The effects of the Al dopant on the performances of cathode materials were analyzed in terms of the crystal structure, charge-discharge curves and cycle performances. It was found that NaV1-xAlxPO4F had an improved cathodic behavior and discharge capacity retention compared with the undoped sample, and an initial reversible capacity of 80.4 mAh/g could be obtained. The first charge-discharge efficiency was about 89.2\%, and the loss of capacities was 9.7 mAh/g. The reversible capacity was 68.3 mAh/g and the reversible capacity retention of NaV0.98Al0.02PO4F was still 85\% after 30 cycles. [on SciFinder(R)]},
  journal = {Dianyuan Jishu},
  keywords = {cathode secondary battery doping,synthesis electrochem performance sodium vanadium},
  number = {6}
}

@article{liuSynthesisTi2Nb10O29Composite2016,
  title = {Syn