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1. Full Text Fluorinating interphases
by Wang, Chunsheng and Meng, Ying Shirley and Xu, Kang
Journal of the Electrochemical Society, ISSN 0013-4651, 2019, Volume 166, Issue 3, pp. A5184 - A5186
Electrode/electrolyte interphase in Li-ion batteries is a critical component that ensures reversible cell reactions far from thermodynamic equilibria. The... 
ELECTROCHEMISTRY | SOLID-ELECTROLYTE INTERPHASE | STABILITY | PERFORMANCE | GRAPHITE | ANODES | SAFE | INTERCALATION | MATERIALS SCIENCE, COATINGS & FILMS | LITHIUM-ION
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2. Full Text Interphase formation on lithium solid electrolytes—An in situ approach to study interfacial reactions by photoelectron spectroscopy
by Wenzel, Sebastian and Leichtweiss, Thomas and Krüger, Dominik and Sann, Joachim and Janek, Jürgen
Solid State Ionics, ISSN 0167-2738, 10/2015, Volume 278, pp. 98 - 105
Interfacial reactions of solid electrolytes play an important role in all-solid-state batteries. The interface resistances—describing charge transfer between... 
All-solid-state battery | Buried interfaces | In situ XPS | Interphase formation | Lithium metal anode | Interfacial reactions | PHYSICS, CONDENSED MATTER | INSERTION | MECHANISM | CHEMISTRY, PHYSICAL | IONIC-CONDUCTIVITY | BATTERIES | METALS | OXIDES | ANODE | Electrolytes | Spectrum analysis | Batteries | Interphase | Electronics | Lithium | Formations | Solid electrolytes | Interface reactions | Electric batteries | Deposition
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3. Full Text Characterization of the solid electrolyte interphase on lithium anode for preventing the shuttle mechanism in lithium–sulfur batteries
by Xiong, Shizhao and Xie, Kai and Diao, Yan and Hong, Xiaobin
Journal of Power Sources, ISSN 0378-7753, 01/2014, Volume 246, pp. 840 - 845
To understand the mechanism for preventing the shuttle in lithium–sulfur batteries, the SEI films formed in different electrolyte solutions are studied using... 
Solid electrolyte interphase | Polysulfides | Lithium–sulfur batteries | Shuttle | Lithium nitrate | Lithium-sulfur batteries | ELECTROCHEMISTRY | ENERGY | PARTICLES | ENERGY & FUELS | PERFORMANCE | LIQUID | IMPEDANCE SPECTROSCOPY | MODEL | CATHODE MATERIAL | DISCHARGE | LI ELECTRODES | CAPACITY FADING MECHANISMS | Electrolytes | X-ray spectroscopy | Chemical properties | Batteries | Sulfates | Lithium compounds | Sulfides | Sulfur
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4. Full Text An Artificial Solid Electrolyte Interphase with High Li‐Ion Conductivity, Mechanical Strength, and Flexibility for Stable Lithium Metal Anodes
by Liu, Yayuan and Lin, Dingchang and Yuen, Pak Yan and Liu, Kai and Xie, Jin and Dauskardt, Reinhold H and Cui, Yi
Advanced Materials, ISSN 0935-9648, 03/2017, Volume 29, Issue 10, pp. 1605531 - n/a
An artificial solid electrolyte interphase (SEI) is demonstrated for the efficient and safe operation of a lithium metal anode. Composed of... 
nanotechnology | porous lithium | lithium metal anodes | electrochemistry | artificial solid electrolyte interphase | MATRIX | PHYSICS, CONDENSED MATTER | PHYSICS, APPLIED | DEPOSITION | MATERIALS SCIENCE, MULTIDISCIPLINARY | CHEMISTRY, PHYSICAL | COMPOSITE PROTECTIVE LAYER | NANOSCIENCE & NANOTECHNOLOGY | LIQUID ELECTROLYTE | BATTERIES | CHEMISTRY, MULTIDISCIPLINARY | ELECTROCHEMICAL-BEHAVIOR | CRYSTALS | Electrochemistry | Electrochemical reactions | Electrolytes | Nanotechnology | Electric properties | Conducting polymers | Ion flux | Interphase | Lithium | Anodes | Dendritic structure | Nanoparticles | Efficiency | Flux | Solid electrolytes | Flexibility
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5. Full Text How Solid-Electrolyte Interphase Forms in Aqueous Electrolytes
by Suo, Liumin and Oh, Dahyun and Lin, Yuxiao and Zhuo, Zengqing and Borodin, Oleg and Gao, Tao and Wang, Fei and Kushima, Akihiro and Wang, Ziqiang and Kim, Ho-Cheol and Qi, Yue and Yang, Wanli and Pan, Feng and Li, Ju and Xu, Kang and Wang, Chunsheng and Energy Frontier Research Centers (EFRC) (United States). Nanostructures for Electrical Energy Storage (NEES)
Journal of the American Chemical Society, ISSN 0002-7863, 12/2017, Volume 139, Issue 51, pp. 18670 - 18680
Solid-electrolyte interphase (SEI) is the key component that enables all advanced electrochemical devices, the best representative of which is Li-ion battery... 
CELLS | TRANSPORT | SOLVENTS | STABILITY | IMPEDANCE | CONCENTRATED ELECTROLYTES | ANODES | LITHIUM | HIGH-PRECISION | CHEMISTRY, MULTIDISCIPLINARY | LI-ION BATTERIES | Anions | Electrolyte solutions | Aqueous solution reactions | Analysis | bio-inspired, energy storage (including batteries and capacitors), defects, charge transport, synthesis (novel materials), synthesis (self-assembly), synthesis (scalable processing)
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6. Full Text A Flexible Solid Electrolyte Interphase Layer for Long‐Life Lithium Metal Anodes
by Li, Nian‐Wu and Shi, Yang and Yin, Ya‐Xia and Zeng, Xian‐Xiang and Li, Jin‐Yi and Li, Cong‐Ju and Wan, Li‐Jun and Wen, Rui and Guo, Yu‐Guo
Angewandte Chemie International Edition, ISSN 1433-7851, 02/2018, Volume 57, Issue 6, pp. 1505 - 1509
Lithium (Li) metal is a promising anode material for high‐energy density batteries. However, the unstable and static solid electrolyte interphase (SEI) can be... 
lithium dendrites | lithium ion batteries | solid electrolyte interphase | in situ AFM | lithium metal anodes | ELECTROCHEMISTRY | ION BATTERIES | RECHARGEABLE BATTERIES | SULFUR BATTERIES | PERFORMANCE | LIQUID | AIR | CHEMISTRY, MULTIDISCIPLINARY | CHALLENGES | POLYMER ELECTROLYTE | PROSPECTS | Electrolytes | Batteries | Stripping | Side reactions | Interphase | Metals | Elasticity | Lithium | Electrode materials | Flux density | Safety engineering | Dendrites | Solid electrolytes | Product safety | Anodes | Polyacrylic acid
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7. Full Text Stable cycling of double-walled silicon nanotube battery anodes through solid-electrolyte interphase control
by Wu, Hui and Chan, Gerentt and Choi, Jang Wook and Ryu, Ill and Yao, Yan and Mcdowell, Matthew T and Lee, Seok Woo and Jackson, Ariel and Yang, Yuan and Hu, Liangbing and Cui, Yi
Nature Nanotechnology, ISSN 1748-3387, 2012, Volume 7, Issue 5, pp. 310 - 315
Although the performance of lithium ion-batteries continues to improve, their energy density and cycle life remain insufficient for applications in consumer... 
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8. Full Text High Lithium Ion Conductivity LiF/GO Solid Electrolyte Interphase Inhibiting the Shuttle of Lithium Polysulfides in Long‐Life Li–S Batteries
by Ni, Xuyan and Qian, Tao and Liu, Xuejun and Xu, Na and Liu, Jie and Yan, Chenglin
Advanced Functional Materials, ISSN 1616-301X, 03/2018, Volume 28, Issue 13, pp. 1706513 - n/a
The “shuttle effect” that stems from the dissolution of polysulfides is the most fatal issue affecting the cycle life of lithium‐sulfur (Li–S) batteries. In... 
shuttle effect | lithium sulfur batteries | separators | solid electrolyte interphases | HIGH-PERFORMANCE | ELECTROCHEMISTRY | GRAPHENE OXIDE | PHYSICS, CONDENSED MATTER | PHYSICS, APPLIED | SEPARATOR | SULFUR BATTERIES | STABILITY | MATERIALS SCIENCE, MULTIDISCIPLINARY | CHEMISTRY, PHYSICAL | NANOSCIENCE & NANOTECHNOLOGY | CHEMISTRY, MULTIDISCIPLINARY | CHALLENGES | INTERFACE | CARBONATE | FRAMEWORK | Sulfur compounds | Electrolytes | Batteries | Analysis | Spectrum analysis | Electric properties | Decay rate | Lithium fluoride | Conductivity | Ions | Lithium | Polysulfides | Ion diffusion | Diffusion layers | Solid electrolytes | Lithium ions | Diffusion coefficient | Dendritic structure | Electrochemical impedance spectroscopy
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9. Full Text An Armored Mixed Conductor Interphase on a Dendrite‐Free Lithium‐Metal Anode
by Yan, Chong and Cheng, Xin‐Bing and Yao, Yu‐Xing and Shen, Xin and Li, Bo‐Quan and Li, Wen‐Jun and Zhang, Rui and Huang, Jia‐Qi and Li, Hong and Zhang, Qiang
Advanced Materials, ISSN 0935-9648, 11/2018, Volume 30, Issue 45, pp. e1804461 - n/a
Lithium‐metal electrodes have undergone a comprehensive renaissance to meet the requirements of high‐energy‐density batteries due to their lowest electrode... 
mixed conductor interface | lithium‐metal anodes | lithium‐metal batteries | cupric fluoride | dendrite growth | lithium-metal batteries | lithium-metal anodes | PHYSICS, CONDENSED MATTER | PHYSICS, APPLIED | SOLID-ELECTROLYTE INTERPHASE | HIGH-ENERGY | DEPOSITION | STABILITY | MATERIALS SCIENCE, MULTIDISCIPLINARY | LIQUID | CHEMISTRY, PHYSICAL | NANOSCIENCE & NANOTECHNOLOGY | IONIC-CONDUCTIVITY | CHEMISTRY, MULTIDISCIPLINARY | BATTERY SYSTEMS | DENSITY | LI-ION | CARBONATE | Electrolytes | Batteries | Ion currents | Lithium | Chemical reactions | Conductors | Modulus of elasticity | Nonaqueous electrolytes | Electrodes | Organic chemistry | Electrolytic cells | Anodic protection | Armor | Anode effect | Protective coatings | Dendritic structure
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10. Full Text Graphite as Cointercalation Electrode for Sodium‐Ion Batteries: Electrode Dynamics and the Missing Solid Electrolyte Interphase (SEI)
by Goktas, Mustafa and Bolli, Christoph and Berg, Erik J and Novák, Petr and Pollok, Kilian and Langenhorst, Falko and Roeder, Maximilian v and Lenchuk, Olena and Mollenhauer, Doreen and Adelhelm, Philipp
Advanced Energy Materials, ISSN 1614-6832, 06/2018, Volume 8, Issue 16, pp. 1702724 - n/a
The intercalation of solvated sodium ions into graphite from ether electrolytes was recently discovered to be a surprisingly reversible process. The mechanisms... 
cointercalation | sodium‐ion batteries | dilatometry | graphite | solid electrolyte interphases | sodium-ion batteries | AUXILIARY BASIS-SETS | PHYSICS, CONDENSED MATTER | PHYSICS, APPLIED | CARBON | ANODE MATERIALS | ENERGY & FUELS | BEHAVIOR | MATERIALS SCIENCE, MULTIDISCIPLINARY | CHEMISTRY, PHYSICAL | NONAQUEOUS ELECTROLYTES | INITIO MOLECULAR-DYNAMICS | LITHIUM-ION | ELECTROCHEMICAL INTERCALATION | Electrolytes | Batteries | Mass spectrometry | Analysis | Scanning electron microscopy | X-ray diffraction | Gas analysis | Intercalation | Electrodes | Dilatometry | Transmission electron microscopy | Sodium | Graphite | Solid electrolytes | Platelets
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11. Full Text A Plastic–Crystal Electrolyte Interphase for All‐Solid‐State Sodium Batteries
by Gao, Hongcai and Xue, Leigang and Xin, Sen and Park, Kyusung and Goodenough, John B
Angewandte Chemie International Edition, ISSN 1433-7851, 05/2017, Volume 56, Issue 20, pp. 5541 - 5545
The development of all‐solid‐state rechargeable batteries is plagued by a large interfacial resistance between a solid cathode and a solid electrolyte that... 
interfacial resistances | solid-state batteries | plastic crystals | sodium batteries | solid electrolytes | LICOO2 ELECTRODE | PERFORMANCE | BEHAVIOR | CHEMISTRY, MULTIDISCIPLINARY | LITHIUM-ION BATTERY | CATHODE | TRANSPORT | INTERFACE | CONDUCTIVITY | POLYMER | ENERGY-STORAGE | Sodium | Interphase | Electrochemistry | Particulates | Electrolytes | Lithium | Batteries | Plastics | Rechargeable batteries
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12. Full Text Interphases in Sodium‐Ion Batteries
by Song, Junhua and Xiao, Biwei and Lin, Yuehe and Xu, Kang and Li, Xiaolin
Advanced Energy Materials, ISSN 1614-6832, 06/2018, Volume 8, Issue 17, pp. 1703082 - n/a
Sodium‐ion batteries (SIBs) as economical, high energy alternatives to lithium‐ion batteries (LIBs) have received significant attention for large‐scale energy... 
anode solid electrolyte interphases | sodium‐ion batteries | interphase functionalities | cathode solid electrolyte interphases | sodium-ion batteries | HIGH-PERFORMANCE | PHYSICS, CONDENSED MATTER | PHYSICS, APPLIED | SOLID-ELECTROLYTE INTERPHASE | ENERGY & FUELS | MATERIALS SCIENCE, MULTIDISCIPLINARY | CHEMISTRY, PHYSICAL | LITHIUM-ION | LI-ION | GRAPHITE ANODE | ETHER-BASED ELECTROLYTE | HARD-CARBON | ATOMIC-LAYER-DEPOSITION | HIGH-CAPACITY | NEGATIVE ELECTRODE | Electrochemistry | Electrochemical reactions | Electrolytes | Chemical properties | Batteries | Electrochemical analysis | Chemical reactions | Storage batteries | Electrodes | Lithium-ion batteries | Organic chemistry | Electrode materials | Solvation | Alternative energy sources | Sodium | Solid electrolytes | Energy storage
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