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Long Cycle Life Organic Polysulfide Catholyte for Rechargeable Lithium Batteries
by
Fu, Yongzhu
, Guo, Wei
, Si, Yubing
, Wang, Dan‐Yang
in
Communication
/ Communications
/ dipyridyl polysulfide
/ Electrodes
/ Electrolytes
/ Energy
/ Fourier transforms
/ Lithium
/ lithium batteries
/ molecular dynamic simulations
/ organosulfide
/ ultra performance liquid chromatographyquadrupole time‐of‐flight‐mass spectrometry (UPLC‐QTof‐MS)
2020
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Long Cycle Life Organic Polysulfide Catholyte for Rechargeable Lithium Batteries
by
Fu, Yongzhu
, Guo, Wei
, Si, Yubing
, Wang, Dan‐Yang
in
Communication
/ Communications
/ dipyridyl polysulfide
/ Electrodes
/ Electrolytes
/ Energy
/ Fourier transforms
/ Lithium
/ lithium batteries
/ molecular dynamic simulations
/ organosulfide
/ ultra performance liquid chromatographyquadrupole time‐of‐flight‐mass spectrometry (UPLC‐QTof‐MS)
2020
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Long Cycle Life Organic Polysulfide Catholyte for Rechargeable Lithium Batteries
by
Fu, Yongzhu
, Guo, Wei
, Si, Yubing
, Wang, Dan‐Yang
in
Communication
/ Communications
/ dipyridyl polysulfide
/ Electrodes
/ Electrolytes
/ Energy
/ Fourier transforms
/ Lithium
/ lithium batteries
/ molecular dynamic simulations
/ organosulfide
/ ultra performance liquid chromatographyquadrupole time‐of‐flight‐mass spectrometry (UPLC‐QTof‐MS)
2020
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Long Cycle Life Organic Polysulfide Catholyte for Rechargeable Lithium Batteries
Journal Article
Long Cycle Life Organic Polysulfide Catholyte for Rechargeable Lithium Batteries
2020
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Overview
Organic compounds with active sites for lithiation can be used as electrode materials for lithium batteries. Their tunable structures allow a variety of materials to be made and investigated. Herein, a spectrum of dipyridyl polysulfides (Py2Sx, 3 ≤ x ≤ 8) is prepared in electrolyte by a one‐pot synthesis method from dipyridyl disulfide (Py2S2) and elemental sulfur. It renders up to seven dipyridyl polysulfides (i.e., Py2S3, Py2S4, Py2S5, Py2S6, Py2S7, and Py2S8) which show fully reversible electrochemical behavior in lithium batteries. In the discharge, the initial lithiation occurs at 2.45 V leading to the breakage of SαSβ bonds in Py2Sx and formation of lithium 2‐pyridinethiolate, in which lithium is coordinated in between N and S atoms. The left sulfur species act as elemental sulfur, showing two voltage plateaus at 2.3 and 2.1 V. The molecular dynamics simulations show the attraction between pyridyl groups and lithium polysulfides/sulfide via N···Li···S bonds, which enable good retention of soluble discharge products within electrodes and stable cycling performance. In the recharge, low‐order Py2Sx (e.g., Py2S3, Py2S4, and Py2S5) remain as the charged products. The mixture catholyte exhibits superlong cycle life at 1C rate with 1200 cycles and 70.5% capacity retention. A spectrum of Py2Sx (i.e., Py2S3, Py2S4, Py2S5, Py2S6, Py2S7, and Py2S8) is prepared in electrolyte by a one‐pot synthesis method, which exhibits superlong cycle life of 1200 cycles with 70.5% capacity retention. Its redox reaction mechanism in lithium batteries is revealed.
Publisher
John Wiley & Sons, Inc,John Wiley and Sons Inc,Wiley
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