Influence of Glucose Derivatives on Ball-Milled Si for Negative Electrodes with High Area Capacity in Lithium-Ion Batteries

Shang Chieh Hou, Tsan Yao Chen, Yu Hsien Wu, Hung Yuan Chen, Xin Dian Lin, Wing Keong Liew, Chia Chin Chang, Jow-Lay Huang

研究成果: Article

3 引文 (Scopus)

摘要

Glucose modification and carbonization on ball-milled Si for negative electrodes with high area capacity and long cycle stability in lithium-ion batteries (LIBs) are studied. Different from carbon-coated Si, glucose modification forms Si-O-C ligands in the Si surface. Such a Si-O-C ligand is supposed to possess high affinity to Li chelation and thus facile lithiation/delithiation processes in the Si surface. A preglucose high-energy mechanical milling (HEMM) treatment results in a highly reactive dangling bond and local roughness in the Si surface. It substantially increases the density of Si-O-C and thus enables a high specific weight and area capacity of 2960 mAh g -1 and 5.4 mAh cm -2 at a coulombic efficiency of 90.0% in the first delithiation process. An important finding is that such a glucose modification results in performances of the Si negative electrode at 2045 mAh g -1 (3.7 mAh cm -2 ) in a reliability test after 100 cycles. Considering mass production yields, such a high area capacity and long cycle stability reveal that our proposed glucose modification is a promising treatment in the commercialization of Si materials in LIBs.

原文English
頁(從 - 到)2971-2979
頁數9
期刊ACS Sustainable Chemistry and Engineering
7
發行號3
DOIs
出版狀態Published - 2019 二月 4

指紋

lithium
Glucose
electrode
glucose
Derivatives
Electrodes
ion
ligand
Ligands
chelation
Dangling bonds
Carbonization
commercialization
Chelation
Density (specific gravity)
roughness
Carbon
Surface roughness
battery
Lithium-ion batteries

All Science Journal Classification (ASJC) codes

  • Chemistry(all)
  • Environmental Chemistry
  • Chemical Engineering(all)
  • Renewable Energy, Sustainability and the Environment

引用此文

Hou, Shang Chieh ; Chen, Tsan Yao ; Wu, Yu Hsien ; Chen, Hung Yuan ; Lin, Xin Dian ; Liew, Wing Keong ; Chang, Chia Chin ; Huang, Jow-Lay. / Influence of Glucose Derivatives on Ball-Milled Si for Negative Electrodes with High Area Capacity in Lithium-Ion Batteries. 於: ACS Sustainable Chemistry and Engineering. 2019 ; 卷 7, 編號 3. 頁 2971-2979.
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abstract = "Glucose modification and carbonization on ball-milled Si for negative electrodes with high area capacity and long cycle stability in lithium-ion batteries (LIBs) are studied. Different from carbon-coated Si, glucose modification forms Si-O-C ligands in the Si surface. Such a Si-O-C ligand is supposed to possess high affinity to Li chelation and thus facile lithiation/delithiation processes in the Si surface. A preglucose high-energy mechanical milling (HEMM) treatment results in a highly reactive dangling bond and local roughness in the Si surface. It substantially increases the density of Si-O-C and thus enables a high specific weight and area capacity of 2960 mAh g -1 and 5.4 mAh cm -2 at a coulombic efficiency of 90.0{\%} in the first delithiation process. An important finding is that such a glucose modification results in performances of the Si negative electrode at 2045 mAh g -1 (3.7 mAh cm -2 ) in a reliability test after 100 cycles. Considering mass production yields, such a high area capacity and long cycle stability reveal that our proposed glucose modification is a promising treatment in the commercialization of Si materials in LIBs.",
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Influence of Glucose Derivatives on Ball-Milled Si for Negative Electrodes with High Area Capacity in Lithium-Ion Batteries. / Hou, Shang Chieh; Chen, Tsan Yao; Wu, Yu Hsien; Chen, Hung Yuan; Lin, Xin Dian; Liew, Wing Keong; Chang, Chia Chin; Huang, Jow-Lay.

於: ACS Sustainable Chemistry and Engineering, 卷 7, 編號 3, 04.02.2019, p. 2971-2979.

研究成果: Article

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AU - Hou, Shang Chieh

AU - Chen, Tsan Yao

AU - Wu, Yu Hsien

AU - Chen, Hung Yuan

AU - Lin, Xin Dian

AU - Liew, Wing Keong

AU - Chang, Chia Chin

AU - Huang, Jow-Lay

PY - 2019/2/4

Y1 - 2019/2/4

N2 - Glucose modification and carbonization on ball-milled Si for negative electrodes with high area capacity and long cycle stability in lithium-ion batteries (LIBs) are studied. Different from carbon-coated Si, glucose modification forms Si-O-C ligands in the Si surface. Such a Si-O-C ligand is supposed to possess high affinity to Li chelation and thus facile lithiation/delithiation processes in the Si surface. A preglucose high-energy mechanical milling (HEMM) treatment results in a highly reactive dangling bond and local roughness in the Si surface. It substantially increases the density of Si-O-C and thus enables a high specific weight and area capacity of 2960 mAh g -1 and 5.4 mAh cm -2 at a coulombic efficiency of 90.0% in the first delithiation process. An important finding is that such a glucose modification results in performances of the Si negative electrode at 2045 mAh g -1 (3.7 mAh cm -2 ) in a reliability test after 100 cycles. Considering mass production yields, such a high area capacity and long cycle stability reveal that our proposed glucose modification is a promising treatment in the commercialization of Si materials in LIBs.

AB - Glucose modification and carbonization on ball-milled Si for negative electrodes with high area capacity and long cycle stability in lithium-ion batteries (LIBs) are studied. Different from carbon-coated Si, glucose modification forms Si-O-C ligands in the Si surface. Such a Si-O-C ligand is supposed to possess high affinity to Li chelation and thus facile lithiation/delithiation processes in the Si surface. A preglucose high-energy mechanical milling (HEMM) treatment results in a highly reactive dangling bond and local roughness in the Si surface. It substantially increases the density of Si-O-C and thus enables a high specific weight and area capacity of 2960 mAh g -1 and 5.4 mAh cm -2 at a coulombic efficiency of 90.0% in the first delithiation process. An important finding is that such a glucose modification results in performances of the Si negative electrode at 2045 mAh g -1 (3.7 mAh cm -2 ) in a reliability test after 100 cycles. Considering mass production yields, such a high area capacity and long cycle stability reveal that our proposed glucose modification is a promising treatment in the commercialization of Si materials in LIBs.

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