Journal of Inorganic Materials ›› 2020, Vol. 35 ›› Issue (12): 1295-1306.DOI: 10.15541/jim20200134
Special Issue: 能源材料论文精选(一)：锂离子电池(2020)
ZHENG Shiyou(
),DONG Fei,PANG Yuepeng,HAN Pan,YANG Junhe
Received:2020-03-16
Revised:2020-04-22
Published:2020-12-20
Online:2020-05-10
About author:ZHENG Shiyou(1974–), male, professor. E-mail: syzheng@usst.edu.cn
Supported by:CLC Number:
ZHENG Shiyou, DONG Fei, PANG Yuepeng, HAN Pan, YANG Junhe. Research Progress on Nanostructured Metal Oxides as Anode Materials for Li-ion Battery[J]. Journal of Inorganic Materials, 2020, 35(12): 1295-1306.
Fig. 1 (a, b) SEM images of SnO2/C-NTs; (c) Cycling performance at 500 mA/g, and (d) rate capabilities of SnO2-NTs and SnO2/C-NTs[23]
Fig. 2 (a) Illustration of the synthesis principles of ultrafine SnO2 NPs immobilized in the mesopore channels of mesoporous carbon; (b) Cycle performance at 200 mA/g between 0.005 and 3 V, and (c) rate performance of electrodes based on different SnO2 content[31]
Fig. 3 (a) SEM image, and (b) cycle performance at 100 mA/g of CuO NRAs[42]
Fig. 4 (a) Schematic illustration of the synthesis of hollow CuO@NCS composites; (b) Cycle performance of CuO@NCS at 100 mA/g[46]
Fig. 5 TEM images of (a) Fe2O3-graphene particle-on-sheet composite, and (b-d) Fe2O3-graphene sheet-on-sheet composite[57]
Fig. 6 (a) Illustration for the synthetic procedure, (b) TEM image, and (c) rate capabilities of Fe3O4@N-HPCNs[63]
Fig. 7 (a) Structure diagrams of the amorphous porous CoSnO3/Au composite nanocubes; Cycle performance of the amorphous porous CoSnO3/Au composite nanocubes at (b) 0.2 and (c) 5 A/g[65]
Fig. 8 (a) Schematic illustration for the synthetic procedure, (b) TEM image, and (c) rate capabilities of spinel ZnxCo3-xO4 hollow polyhedron[79]
| Materials structure | First cyclic capacity/(mAh?g-1) (Current density/(A?g-1)) | Coulombic efficiency | Cycling performance/ (mAh?g-1) (Current density/ (A?g-1), cycle number) | Rate performance/(mAh?g-1) (Current density/(A?g-1)) | Ref. |
|---|---|---|---|---|---|
| SnO2 NPs (5~20 nm) | 1310 (0.1) | 69% | 800 (0.1, 100) | 850 (1); 800 (2) | [ |
| SnO2/C-NT (15 nm) | 483 (0.5) | 51% | 596 (0.5, 200) | 683 (1); 550 (2) | [ |
| SnO2 nanosheets (7.4 nm) | 1338 (0.1) | 55% | 763 (0.1, 300) | 460 (1); 280 (2) | [ |
| SnO2 HS (50 nm) | 736 (0.1) | 47% | 540 (0.1, 50) | 550 (1); 422 (2) | [ |
| SnO2/C (50~100 nm) | 998 (0.1) | 69% | 750 (0.1, 100) | 413 (1); 325 (2) | [ |
| C-SnO2/CNT (7 nm) | 1373 (1) | 52% | 950 (1, 100) | 1100 (1); 950 (2) | [ |
| SnO2@G-SWCNT (7 nm) | 1007 (0.1) | 53% | 785 (0.1, 100) | 510 (1); 426 (2) | [ |
| SnO2@CMK-5 (4~5 nm) | 694 (0.2) | 71% | 1039 (0.1, 100) | 770 (1) | [ |
| SnO2/C (2.8 nm) | 899 (1.4) | 44% | 560 (1.4, 100) | 700 (1.4); 538 (2.8) | [ |
| CuO spheres (400 nm) | 590 (0.45) | 66% | 400 (0.45, 50) | - | [ |
| CuO octahedra (5 nm) | 506 (0.5) | 70% | 785 (0.5, 50) | 488 (1); 370 (2) | [ |
| CuO labyrinths (20 nm) | 645 (0.1) | 66% | 330 (1, 100) | 340 (1.3); 255 (3.4) | [ |
| CuO NRAs (2~3 μm) | 751 (0.1) | 56% | 671 (0.1, 150) | 367 (1); 300 (2) | [ |
| CuO spheres (10 nm) | 552 (0.67) | 55% | 750 (0.67, 350) | 650 (1.3); 600 (3.4) | [ |
| CuO/MWCNT (10 nm) | 462 (0.07) | 69% | 650 (0.07, 100) | 590 (1.3); 590 (2) | [ |
| Cu2O/CuO/rGO (500 nm) | 375 (0.3) | 75% | 570 (0.3, 100) | 350 (1.3); 250 (2.7) | [ |
| Cu@NCSs (45 nm) | 909 (0.5) | 62% | 602 (0.5, 200) | 760 (1); 570 (2) | [ |
| Graphene/Fe2O3 (40 nm) | 1074 (0.1) | 65% | 800 (0.1, 50) | - | [ |
| Fe2O3/CA (5~50 nm) | 836 (0.1) | 55% | 635 (0.1, 100) | 652 (0.4); 546 (0.8) | [ |
| RG-O/Fe2O3 (60 nm) | 1219 (0.1) | 72% | 1027 (0.1, 50) | 970 (0.4); 760 (0.8) | [ |
| Fe3O4@PCFs (10~60 nm) | 1014 (0.2) | 72% | 920 (0.2, 80) | 677 (1); 523 (2) | [ |
| Fe3O4/PPy (200 nm) | 493 (1) | 89% | 554 (1, 100) | 500 (1); 330 (2) | [ |
| Fe3O4-CNTs (50~100 nm) | 845 (0.05) | 77% | 702 (0.05, 50) | - | [ |
| Fe3O4@N-HPCNs (6 nm) | 521 (0.1) | 54% | 1240 (0.1, 100) | 700 (1); 600 (2) | [ |
| CoMoO4 NPs (2~10 nm) | 1051 (0.2) | 72% | 1185 (0.2, 100) | 900 (1); 850 (2) | [ |
| CoSnO3/Au cube (70 nm) | 1693 (0.2) | 68% | 1615 (0.2, 100) | 1425 (1); 1289 (2) | [ |
| NiFe2O4 NPs (20 nm) | 1177 (0.1) | 79% | 1390 (0.1, 20) | 823 (1); 725 (3) | [ |
| ZnxCo3-xO4 (10 nm) | 967 (0.1) | 76% | 990 (0.1, 50) | 1020 (0.9); 988 (2.7) | [ |
| NixCo3-xO4 (40 nm) | 1133 (0.1) | 70% | 1109 (0.1, 100) | 864 (1); 728 (2) | [ |
Table 1 Structures and comprehensive electrochemical performances of different metal oxide anode materials
| Materials structure | First cyclic capacity/(mAh?g-1) (Current density/(A?g-1)) | Coulombic efficiency | Cycling performance/ (mAh?g-1) (Current density/ (A?g-1), cycle number) | Rate performance/(mAh?g-1) (Current density/(A?g-1)) | Ref. |
|---|---|---|---|---|---|
| SnO2 NPs (5~20 nm) | 1310 (0.1) | 69% | 800 (0.1, 100) | 850 (1); 800 (2) | [ |
| SnO2/C-NT (15 nm) | 483 (0.5) | 51% | 596 (0.5, 200) | 683 (1); 550 (2) | [ |
| SnO2 nanosheets (7.4 nm) | 1338 (0.1) | 55% | 763 (0.1, 300) | 460 (1); 280 (2) | [ |
| SnO2 HS (50 nm) | 736 (0.1) | 47% | 540 (0.1, 50) | 550 (1); 422 (2) | [ |
| SnO2/C (50~100 nm) | 998 (0.1) | 69% | 750 (0.1, 100) | 413 (1); 325 (2) | [ |
| C-SnO2/CNT (7 nm) | 1373 (1) | 52% | 950 (1, 100) | 1100 (1); 950 (2) | [ |
| SnO2@G-SWCNT (7 nm) | 1007 (0.1) | 53% | 785 (0.1, 100) | 510 (1); 426 (2) | [ |
| SnO2@CMK-5 (4~5 nm) | 694 (0.2) | 71% | 1039 (0.1, 100) | 770 (1) | [ |
| SnO2/C (2.8 nm) | 899 (1.4) | 44% | 560 (1.4, 100) | 700 (1.4); 538 (2.8) | [ |
| CuO spheres (400 nm) | 590 (0.45) | 66% | 400 (0.45, 50) | - | [ |
| CuO octahedra (5 nm) | 506 (0.5) | 70% | 785 (0.5, 50) | 488 (1); 370 (2) | [ |
| CuO labyrinths (20 nm) | 645 (0.1) | 66% | 330 (1, 100) | 340 (1.3); 255 (3.4) | [ |
| CuO NRAs (2~3 μm) | 751 (0.1) | 56% | 671 (0.1, 150) | 367 (1); 300 (2) | [ |
| CuO spheres (10 nm) | 552 (0.67) | 55% | 750 (0.67, 350) | 650 (1.3); 600 (3.4) | [ |
| CuO/MWCNT (10 nm) | 462 (0.07) | 69% | 650 (0.07, 100) | 590 (1.3); 590 (2) | [ |
| Cu2O/CuO/rGO (500 nm) | 375 (0.3) | 75% | 570 (0.3, 100) | 350 (1.3); 250 (2.7) | [ |
| Cu@NCSs (45 nm) | 909 (0.5) | 62% | 602 (0.5, 200) | 760 (1); 570 (2) | [ |
| Graphene/Fe2O3 (40 nm) | 1074 (0.1) | 65% | 800 (0.1, 50) | - | [ |
| Fe2O3/CA (5~50 nm) | 836 (0.1) | 55% | 635 (0.1, 100) | 652 (0.4); 546 (0.8) | [ |
| RG-O/Fe2O3 (60 nm) | 1219 (0.1) | 72% | 1027 (0.1, 50) | 970 (0.4); 760 (0.8) | [ |
| Fe3O4@PCFs (10~60 nm) | 1014 (0.2) | 72% | 920 (0.2, 80) | 677 (1); 523 (2) | [ |
| Fe3O4/PPy (200 nm) | 493 (1) | 89% | 554 (1, 100) | 500 (1); 330 (2) | [ |
| Fe3O4-CNTs (50~100 nm) | 845 (0.05) | 77% | 702 (0.05, 50) | - | [ |
| Fe3O4@N-HPCNs (6 nm) | 521 (0.1) | 54% | 1240 (0.1, 100) | 700 (1); 600 (2) | [ |
| CoMoO4 NPs (2~10 nm) | 1051 (0.2) | 72% | 1185 (0.2, 100) | 900 (1); 850 (2) | [ |
| CoSnO3/Au cube (70 nm) | 1693 (0.2) | 68% | 1615 (0.2, 100) | 1425 (1); 1289 (2) | [ |
| NiFe2O4 NPs (20 nm) | 1177 (0.1) | 79% | 1390 (0.1, 20) | 823 (1); 725 (3) | [ |
| ZnxCo3-xO4 (10 nm) | 967 (0.1) | 76% | 990 (0.1, 50) | 1020 (0.9); 988 (2.7) | [ |
| NixCo3-xO4 (40 nm) | 1133 (0.1) | 70% | 1109 (0.1, 100) | 864 (1); 728 (2) | [ |
| [1] |
CHEN H, LING M, HENCZ L, et al. Exploring chemical, mechanical, and electrical functionalities of binders for advanced energy- storage devices. Chemical Reviews, 2018,118(18):8936-8982.
DOI URL PMID |
| [2] | XIONG Q Q, JI Z G. Controllable growth of MoS2/C flower-like microspheres with enhanced electrochemical performance for lithium ion batteries. Journal of Alloys and Compounds, 2016,673:215-219. |
| [3] | ZHANG Y, XIA X, LIU B, et al. Multiscale graphene-based materials for applications in sodium ion batteries. Advanced Energy Materials, 2019,9(8):1803342. |
| [4] | LIN Y, GAO M X, ZHU D, et al. Effects of carbon coating and iron phosphides on the electrochemical properties of LiFePO4/C. Journal of Power Sources, 2008,184(2):444-448. |
| [5] | ZHANG S, GU H, PAN H, et al. A novel strategy to suppress capacity and voltage fading of Li- and Mn-rich layered oxide cathode material for lithium-ion batteries. Advanced Energy Materials, 2017,7(6):1601066. |
| [6] | GENG K M, WU J J, GENG H B, et al. N-doped carbon- encapsulated cobalt nanoparticles on N-doped graphene nanosheets as a high-capacity anode material for lithium-ion storage. Chinese Journal of Inorganic Chemistry, 2016,32(9):1495-1502. |
| [7] |
ZHANG X F, ZHAO Y, PATEL Y, et al. Potentiometric measurement of entropy change for lithium batteries. Physical Chemistry Chemical Physics, 2017,19(15):9833-9842.
DOI URL PMID |
| [8] | DONG H, KOENIG G M. A review on synthesis and engineering of crystal precursors produced via coprecipitation for multicomponent lithium-ion battery cathode materials. CrystEngComm, 2020,22(9):1514-1530. |
| [9] | SHEN S, ZHANG S, DENG S, et al. Bioinspired large-scale production of multidimensional high-rate anodes for both liquid & solid-state lithium ion batteries. Journal of Materials Chemistry A, 2019,7(40):22958-22966. |
| [10] |
AN W, GAO B, MEI S, et al. Scalable synthesis of ant-nest-like bulk porous silicon for high-performance lithium-ion battery anodes. Nature Communications, 2019,10(1):1447.
DOI URL PMID |
| [11] | WANG J, CHENG Z N, GUO Y Z, et al. Preparation and electrochemical performance of ordered mesoporous Si/C composite for anode material. Journal of Inorganic Materials, 2018,33(3):313-319. |
| [12] | GUO S L, KANG S, LU W Q. Ge nanoparticles in MXene sheets: one-step synthesis and highly improved electrochemical property in lithium-ion batteries. Journal of Inorganic Materials, 2020,35(1):105-111. |
| [13] |
YE X, LIN Z, LIANG S, et al. Upcycling of electroplating sludge into ultrafine Sn@C nanorods with highly stable lithium storage performance. Nano Letters, 2019,19(3):1860-1866.
DOI URL PMID |
| [14] | SCHULZE M C, BELSON R M, KRAYNAK L A, et al. Electrodeposition of Sb/CNT composite films as anodes for Li- and Na-ion batteries. Energy Storage Materials, 2020,25:572-584. |
| [15] | MCNULTY D, GEANEY H, BUCKLEY D, et al. High capacity binder-free nanocrystalline GeO2 inverse opal anodes for Li-ion batteries with long cycle life and stable cell voltage. Nano Energy, 2018,43:11-21. |
| [16] | LI W, WANG K, CHENG S, et al. A two-dimensional hybrid of SbOx nanoplates encapsulated by carbon flakes as a high performance sodium storage anode. Journal of Materials Chemistry A, 2017,5(3):1160-1167. |
| [17] | WANG D, GAO M, PAN H, et al. High performance amorphous- Si@SiOx/C composite anode materials for Li-ion batteries derived from ball-milling and in situ carbonization. Journal of Power Sources, 2014,256:190-199. |
| [18] |
XIA X, ZHANG Y, CHAO D, et al. Solution synthesis of metal oxides for electrochemical energy storage applications. Nanoscale, 2014,6(10):5008-5048.
DOI URL PMID |
| [19] |
LIANG C, GAO M, PAN H, et al. Lithium alloys and metal oxides as high-capacity anode materials for lithium-ion batteries. Journal of Alloys and Compounds, 2013,575:246-256.
DOI URL |
| [20] | IDOTA Y, KUBOTA T, MATSUFUJI A, et al. Tin-based amorphous oxide: a high-capacity lithium-ion-storage material. Science, 1997,276(5317):1395. |
| [21] |
WANG R, XU C, SUN J, et al. Solvothermal-induced 3D macroscopic SnO2/nitrogen-doped graphene aerogels for high capacity and long-life lithium storage. ACS Applied Materials & Interfaces, 2014,6(5):3427-3436.
DOI URL PMID |
| [22] | WANG L P, LECONTE Y, FENG Z, et al. Novel preparation of N-doped SnO2 nanoparticles via laser-assisted pyrolysis: demonstration of exceptional lithium storage properties. Advanced Materials, 2017,29(6):1603286. |
| [23] |
ZHOU X, YU L, LOU X W. Nanowire-templated formation of SnO2/carbon nanotubes with enhanced lithium storage properties. Nanoscale, 2016,8(15):8384-8389.
DOI URL PMID |
| [24] | ZHANG X, JIANG B, GUO J, et al. Large and stable reversible lithium-ion storages from mesoporous SnO2 nanosheets with ultralong lifespan over 1000 cycles. Journal of Power Sources, 2014,268:365-371. |
| [25] | LIU S, WANG R, LIU M, et al. Fe2O3@SnO2 nanoparticle decorated graphene flexible films as high-performance anode materials for lithium-ion batteries. Journal of Materials Chemistry A, 2014,2(13):4598-4604. |
| [26] |
BHASKAR A, DEEPA M, RAO T N. Size-controlled SnO2 hollow spheres via a template free approach as anodes for lithium ion batteries. Nanoscale, 2014,6(18):10762-10771.
DOI URL PMID |
| [27] |
PANG Y, WANG J, YANG J, et al. Fully reversible lithium storage of tin oxide enabled by self-doping and partial amorphization. Nanoscale, 2019,11(27):12915-12923.
DOI URL PMID |
| [28] |
ZHOU D, SONG W L, FAN L Z. Hollow core-shell SnO2/C fibers as highly stable anodes for lithium-ion batteries. ACS Applied Materials & Interfaces, 2015,7(38):21472-21478.
DOI URL PMID |
| [29] |
MA C, ZHANG W, HE Y S, et al. Carbon coated SnO2 nanoparticles anchored on CNT as a superior anode material for lithium-ion batteries. Nanoscale, 2016,8(7):4121-4126.
DOI URL PMID |
| [30] |
WANG J, FANG F, YUAN T, et al. Three-dimensional graphene/ single-walled carbon nanotube aerogel anchored with SnO2 nanoparticles for high performance lithium storage. ACS Applied Materials & Interfaces, 2017,9(4):3544-3553.
DOI URL PMID |
| [31] | HAN F, LI W C, LI M R, et al. Fabrication of superior performance SnO2@C composites for lithium-ion anodes using tubular mesoporous carbon with thin carbon walls and high pore volume. Journal of Materials Chemistry, 2012,22(19):9645-9651. |
| [32] | JAHEL A, GHIMBEU C M, MONCONDUIT L, et al. Confined ultrasmall SnO2 particles in micro/mesoporous carbon as an extremely long cycle-life anode material for Li-ion batteries. Advanced Energy Materials, 2014,4(11):1400025. |
| [33] | NAGPURE S C, BHUSHAN B, BABU S S. Multi-scale characterization studies of aged Li-ion large format cells for improved performance: an overview. Journal of The Electrochemical Society, 2013,160(11):A2111-A2154. |
| [34] | HE S, LI J, WANG J, et al. Facile synthesis and lithium storage performance of hollow CuO microspheres. Materials Letters, 2014,129:5-7. |
| [35] | XIANG J Y, TU J P, ZHANG L, et al. Self-assembled synthesis of hierarchical nanostructured CuO with various morphologies and their application as anodes for lithium ion batteries. Journal of Power Sources, 2010,195(1):313-319. |
| [36] | WAN M, JIN D, FENG R, et al. Pillow-shaped porous CuO as anode material for lithium-ion batteries. Inorganic Chemistry Communications, 2011,14(1):38-41. |
| [37] | HU Y, HUANG X, WANG K, et al. Kirkendall-effect-based growth of dendrite-shaped CuO hollow micro/nanostructures for lithium-ion battery anodes. Journal of Solid State Chemistry, 2010,183(3):662-667. |
| [38] | CHEN K, XUE D. Room-temperature chemical transformation route to CuO nanowires toward high-performance electrode materials. The Journal of Physical Chemistry C, 2013,117(44):22576-22583. |
| [39] | JUNG H R, CHO S J, KIM K N, et al. Electrochemical properties of electrospun CuxO (x=1, 2)-embedded carbon nanofiber with EXAFS analysis. Electrochimica Acta, 2011,56(19):6722-6731. |
| [40] | MA Z, RUI K, ZHANG Q, et al. Self-templated formation of uniform F-CuO hollow octahedra for lithium ion batteries. Small, 2017,13(10):1603500. |
| [41] | JIA S, WANG Y, LIU X, et al. Hierarchically porous CuO nano- labyrinths as binder-free anodes for long-life and high-rate lithium ion batteries. Nano Energy, 2019,59:229-236. |
| [42] | YIN D, HUANG G, NA Z, et al. CuO nanorod arrays formed directly on Cu foil from MOFs as superior binder-free anode material for lithium-ion batteries. ACS Energy Letters, 2017,2(7):1564-1570. |
| [43] | XU Y, JIAN G, ZACHARIAH M R, et al. Nano-structured carbon- coated CuO hollow spheres as stable and high rate anodes for lithium- ion batteries. Journal of Materials Chemistry A, 2013,1(48):15486-15490. |
| [44] |
KO S, LEE J I, YANG H S, et al. Mesoporous CuO particles threaded with CNTs for high-performance lithium-ion battery anodes. Advanced Materials, 2012,24(32):4451-4456.
DOI URL PMID |
| [45] | WU S, FU G, LYU W, et al. A single-step hydrothermal route to 3D hierarchical Cu2O/CuO/rGo nanosheets as high-performance anode of lithium-ion batteries. Small, 2018,14(5):1702667. |
| [46] | TAN Y, JIA Z, SUN J, et al. Controllable synthesis of hollow copper oxide encapsulated into N-doped carbon nanosheets as high-stability anodes for lithium-ion batteries. Journal of Materials Chemistry A, 2017,5(46):24139-24144. |
| [47] | LU X, WANG R, BAI Y, et al. Facile preparation of a three- dimensional Fe3O4/macroporous graphene composite for high- performance Li storage. Journal of Materials Chemistry A, 2015,3(22):12031-12037. |
| [48] | WANG R, XU C, SUN J, et al. Three-dimensional Fe2O3 nanocubes/nitrogen-doped graphene aerogels: nucleation mechanism and lithium storage properties. Scientific Reports, 2014,4(1):7171. |
| [49] |
CAI J X, LI Z P, LI W, et al. Synthesis and electrochemical performance of Fe2O3 nanofibers as anode materials for LIBs. Journal of Inorganic Materials, 2018,33(3):301-306.
DOI URL |
| [50] | WANG P, GAO M, PAN H, et al. A facile synthesis of Fe3O4/C composite with high cycle stability as anode material for lithium- ion batteries. Journal of Power Sources, 2013,239:466-474. |
| [51] |
QIN X, ZHANG H, WU J, et al. Fe3O4 nanoparticles encapsulated in electrospun porous carbon fibers with a compact shell as high-performance anode for lithium ion batteries. Carbon, 2015,87:347-356.
DOI URL |
| [52] |
ZHONG Y, FAN H, CHANG L, et al. Novel iron oxide nanotube arrays as high-performance anodes for lithium ion batteries. Journal of Power Sources, 2015,296:255-260.
DOI URL |
| [53] |
ZHAO B, ZHENG Y, YE F, et al. Multifunctional iron oxide nanoflake/ graphene composites derived from mechanochemical synthesis for enhanced lithium storage and electrocatalysis. ACS Applied Materials & Interfaces, 2015,7(26):14446-14455.
DOI URL PMID |
| [54] | PARK Y, OH M, PARK J S, et al. Electrochemically deposited Fe2O3 nanorods on carbon nanofibers for free-standing anodes of lithium-ion batteries. Carbon, 2015,94:9-17. |
| [55] |
QU J, YIN Y X, WANG Y Q, et al. Layer structured α-Fe2O3 nanodisk/reduced graphene oxide composites as high-performance anode materials for lithium-ion batteries. ACS Applied Materials & Interfaces, 2013,5(9):3932-3936.
DOI URL PMID |
| [56] | ZOU Y, KAN J, WANG Y. Fe2O3-graphene rice-on-sheet nanocomposite for high and fast lithium ion storage. The Journal of Physical Chemistry C, 2011,115(42):20747-20753. |
| [57] | KAN J, WANG Y. Large and fast reversible Li-ion storages in Fe2O3-graphene sheet-on-sheet sandwich-like nanocomposites. Scientific Reports, 2013,3(1):3502. |
| [58] | LIU N, SHEN J, LIU D. A Fe2O3 nanoparticle/carbon aerogel composite for use as an anode material for lithium ion batteries. Electrochimica Acta, 2013,97:271-277. |
| [59] |
ZHU X, ZHU Y, MURALI S, et al. Nanostructured reduced graphene oxide/Fe2O3 composite as a high-performance anode material for lithium ion batteries. ACS Nano, 2011,5(4):3333-3338.
DOI URL PMID |
| [60] | PANG Y, WANG J, ZHOU Z, et al. Core-shell Fe3O4@Fe ultrafine nanoparticles as advanced anodes for Li-ion batteries. Journal of Alloys and Compounds, 2018,735:833-839. |
| [61] | ZHAO J, ZHANG S, LIU W, et al. Fe3O4/ppy composite nanospheres as anode for lithium-ion batteries with superior cycling performance. Electrochimica Acta, 2014,121:428-433. |
| [62] | GUO Q, GUO P, LI J, et al. Fe3O4-CNTs nanocomposites: inorganic dispersant assisted hydrothermal synthesis and application in lithium ion batteries. Journal of Solid State Chemistry, 2014,213:104-109. |
| [63] | MAO J, NIU D, ZHENG N, et al. Fe3O4-embedded and N-doped hierarchically porous carbon nanospheres as high-performance lithium ion battery anodes. ACS Sustainable Chemistry & Engineering, 2019,7(3):3424-3433. |
| [64] | MUSA N, WOO H J, TEO L P, et al. Optimization of Li2SnO3 synthesis for anode material application in Li-ion batteries. Materials Today: Proceedings, 2017,4(4, Part C):5169-5177. |
| [65] |
HE T, FENG J, RU J, et al. Constructing heterointerface of metal atomic layer and amorphous anode material for high-capacity and fast lithium storage. ACS Nano, 2019,13(1):830-838.
DOI URL PMID |
| [66] | TAN H, CHO H W, WU J J. Binder-free ZnO@ZnSnO3 quantum dots core-shell nanorod array anodes for lithium-ion batteries. Journal of Power Sources, 2018,388:11-18. |
| [67] |
GE X, LI Z, WANG C, et al. Metal-organic frameworks derived porous core/shell structured ZnO/ZnCo2O4/C hybrids as anodes for high-performance lithium-ion battery. ACS Applied Materials & Interfaces, 2015,7(48):26633-26642.
DOI URL PMID |
| [68] | LI G, LI W, XU K, et al. Sponge-like NiCo2O4/MnO2 ultrathin nanoflakes for supercapacitor with high-rate performance and ultra- long cycle life. Journal of Materials Chemistry A, 2014,2(21):7738-7741. |
| [69] | RAI A K, GIM J, THI T V, et al. High rate capability and long cycle stability of Co3O4/CoFe2O4 nanocomposite as an anode material for high-performance secondary lithium ion batteries. The Journal of Physical Chemistry C, 2014,118(21):11234-11243. |
| [70] |
ISLAM M, ALI G, JEONG M G, et al. Study on the electrochemical reaction mechanism of NiFe2O4 as a high-performance anode for Li-ion batteries. ACS Applied Materials & Interfaces, 2017,9(17):14833-14843.
URL PMID |
| [71] |
LIAO L X, WANG M, FANG T, et al. Synthesis and characterization of ZnFe2O4 anode for lithium ion battery. Journal of Inorganic Materials, 2016,31(1):34-38.
DOI URL |
| [72] |
WANG L, BOCK D C, LI J, et al. Synthesis and characterization of CuFe2O4 nano/submicron wire-carbon nanotube composites as binder-free anodes for Li-ion batteries. ACS Applied Materials & Interfaces, 2018,10(10):8770-8785.
DOI URL PMID |
| [73] |
DENG S, ZHU H, WANG G, et al. Boosting fast energy storage by synergistic engineering of carbon and deficiency. Nature Communications, 2020,11(1):132.
DOI URL PMID |
| [74] | SHEN S, GUO W, XIE D, et al. A synergistic vertical graphene skeleton and S-C shell to construct high-performance TiNb2O7- based core/shell arrays. Journal of Materials Chemistry A, 2018,6(41):20195-20204. |
| [75] | YAO Z, XIA X, ZHANG Y, et al. Superior high-rate lithium-ion storage on Ti2Nb10O29 arrays via synergistic TiC/C skeleton and N-doped carbon shell. Nano Energy, 2018,54:304-312. |
| [76] |
WU J, PAN G, ZHONG W, et al. Rational synthesis of Cr0.5Nb24.5O62 microspheres as high-rate electrodes for lithium ion batteries. Journal of Colloid and Interface Science, 2020,562:511-517.
DOI URL PMID |
| [77] |
ETTE P M, CHITHAMBARARAJ A, PRAKASH A S, et al. MoS2 nanoflower-derived interconnected CoMoO4 nanoarchitectures as a stable and high rate performing anode for lithium-ion battery applications. ACS Applied Materials & Interfaces, 2020,12(10):11511-11521.
DOI URL PMID |
| [78] | YU Z, BAI Y, ZHANG S, et al. Metal-organic framework-derived Zn0.975Co0.025S/CoS2 embedded in N, S-codoped carbon nanotube/ nanopolyhedra as an efficient electrocatalyst for overall water splitting. Journal of Materials Chemistry A, 2018,6(22):10441-10446. |
| [79] | WU R, QIAN X, ZHOU K, et al. Porous spinel ZnxCo3-xO4 hollow polyhedra templated for high-rate lithium-ion batteries. ACS Nano, 2014,8(6):6297-6303. |
| [80] | WU L L, WANG Z, LONG Y, et al. Multishelled NixCo3-xO4 hollow microspheres derived from bimetal-organic frameworks as anode materials for high-performance lithium-ion batteries. Small, 2017,13(17):1604270. |
| [1] | WEI Xiangxia, ZHANG Xiaofei, XU Kailong, CHEN Zhangwei. Current Status and Prospects of Additive Manufacturing of Flexible Piezoelectric Materials [J]. Journal of Inorganic Materials, 2024, 39(9): 965-978. |
| [2] | YANG Xin, HAN Chunqiu, CAO Yuehan, HE Zhen, ZHOU Ying. Recent Advances in Electrocatalytic Nitrate Reduction to Ammonia Using Metal Oxides [J]. Journal of Inorganic Materials, 2024, 39(9): 979-991. |
| [3] | LIU Pengdong, WANG Zhen, LIU Yongfeng, WEN Guangwu. Research Progress on the Application of Silicon Slurry in Lithium-ion Batteries [J]. Journal of Inorganic Materials, 2024, 39(9): 992-1004. |
| [4] | HUANG Jie, WANG Liuying, WANG Bin, LIU Gu, WANG Weichao, GE Chaoqun. Research Progress on Modulation of Electromagnetic Performance through Micro-nanostructure Design [J]. Journal of Inorganic Materials, 2024, 39(8): 853-870. |
| [5] | CHEN Qian, SU Haijun, JIANG Hao, SHEN Zhonglin, YU Minghui, ZHANG Zhuo. Progress of Ultra-high Temperature Oxide Ceramics: Laser Additive Manufacturing and Microstructure Evolution [J]. Journal of Inorganic Materials, 2024, 39(7): 741-753. |
| [6] | WANG Weiming, WANG Weide, SU Yi, MA Qingsong, YAO Dongxu, ZENG Yuping. Research Progress of High Thermal Conductivity Silicon Nitride Ceramics Prepared by Non-oxide Sintering Additives [J]. Journal of Inorganic Materials, 2024, 39(6): 634-646. |
| [7] | CAI Feiyan, NI Dewei, DONG Shaoming. Research Progress of High-entropy Carbide Ultra-high Temperature Ceramics [J]. Journal of Inorganic Materials, 2024, 39(6): 591-608. |
| [8] | WU Xiaochen, ZHENG Ruixiao, LI Lu, MA Haolin, ZHAO Peihang, MA Chaoli. Research Progress on In-situ Monitoring of Damage Behavior of SiCf/SiC Ceramic Matrix Composites at High Temperature Environments [J]. Journal of Inorganic Materials, 2024, 39(6): 609-622. |
| [9] | ZHAO Rida, TANG Sufang. Research Progress of Ceramic Matrix Composites Prepared by Improved Reactive Melt Infiltration through Ceramization of Porous Carbon Matrix [J]. Journal of Inorganic Materials, 2024, 39(6): 623-633. |
| [10] | FANG Guangwu, XIE Haoyuan, ZHANG Huajun, GAO Xiguang, SONG Yingdong. Progress of Damage Coupling Mechanism and Integrated Design Method for CMC-EBC [J]. Journal of Inorganic Materials, 2024, 39(6): 647-661. |
| [11] | ZHANG Xinghong, WANG Yiming, CHENG Yuan, DONG Shun, HU Ping. Research Progress on Ultra-high Temperature Ceramic Composites [J]. Journal of Inorganic Materials, 2024, 39(6): 571-590. |
| [12] | ZHANG Hui, XU Zhipeng, ZHU Congtan, GUO Xueyi, YANG Ying. Progress on Large-area Organic-inorganic Hybrid Perovskite Films and Its Photovoltaic Application [J]. Journal of Inorganic Materials, 2024, 39(5): 457-466. |
| [13] | LI Zongxiao, HU Lingxiang, WANG Jingrui, ZHUGE Fei. Oxide Neuron Devices and Their Applications in Artificial Neural Networks [J]. Journal of Inorganic Materials, 2024, 39(4): 345-358. |
| [14] | BAO Ke, LI Xijun. Chemical Vapor Deposition of Vanadium Dioxide for Thermochromic Smart Window Applications [J]. Journal of Inorganic Materials, 2024, 39(3): 233-258. |
| [15] | HU Mengfei, HUANG Liping, LI He, ZHANG Guojun, WU Houzheng. Research Progress on Hard Carbon Anode for Li/Na-ion Batteries [J]. Journal of Inorganic Materials, 2024, 39(1): 32-44. |
| Viewed | ||||||
|
Full text |
|
|||||
|
Abstract |
|
|||||
