Journal
CARBON ENERGY
Volume 1, Issue 2, Pages 276-288Publisher
WILEY
DOI: 10.1002/cey2.22
Keywords
3D electrode; carbon matrix; high-areal-capacity; Li-ion battery; metal sulfide
Categories
Funding
- Innovation Program of Shanghai Municipal Education Commission [2019-01-07-00-07E00015]
- National Natural Science Foundation of China [21875141, 51671135, 51971146]
- Support of young teachers in Shanghai colleges and universities [ZZslg18039]
- Shanghai Outstanding Academic Leaders Plan
- Program of Shanghai Subject Chief Scientist [17XD1403000]
- Shanghai Pujiang Program [18PJ1409000]
- Opening Project of State Key Laboratory of Advanced Chemical Power Sources [SKL-ACPS-C-23]
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Construction of a thickness-independent electrode with high active material mass loading is crucial for the development of high energy rechargeable lithium battery. Herein, we fabricate an all-in-one integrated SnS2@3D multichannel carbon matrix (SnS2@3DMCM) electrode with in-situ growth of ultrathin SnS2 nanosheets inside the inner walls of three dimensional (3D) multichannels. The interconnected conductive carbon matrix derived from natural wood acts as an integrated porous current collector to avail the electrons transport and accommodate massive SnS2 nanosheets, while plenty of 3D aligned multichannels facilitate fast ions transport with electrode thickness-independent even under high mass loading. As expected, the integrated SnS2@3DMCM electrode exhibits remarkable electrochemical lithium storage performance, such as exceptional high-areal-capacity of 6.4 mAh cm(-2), high rate capability of 3 mAh cm(-2) under current of 6.8 mAcm(-2) (10 C), and stable cycling performance of 6.8 mAcm(-2) with a high mass loading of 7 mg cm(-2). The 3D integrated porous electrode constructing conveniently with the natural source paves new avenues towards future high-performance lithium batteries.
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