Facilitating Lithium-Ion Diffusion in Layered Cathode Materials by Introducing Li
            <sup>+</sup>
            /Ni
            <sup>2+</sup>
            Antisite Defects for High-Rate Li-Ion Batteries

Tang, Zhongfeng; Wang, Sen; Liao, Jiaying; Wang, Shuo; He, Xiaodong; Pan, Bicai; He, Hong; Chen, Chunhua

doi:10.34133/2019/2198906

Cited by 50 publications

(56 citation statements)

References 45 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…This study suggests that novel migration channels of lithium ions can be generated by tuning the content of different phases in LiMn 0.5 Fe 0.5 PO 4 with the introduction of Li + /Fe 2+ antisite defects . In addition, the effect of Li + /Ni 2+ antisite defects on the properties of lithium ion diffusion in layered nickel‐rich cathode (LiNi 0.8 Co 0.15 Al 0.05 O 2 ) was analysed by Tang et al . The authors proposed that defective lithium ions with low valence in the nickel layer could weaken the repulsive interaction at the saddle point, and nickel ions with high valence in the lithium layer could push the neighbouring lithium ions by improved electrostatic repulsion.…”

Section: Factors Influencing Migration Of Lithium Ionsmentioning

confidence: 95%

“…The authors proposed that defective lithium ions with low valence in the nickel layer could weaken the repulsive interaction at the saddle point, and nickel ions with high valence in the lithium layer could push the neighbouring lithium ions by improved electrostatic repulsion. In their report, it was found that a proper concentration of Li + /Ni 2+ antisite defects (2.39 %) could improve the diffusion coefficient by one order of magnitude with superior rate capability (130 mAh g −1 at 10 C, 1 C=180 mA g −1 ) was observed in half cells prepared with Li/LiNi 0.8 Co 0.15 Al 0.05 O 2 …”

Section: Factors Influencing Migration Of Lithium Ionsmentioning

confidence: 99%

“…[110] This study suggests that novel migration channels of lithium ions can be generated by tuning the content of different phases in LiMn 0.5 Fe 0.5 PO 4 with the introduction of Li + /Fe 2 + antisite defects. [110] In addition, the effect of Li + /Ni 2 + antisite defects on the properties of lithium ion diffusion in layered nickel-rich cathode (LiNi 0.8 Co 0.15 Al 0.05 O 2 ) was analysed by Tang et al [111] The authors proposed that defective lithium ions with low valence in the nickel layer could weaken the repulsive interaction at the saddle point, and nickel ions with high valence in the lithium layer could push the neighbouring lithium ions by improved electrostatic repulsion. In their report, it was found that a proper concentration of Li + /Ni 2 + antisite defects (2.39 %) could improve the diffusion coefficient by one order of magnitude with superior rate capability (130 mAh g À 1 at 10 C, 1 C = 180 mA g À 1 ) was observed in half cells prepared with Li/LiNi 0.8 Co 0.15 Al 0.05 O 2 .…”

Section: Antisite Defectsmentioning

confidence: 99%

“…In their report, it was found that a proper concentration of Li + /Ni 2 + antisite defects (2.39 %) could improve the diffusion coefficient by one order of magnitude with superior rate capability (130 mAh g À 1 at 10 C, 1 C = 180 mA g À 1 ) was observed in half cells prepared with Li/LiNi 0.8 Co 0.15 Al 0.05 O 2 . [111]…”

Section: Antisite Defectsmentioning

confidence: 99%

“…[233] For instance, a three-dimensional structure (Si@LTO@C), where lithium titanate (LTO) pillars were introduced between the internal core (silicon nanoparticles) and external shell (multiscale carbon, including carbon black, carbon nanotubes, and few-layer graphene), was synthesised by a facile ball milling procedure at 400 rpm for 2 days. [232] The interplanar distances of 0.34, 0.31 and 0.48 nm are assigned to (002), (111), and (111) lattice planes of exterior graphite, interior silicon and LTO, respectively, Figure 23. (a) SEM image of porous nano-silicon after two successive post treatments (HCl and HF etching).…”

Section: Siliconmentioning

confidence: 99%

See 4 more Smart Citations

Recent Developments of Nanomaterials and Nanostructures for High‐Rate Lithium Ion Batteries

Zhou

et al. 2020

ChemSusChem

View full text Add to dashboard Cite

techniques, based on either electrochemical or radiology methodologies, are covered as well. In addition, state-of-the-art research findings are provided to illustrate the effect of nanomaterials and nanostructures in promoting the rate performance of lithium ion batteries. Finally, several challenges and shortcomings of applying nanotechnology in fabricating highrate lithium ion batteries are summarised.

show abstract

Section: Factors Influencing Migration Of Lithium Ionsmentioning

confidence: 95%

Section: Factors Influencing Migration Of Lithium Ionsmentioning

confidence: 99%

Section: Antisite Defectsmentioning

confidence: 99%

Section: Antisite Defectsmentioning

confidence: 99%

Section: Siliconmentioning

confidence: 99%

See 3 more Smart Citations

Recent Developments of Nanomaterials and Nanostructures for High‐Rate Lithium Ion Batteries

Zhou

et al. 2020

ChemSusChem

View full text Add to dashboard Cite

show abstract

Manipulating the Local Electronic Structure in Li‐Rich Layered Cathode Towards Superior Electrochemical Performance

Zheng

Zhang

et al. 2021

Adv Funct Materials

104

View full text Add to dashboard Cite

show abstract

Unraveling the Design Principles of Battery‐Supercapacitor Hybrid Devices: From Fundamental Mechanisms to Microstructure Engineering and Challenging Perspectives

Xing

et al. 2022

Advanced Energy Materials

View full text Add to dashboard Cite

To this end, electrical energy storage (e.g., batteries, supercapacitors) has become a key supporting technology for the utilization of intermittent energy sources (e.g., sun, wind, nuclear energy). [3] Clearly, lithium-ion batteries (LIBs) are by far the most important electrochemical energy storage devices available for portable electronics, power tools, and electric vehicles on the market. However, LIBs suffer from the slow ion diffusion in electrode bulk, resulting in commercially achievable energy density of 80-270 W h kg −1 , and power density typically <1000 W kg −1 at the cell level. Thus this greatly restricts their fast-charge and high-power applications. [4] In contrast, supercapacitors can be charged within seconds and provide higher power density (≥10 kW kg −1 ), but the energy stored is ≈1-2 orders of magnitude less than LIBs (basically ≤ 10 Wh kg −1 ). [5][6][7] Therefore, both conventional batteries and supercapacitors can't fully satisfy certain application scenarios such as hybrid electric vehicles (HEVs) and regenerative braking energy harvesting, which require high energy density, high power density, and long-term cycle stability. To overcome this issue, the new-type BSHDs, as one of the key energy storage technologies in multi-scenario applications, are recently developed to balance the gap between batteries and supercapacitors, and can simultaneously realize the "double high" trend of high energy density and high power density. [4] Although BSHDs have made some progress in recent years through the modification of cathode materials, anode materials, and electrolytes, as well as the use of pre-lithiation or other techniques, the reported energy density of commercialized BSHDs is still lower than 30 Wh kg −1 , [8,9] and no significant breakthrough improvement in "double high" goal of "100 Wh kg −1 & 100 kW kg −1 " has been achieved. Therefore, how to further promote the high-quality development of BSHDs is still worthy of in-depth investigation by academics and industrial counterparts. [8] As shown in Figure 1, the hybridization of batteries and supercapacitors for BSHDs can be divided into four types, including external serial hybrids (ESHs), external parallel hybrids (EPHs), internal serial hybrids (ISHs), and internal parallel hybrids (IPHs). [10] Based on the hybridization mode, BSHDs can be divided into two types: simple physical

show abstract

Facilitating Lithium-Ion Diffusion in Layered Cathode Materials by Introducing Li ⁺ /Ni ²⁺ Antisite Defects for High-Rate Li-Ion Batteries

Cited by 50 publications

References 45 publications

Recent Developments of Nanomaterials and Nanostructures for High‐Rate Lithium Ion Batteries

Recent Developments of Nanomaterials and Nanostructures for High‐Rate Lithium Ion Batteries

Manipulating the Local Electronic Structure in Li‐Rich Layered Cathode Towards Superior Electrochemical Performance

Unraveling the Design Principles of Battery‐Supercapacitor Hybrid Devices: From Fundamental Mechanisms to Microstructure Engineering and Challenging Perspectives

Contact Info

Product

Resources

About

Facilitating Lithium-Ion Diffusion in Layered Cathode Materials by Introducing Li + /Ni 2+ Antisite Defects for High-Rate Li-Ion Batteries

Cited by 50 publications

References 45 publications

Recent Developments of Nanomaterials and Nanostructures for High‐Rate Lithium Ion Batteries

Recent Developments of Nanomaterials and Nanostructures for High‐Rate Lithium Ion Batteries

Manipulating the Local Electronic Structure in Li‐Rich Layered Cathode Towards Superior Electrochemical Performance

Unraveling the Design Principles of Battery‐Supercapacitor Hybrid Devices: From Fundamental Mechanisms to Microstructure Engineering and Challenging Perspectives

Contact Info

Product

Resources

About

Facilitating Lithium-Ion Diffusion in Layered Cathode Materials by Introducing Li ⁺ /Ni ²⁺ Antisite Defects for High-Rate Li-Ion Batteries