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Literature DB >> 27991689

Incorporating Pyrrolic and Pyridinic Nitrogen into a Porous Carbon made from C₆₀ Molecules to Obtain Superior Energy Storage.

Ziqi Tan¹, Kun Ni¹, Guanxiong Chen¹, Wencong Zeng¹, Zhuchen Tao¹, Mujtaba Ikram¹, Qiubo Zhang², Huijuan Wang³, Litao Sun², Xianjun Zhu⁴, Xiaojun Wu^1,5,6, Hengxing Ji^1,7, Rodney S Ruoff^8,9, Yanwu Zhu^1,7.

Abstract

Nitrogen-doped porous carbon is obtained by KOH activation of C60 in an ammonia atmosphere. As an anode for Li-ion batteries, it shows a reversible capacity of up to ≈1900 mA h g-1 at 100 mA g-1 . Simulations suggest that the superior Li-ion storage may be related to the curvature of the graphenes and the presence of pyrrolic/pyridinic group dopants.

Entities: Chemical

Keywords: KOH activation; Li-ion batteries; fullerene; graphene; supercapacitors, porous carbon

Year: 2016 PMID： 27991689 DOI： 10.1002/adma.201603414

Source DB: PubMed Journal: Adv Mater ISSN： 0935-9648 Impact factor: 30.849

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Cited

6 in total

1. Hierarchical and Heterogeneous Porosity Construction and Nitrogen Doping Enabling Flexible Carbon Nanofiber Anodes with High Performance for Lithium-Ion Batteries.

Authors: Jun Liu; Yuan Liu; Jiaqi Wang; Xiaohu Wang; Xuelei Li; Jingshun Liu; Ding Nan; Junhui Dong
Journal: Materials (Basel) Date: 2022-06-21 Impact factor: 3.748

2. Polymer network-derived nitrogen/sulphur co-doped three-dimensionally interconnected hierarchically porous carbon for oxygen reduction, lithium-ion battery, and supercapacitor.

Authors: Zili Xu; Fangfang Zhang; Weiran Lin; Haining Zhang
Journal: RSC Adv Date: 2019-11-11 Impact factor: 4.036

6. Probing the activity of transition metal M and heteroatom N₄ co-doped in vacancy fullerene (M-N₄-C₆₄, M = Fe, Co, and Ni) towards the oxygen reduction reaction by density functional theory.

Authors: Siwei Yang; Chaoyu Zhao; Ruxin Qu; Yaxuan Cheng; Huiling Liu; Xuri Huang
Journal: RSC Adv Date: 2021-01-22 Impact factor: 3.361

6 in total

Incorporating Pyrrolic and Pyridinic Nitrogen into a Porous Carbon made from C₆₀ Molecules to Obtain Superior Energy Storage.

1. Hierarchical and Heterogeneous Porosity Construction and Nitrogen Doping Enabling Flexible Carbon Nanofiber Anodes with High Performance for Lithium-Ion Batteries.

2. Polymer network-derived nitrogen/sulphur co-doped three-dimensionally interconnected hierarchically porous carbon for oxygen reduction, lithium-ion battery, and supercapacitor.

3. Nickel-Fullerene Nanocomposites as Thermoelectric Materials.

4. Highly N-doped microporous carbon nanospheres with high energy storage and conversion efficiency.

5. A Sponge-Driven Elastic Interface for Lithium Metal Anodes.

6. Probing the activity of transition metal M and heteroatom N₄ co-doped in vacancy fullerene (M-N₄-C₆₄, M = Fe, Co, and Ni) towards the oxygen reduction reaction by density functional theory.

Incorporating Pyrrolic and Pyridinic Nitrogen into a Porous Carbon made from C60 Molecules to Obtain Superior Energy Storage.

1. Hierarchical and Heterogeneous Porosity Construction and Nitrogen Doping Enabling Flexible Carbon Nanofiber Anodes with High Performance for Lithium-Ion Batteries.

2. Polymer network-derived nitrogen/sulphur co-doped three-dimensionally interconnected hierarchically porous carbon for oxygen reduction, lithium-ion battery, and supercapacitor.

3. Nickel-Fullerene Nanocomposites as Thermoelectric Materials.

4. Highly N-doped microporous carbon nanospheres with high energy storage and conversion efficiency.

5. A Sponge-Driven Elastic Interface for Lithium Metal Anodes.

6. Probing the activity of transition metal M and heteroatom N4 co-doped in vacancy fullerene (M-N4-C64, M = Fe, Co, and Ni) towards the oxygen reduction reaction by density functional theory.

Incorporating Pyrrolic and Pyridinic Nitrogen into a Porous Carbon made from C₆₀ Molecules to Obtain Superior Energy Storage.

6. Probing the activity of transition metal M and heteroatom N₄ co-doped in vacancy fullerene (M-N₄-C₆₄, M = Fe, Co, and Ni) towards the oxygen reduction reaction by density functional theory.