Carbon Energy

Carbon Energy

碳能源

  • 1区 中科院分区
  • Q1 JCR分区

期刊简介

《Carbon Energy》是由Wiley出版社创办的英文国际期刊(ISSN: 2637-9368,E-ISSN: 2637-9368),该期刊长期致力于物理化学领域的创新研究,主要研究方向为Multiple。作为SCIE收录期刊(JCR分区 Q1,中科院 1区),本刊采用OA开放获取模式(OA占比%),以发表物理化学领域等方向的原创性研究为核心(研究类文章占比82.88%%)。凭借严格的同行评审与高效编辑流程,期刊年载文量精选控制在111篇,确保学术质量与前沿性。成果覆盖Web of Science、Scopus等国际权威数据库,为学者提供推动材料科学领域高水平交流平台。

投稿咨询

投稿提示

Carbon Energy审稿周期约为 4 Weeks 。该刊近年未被列入国际预警名单,年发文量约111篇,录用竞争适中,主题需确保紧密契合材料科学前沿。投稿策略提示:避开学术会议旺季投稿以缩短周期,语言建议专业润色提升可读性。

  • 材料科学 大类学科
  • English 出版语言
  • 是否预警
  • SCIE 期刊收录
  • 111 发文量

中科院分区

中科院 SCI 期刊分区 2023年12月升级版

Top期刊 综述期刊 大类学科 小类学科
材料科学
1区
CHEMISTRY, PHYSICAL 物理化学 ENERGY & FUELS 能源与燃料 MATERIALS SCIENCE, MULTIDISCIPLINARY 材料科学:综合 NANOSCIENCE & NANOTECHNOLOGY 纳米科技
2区 2区 2区 2区

中科院 SCI 期刊分区 2022年12月升级版

Top期刊 综述期刊 大类学科 小类学科
材料科学
1区
CHEMISTRY, PHYSICAL 物理化学 ENERGY & FUELS 能源与燃料 MATERIALS SCIENCE, MULTIDISCIPLINARY 材料科学:综合 NANOSCIENCE & NANOTECHNOLOGY 纳米科技
1区 1区 1区 1区

JCR分区

按JIF指标学科分区 收录子集 分区 排名 百分位
学科:CHEMISTRY, PHYSICAL SCIE Q1 8 / 178

95.8%

学科:ENERGY & FUELS SCIE Q1 7 / 170

96.2%

学科:MATERIALS SCIENCE, MULTIDISCIPLINARY SCIE Q1 17 / 438

96.2%

学科:NANOSCIENCE & NANOTECHNOLOGY SCIE Q1 6 / 140

96.1%

按JCI指标学科分区 收录子集 分区 排名 百分位
学科:CHEMISTRY, PHYSICAL SCIE Q1 14 / 178

92.42%

学科:ENERGY & FUELS SCIE Q1 9 / 173

95.09%

学科:MATERIALS SCIENCE, MULTIDISCIPLINARY SCIE Q1 28 / 438

93.72%

学科:NANOSCIENCE & NANOTECHNOLOGY SCIE Q1 12 / 140

91.79%

CiteScore

CiteScore SJR SNIP CiteScore 排名
CiteScore:25.7 SJR:5.202 SNIP:2.505
学科类别 分区 排名 百分位
大类:Materials Science 小类:Materials Science (miscellaneous) Q1 7 / 196

96%

大类:Materials Science 小类:Renewable Energy, Sustainability and the Environment Q1 10 / 270

96%

大类:Materials Science 小类:Materials Chemistry Q1 12 / 317

96%

大类:Materials Science 小类:Energy (miscellaneous) Q1 4 / 78

95%

期刊发文

  • Cellulose nanofiber-derived carbon aerogel for advanced room-temperature sodium-sulfur batteries

    Author: Yang, Wu; Yang, Wang; Zou, Ren; Huang, Yongfa; Lai, Haihong; Chen, Zehong; Peng, Xinwen

    Journal: CARBON ENERGY. 2023; Vol. 5, Issue 1, pp. -. DOI: 10.1002/cey2.203

  • Recent advances in solar-driven CO2 reduction over g-C3N4-based photocatalysts

    Author: Xu, Quanlong; Xia, Zhihua; Zhang, Jingmei; Wei, Zhiyi; Guo, Qin; Jin, Huile; Tang, Hua; Li, Shouzhu; Pan, Xuecong; Su, Zhi; Wang, Shun

    Journal: CARBON ENERGY. 2023; Vol. 5, Issue 2, pp. -. DOI: 10.1002/cey2.205

  • Vanadium-modified hard carbon spheres with sufficient pseudographitic domains as high-performance anode for sodium-ion batteries

    Author: Chen, Fuping; Di, Yujie; Su, Qiong; Xu, Dongming; Zhang, Yangpu; Zhou, Shuang; Liang, Shuquan; Cao, Xinxin; Pan, Anqiang

    Journal: CARBON ENERGY. 2023; Vol. 5, Issue 2, pp. -. DOI: 10.1002/cey2.191

  • Localized-domains staging structure and evolution in lithiated graphite

    Author: Weng, Suting; Wu, Siyuan; Liu, Zepeng; Yang, Gaojing; Liu, Xiaozhi; Zhang, Xiao; Zhang, Chu; Liu, Qiuyan; Huang, Yao; Li, Yejing; Ates, Mehmet N.; Su, Dong; Gu, Lin; Li, Hong; Chen, Liquan; Xiao, Ruijuan; Wang, Zhaoxiang; Wang, Xuefeng

    Journal: CARBON ENERGY. 2023; Vol. 5, Issue 1, pp. -. DOI: 10.1002/cey2.224

  • A high-performance transition-metal phosphide electrocatalyst for converting solar energy into hydrogen at 19.6% STH efficiency

    Author: Zhang, Hua; Aierke, Abuduwayiti; Zhou, Yingtang; Ni, Zitao; Feng, Ligang; Chen, Anran; Wagberg, Thomas; Hu, Guangzhi

    Journal: CARBON ENERGY. 2023; Vol. 5, Issue 1, pp. -. DOI: 10.1002/cey2.217

  • Engineering homotype heterojunctions in hard carbon to induce stable solid electrolyte interfaces for sodium-ion batteries

    Author: Yu, Chengxin; Li, Yu; Ren, Haixia; Qian, Ji; Wang, Shuo; Feng, Xin; Liu, Mingquan; Bai, Ying; Wu, Chuan

    Journal: CARBON ENERGY. 2023; Vol. 5, Issue 1, pp. -. DOI: 10.1002/cey2.220

  • Electrocatalytic CO2 reduction towards industrial applications

    Author: Xu, Dezhi; Li, Kangkang; Jia, Baohua; Sun, Wenping; Zhang, Wei; Liu, Xue; Ma, Tianyi

    Journal: CARBON ENERGY. 2023; Vol. 5, Issue 1, pp. -. DOI: 10.1002/cey2.230

  • Atmosphere-free activation methodology for holey graphene/cellulose nanofiber-based film electrode with highly efficient capacitance performance

    Author: Wu, Heng; Yuan, Wenyu; Yuan, Xiaowen; Cheng, Laifei

    Journal: CARBON ENERGY. 2023; Vol. 5, Issue 1, pp. -. DOI: 10.1002/cey2.229