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D-Index & Metrics

Materials Science

D-Index
63
Citations
11312
World Ranking
6306
National Ranking
248

Louis F. J. Piper publication distribution in Materials Science in 2026

The chart shows the distribution of publications by all Research.com ranked scientists in the field of Materials Science in 2026. The highlighted bar marks where Louis F. J. Piper sits on this spectrum.

50–69 publications: 28 scientists 70–89 publications: 152 scientists 90–109 publications: 356 scientists 110–129 publications: 487 scientists 130–149 publications: 723 scientists 150–169 publications: 835 scientists 170–189 publications: 850 scientists 190–209 publications: 891 scientists 210–229 publications: 862 scientists 230–249 publications: 766 scientists 250–269 publications: 726 scientists 270–289 publications: 665 scientists 290–309 publications: 593 scientists 310–329 publications: 537 scientists 330–349 publications: 477 scientists 350–369 publications: 440 scientists 370–389 publications: 356 scientists 390–409 publications: 321 scientists 410–429 publications: 256 scientists 430–449 publications: 246 scientists 450–469 publications: 216 scientists 470–489 publications: 212 scientists 490–509 publications: 174 scientists 510–529 publications: 194 scientists 530–549 publications: 162 scientists 550–569 publications: 131 scientists 570–589 publications: 111 scientists 590–609 publications: 103 scientists 610–629 publications: 99 scientists 630–649 publications: 77 scientists 650–669 publications: 92 scientists 670–689 publications: 56 scientists 690–709 publications: 53 scientists 710–729 publications: 53 scientists 730–749 publications: 38 scientists 750–769 publications: 52 scientists 770–789 publications: 43 scientists 790–809 publications: 38 scientists 810–829 publications: 34 scientists 830–849 publications: 25 scientists 850–869 publications: 18 scientists 870–889 publications: 20 scientists 890–909 publications: 24 scientists 910–929 publications: 27 scientists 930–949 publications: 20 scientists 950–969 publications: 17 scientists 970–989 publications: 10 scientists 990–1,009 publications: 16 scientists 1,010–1,029 publications: 13 scientists 1,030–1,049 publications: 12 scientists 1,050–1,069 publications: 9 scientists 1,070–1,089 publications: 8 scientists 1,090–1,109 publications: 7 scientists 1,110–1,129 publications: 9 scientists 1,130–1,149 publications: 2 scientists 1,150–1,162 publications: 5 scientists 1,163+ publications: 100 scientists
50 publications 1,163+

This scientist: 299 publications — 60th percentile

60% of scientists in this discipline score the same or lower.

The last bar groups every scientist with 1,163 publications or more.

Louis F. J. Piper D-index placement in Materials Science in 2026

The chart shows the D-index (discipline H-index) distribution of Materials Science scientists ranked by Research.com in 2026. The highlighted bar marks where Louis F. J. Piper sits on this spectrum.

40–41 D-Index: 211 scientists 42–43 D-Index: 450 scientists 44–45 D-Index: 612 scientists 46–47 D-Index: 612 scientists 48–49 D-Index: 598 scientists 50–51 D-Index: 657 scientists 52–53 D-Index: 667 scientists 54–55 D-Index: 621 scientists 56–57 D-Index: 597 scientists 58–59 D-Index: 610 scientists 60–61 D-Index: 587 scientists 62–63 D-Index: 606 scientists 64–65 D-Index: 533 scientists 66–67 D-Index: 490 scientists 68–69 D-Index: 469 scientists 70–71 D-Index: 378 scientists 72–73 D-Index: 421 scientists 74–75 D-Index: 359 scientists 76–77 D-Index: 323 scientists 78–79 D-Index: 299 scientists 80–81 D-Index: 230 scientists 82–83 D-Index: 210 scientists 84–85 D-Index: 195 scientists 86–87 D-Index: 203 scientists 88–89 D-Index: 175 scientists 90–91 D-Index: 175 scientists 92–93 D-Index: 142 scientists 94–95 D-Index: 121 scientists 96–97 D-Index: 117 scientists 98–99 D-Index: 107 scientists 100–101 D-Index: 88 scientists 102–103 D-Index: 85 scientists 104–105 D-Index: 68 scientists 106–107 D-Index: 62 scientists 108–109 D-Index: 57 scientists 110–111 D-Index: 45 scientists 112–113 D-Index: 49 scientists 114–115 D-Index: 50 scientists 116–117 D-Index: 34 scientists 118–119 D-Index: 38 scientists 120–121 D-Index: 37 scientists 122–123 D-Index: 29 scientists 124–125 D-Index: 28 scientists 126–127 D-Index: 24 scientists 128–129 D-Index: 33 scientists 130–131 D-Index: 28 scientists 132–133 D-Index: 21 scientists 134–135 D-Index: 20 scientists 136–137 D-Index: 23 scientists 138–139 D-Index: 17 scientists 140–141 D-Index: 12 scientists 142–143 D-Index: 17 scientists 144–145 D-Index: 21 scientists 146–147 D-Index: 13 scientists 148–149 D-Index: 11 scientists 150–151 D-Index: 14 scientists 152–153 D-Index: 13 scientists 154–155 D-Index: 9 scientists 156–157 D-Index: 10 scientists 158–159 D-Index: 7 scientists 160–161 D-Index: 4 scientists 162–163 D-Index: 4 scientists 164 D-Index: 3 scientists 165+ D-Index: 98 scientists
40 D-Index 165+

This scientist: 63 D-Index — 53rd percentile

53% of scientists in this discipline score the same or lower.

The last bar groups every scientist with 165 D-Index or more.

Overview

Louis F. J. Piper is affiliated with the University of Warwick in the United Kingdom. Their research primarily spans engineering and materials science, with a more specialized focus on electrical and electronic engineering, materials chemistry, automotive engineering, polymers and plastics, and electronic, optical and magnetic materials.

Their scientific work centers on several main topics, including:

  • Advancements in Battery Materials
  • Advanced Battery Materials and Technologies
  • Advanced Battery Technologies Research
  • Semiconductor materials and devices
  • Transition Metal Oxide Nanomaterials
  • Extraction and Separation Processes
  • Supercapacitor Materials and Fabrication

Louis F. J. Piper has published extensively, with frequent appearances in venues such as ECS Meeting Abstracts, ACS Energy Letters, Journal of The Electrochemical Society, Journal of Materials Chemistry A, and Chemistry of Materials.

Among their recent papers are:

  • Pushing the limit of 3d transition metal-based layered oxides that use both cation and anion redox for energy storage, 2022, Nature Reviews Materials
  • What is the Role of Nb in Nickel-Rich Layered Oxide Cathodes for Lithium-Ion Batteries?, 2021, ACS Energy Letters
  • Ultrafast ion transport at a cathode-electrolyte interface and its strong dependence on salt solvation, 2020, Nature Energy
  • Quantifying the Capacity Contributions during Activation of Li2MnO3, 2020, ACS Energy Letters
  • Dissociate lattice oxygen redox reactions from capacity and voltage drops of battery electrodes, 2020, Science Advances

Collaborations are a notable aspect of their career, with frequent co-authors including Ashok S. Menon, Galo J. Páez Fajardo, Mateusz Zuba, Zachary W. Lebens-Higgins, and Clare P. Grey.

Best Publications

  • Nature of the Band Gap of In2O3 Revealed by First-Principles Calculations and X-Ray Spectroscopy

    Aron Walsh;Juarez L.F. Da Silva;Su Huai Wei;C. Körber

  • High Reversibility of Lattice Oxygen Redox in Na-ion and Li-ion Batteries Quantified by Direct Bulk Probes of both Anionic and Cationic Redox Reactions

    Kehua Dai;Jinpeng Wu;Zengqing Zhuo;Qinghao Li

  • Pushing the limit of 3d transition metal-based layered oxides that use both cation and anion redox for energy storage

    Unknown

  • High Reversibility of Lattice Oxygen Redox Quantified by Direct Bulk Probes of Both Anionic and Cationic Redox Reactions

    Kehua Dai;Kehua Dai;Jinpeng Wu;Jinpeng Wu;Zengqing Zhuo;Zengqing Zhuo;Qinghao Li;Qinghao Li

  • Origin of electron accumulation at wurtzite InN surfaces

    I Mahboob;TD Veal;Lfj Piper;Christopher F McConville

  • Editors' Choice—Growth of Ambient Induced Surface Impurity Species on Layered Positive Electrode Materials and Impact on Electrochemical Performance

    Nicholas V. Faenza;Lejandro Bruce;Zachary W. Lebens-Higgins;Irene Plitz

  • What is the Role of Nb in Nickel-Rich Layered Oxide Cathodes for Lithium-Ion Batteries?

    Fengxia Xin;Hui Zhou;Yanxu Zong;Mateusz Zuba

  • Perovskite Sr-Doped LaCrO3 as a New p-Type Transparent Conducting Oxide

    Kelvin H. L. Zhang;Yingge Du;Alexandra Papadogianni;Oliver Bierwagen

  • Reaction Heterogeneity in LiNi0.8Co0.15Al0.05O2 Induced by Surface Layer

    Antonin Grenier;Hao Liu;Kamila M. Wiaderek;Zachary W. Lebens-Higgins

  • Electronic and transport properties of Li-doped NiO epitaxial thin films

    J. Y. Zhang;W. W. Li;R. L. Z. Hoye;J. L. MacManus-Driscoll

  • Ultrafast ion transport at a cathode–electrolyte interface and its strong dependence on salt solvation

    Bohua Wen;Zhi Deng;Ping-Chun Tsai;Zachary W. Lebens-Higgins

  • Origin of the Bipolar Doping Behavior of SnO from X-ray Spectroscopy and Density Functional Theory

    N. F. Quackenbush;J. P. Allen;D. O. Scanlon;S. Sallis

  • Origin of the n-type conductivity of InN: the role of positively charged dislocations

    L. F. J. Piper;T. D. Veal;C. F. McConville;H. Lu

  • Determination of the branch-point energy of InN: Chemical trends in common-cation and common-anion semiconductors

    Pdc King;TD Veal;PH Jefferson;SA Hatfield

  • Mapping polaronic states and lithiation gradients in individual V2O5 nanowires.

    Luis R. De Jesus;Gregory A. Horrocks;Yufeng Liang;Abhishek Parija

  • Quantifying the Capacity Contributions during Activation of Li2MnO3

    Jatinkumar Rana;Joseph K. Papp;Zachary Lebens-Higgins;Mateusz Zuba

  • Quantized electron accumulation states in indium nitride studied by angle-resolved photoemission spectroscopy.

    Leyla Colakerol;TD Veal;Hae-Kyung Jeong;Lukasz Plucinski

  • Direct Observation of Electrostatically Driven Band Gap Renormalization in a Degenerate Perovskite Transparent Conducting Oxide

    Z. Lebens-Higgins;D. O. Scanlon;H. Paik;S. Sallis

  • Dissociate lattice oxygen redox reactions from capacity and voltage drops of battery electrodes.

    Jinpeng Wu;Jinpeng Wu;Jinpeng Wu;Zengqing Zhuo;Zengqing Zhuo;Xiaohui Rong;Kehua Dai;Kehua Dai

  • Band Gap Dependence on Cation Disorder in ZnSnN2 Solar Absorber

    Tim D. Veal;Nathaniel Feldberg;Nicholas F. Quackenbush;Wojciech M. Linhart

  • Electronic Structure of C60/Phthalocyanine/ITO Interfaces Studied using Soft X-ray Spectroscopies

    S. W. Cho;L. F. J. Piper;A. DeMasi;A. R. H. Preston

  • Room Temperature Metallic Conductivity in a Metal-Organic Framework Induced by Oxidation.

    Andrew J Clough;Nicholas M Orchanian;Jonathan M Skelton;Abbey J Neer

  • Automated generation and ensemble-learned matching of X-ray absorption spectra

    Chen Zheng;Kiran Mathew;Chi Chen;Yiming Chen

Frequent Co-Authors

M. Stanley Whittingham
M. Stanley Whittingham Binghamton University
Tim D. Veal
Tim D. Veal University of Liverpool
Darrell G. Schlom
Darrell G. Schlom Cornell University
David O. Scanlon
David O. Scanlon University College London
Joseph C. Woicik
Joseph C. Woicik National Institute of Standards and Technology
Shyue Ping Ong
Shyue Ping Ong University of California, San Diego
Wanli Yang
Wanli Yang Lawrence Berkeley National Laboratory
Christopher McConville
Christopher McConville Deakin University
Glenn G. Amatucci
Glenn G. Amatucci Rutgers, The State University of New Jersey
Sarbajit Banerjee
Sarbajit Banerjee Texas A&M University

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