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Design and discovery of 2D MXene based tunable quantum materials

研究課題

研究課題/領域番号 23K04356
研究種目

基盤研究(C)

配分区分基金
応募区分一般
審査区分 小区分26010:金属材料物性関連
研究機関横浜国立大学

研究代表者

RAEBIGER HANNES  横浜国立大学, 大学院工学研究院, 教授 (20531403)

研究期間 (年度) 2023-04-01 – 2026-03-31
研究課題ステータス 交付 (2023年度)
配分額 *注記
4,680千円 (直接経費: 3,600千円、間接経費: 1,080千円)
2025年度: 1,430千円 (直接経費: 1,100千円、間接経費: 330千円)
2024年度: 1,560千円 (直接経費: 1,200千円、間接経費: 360千円)
2023年度: 1,690千円 (直接経費: 1,300千円、間接経費: 390千円)
キーワードMXene / MAX phase / ab initio / Materials design / two-dimensional / polymorphism
研究開始時の研究の概要

High-throughput computics is used to explore MAX phase and MXene based two-dimensional materials. We aim to design and discover new families of MXene based quantum materials with tunable electronic and magnetic properties.

研究実績の概要

We investigate MXenes and MAX phases by first principles calculation to discover new quantum materials. We describe functionalization of MXene systems by organic molecules, and discover new superlattice MAX phases with in-plane reconstruction into 0-dimensional clusters, 1-dimensional chains, and complex 2-dimensional networks. In particular the latter work outlines new design principles to design and discover new MAX phase materials. Here, phonon instabilities are investigated in detail, and new structures are discovered by following the phonon instabilities.

現在までの達成度 (区分)
現在までの達成度 (区分)

2: おおむね順調に進展している

理由

We have studied both functionalization of MXenes and MAX phases by absorbant molecules, as well as structural modulation. Both methods offer systematic routes to design and discover new MXene and MAX phase based quantum materials. In particular, we have shown that by following phonon instabilities, completely new superstructured stable phases can be discovered. While quantum materials have yet to be discovered, in particular the discovered low-dimensional reconstructed MAX phases, as well as discovered kagome-lattice like structures offer great potential for novel quantum materials.

今後の研究の推進方策

Our immediate plans are to investigate quantum properties of discovered reconstruted MAX phases. We plan to publish detailed investigation of electronic properties, paying special attention to electron correlation effects. Having shown that careful analysis of phonon instabilities offers a systematic route to discover new superstructured materials, we will pursue this route to discover more related materials, as well as investigate their quantum properties. We expect that the structural (phonon) instabilities that we use to discover new materials are also associated with electronic correlation effects, which will identify quantum materials.

報告書

(1件)
  • 2023 実施状況報告書
  • 研究成果

    (2件)

すべて 2023

すべて 雑誌論文 (2件) (うち国際共著 2件、 査読あり 2件)

  • [雑誌論文] Superlattice MAX Phases with A-Layers Reconstructed into 0D-Clusters, 1D-Chains, and 2D-Lattices2023

    • 著者名/発表者名
      Khazaei Mohammad, Bae Soungmin, Khaledialidusti Rasoul, Ranjbar Ahmad, Komsa Hannu-Pekka, Khazaei Somayeh, Bagheri Mohammad, Wang Vei, Mochizuki Yasuhide, Kawamura Mitsuaki, Cuniberti Gianaurelio, Allaei S. Mehdi Vaez, Ohno Kaoru, Hosono Hideo, Raebiger Hannes
    • 雑誌名

      The Journal of Physical Chemistry C

      巻: 127 号: 30 ページ: 14906-14913

    • DOI

      10.1021/acs.jpcc.3c02233

    • 関連する報告書
      2023 実施状況報告書
    • 査読あり / 国際共著
  • [雑誌論文] Electronic and optical properties of C60/Ti2CT2 and C60/Ti3C2T2 (T <mml:math xmlns:mml="http://www.w3.org/1998/Math/MathML" altimg="si128.svg" display="inline" id="d1e674"><mml:mo>=</mml:mo></mml:math> F, OH, or O) Heterostructures2023

    • 著者名/発表者名
      Hajiahmadi Zahra、Khazaei Mohammad、Ranjbar Ahmad、Mostafaei Alireza、Chertopalov Sergii、K?hne Thomas D.、Cuniberti Gianaurelio、Hosano Hamid、Raebiger Hannes、Ohno Kaoru
    • 雑誌名

      Computational Materials Science

      巻: 228 ページ: 112364-112364

    • DOI

      10.1016/j.commatsci.2023.112364

    • 関連する報告書
      2023 実施状況報告書
    • 査読あり / 国際共著

URL: 

公開日: 2023-04-13   更新日: 2024-12-25  

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