Intercalation on Transition Metal Trichalcogenides via a Quasi‐Amorphous Phase with 1D Order

Author:

Fujioka Masaya1ORCID,Jeem Melbert2,Sato Kento1,Tanaka Masashi3,Morita Kazuki4,Shibuya Taizo5,Takahashi Kiyonori1,Iwasaki Suguru1,Miura Akira2,Nagao Masanori6,Demura Satoshi7,Sakata Hideaki8,Ono Madoka1,Kaiju Hideo9,Nishii Junji1

Affiliation:

1. Research Institute for Electronic Science Hokkaido University Sapporo Hokkaido 001–0020 Japan

2. Faculty of Engineering Hokkaido University Sapporo Hokkaido 060–8628 Japan

3. Graduate School of Engineering Kyushu Institute of Technology 1‐1 Sensui‐cho, Tobata Kitakyushu 804–8550 Japan

4. Department of Chemistry University of Pennsylvania Philadelphia Pennsylvania 19104‐6323 USA

5. System Platform Research Laboratories NEC Corporation 1753 Shimonumabe, Nakahara Kawasaki 211–8666 Japan

6. Center for Crystal Science and Technology University of Yamanashi Kofu Yamanashi 400‐0021 Japan

7. College of Science and Technology Nihon University 1‐8‐14 Surugadai, Kanda, Chiyoda‐ku Tokyo 101–8308 Japan

8. Department of Physics Tokyo University of Science 1–3 Kagurazaka Shinjyuku‐ku Tokyo 162–8601 Japan

9. Department of Applied Physics and Physico‐Informatics Faculty of Science and Technology Keio University Yokohama Kanagawa 223–8522 Japan

Abstract

AbstractIntercalation into 1D transition metal trichalcogenides (TMTs) in which fibers are bonded by a weak van der Waals force can be expected to create various intercalation compounds and develop unique physical properties according to the combination of the host materials and guest ions. However, structural changes via intercalation into 1D TMTs are not as simple as those in 2D transition metal dichalcogenides (TMDs) and are still not understood comprehensively. ZrTe3: a typical compound with a 1D trigonal prismatic structure, belongs to TMTs. Herein, through the Ag introduction to ZrTe3 via solid‐state intercalation, a novel crystal phase with a 1D octahedral structure and a quasi‐amorphous (QA) phase during the structural transition are discovered; the QA phase is a novel state of matter in which long‐range order is lost while retaining 1D order. Based on the Ag concentration, the transport properties are flexibly modulated from superconductivity to semiconductivity. Density functional theory calculations indicate the attraction between Ag ions and the pair diffusion due to their attraction. Furthermore, judging the attraction or repulsion between guest ions predicts whether to induce a QA phase or simple lattice expansion like the intercalation into 2D TMDs.

Funder

Japan Science and Technology Agency

Japan Society for the Promotion of Science

Publisher

Wiley

Subject

Electrochemistry,Condensed Matter Physics,Biomaterials,Electronic, Optical and Magnetic Materials

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