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High-pressure synthesis of an arsenopyrite-type polymorph of ReS2 recoverable to ambient conditions

Umbertoluca Ranieri1,2,*, Simone Di Cataldo3, James Spender1, and Dominique Laniel1

  • *Contact author: umbertoluca.ranieri@ehu.eus
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Phys. Rev. Materials 10, 034008 – Published 30 March, 2026

DOI: https://doi.org/10.1103/4wwn-75qm

Abstract

Transition-metal dichalcogenides have attracted a great deal of attention in the context of two-dimensional materials because of their electronic properties, derived from their layered crystal structures, as well as their exfoliability. Surprisingly, the combination of high pressure and high temperature has been rarely exploited in the study of these systems, although it is expected to be an efficient way of inducing the formation of novel polymorphs. Here, rhenium and carbon disulfide were observed to react at a pressure of 54 GPa in a laser-heated diamond anvil cell to form a hitherto unknown polymorph of rhenium disulfide, denoted as mP12−ReS2 in the Pearson notation. Its crystal structure was solved and refined using synchrotron single-crystal x-ray diffraction data, revealing that mP12−ReS2 adopts the arsenopyrite structure type (space group P21/c). The structure is characterized by an extended three-dimensional framework of corner- and edge-sharing distorted ReS6 octahedra. Raman spectroscopy data further confirm the formation and structure of mP12−ReS2. Remarkably, upon decompression, mP12−ReS2 was recovered to ambient conditions and found to be stable in air. Thermodynamic, electronic, and bonding properties of the new phase were also studied computationally within the framework of density functional theory. From these, mP12−ReS2 is found to be semimetallic at 0 GPa, and to have a lower enthalpy than the previously known ReS2 polymorph from ∼0.5GPa onwards. The discovery of this new compound warrants further investigations of its physical properties, and may open new possibilities for applications.

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Phys. Rev. Materials 10, 034008– Published 30 March, 2026
  • Received 18 November 2025
  • Accepted 11 March 2026
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