Dataset Calculated crystal structures of formamidinium–lead–chloride–dimethyl sulfoxide and related compounds

Noriko Saito SAMURAI ORCID (Research Center for Functional Materials/Electric and Electronic Materials Field/Ceramics Surface and Interface Group) ; Yoshitaka Matsushita SAMURAI ORCID (Research Network and Facility Services Division/Materials Analysis Station) ; Takeo Ohsawa SAMURAI ORCID (Research Center for Functional Materials/Electric and Electronic Materials Field/Electroceramics Group) ; Hiroyo Segawa SAMURAI ORCID (Research Center for Functional Materials/Electric and Electronic Materials Field/Electroceramics Group) ; Naoki Ohashi SAMURAI ORCID (Research Center for Functional Materials/Electric and Electronic Materials Field/Electroceramics Group)

Collection

Citation
Noriko Saito, Yoshitaka Matsushita, Takeo Ohsawa, Hiroyo Segawa, Naoki Ohashi. Calculated crystal structures of formamidinium–lead–chloride–dimethyl sulfoxide and related compounds. https://doi.org/10.48505/nims.3849
SAMURAI

Description:

(abstract)

The dataset provides the calculated crystal structures of Formamidinium–lead–chloride–dimethyl sulfoxide solvate, FAPbCl3–DMSO, and related compounds (CsPbCl3-DMSO, CsPbCl3, CsCl, DMSO-lattice, FAPbCl3, FACl, PbCl2) listed in Table 3 of https://doi.org/10.1039/D2CE00889K.

Description:

(abstract)

The reproduction of the refined crystal structures was examined by total-energy calculations using DFT method. The total energy calculations were performed using a plane-wave-based pseudo-potential method implemented in the CASTEP code, which is included in the Materials Studio Package (Dassault Systèmes, Tokyo, Japan). Norm-conserved pseudopotentials were generated using the CASTEP code, and a generalized gradient approximation optimized for solids, referred to as PBESol, was adopted as the exchange-correlation functional for self-consistent total energy calculations. The plane-wave cut-off energy was set to 1050 eV, and two sampling points on a Monkhorst–Pack grid were used for k-point sampling. In order to achieve efficient conversion of self-consistent field calculations, ensemble DFT was applied. Structural optimization was performed with the Broyden–Fletcher–Goldfarb–Shanno scheme. Convergence of the energy minimization and structural relaxation was judged with following tolerances: tolerance for electronic energy mineralization was set to 5.0×10-7 eV per atom, energy tolerance for structural optimization to 5.0×10-6 eV per atom, force tolerance to 0.01 eV/Å, stress tolerance to 0.02 GPa, and atomic displacement tolerance to 5.0×10-4 Å.

Data origin type: simulation

Rights:

Keyword: hybrid halide, formamidinium, dimethyl sulfoxide (DMSO), lead halide

Date published: 2022-11-03

Publisher: Royal Society of Chemistry

Journal:

  • CRYSTENGCOMM (ISSN: 14668033) vol. 24 issue. 45 p. 7996-8004

Funding:

  • MEXT JPMXP0112101001 (Elements Strategy Initiative to Form Core Research Center for Electronic Materials: Tokodai Institute of Elements Strategy)
  • JSPS 21K04646 (結晶構造の対称性に着目した有機ー無機ハイブリッドハライド結晶の合成と機能探索)

Manuscript type: Not a journal article

MDR DOI: https://doi.org/10.48505/nims.3849

First published URL: https://doi.org/10.1039/D2CE00889K

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Updated at: 2024-01-05 22:13:14 +0900

Published on MDR: 2023-02-01 09:42:52 +0900

Software / ソフトウェア

Name / 名称 : CASTEP

Version / バージョン :

Description / 説明 :

Software ID / ソフトウェアID :

Computational method / 計算手法

Description / 説明 :

Category / カテゴリ : density functional theory or electronic structure MatVoc

Category description / カテゴリの説明 :

Calculated at / 計算時刻 :

Filename Size
Filename FAPbCl3-DMSO.cif
chemical/x-cif
Size 1.72 KB Detail
Filename FAPbCl3.cif
chemical/x-cif
Size 1.46 KB Detail
Filename CsPbCl3-DMSO.cif
chemical/x-cif
Size 3.47 KB Detail
Filename CsPbCl3.cif
chemical/x-cif
Size 999 Bytes Detail
Filename FACl.cif
chemical/x-cif
Size 1.13 KB Detail
Filename CsCl.cif (Thumbnail)
chemical/x-cif
Size 1.22 KB Detail
Filename PbCl2.cif
chemical/x-cif
Size 939 Bytes Detail
Filename DIMSO-lattice.cif
chemical/x-cif
Size 1.18 KB Detail