Low-temperature one-pot synthesis of tin(II) sulfide nanocrystalline thin films

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Resumo

Photosensitive thin films of tin (II) sulfide with p-type conductivity and a band gap of 1.03 ± 0.09 eV have been obtained within the framework of the principles of «green chemistry» using the one-pot approach. In order to expand the range of sulfidizers used in the technology of deposition of thin nanostructured SnS films by chemical deposition, the efficiency of using sodium thiosulfate solutions is shown. It has been found that thin SnS films with good adhesion to a dielectric substrate and a size of coherent scattering regions of about 30 nm can be obtained as a result of a chemical reaction of the hydrolytic decomposition of thiosulfate ions. The conditions for obtaining SnS are substantiated by the thermodynamic analysis of ionic equilibria. Quantum-chemical calculations show that the p-type conductivity of the synthesized SnS films is most likely due to tin vacancies.

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Sobre autores

N. Kozhevnikova

Institute of Solid State Chemistry UB RAS; Ural Federal University

Autor responsável pela correspondência
Email: kozhevnikova@ihim.uran.ru
Rússia, Ekaterinburg; Ekaterinburg

L. Maskaeva

Ural Federal University; Ural Institute of State Fire Service of EMERCOM of Russia

Email: kozhevnikova@ihim.uran.ru
Rússia, Ekaterinburg; Ekaterinburg

A. Enyashin

Institute of Solid State Chemistry UB RAS

Email: kozhevnikova@ihim.uran.ru
Rússia, Ekaterinburg

O. Lipina

Institute of Solid State Chemistry UB RAS

Email: kozhevnikova@ihim.uran.ru
Rússia, Ekaterinburg

A. Tyutyunnik

Institute of Solid State Chemistry UB RAS

Email: kozhevnikova@ihim.uran.ru
Rússia, Ekaterinburg

I. Selyanin

Institute of Solid State Chemistry UB RAS

Email: kozhevnikova@ihim.uran.ru
Rússia, Ekaterinburg

I. Baklanova

Institute of Solid State Chemistry UB RAS

Email: kozhevnikova@ihim.uran.ru
Rússia, Ekaterinburg

M. Kuznetsov

Institute of Solid State Chemistry UB RAS

Email: kozhevnikova@ihim.uran.ru
Rússia, Ekaterinburg

V. Markov

Ural Federal University; Ural Institute of State Fire Service of EMERCOM of Russia

Email: kozhevnikova@ihim.uran.ru
Rússia, Ekaterinburg; Ekaterinburg

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2. Fig. 1. Thermodynamic analysis of the initial conditions for the formation of the SnS solid phase in an aqueous solution at 298 K: a - fractional concentrations () of the complexes SnOH+ (1), Sn(OH)2 (2), Sn(OH)3− (3), SnCit − (4), SnCit24− (5), Sn(OH)Cit2− (6), formed in the reaction system SnCl2–Na3Cit–Н2O; b — boundary conditions for the formation of solid phases SnS and Sn(OH)2 depending on the pH of the medium and the concentration of Na2S2O3 in the reaction system SnCl2–Na3Cit–Na2S2O3–H2O.

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3. Fig. 2. Experimental X-ray diffraction patterns of thin SnS films obtained from aqueous solutions of Na2S2O3 at 343 K and 60, 90, 120 min of synthesis. Experimental X-ray diffraction pattern of a glass-ceramic substrate. Calculated X-ray diffraction patterns of the -SnS orthorhombic structure (space group Pnma) and the main components of the glass-ceramic substrate: MgSiO3 and TiO2 (rutile).

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4. Fig. 3. Raman spectra of thin SnS films obtained from aqueous solutions of Na2S2O3 at 343 K and synthesis for 60, 90 and 120 min on glass-ceramic substrates.

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5. Fig. 4. Survey spectra of the surface of a SnS film deposited in a Na2S2O3 solution for 120 min: before (surface) and after (Ar+ for 1 min) etching with Ar+ ions (4 keV) to a depth of ~6 nm.

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6. Fig. 5. Surface topology and surface profiles along the normal, drawn through the center of the image, of thin SnS films obtained from aqueous solutions of Na2S2O3 at 343 K on glass-ceramic substrates, depending on the duration of synthesis, min: 30 (a), 60 (b), 90 (c), 120 (d). The size of the AFM images is 5 × 5 μm2.

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7. Fig. 6. Density of electronic states (DS) for (001)SnS slabs in the case of complete composition and lattice (a) and in the case of defects: SnS with vacancies in the Sn sublattice (b), SnS with substitution of S for O (c), SnS with adsorbed S atoms (g) and SnS with adsorbed O atoms (e). The Sn5s, Sn5p, and S3p states are indicated in red, orange, and yellow, respectively. The O2p or S3p states of substitutional impurities or adsorbates are indicated in blue. DFT GGA calculations.

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8. Fig. 7. Light transmission spectra T of thin SnS films deposited from Na2S2O3 solutions at 343 K (a). Graphic determination of the optical band gap Eg (b) and Urbach energy EU (c) for SnS films deposited for 60, 90 and 120 min.

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9. Fig. 8. Scheme of SnS film formation, according to the “cluster–particle” model (Witten–Sander model), in three-dimensional space.

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