Shape-controlled template-driven growth of large CuS hexagonal nanoplates
Ultrathin 2D metal sulphide nanostructures have revealed extraordinary properties, applications and thus, the subject matter of current research. However, synthesis of shape-controlled large-sized (approximately few µms) plates/sheets are not well known, specifically due to the colloidal synthesis p...
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Published in | Bulletin of materials science Vol. 43; no. 1; p. 323 |
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Main Authors | , , |
Format | Journal Article |
Language | English |
Published |
Bangalore
Indian Academy of Sciences
01.12.2020
Springer Nature B.V |
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Abstract | Ultrathin 2D metal sulphide nanostructures have revealed extraordinary properties, applications and thus, the subject matter of current research. However, synthesis of shape-controlled large-sized (approximately few µms) plates/sheets are not well known, specifically due to the colloidal synthesis process resulting in the distribution of shape/size. Here, we report the template-assisted growth of large-sized CuS nanoplates (~0.5–9 µm) by simple wet chemistry, where the Au microplates serve as a template. The Au microplates act as seed and facilitate the Au-Cu via epitaxial growth of Cu. Later, the Au-Cu acts as the source of Cu and in presence of aqueous S
2−
, the CuS hexagons form, however, the edge of the hexagons are parallel to the Au seed and thus, hinting to be controlled by the seed. Interestingly, the substrate independent Au-Cu can even provide the platform for the spiral nanoplates, by simply decorating the outer surface of the Cu with pillar-like features. |
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AbstractList | Ultrathin 2D metal sulphide nanostructures have revealed extraordinary properties, applications and thus, the subject matter of current research. However, synthesis of shape-controlled large-sized (approximately few µms) plates/sheets are not well known, specifically due to the colloidal synthesis process resulting in the distribution of shape/size. Here, we report the template-assisted growth of large-sized CuS nanoplates (~0.5–9 µm) by simple wet chemistry, where the Au microplates serve as a template. The Au microplates act as seed and facilitate the Au-Cu via epitaxial growth of Cu. Later, the Au-Cu acts as the source of Cu and in presence of aqueous S2−, the CuS hexagons form, however, the edge of the hexagons are parallel to the Au seed and thus, hinting to be controlled by the seed. Interestingly, the substrate independent Au-Cu can even provide the platform for the spiral nanoplates, by simply decorating the outer surface of the Cu with pillar-like features. Ultrathin 2D metal sulphide nanostructures have revealed extraordinary properties, applications and thus, the subject matter of current research. However, synthesis of shape-controlled large-sized (approximately few µms) plates/sheets are not well known, specifically due to the colloidal synthesis process resulting in the distribution of shape/size. Here, we report the template-assisted growth of large-sized CuS nanoplates (~0.5–9 µm) by simple wet chemistry, where the Au microplates serve as a template. The Au microplates act as seed and facilitate the Au-Cu via epitaxial growth of Cu. Later, the Au-Cu acts as the source of Cu and in presence of aqueous S 2− , the CuS hexagons form, however, the edge of the hexagons are parallel to the Au seed and thus, hinting to be controlled by the seed. Interestingly, the substrate independent Au-Cu can even provide the platform for the spiral nanoplates, by simply decorating the outer surface of the Cu with pillar-like features. |
ArticleNumber | 323 |
Author | Sow, Chaitali Mettela, Gangaiah Kulkarni, Giridhar U |
Author_xml | – sequence: 1 givenname: Chaitali orcidid: 0000-0003-1582-5497 surname: Sow fullname: Sow, Chaitali organization: Chemistry and Physics of Materials Unit, Jawaharlal Nehru Centre for Advanced Scientific Research – sequence: 2 givenname: Gangaiah surname: Mettela fullname: Mettela, Gangaiah organization: Chemistry and Physics of Materials Unit, Jawaharlal Nehru Centre for Advanced Scientific Research – sequence: 3 givenname: Giridhar U orcidid: 0000-0002-4317-1307 surname: Kulkarni fullname: Kulkarni, Giridhar U email: kulkarni@jncasr.ac.in organization: Chemistry and Physics of Materials Unit, Jawaharlal Nehru Centre for Advanced Scientific Research |
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Keywords | spiral nanoplates template-driven growth Hexagonal plates semiconductors pillar structure |
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Snippet | Ultrathin 2D metal sulphide nanostructures have revealed extraordinary properties, applications and thus, the subject matter of current research. However,... |
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SubjectTerms | Aqueous solutions Chemical synthesis Chemistry and Materials Science Colloiding Copper Copper sulfides Engineering Epitaxial growth Ethanol Glass substrates Gold Hexagons Materials Science Metal sulfides Morphology Nitrogen Potassium SAMat Focus Issue Scanning electron microscopy Sodium Substrates Surfactants |
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Title | Shape-controlled template-driven growth of large CuS hexagonal nanoplates |
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