Silver/Gold Core-Shell Nanoprism-Based Plasmonic Nanoprobes for Highly Sensitive and Selective Detection of Hydrogen Sulfide
A simple and highly sensitive and selective hydrogen sulfide assay utilizing plasmonic nanoprobes is presented in this report. The assay employs the etching of silver in the Ag/Au core–shell nanoprisms, accompanied by surface plasmon resonance (SPR) signal depression and shift. Briefly, thin layers...
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| Published in | Chemistry : a European journal Vol. 21; no. 3; pp. 988 - 992 |
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| Main Authors | , , |
| Format | Journal Article |
| Language | English |
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Weinheim
WILEY-VCH Verlag
12.01.2015
WILEY‐VCH Verlag Wiley Subscription Services, Inc |
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| Abstract | A simple and highly sensitive and selective hydrogen sulfide assay utilizing plasmonic nanoprobes is presented in this report. The assay employs the etching of silver in the Ag/Au core–shell nanoprisms, accompanied by surface plasmon resonance (SPR) signal depression and shift. Briefly, thin layers of gold are first coated onto silver nanoprisms. The thin gold layer not only guarantees the high stability of the plasmonic nanoprobes but also ensures the high selectivity toward hydrogen sulfide. Once hydrogen sulfide is introduced, the silver core is converted to Ag2S mainly from its lateral walls. Moreover, the SPR peak is located in the NIR region that makes these plasmonic nanoprobes more appealing for the detection of hydrogen sulfide in real‐world samples and in in vivo applications.
Plasmonic nanoprobes: Plasmonic Ag/Au core–shell nanoprism nanoprobes are demonstrated for the detection of hydrogen sulfide based on the strong ability of hydrogen sulfide to etch the Ag/Au core–shell nanoprisms. In the presence of hydrogen sulfide, silver in the nanoprisms is converted to Ag2S at the defective lateral walls, accompanied by an obvious surface plasmon resonance (SPR) absorption depression and peak shift (see figure). |
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| AbstractList | A simple and highly sensitive and selective hydrogen sulfide assay utilizing plasmonic nanoprobes is presented in this report. The assay employs the etching of silver in the Ag/Au core-shell nanoprisms, accompanied by surface plasmon resonance (SPR) signal depression and shift. Briefly, thin layers of gold are first coated onto silver nanoprisms. The thin gold layer not only guarantees the high stability of the plasmonic nanoprobes but also ensures the high selectivity toward hydrogen sulfide. Once hydrogen sulfide is introduced, the silver core is converted to Ag2S mainly from its lateral walls. Moreover, the SPR peak is located in the NIR region that makes these plasmonic nanoprobes more appealing for the detection of hydrogen sulfide in real-world samples and in in vivo applications. A simple and highly sensitive and selective hydrogen sulfide assay utilizing plasmonic nanoprobes is presented in this report. The assay employs the etching of silver in the Ag/Au core–shell nanoprisms, accompanied by surface plasmon resonance (SPR) signal depression and shift. Briefly, thin layers of gold are first coated onto silver nanoprisms. The thin gold layer not only guarantees the high stability of the plasmonic nanoprobes but also ensures the high selectivity toward hydrogen sulfide. Once hydrogen sulfide is introduced, the silver core is converted to Ag 2 S mainly from its lateral walls. Moreover, the SPR peak is located in the NIR region that makes these plasmonic nanoprobes more appealing for the detection of hydrogen sulfide in real‐world samples and in in vivo applications. A simple and highly sensitive and selective hydrogen sulfide assay utilizing plasmonic nanoprobes is presented in this report. The assay employs the etching of silver in the Ag/Au core-shell nanoprisms, accompanied by surface plasmon resonance (SPR) signal depression and shift. Briefly, thin layers of gold are first coated onto silver nanoprisms. The thin gold layer not only guarantees the high stability of the plasmonic nanoprobes but also ensures the high selectivity toward hydrogen sulfide. Once hydrogen sulfide is introduced, the silver core is converted to Ag2S mainly from its lateral walls. Moreover, the SPR peak is located in the NIR region that makes these plasmonic nanoprobes more appealing for the detection of hydrogen sulfide in real-world samples and in in vivo applications.A simple and highly sensitive and selective hydrogen sulfide assay utilizing plasmonic nanoprobes is presented in this report. The assay employs the etching of silver in the Ag/Au core-shell nanoprisms, accompanied by surface plasmon resonance (SPR) signal depression and shift. Briefly, thin layers of gold are first coated onto silver nanoprisms. The thin gold layer not only guarantees the high stability of the plasmonic nanoprobes but also ensures the high selectivity toward hydrogen sulfide. Once hydrogen sulfide is introduced, the silver core is converted to Ag2S mainly from its lateral walls. Moreover, the SPR peak is located in the NIR region that makes these plasmonic nanoprobes more appealing for the detection of hydrogen sulfide in real-world samples and in in vivo applications. A simple and highly sensitive and selective hydrogen sulfide assay utilizing plasmonic nanoprobes is presented in this report. The assay employs the etching of silver in the Ag/Au core-shell nanoprisms, accompanied by surface plasmon resonance (SPR) signal depression and shift. Briefly, thin layers of gold are first coated onto silver nanoprisms. The thin gold layer not only guarantees the high stability of the plasmonic nanoprobes but also ensures the high selectivity toward hydrogen sulfide. Once hydrogen sulfide is introduced, the silver core is converted to Ag sub(2)S mainly from its lateral walls. Moreover, the SPR peak is located in the NIR region that makes these plasmonic nanoprobes more appealing for the detection of hydrogen sulfide in real-world samples and in in vivo applications. Plasmonic nanoprobes: Plasmonic Ag/Au core-shell nanoprism nanoprobes are demonstrated for the detection of hydrogen sulfide based on the strong ability of hydrogen sulfide to etch the Ag/Au core-shell nanoprisms. In the presence of hydrogen sulfide, silver in the nanoprisms is converted to Ag sub(2)S at the defective lateral walls, accompanied by an obvious surface plasmon resonance (SPR) absorption depression and peak shift (see figure). A simple and highly sensitive and selective hydrogen sulfide assay utilizing plasmonic nanoprobes is presented in this report. The assay employs the etching of silver in the Ag/Au core–shell nanoprisms, accompanied by surface plasmon resonance (SPR) signal depression and shift. Briefly, thin layers of gold are first coated onto silver nanoprisms. The thin gold layer not only guarantees the high stability of the plasmonic nanoprobes but also ensures the high selectivity toward hydrogen sulfide. Once hydrogen sulfide is introduced, the silver core is converted to Ag2S mainly from its lateral walls. Moreover, the SPR peak is located in the NIR region that makes these plasmonic nanoprobes more appealing for the detection of hydrogen sulfide in real‐world samples and in in vivo applications. Plasmonic nanoprobes: Plasmonic Ag/Au core–shell nanoprism nanoprobes are demonstrated for the detection of hydrogen sulfide based on the strong ability of hydrogen sulfide to etch the Ag/Au core–shell nanoprisms. In the presence of hydrogen sulfide, silver in the nanoprisms is converted to Ag2S at the defective lateral walls, accompanied by an obvious surface plasmon resonance (SPR) absorption depression and peak shift (see figure). |
| Author | Yang, Xinjian Gao, Zhiqiang Ren, Yuqian |
| Author_xml | – sequence: 1 givenname: Xinjian surname: Yang fullname: Yang, Xinjian organization: Department of Chemistry, National University of Singapore, Singapore 117543 (Singapore) – sequence: 2 givenname: Yuqian surname: Ren fullname: Ren, Yuqian organization: Department of Chemistry, National University of Singapore, Singapore 117543 (Singapore) – sequence: 3 givenname: Zhiqiang surname: Gao fullname: Gao, Zhiqiang email: chmgaoz@nus.edu.sg organization: Department of Chemistry, National University of Singapore, Singapore 117543 (Singapore) |
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| Keywords | biosensors SPR hydrogen sulfide etching nanostructures |
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| SubjectTerms | biosensors Chemistry Etching Gold Hydrogen sulfide Nanostructure nanostructures Plasmonics Silver SPR Thin films Walls |
| Title | Silver/Gold Core-Shell Nanoprism-Based Plasmonic Nanoprobes for Highly Sensitive and Selective Detection of Hydrogen Sulfide |
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