Silver Flowerlike Structures for Surface-Enhanced Raman Spectroscopy

被引:1
|
作者
Tsutsumanova, Gitchka G. [1 ]
Todorov, Neno D. [1 ]
Russev, Stoyan C. [1 ]
Abrashev, Miroslav V. [1 ]
Ivanov, Victor G. [1 ]
Lukoyanov, Alexey V. [2 ,3 ]
机构
[1] Sofia Univ, Fac Phys, 5 James Bourchier Blvd, Sofia 1164, Bulgaria
[2] Russian Acad Sci, MN Miheev Inst Met Phys, Ural Branch, S Kovalevskaya St 18, Ekaterinburg 620108, Russia
[3] Ural Fed Univ, Mira St 19, Ekaterinburg 620002, Russia
关键词
SERS; SERS substrates; nanoflowers; surface plasmon; nanocavity resonator; SCATTERING; NANOPARTICLES; ARRAYS; NANOTUBES; MECHANISM;
D O I
10.3390/nano11123184
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
Micro- and nanoflowers are a class of materials composed of particles with high surface-to-volume ratio. They have been extensively studied in the last decade due to simple preparation protocols and promising applications in biosensing, as drug delivery agents, for water purification, and so on. Flowerlike objects, due to their highly irregular surface, may act also as plasmonic materials, providing resonant coupling between optical waves and surface plasmon excitations. This fact allows us to infer the possibility to use micro- and nanoflowers as effective surface-enhanced Raman scattering (SERS) substrate materials. Here, we report on the design and Raman enhancement properties of silver flowerlike structures, deposited on aluminum surface. A simple and cost-effective fabrication method is described, which leads to SERS substrates of high developed surface area. The morphology of the silver flowers on a nanoscale is characterized by self-organized quasiperiodic stacks of nanosheets, which act as plasmonic cavity resonators. The substrates were tested against rhodamine-6G (R6G) water solutions of concentration varying between 10(-3) M and 10(-7) M. Optimal SERS enhancement factors of up to 10(5) were established at R6G concentrations in the 10(-6)-10(-7) M range.
引用
收藏
页数:15
相关论文
共 50 条
  • [21] Silver nanoparticles for detection of methimazole by surface-enhanced Raman spectroscopy
    Saleh, Tawfik A.
    Al-Shalalfeh, Mutasem M.
    Al-Saadi, Abdulaziz A.
    MATERIALS RESEARCH BULLETIN, 2017, 91 : 173 - 178
  • [22] Surface-enhanced Raman spectroscopy of tridehydropeptides adsorbed on silver electrode
    Gackowski, Mariusz
    Malek, Kamilla
    JOURNAL OF MOLECULAR STRUCTURE, 2014, 1065 : 143 - 149
  • [23] Arsenic Speciation on Silver Nanofilms by Surface-Enhanced Raman Spectroscopy
    Yang, Mingwei
    Liamtsau, Valery
    Fang, Changjun
    Sylyers, Kelli L.
    McGoron, Anthony J.
    Liu, Guangliang
    Fu, Fengfu
    Cai, Yong
    ANALYTICAL CHEMISTRY, 2019, 91 (13) : 8280 - 8288
  • [24] SURFACE-ENHANCED RAMAN-SPECTROSCOPY OF SURFACTANTS ON SILVER ELECTRODES
    SUN, SC
    BIRKE, RL
    LOMBARDI, JR
    JOURNAL OF PHYSICAL CHEMISTRY, 1990, 94 (05): : 2005 - 2010
  • [25] Skeleton pseudomorphs of nanostructured silver for the surface-enhanced Raman spectroscopy
    Semenova, Anna A.
    Savilov, Sergey V.
    Baranchikov, Alexander E.
    Ivanov, Vladimir K.
    Goodilin, Eugene A.
    MENDELEEV COMMUNICATIONS, 2019, 29 (04) : 395 - 397
  • [26] Surface-enhanced Raman Spectroscopy
    Tomoaki Nishino
    Analytical Sciences, 2018, 34 : 1061 - 1062
  • [27] Surface-enhanced Raman spectroscopy
    Nature Reviews Methods Primers, 1
  • [28] Surface-enhanced Raman spectroscopy
    Jürgen Popp
    Thomas Mayerhöfer
    Analytical and Bioanalytical Chemistry, 2009, 394 : 1717 - 1718
  • [29] Surface-enhanced Raman spectroscopy
    Morneau, Dominique
    NATURE REVIEWS METHODS PRIMERS, 2021, 1 (01):
  • [30] Surface-Enhanced Raman Spectroscopy
    Stiles, Paul. L.
    Dieringer, Jon A.
    Shah, Nilain C.
    Van Duyne, Richard R.
    ANNUAL REVIEW OF ANALYTICAL CHEMISTRY, 2008, 1 (601-626) : 601 - 626