Synergistic enhancement via plasmonic nanoplate-bacteria-nanorod supercrystals for highly efficient SERS sensing of food-borne bacteria

Sensors and Actuators, B: Chemical

Volumn 239, Issue , 2017, Pages 515-525

  Wang, WeiQiang ^a   Hynninen, Ville ^b   Qiu, Li ^c   Zhang, AiWen ^c   Lemma, Tibebe ^d   Zhang, NanNan ^a   Ge, HongHua ^a   Toppari, J Jussi ^d   Hytönen, Vesa P ^b   Wang, Jin ^c  

^a ANHUI UNIVERSITY   (China)

^b TAMPERE UNIVERSITY OF TECHNOLOGY   (Finland)

^c INSTITUTE OF INTELLIGENT MACHINES   (China)

^d UNIVERSITY OF JYVÄSKYLÄ   (Finland)

Author keywords

Assembly; Asymmetric nanoparticles; Bacteria; Chemometrics; SERS

Indexed keywords

ASSEMBLY; BACTERIA; BEVERAGES; BIOCOMPATIBILITY; BIOSENSORS; FOOD SAFETY; NANOPARTICLES; NANORODS; NANOSTRUCTURES; PLASMONS; PRINCIPAL COMPONENT ANALYSIS; PROBES; RAMAN SPECTROSCOPY; SCAFFOLDS (BIOLOGY);

ASYMMETRIC NANOPARTICLES; CHEMOMETRICS; DETECTION AND IDENTIFICATIONS; ELECTROMAGNETIC ENHANCEMENT; METALLIC NANOPARTICLES; SERS; SURFACE ENHANCED RAMAN; SYNERGISTIC ENHANCEMENT;

SUBSTRATES;

EID: 84982156288     PISSN: 09254005     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.snb.2016.08.040     Document Type: Article

References (37)

1. [1] Bernabini, C., Holmes, D., Morgan, H., Micro-impedance cytometry for detection and analysis of micron-sized particles and bacteria. Lab. Chip 11 (2011), 407–412.
2. [2] Couniot, N., Francis, L.A., Flandre, D., Resonant dielectrophoresis and electrohydrodynamics for high-sensitivity impedance detection of whole-cell bacteria. Lab. Chip 15 (2015), 3183–3191.
3. [3] Wang, S., Singh, A.K., Senapati, D., Neely, A., Yu, H., Ray, P.C., Rapid colorimetric identification and targeted photothermal lysis of salmonella bacteria by using bioconjugated oval-Shaped gold nanoparticles. Chem. Eur. J. 16 (2010), 5600–5606.
4. [4] Verma, M.S., Chen, P.Z., Jones, L., Gu, F.X., Branching and size of CTAB-coated gold nanostars control the colorimetric detection of bacteria. RSC. Adv. 4 (2014), 10660–10668.
5. [5] Mannoor, M.S., Zhang, S., Link, A.J., McAlpine, M.C., Electrical detection of pathogenic bacteria via immobilized antimicrobial peptides. PNAS 107 (2010), 19207–19212.
6. [6] Chen, Y., Michael, Z.P., Kotchey, G.P., Zhao, Y., Star, A., Electronic detection of bacteria using holey reduced graphene oxide. ACS Appl. Mater. Interfaces 6 (2014), 3805–3810.
7. [7] Feng, G., Yuan, Y., Fang, H., Zhang, R., Xing, B., Zhang, G., Zhang, D., Liu, B., A light-up probe with aggregation-induced emission characteristics (AIE) for selective imaging: naked-eye detection and photodynamic killing of gram-positive bacteria. Chem. Commun. 51 (2015), 12490–12493.
8. [8] Wang, J., Morton, M.J., Elliott, C.T., Karoonuthaisiri, N., Segatori, L., Biswal, S.L., Rapid detection of pathogenic bacteria and screening of phage-derived peptides using microcantilevers. Anal. Chem. 86 (2014), 1671–1678.
9. [9] Abdalhai, M.H., Fernandes, A., Bashari, M., Ji, J., He, Q., Sun, X., Rapid and sensitive detection of foodborne pathogenic bacteria (Staphylococcus aureus) using an electrochemical DNA genomic biosensor and its application in fresh beef. J. Agric. Food. Chem. 62 (2014), 12659–12667.
10. [10] Pacheco-Gómez, R., Kraemer, J., Stokoe, S., England, H., Penn, C., Stanley, E., Rodger, A., Ward, J., Hicks, M., Dafforn, T., Detection of pathogenic bacteria using a homogeneous immunoassay based on shear alignment of virus particles and linear dichroism. Anal. Chem. 84 (2012), 91–97.
11. [11] Chang, J., Mao, S., Zhang, Y., Cui, S., Zhou, G., Wu, X., Yang, C.H., Chen, J., Ultrasonic-assisted self-assembly of monolayer graphene oxide for rapid detection of Escherichia coli bacteria. Nanoscale 9 (2013), 3620–3626.
12. [12] Ondera, T.J., HammeI.I, A.T., A gold nanopopcorn attached single-walled carbon nanotube hybrid for rapid detection and killing of bacteria. J. Mater. Chem. B. 43 (2014), 7534–7543.
13. [13] Cui, F., Hu, Z.Q., Azlin, M., Lin, M.S., Rapid detection of food- and waterborne bacteria using surface-enhanced Raman spectroscopy coupled with silver nanosubstrates. Appl. Microbiol. Biotechnol. 92 (2011), 1053–1061.
14. [14] Sivanesan, A., Witkowska, E., Adamkiewicz, W., Dziewit, L., Kamińska, A., Waluk, J., Nanostructured silver–gold bimetallic SERS substrates for selective identification of bacteria in human blood. Analyst 139 (2014), 1037–1043.
15. [15] Yang, D., Zhou, H., Haisch, C., Niessner, R., Ying, Y., Reproducible E coli detection based on label-free SERS and mapping. Talanta 146 (2016), 457–463.
16. [16] Zhou, H., Yang, D., Ivleva, N.P., Mircescu, N.E., Niessner, R., Haisch, C., SERS detection of bacteria in water by in situ coating with Ag nanoparticles. Anal. Chem. 86 (2014), 1525–1533.
17. [17] Wu, X., Xu, C., Tripp, R.A., Huang, Y.W., Zhao, Y., Detection and differentiation of foodborne pathogenic bacteria in mung bean sprouts using field deployable label-free SERS devices. Analyst 138 (2013), 3005–3012.
18. [18] Zhao, Y., Yang, X., Li, H., Luo, Y., Yu, R., Zhang, L., Yanga, Y., Song, Q., Au nanoflower–Ag nanoparticle assembled SERS-active substrates for sensitive MC-LR detection. Chem. Commun. 51 (2015), 16908–16911.
19. [19] Zhu, C., Meng, G., Huang, Q., Zhang, Z., Xu, Q., Liu, G., Huang, Z., Chu, Z., Ag nanosheet-assembled micro-hemispheres as effective SERS substrates. Chem. Commun. 47 (2011), 2709–2711.
20. [20] Wang, X., Yang, D., Huang, P., Li, M., Li, C., Chen, D., Cui, D., Hierarchically assembled Au microspheres and sea urchin-like architectures: formation mechanism and SERS study. Nanoscale 4 (2012), 7766–7772.
21. [21] Gómez-Graña, S., Fernández-López, C., Polavarapu, L., Salmon, J.B., Leng, J., Pastoriza-Santos, I., Pérez-Juste, J., Gold nanooctahedra with tunable size and microfluidic-induced 3D assembly for highly uniform SERS-active supercrystals. Chem. Mater. 27 (2015), 8310–8317.
22. [22] Alonso-Gonzalez, P., Schnell, M., Sarriugarte, P., Sobhani, H., Wu, C.H., Arju, N., Khanikaev, A., Golmar, F., Albella, P., Arzubiaga, L., Casanova, F., Hueso, L.E., Nordlander, P., Shvets, G., Hillenbrand, R., Real-space mapping of fano interference in plasmonic metamolecules. Nano. Lett. 11 (2011), 3922–3926.
23. [23] De Groot, P.J., Postma, G.J., Melssen, W.J., Buydens, L.M.C., Deckert, V., Zenobi, R., Application of principal component analysis to detect outliers and spectral deviations in near-field surface-enhanced Raman spectra. Anal. Chim. Acta. 446 (2001), 71–83.
24. [24] Rinnan, Å., Van den Berg, F., Balling Engelsen, S., Review of the most common pre-processing techniques for near-infrared spectra. TrAC Trends Anal. Chem. 28 (2009), 1201–1222.
25. [25] Das, G., Gentile, F., Coluccio, M.L., Perri, A.M., Nicastri, A., Mecarini, F., Cojoc, G., Candeloro, P., Liberale, C., Angelis, F.D., Fabrizio, E.D., Principal component analysis based methodology to distinguish protein SERS spectra. J. Mol. Struct. 993 (2011), 500–505.
26. [26] Goodacre, R., Timmins, E.M., Burton, R., Kaderbhai, N., Woodward, A.M., Kell, D.B., Rooney, P.J., Rapid identification of urinary tract infection bacteria using hyperspectral whole-organism fingerprinting and artificial neural networks. Microbiology 144 (1998), 1157–1170.
27. [27] Gómez-Graña, S., Pérez-Juste, J., Alvarez-Puebla, R.A., Guerrero-Martínez, A., Liz-Marzán, L.M., Self-assembly of Au@Ag nanorods mediated by gemini surfactants for highly efficient SERS-active supercrystals. Adv. Opt. Mater. 1 (2013), 477–481.
28. [28] Yunker, P.J., Still, T., Lohr, M.A., Yodh, A.G., Suppression of the coffee-ring effect by shape-dependent capillary interactions. Nature 476 (2011), 308–311.
29. [29] Lv, X., Ge, W., Li, Q., Wu, Y., Jiang, H., Wang, X., Rapid and ultrasensitive electrochemical detection of multidrug-resistant bacteria based on nanostructured gold coated ITO electrode. ACS Appl. Mater. Interfaces 6 (2014), 11025–11031.
30. [30] Chung, H.J., Reiner, T., Budin, G., Min, C., Liong, M., Issadore, D., Lee, H., Weissleder, R., Ubiquitous detection of gram-positive bacteria with bioorthogonal magnetofluorescent nanoparticles. ACS Nano 5 (2011), 8834–8841.
31. [31] Schafer, M., Schneider, T.R., Sheldrick, G.M., Crystal structure of vancomycin. Structure 4 (1996), 1509–1515.
32. [32] Loll, P.J., Derhovanessian, A., Shapovalov, M.V., Kaplan, J., Yang, L., Axelsen, P.H., Vancomycin forms ligand-mediated supramolecular complexes. J. Mol. Biol. 385 (2009), 200–211.
33. [33] Millstone, J.E., Hurst, S.J., Metraux, G.S., Cutle, J.I., Mirkin, C.A., Colloidal gold and silver triangular nanoprisms. Small 5 (2009), 646–664.
34. [34] Joshi, G.K., McClory, P.J., Dolai, S., Sardar, R., Improved localized surface plasmon resonance biosensing sensitivity based on chemically-synthesized gold nanoprisms as plasmonic transducers. J. Mater. Chem. 22 (2012), 923–931.
35. [35] Ciou, S.H., Cao, Y.W., Huang, H.C., Su, D.Y., Huang, C.L., SERS enhancement factors studies of silver nanoprism and spherical nanoparticle colloids in the presence of bromide ions. J. Phys. Chem. C. 113 (2009), 9520–9525.
36. [36] Aoune, B., Zhang, D.M., Felicia, T., Naomi, J.H., Surface-enhanced raman spectroscopy of DNA. J. Am. Chem. Soc. 16 (2008), 5523–5529.
37. 2@Au core/shell nanoparticles. Analyst 139 (2014), 3083–3087.