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Liquid Cell Electron Microscopy for the Study of Growth Dynamics of Nanomaterials and Structure of Soft Matter Read chapter Read first chapter

2018 | OriginalPaper | Chapter

3. Wide-Field Surface Plasmon Resonance Microscopy for In-Situ Characterization of Nanoparticle Suspensions

Authors : Shavkat Nizamov, Vladimir M. Mirsky

Published in: In-situ Characterization Techniques for Nanomaterials

Publisher: Springer Berlin Heidelberg

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Abstract

During the past two decades, nanomaterials have had an enormous diversity of applications in different industrial fields and fundamental research. Some of these nanomaterials are specifically engineered to exhibit unique optical, electrical, or other physical or chemical characteristics. Owing to these attributes, the products containing various engineered nanoparticles (NP) cover large segments of the market from clothing to electronics and healthcare products [1]. The rapid development of nanotechnologies, their industrial applications, and related nanosafety concerns demand sensitive analytical methods for the identification and analysis of nanoparticles (NPs) in very different media [2]. In the same time, there are serious concerns on possible toxicity of nanoparticles for humans and environment [3]. Engineered NPs (ENPs) have to be analyzed not only during their production, in pure and concentrated form, but also at trace concentrations in environment, drinking water and food, healthcare and pharmacological products, biological fluids, etc. Ideally, such a technique should provide a possibility to detect NPs at the level of single particles and deliver information on their concentration, core and surface chemical composition, size, and shape [2–4].

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previous chapter In Situ X-Ray Studies of Crystallization Kinetics and Ordering in Functional Organic and Hybrid Materials
next chapter In Situ Localized Surface Plasmon Resonance Spectroscopy for Gold and Silver Nanoparticles
Literature
1.
Stark WJ, Stoessel PR, Wohlleben W, Hafner A (2015) Industrial applications of nanoparticles. Chem Soc Rev 44:5793–5805CrossRef
2.
Babick F, Mielke J, Wohlleben W, Weigel S, Hodoroaba V-D (2016) How reliably can a material be classified as a nanomaterial? Available particle-sizing techniques at work. J Nanopart Res 18:158CrossRef
3.
Love SA, Maurer-Jones MA, Thompson JW, Lin YS, Haynes CL (2012) Assessing nanoparticle toxicity. Annu Rev Anal Chem 5:181–205CrossRef
4.
Bleeker EAJ, de Jong WH, Geertsma RE, Groenewold M, Heugens EHW, Koers-Jacquemijns M et al (2013) Considerations on the EU definition of a nanomaterial: science to support policy making. Regul Toxicol Pharmacol 65:119–125CrossRef
5.
Nič M, Jirát J, Košata B, Jenkins A, McNaught A (eds) (2009) IUPAC compendium of chemical terminology: gold book. 2.1.0. IUPAC, Research Triagle Park
6.
Berne BJ, Pecora R (2000) Dynamic light scattering: with applications to chemistry, biology, and physics. Dover Publications, Mineola
7.
Jiang J, Oberdörster G, Biswas P (2008) Characterization of size, surface charge, and agglomeration state of nanoparticle dispersions for toxicological studies. J Nanopart Res 11:77–89CrossRef
8.
Murdock RC, Braydich-Stolle L, Schrand AM, Schlager JJ, Hussain SM (2008) Characterization of nanomaterial dispersion in solution prior to in vitro exposure using dynamic light scattering technique. Toxicol Sci 101:239–253CrossRef
9.
Medebach M, Moitzi C, Freiberger N, Glatter O (2007) Dynamic light scattering in turbid colloidal dispersions: a comparison between the modified flat-cell light-scattering instrument and 3D dynamic light-scattering instrument. J Colloid Interface Sci 305:88–93CrossRef
10.
Urban C, Schurtenberger P (1998) Characterization of turbid colloidal suspensions using light scattering techniques combined with cross-correlation methods. J Colloid Interface Sci 207:150–158CrossRef
11.
Pusey PN (1999) Suppression of multiple scattering by photon cross-correlation techniques. Curr Opin Colloid Interface Sci 4:177–185CrossRef
12.
Pine DJ, Weitz DA, Chaikin PM, Herbolzheimer E (1988) Diffusing wave spectroscopy. Phys Rev Lett 60:1134CrossRef
13.
Bressel L, Hass R, Reich O (2013) Particle sizing in highly turbid dispersions by photon density wave spectroscopy. J Quant Spectrosc Radiat Transf 126:122–129CrossRef
14.
Makra I, Terejánszky P, Gyurcsányi RE (2015) A method based on light scattering to estimate the concentration of virus particles without the need for virus particle standards. MethodsX 2:91–99CrossRef
15.
Quinten M (2011) Optical properties of nanoparticle systems: Mie and beyond. Wiley-VCH, WeinheimCrossRef
16.
Mappes T, Jahr N, Csaki A, Vogler N, Popp J, Fritzsche W (2012) The invention of immersion ultramicroscopy in 1912-the birth of nanotechnology? Angew Chem Int Ed 51:11208–11212CrossRef
17.
Xiao L, Qiao Y, He Y, Yeung ES (2010) Three dimensional orientational imaging of nanoparticles with darkfield microscopy. Anal Chem 82:5268–5274CrossRef
18.
Hole P, Sillence K, Hannell C, Maguire CM, Roesslein M, Suarez G et al (2013) Interlaboratory comparison of size measurements on nanoparticles using nanoparticle tracking analysis (NTA). J Nanopart Res 15:2101CrossRef
19.
Filipe V, Hawe A, Jiskoot W (2010) Critical evaluation of nanoparticle tracking analysis (NTA) by nanosight for the measurement of nanoparticles and protein aggregates. Pharm Res 27:796–810CrossRef
20.
Gardiner C, Ferreira YJ, Dragovic RA, Redman CWG, Sargent IL (2013) Extracellular vesicle sizing and enumeration by nanoparticle tracking analysis. J Extracell Vesicles 2:19671CrossRef
21.
Kramberger P, Ciringer M, Štrancar A, Peterka M (2012) Evaluation of nanoparticle tracking analysis for total virus particle determination. Virol J 9:265CrossRef
22.
Tian X, Nejadnik MR, Baunsgaard D, Henriksen A, Rischel C, Jiskoot W (2016) A comprehensive evaluation of nanoparticle tracking analysis (nanosight) for characterization of proteinaceous submicron particles. J Pharm Sci 105:3366–3375CrossRef
23.
Gallego-Urrea JA, Tuoriniemi J, Hassellöv M (2011) Applications of particle-tracking analysis to the determination of size distributions and concentrations of nanoparticles in environmental, biological and food samples. TrAC Trends Anal Chem 30:473–483CrossRef
24.
Giavazzi F, Brogioli D, Trappe V, Bellini T, Cerbino R (2009) Scattering information obtained by optical microscopy: differential dynamic microscopy and beyond. Phys Rev E 80:031403CrossRef
25.
Cerbino R, Trappe V (2008) Differential dynamic microscopy: probing wave vector dependent dynamics with a microscope. Phys Rev Lett 100:188102CrossRef
26.
Martinez VA, Besseling R, Croze OA, Tailleur J, Reufer M, Schwarz-Linek J et al (2012) Differential dynamic microscopy: a high-throughput method for characterizing the motility of microorganisms. Biophys J 103:1637–1647CrossRef
27.
Wilson LG, Martinez VA, Schwarz-Linek J, Tailleur J, Bryant G, Pusey PN et al (2011) Differential dynamic microscopy of bacterial motility. Phys Rev Lett 106:018101CrossRef
28.
Haiss W, Thanh NTK, Aveyard J, Fernig DG (2007) Determination of size and concentration of gold nanoparticles from UV−vis spectra. Anal Chem 79:4215–4221CrossRef
29.
Paramelle D, Sadovoy A, Gorelik S, Free P, Hobley J, Fernig DG (2014) A rapid method to estimate the concentration of citrate capped silver nanoparticles from UV-visible light spectra. Analyst 139:4855CrossRef
30.
Mutavdžić D, Xu J, Thakur G, Triulzi R, Kasas S, Jeremić M et al (2011) Determination of the size of quantum dots by fluorescence spectroscopy. Analyst 136:2391CrossRef
31.
Yim S-Y, Park J-H, Kim M-G (2015) Dark-field spectral imaging microscope for localized surface plasmon resonance-based biosensing. Proc SPIE 9523:952307CrossRef
32.
Boyer D (2002) Photothermal imaging of nanometer-sized metal particles among scatterers. Science 297:1160–1163CrossRef
33.
Gaiduk A, Ruijgrok PV, Yorulmaz M, Orrit M (2010) Detection limits in photothermal microscopy. Chem Sci 1:343CrossRef
34.
Diwakar PK, Loper KH, Matiaske A-M, Hahn DW (2012) Laser-induced breakdown spectroscopy for analysis of micro and nanoparticles. J Anal At Spectrom 27:1110CrossRef
35.
Gimenez Y, Busser B, Trichard F, Kulesza A, Laurent JM, Zaun V et al (2016) 3D imaging of nanoparticle distribution in biological tissue by laser-induced breakdown spectroscopy. Sci Rep 6:29936CrossRef
36.
Schwertfeger DM, Velicogna JR, Jesmer AH, Scroggins RP, Princz JI (2016) Single particle-inductively coupled plasma mass spectroscopy analysis of metallic nanoparticles in environmental samples with large dissolved analyte fractions. Anal Chem 88:9908–9914CrossRef
37.
Laborda F, Bolea E, Jiménez-Lamana J (2014) Single particle inductively coupled plasma mass spectrometry: a powerful tool for nanoanalysis. Anal Chem 86:2270–2278CrossRef
38.
Agbabiaka A, Wiltfong M, Park C (2013) Small angle X-ray scattering technique for the particle size distribution of nonporous nanoparticles. J Nanopart 2013:1–11CrossRef
39.
Li T, Senesi AJ, Lee B (2016) Small angle X-ray scattering for nanoparticle research. Chem Rev 116:11128–11180CrossRef
40.
Chu B, Liu T (2000) Characterization of nanoparticles by scattering techniques. J Nanopart Res 2:29–41CrossRef
41.
Roberts GS, Kozak D, Anderson W, Broom MF, Vogel R, Trau M (2010) Tunable nano/micropores for particle detection and discrimination: scanning ion occlusion spectroscopy. Small 6:2653–2658CrossRef
42.
Roberts GS, Yu S, Zeng Q, Chan LCL, Anderson W, Colby AH et al (2012) Tunable pores for measuring concentrations of synthetic and biological nanoparticle dispersions. Biosens Bioelectron 31:17–25CrossRef
43.
Wang Y, Kececi K, Mirkin MV, Mani V, Sardesai N, Rusling JF (2013) Resistive-pulse measurements with nanopipettes: detection of Au nanoparticles and nanoparticle-bound anti-peanut IgY. Chem Sci 4:655–663CrossRef
44.
Makra I, Gyurcsányi RE (2014) Electrochemical sensing with nanopores: a mini review. Electrochem Commun 43:55–59CrossRef
45.
Weatherall E, Willmott GR (2015) Applications of tunable resistive pulse sensing. Analyst 140:3318–3334CrossRef
46.
Yang L, Yamamoto T (2016) Quantification of virus particles using nanopore-based resistive-pulse sensing techniques. Front Microbiol 7:1500
47.
Cheng W, Compton RG (2014) Electrochemical detection of nanoparticles by ‘nano-impact’ methods. TrAC Trends Anal Chem 58:79–89CrossRef
48.
Rees NV (2014) Electrochemical insight from nanoparticle collisions with electrodes: a mini-review. Electrochem Commun 43:83–86CrossRef
49.
Sokolov SV, Eloul S, Kätelhön E, Batchelor-McAuley C, Compton RG (2017) Electrode–particle impacts: a users guide. Phys Chem Chem Phys 19:28–43CrossRef
50.
Sokolov SV, Bartlett TR, Fair P, Fletcher S, Compton RG (2016) Femtomolar detection of silver nanoparticles by flow-enhanced direct-impact voltammetry at a microelectrode array. Anal Chem 88:8908–8912CrossRef
51.
DeBlois RW, Bean CP, Wesley RK (1977) Electrokinetic measurements with submicron particles and pores by the resistive pulse technique. J Colloid Interface Sci 61:323–335CrossRef
52.
Aliano A, Cicero G, Nili H, Green NG, García-Sánchez P, Ramos A et al (2012) AFM in liquids. In: Bhushan B (ed) Encyclopedia of nanotechnology. Springer, Dordrecht, pp 83–89
53.
Baalousha M, Prasad A, Lead JR (2014) Quantitative measurement of the nanoparticle size and number concentration from liquid suspensions by atomic force microscopy. Environ Sci: Processes Impacts 16:1338
54.
Baalousha M, Kammer FVD, Motelica-Heino M, Le Coustumer P (2005) Natural sample fractionation by FlFFF–MALLS–TEM: sample stabilization, preparation, pre-concentration and fractionation. J Chromatogr A 1093:156–166CrossRef
55.
Takahashi Y, Kumatani A, Shiku H, Matsue T (2017) Scanning probe microscopy for nanoscale electrochemical imaging. Anal Chem 89:342–357CrossRef
56.
Polcari D, Dauphin-Ducharme P, Mauzeroll J (2016) Scanning electrochemical microscopy: a comprehensive review of experimental parameters from 1989 to 2015. Chem Rev 116:13234–13278CrossRef
57.
Sun P, Laforge FO, Mirkin MV (2007) Scanning electrochemical microscopy in the 21st century. Phys Chem Chem Phys 9:802–823CrossRef
58.
Momotenko D, Byers JC, McKelvey K, Kang M, Unwin PR (2015) High-speed electrochemical imaging. ACS Nano 9:8942–8952CrossRef
59.
Williamson MJ, Tromp RM, Vereecken PM, Hull R, Ross FM (2003) Dynamic microscopy of nanoscale cluster growth at the solid–liquid interface. Nat Mater 2:532–536CrossRef
60.
Radisic A, Vereecken PM, Hannon JB, Searson PC, Ross FM (2006) Quantifying electrochemical nucleation and growth of nanoscale clusters using real-time kinetic data. Nano Lett 6:238–242CrossRef
61.
Hodnik N, Dehm G, Mayrhofer KJJ (2016) Importance and challenges of electrochemical in situ liquid cell electron microscopy for energy conversion research. Acc Chem Res 49:2015–2022CrossRef
62.
Stuart EJE, Tschulik K, Omanović D, Cullen JT, Jurkschat K, Crossley A et al (2013) Electrochemical detection of commercial silver nanoparticles: identification, sizing and detection in environmental media. Nanotechnology 24:444002CrossRef
63.
Moretto LM, Kalcher K (eds) (2015) Environmental analysis by electrochemical sensors and biosensors. Springer, New York
64.
Wagner T, Lazar J, Schnakenberg U, Böker A (2016) In situ electrochemical impedance spectroscopy of electrostatically driven selective gold nanoparticle adsorption on block copolymer lamellae. ACS Appl Mater Interfaces 8:27282–27290CrossRef
65.
Proll G, Markovic G, Fechner P, Proell F, Gauglitz G (2017) Reflectometric interference spectroscopy. In: Rasooly A, Prickril B (eds) Biosensors and biodetection. Springer, New York, pp 207–220CrossRef
66.
Hänel C, Gauglitz G (2002) Comparison of reflectometric interference spectroscopy with other instruments for label-free optical detection. Anal Bioanal Chem 372:91–100CrossRef
67.
Gauglitz G (2005) Multiple reflectance interference spectroscopy measurements made in parallel for binding studies. Rev Sci Instrum 76:062224CrossRef
68.
Terrettaz S, Stora T, Duschl C, Vogel H (1993) Protein binding to supported lipid membranes: investigation of the cholera toxin-ganglioside interaction by simultaneous impedance spectroscopy and surface plasmon resonance. Langmuir 9:1361–1369CrossRef
69.
Olsson ALJ, Quevedo IR, He D, Basnet M, Tufenkji N (2013) Using the quartz crystal microbalance with dissipation monitoring to evaluate the size of nanoparticles deposited on surfaces. ACS Nano 7:7833–7843CrossRef
70.
Chen Q, Xu S, Liu Q, Masliyah J, Xu Z (2016) QCM-D study of nanoparticle interactions. Adv Colloid Interf Sci 233:94–114CrossRef
71.
Tellechea E, Johannsmann D, Steinmetz NF, Richter RP, Reviakine I (2009) Model-independent analysis of QCM data on colloidal particle adsorption. Langmuir 25:5177–5184CrossRef
72.
Teigell Beneitez N, Missinne J, Schleipen J, Orsel J, Prins MWJ, Van Steenberge G (2014) Polymer slab waveguides for the optical detection of nanoparticles in evanescent field based biosensors. Proc SPIE 8954:89540QCrossRef
73.
Özdemir ŞK, Zhu J, Yang X, Peng B, Yilmaz H, He L et al (2014) Highly sensitive detection of nanoparticles with a self-referenced and self-heterodyned whispering-gallery Raman microlaser. Proc Natl Acad Sci 111:E3836–E3844CrossRef
74.
Baaske M, Vollmer F (2012) Optical resonator biosensors: molecular diagnostic and nanoparticle detection on an integrated platform. ChemPhysChem 13:427–436CrossRef
75.
Fujimaki M, Nomura K, Sato K, Kato T, Gopinath SCB, Wang X et al (2010) Detection of colored nanomaterials using evanescent field-based waveguide sensors. Opt Express 18:15732CrossRef
76.
Gopinath SCB, Awazu K, Fujimaki M (2010) Detection of influenza viruses by a waveguide-mode sensor. Anal Methods 2:1880CrossRef
77.
Liedberg B, Nylander C, Lunstrom I (1983) Surface plasmon resonance for gas detection and biosensing. Sensors Actuators 4:299–304CrossRef
78.
Homola J (2008) Surface plasmon resonance sensors for detection of chemical and biological species. Chem Rev 108:462–493CrossRef
79.
Jung LS, Campbell CT, Chinowsky TM, Mar MN, Yee SS (1998) Quantitative interpretation of the response of surface plasmon resonance sensors to adsorbed films. Langmuir 14:5636–5648CrossRef
80.
Rebe Raz S, Leontaridou M, Bremer MGEG, Peters R, Weigel S (2012) Development of surface plasmon resonance-based sensor for detection of silver nanoparticles in food and the environment. Anal Bioanal Chem 403:2843–2850CrossRef
81.
Klemm F, Johnson R, Mirsky VM (2015) Binding of protein nanoparticles to immobilized receptors. Sensors Actuators B Chem 208:616–621CrossRef
82.
Canovi M, Lucchetti J, Stravalaci M, Re F, Moscatelli D, Bigini P et al (2012) Applications of surface plasmon resonance (SPR) for the characterization of nanoparticles developed for biomedical purposes. Sensors 12:16420–16432CrossRef
83.
Rupert DLM, Lässer C, Eldh M, Block S, Zhdanov VP, Lotvall JO et al (2014) Determination of exosome concentration in solution using surface plasmon resonance spectroscopy. Anal Chem 86:5929–5936CrossRef
84.
Rupert DLM, Shelke GV, Emilsson G, Claudio V, Block S, Lässer C et al (2016) Dual-wavelength surface plasmon resonance for determining the size and concentration of sub-populations of extracellular vesicles. Anal Chem 88:9980–9988CrossRef
85.
Nizamov S, Mirsky VM (2011) Self-referencing SPR-biosensors based on penetration difference of evanescent waves. Biosens Bioelectron 28:263–269CrossRef
86.
Axelrod D (1989) Chapter 9. Total internal reflection fluorescence microscopy. In: Methods in cell biology. Elsevier, Imprint: Academic Press, pp 245–270
87.
Block S, Fast BJ, Lundgren A, Zhdanov VP, Höök F (2016) Two-dimensional flow nanometry of biological nanoparticles for accurate determination of their size and emission intensity. Nat Commun 7:12956CrossRef
88.
Olsson T, Zhdanov VP, Höök F (2015) Total internal reflection fluorescence microscopy for determination of size of individual immobilized vesicles: theory and experiment. J Appl Phys 118:064702CrossRef
89.
Agnarsson B, Wayment-Steele HK, Höök F, Kunze A (2016) Monitoring of single and double lipid membrane formation with high spatiotemporal resolution using evanescent light scattering microscopy. Nanoscale 8:19219–19223CrossRef
90.
Agnarsson B, Lundgren A, Gunnarsson A, Rabe M, Kunze A, Mapar M et al (2015) Evanescent light-scattering microscopy for label-free interfacial imaging: from single Sub-100 nm vesicles to live cells. ACS Nano 9:11849–11862CrossRef
91.
Byrne GD, Pitter MC, Zhang J, Falcone FH, Stolnik S, Somekh MG (2008) Total internal reflection microscopy for live imaging of cellular uptake of sub-micron non-fluorescent particles. J Microsc 231:168–179CrossRef
92.
Velinov T, Asenovska Y, Marinkova D, Yotova L, Stoicova S, Bivolarska M et al (2011) Total internal reflection imaging of microorganism adhesion using an oil immersion objective. Colloids and Surfaces B: Biointerfaces 88(1):407–412CrossRef
93.
Wang W, Tao N (2014) Detection, counting, and imaging of single nanoparticles. Anal Chem 86:2–14CrossRef
94.
Zybin A, Kuritsyn YA, Gurevich EL, Temchura VV, Überla K, Niemax K (2009) Real-time detection of single immobilized nanoparticles by surface plasmon resonance imaging. Plasmonics 5:31–35CrossRef
95.
Yang C-T, Wu L, Liu X, Tran NT, Bai P, Liedberg B et al (2016) Exploiting surface-plasmon-enhanced light scattering for the design of ultrasensitive biosensing modality. Anal Chem 88:11924–11930CrossRef
96.
Rengevych OV, Beketov GV, Ushenin YV (2014) Visualization of submicron Si-rods by SPR-enhanced total internal reflection microscopy. Semicond Phys Quantum Electron Optoelectron 17(4):368–373CrossRef
97.
Loison O, Fort E (2013) Transmission surface plasmon resonance microscopy. Appl Phys Lett 103:133110CrossRef
98.
Meyer SA, Le REC, Etchegoin PG (2011) Combining surface plasmon resonance (SPR) spectroscopy with surface-enhanced Raman scattering (SERS). Anal Chem 83:2337–2344CrossRef
99.
Meyer SA, Auguié B, Le Ru EC, Etchegoin PG (2012) Combined SPR and SERS microscopy in the Kretschmann configuration. J Phys Chem A 116:1000–1007CrossRef
100.
Roy S, Kim J-H, Kellis JT, Poulose AJ, Robertson CR, Gast AP (2002) Surface plasmon resonance/surface plasmon enhanced fluorescence: an optical technique for the detection of multicomponent macromolecular adsorption at the solid/liquid interface. Langmuir 18:6319–6323CrossRef
101.
Balaa K, Devauges V, Goulam Y, Studer V, Lévêque-Fort S, Fort E (2009) Live cell imaging with surface plasmon-mediated fluorescence microscopy. SPIE-OSA 7367:736710
102.
Thariani R, Yager P (2010) Imaging of surfaces by concurrent surface plasmon resonance and surface plasmon resonance-enhanced fluorescence. Peccoud J, editor. PLoS One 5:e9833CrossRef
103.
Avci O, Ünlü N, Özkumur A, Ünlü M (2015) Interferometric reflectance imaging sensor (IRIS) – a platform technology for multiplexed diagnostics and digital detection. Sensors 15:17649–17665CrossRef
104.
Sevenler D, Ünlü NL, Ünlü MS (2015) Nanoparticle biosensing with interferometric reflectance imaging. In: Vestergaard MC, Kerman K, Hsing I-M, Tamiya E (eds) Nanobiosensors and nanobioanalyses. Springer, Tokyo, pp 81–95
105.
Ortega-Arroyo J, Kukura P (2012) Interferometric scattering microscopy (iSCAT): new frontiers in ultrafast and ultrasensitive optical microscopy. Phys Chem Chem Phys 14:15625CrossRef
106.
Piliarik M, Sandoghdar V (2014) Direct optical sensing of single unlabelled proteins and super-resolution imaging of their binding sites. Nat Commun 5:4495CrossRef
107.
Lobinski R, Szpunar J (eds) (2003) Hyphenated techniques in speciation analysis. Royal Society of Chemistry, Cambridge
108.
Cazes J (ed) (2010) Encyclopedia of chromatography, 3rd edn. CRC Press, Boca Raton
109.
Messaud FA, Sanderson RD, Runyon JR, Otte T, Pasch H, Williams SKR (2009) An overview on field-flow fractionation techniques and their applications in the separation and characterization of polymers. Prog Polym Sci 34:351–368CrossRef
110.
Baalousha M, Stolpe B, Lead JR (2011) Flow field-flow fractionation for the analysis and characterization of natural colloids and manufactured nanoparticles in environmental systems: a critical review. J Chromatogr A 1218:4078–4103CrossRef
111.
Scott D, Harding SE, Rowe A (eds) (2005) Introduction to differential sedimentation. analytical ultracentrifugation. Royal Society of Chemistry, Cambridge, pp 270–290
112.
Scott DJ, Harding SE, Rowe AJ, Royal Society of Chemistry (Great Britain) (eds) (2005) Analytical ultracentrifugation: techniques and methods. RSC Publishing, Cambridge
113.
Krpetić Ž, Davidson AM, Volk M, Lévy R, Brust M, Cooper DL (2013) High-resolution sizing of monolayer-protected gold clusters by differential centrifugal sedimentation. ACS Nano 7:8881–8890CrossRef
114.
Anderson W, Kozak D, Coleman VA, Jämting ÅK, Trau M (2013) A comparative study of submicron particle sizing platforms: accuracy, precision and resolution analysis of polydisperse particle size distributions. J Colloid Interface Sci 405:322–330CrossRef
115.
Poda AR, Bednar AJ, Kennedy AJ, Harmon A, Hull M, Mitrano DM et al (2011) Characterization of silver nanoparticles using flow-field flow fractionation interfaced to inductively coupled plasma mass spectrometry. J Chromatogr A 1218:4219–4225CrossRef
116.
Baalousha M, Kammer FVD, Motelica-Heino M, Hilal HS, Le Coustumer P (2006) Size fractionation and characterization of natural colloids by flow-field flow fractionation coupled to multi-angle laser light scattering. J Chromatogr A 1104:272–281CrossRef
117.
Rothenhauesler B, Knoll W (1988) Surface plasmon microscopy. Lett Nat 332:615–617CrossRef
118.
Brockman JM, Nelson BP, Corn RM (2000) Surface plasmon resonance imaging measurements of ultrathin organic films. Annu Rev Phys Chem 51:41–63CrossRef
119.
Campbell C, Kim G (2007) SPR microscopy and its applications to high-throughput analyses of biomolecular binding events and their kinetics. Biomaterials 28:2380–2392CrossRef
120.
Boecker D, Zybin A, Niemax K, Grunwald C, Mirsky VM (2008) Noise reduction by multiple referencing in surface plasmon resonance imaging. Rev Sci Instrum 79:023110CrossRef
121.
Rich RL, Cannon MJ, Jenkins J, Pandian P, Sundaram S, Magyar R et al (2008) Extracting kinetic rate constants from surface plasmon resonance array systems. Anal Biochem 373:112–120CrossRef
122.
Halpern AR, Wood JB, Wang Y, Corn RM (2014) Single-nanoparticle near-infrared surface plasmon resonance microscopy for real-time measurements of DNA hybridization adsorption. ACS Nano 8:1022CrossRef
123.
Viitala L, Maley AM, Fung HWM, Corn RM, Viitala T, Murtomäki L (2016) Surface plasmon resonance imaging microscopy of liposomes and liposome-encapsulated gold nanoparticles. J Phys Chem C 120:25958–25966CrossRef
124.
Cho K, Fasoli JB, Yoshimatsu K, Shea KJ, Corn RM (2015) Measuring Melittin uptake into hydrogel nanoparticles with near-infrared single nanoparticle surface plasmon resonance microscopy. Anal Chem 87:4973–4979CrossRef
125.
Wang S, Shan X, Patel U, Huang X, Lu J, Li J et al (2010) Label-free imaging, detection, and mass measurement of single viruses by surface plasmon resonance. Proc Natl Acad Sci 107:16028–16032CrossRef
126.
Huang B, Yu F, Zare RN (2007) Surface plasmon resonance imaging using a high numerical aperture microscope objective. Anal Chem 79:2979–2983CrossRef
127.
Somekh MG, Liu S, Velinov TS, See CW (2000) High-resolution scanning surface-plasmon microscopy. Appl Opt 39:6279–6287CrossRef
128.
Peterson AW, Halter M, Tona A, Plant AL (2014) High resolution surface plasmon resonance imaging for single cells. BMC Cell Biol 15:35CrossRef
129.
Peterson AW, Halter M, Plant AL, Elliott JT (2016) Surface plasmon resonance microscopy: achieving a quantitative optical response. Rev Sci Instrum 87:093703CrossRef
130.
Vander R, Lipson SG (2009) High-resolution surface-plasmon resonance real-time imaging. Opt Lett 34:37–39CrossRef
131.
Shan X, Díez-Pérez I, Wang L, Wiktor P, Gu Y, Zhang L et al (2012) Imaging the electrocatalytic activity of single nanoparticles. Nat Nanotechnol 7:668–672CrossRef
132.
Fang Y, Wang W, Wo X, Luo Y, Yin S, Wang Y et al (2014) Plasmonic imaging of electrochemical oxidation of single nanoparticles. J Am Chem Soc 136:12584–12587CrossRef
133.
Yu H, Shan X, Wang S, Chen H, Tao N (2014) Plasmonic imaging and detection of single DNA molecules. ACS Nano 8:3427–3433CrossRef
134.
Fang Y, Wang H, Yu H, Liu X, Wang W, Chen H-Y et al (2016) Plasmonic imaging of electrochemical reactions of single nanoparticles. Acc Chem Res 49:2614–2624CrossRef
135.
Wo X, Luo Y, Tao N, Wang W, Chen H-Y (2016) Measuring the number concentration of arbitrarily-shaped gold nanoparticles with surface plasmon resonance microscopy. SCIENCE CHINA Chem 59:843–847CrossRef
136.
Wang Y, Shan X, Wang H, Wang S, Tao N (2017) Plasmonic imaging of surface electrochemical reactions of single gold nanowires. J Am Chem Soc 139:1376–1379CrossRef
137.
Maley AM, Terada Y, Onogi S, Shea KJ, Miura Y, Corn RM (2016) Measuring protein binding to individual hydrogel nanoparticles with single-nanoparticle surface plasmon resonance imaging microscopy. J Phys Chem C 120:16843–16849CrossRef
138.
139.
Smith WJ (2000) Modern optical engineering: the design of optical systems, 3rd edn. McGraw-Hill, New York
140.
Laplatine L, Leroy L, Calemczuk R, Baganizi D, Marche PN, Roupioz Y et al (2014) Spatial resolution in prism-based surface plasmon resonance microscopy. Opt Express 22:22771CrossRef
141.
Schasfoort RBM, Tudos AJ (2008) Handbook of surface plasmon resonance. RSC Publishing, CambridgeCrossRef
142.
Nizamov S, Scherbahn V, Mirsky VM (2016) Detection and quantification of single engineered nanoparticles in complex samples using template matching in wide-field surface plasmon microscopy. Anal Chem 88:10206–10214CrossRef
143.
Sidorenko I, Nizamov S, Hergenröder R, Zybin A, Kuzmichev A, Kiwull B et al (2016) Computer assisted detection and quantification of single adsorbing nanoparticles by differential surface plasmon microscopy. Microchim Acta 183:101–109CrossRef
144.
Scherbahn V, Nizamov S, Mirsky VM (2016) Plasmonic detection and visualization of directed adsorption of charged single nanoparticles to patterned surfaces. Microchim Acta 183:2837–2845CrossRef
145.
Nizamov S, Kasian O, Mirsky VM (2016) Individual detection and electrochemically assisted identification of adsorbed nanoparticles by using surface plasmon microscopy. Angew Chem Int Ed 55:7247–7251CrossRef
146.
Nizamov S, Scherbahn V, Mirsky VM (2015) Self-referencing SPR-sensor based on integral measurements of light intensity reflected by arbitrarily distributed sensing and referencing spots. Sensors Actuators B Chem 207:740–747CrossRef
147.
Nizamov S, Scherbahn V, Mirsky VM (2017) Ionic referencing in surface plasmon microscopy: visualization of the difference in surface properties of patterned monomolecular layers. Anal Chem 89:3873–3878CrossRef
148.
Zybin A, Shpacovitch V, Skolnik J, Hergenröder R (2017) Optimal conditions for SPR-imaging of nano-objects. Sensors Actuators B Chem 239:338–342CrossRef
149.
Weichert F, Gaspar M, Timm C, Zybin A, Gurevich EL, Engel M et al (2010) Signal analysis and classification for surface plasmon assisted microscopy of nanoobjects. Sensors Actuators B Chem 151:281–290CrossRef
150.
Radke RJ, Andra S, Al-Kofahi O, Roysam B (2005) Image change detection algorithms: a systematic survey. IEEE Trans Image Process 14:294–307CrossRef
151.
Lapresta-Fernández A, Salinas-Castillo A, Anderson de la Llana S, Costa-Fernández JM, Domínguez-Meister S, Cecchini R et al (2014) A general perspective of the characterization and quantification of nanoparticles: imaging, spectroscopic, and separation techniques. Crit Rev Solid State Mater Sci 39:423–458CrossRef
152.
von der Kammer F, Legros S, Hofmann T, Larsen EH, Loeschner K (2011) Separation and characterization of nanoparticles in complex food and environmental samples by field-flow fractionation. TrAC Trends Anal Chem 30:425–436CrossRef
153.
Lewis JP (1995) Fast template matching. Vision interface. Canadian Image Processing and Pattern Recognition Society, Quebec, pp 15–19
154.
Wo X, Li Z, Jiang Y, Li M, Su Y, Wang W et al (2016) Determining the absolute concentration of nanoparticles without calibration factor by visualizing the dynamic processes of interfacial adsorption. Anal Chem 88:2380–2385CrossRef
155.
Love JC, Estroff LA, Kriebel JK, Nuzzo RG, Whitesides GM (2005) Self-assembled monolayers of thiolates on metals as a form of nanotechnology. Chem Rev 105:1103–1170CrossRef
156.
Shpacovitch V, Sidorenko I, Lenssen J, Temchura V, Weichert F, Müller H et al (2017) Application of the PAMONO-sensor for quantification of microvesicles and determination of nano-particle size distribution. Sensors 17:244CrossRef
157.
Shpacovitch V, Temchura V, Matrosovich M, Hamacher J, Skolnik J, Libuschewski P et al (2015) Application of surface plasmon resonance imaging technique for the detection of single spherical biological submicrometer particles. Anal Biochem 486:62–69CrossRef
158.
Demetriadou A, Kornyshev AA (2015) Principles of nanoparticle imaging using surface plasmons. New J Phys 17:013041CrossRef
159.
Demetriadou A (2015) The impact of natural modes in plasmonic imaging. Sci Rep 5:18247CrossRef
160.
Son T, Kim D (2015) Theoretical approach to surface plasmon scattering microscopy for single nanoparticle detection in near infrared region. Proc SPIE 9340:93400WCrossRef
161.
Lozovski V (2012) Visualization of Nano-sized objects by scattering of surface plasmon polariton theoretical aspects of the problem. J Comput Theor Nanosci 9:859–863CrossRef
162.
Gurevich EL, Temchura VV, Überla K, Zybin A (2011) Analytical features of particle counting sensor based on plasmon assisted microscopy of nano objects. Sensors Actuators B Chem 160:1210–1215CrossRef
163.
Yu H, Shan X, Wang S, Chen H, Tao N (2014) Molecular scale origin of surface plasmon resonance biosensors. Anal Chem 86:8992–8997CrossRef
164.
Concentrative properties of aqueous solutions: density, refractive index, freezing point depression, and viscosity. In: CRC Handbook of Chemistry and Physics, 87th ed Editor-in-Chief: David R. Lide (NIST). CRC Press/Taylor and Francis Group: Boca Raton, FL. 2006. 2608 pp. ISBN 0-8493-0487-3.
165.
Syal K, Wang W, Shan X, Wang S, Chen H-Y, Tao N (2015) Plasmonic imaging of protein interactions with single bacterial cells. Biosens Bioelectron 63:131–137CrossRef
166.
Yang Y, Yu H, Shan X, Wang W, Liu X, Wang S et al (2015) Label-free tracking of single organelle transportation in cells with nanometer precision using a plasmonic imaging technique. Small 11:2878–2884CrossRef
Metadata
Title
Wide-Field Surface Plasmon Resonance Microscopy for In-Situ Characterization of Nanoparticle Suspensions
Authors
Shavkat Nizamov
Vladimir M. Mirsky
Copyright Year
2018
Publisher
Springer Berlin Heidelberg
Book
In-situ Characterization Techniques for Nanomaterials

Print ISBN: 978-3-662-56321-2

Electronic ISBN: 978-3-662-56322-9

Copyright Year: 2018

DOI
https://doi.org/10.1007/978-3-662-56322-9_3

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