Experiments in Fluids

, Volume 48, Issue 4, pp 547–564 | Cite as

Surface plasmon resonance reflectance imaging technique for near-field (~100 nm) fluidic characterization

Review Article

Abstract

Surface plasmon resonance (SPR) reflectance imaging technique is devised as a label-free visualization tools to characterize near-field (100 nm) fluidic transport properties. The key idea is that the SPR reflectance intensity varies with the near-field refractive index (RI) of the test fluid, which in turn depends on the micro/nano-fluidic scalar properties, such as concentrations, temperatures, and phases. The SPR sensor techniques have been widely used in many different areas, particularly in the biomedical and biophysical societies. While flow visualization techniques based on RI detection have been extensively well documented (Merzkirch 1987), the use of SPR imaging for fluidic applications has been introduced only recently since the author’s group presented a series of related studies in the past few years. The primary goal of this review article is two-fold: (1) Introduction of the working principles of the SPR imaging as a fluidic sensor, and (2) Presentation of example measurement applications for various fluidic scalar properties using the SPR imaging sensor technique. Section 1 summarizes the history and the basic principle of SPR by focusing on the Kretschmann’s theory and Sect. 2 describes the laboratory SPR imaging system specifically designed for fluidic applications. Section 3 presents the optical and material properties that affect the SPR measurement capabilities and sensitivity. Section 4 presents example applications of the implemented SPR for different near-field characterization problems, including (1) micromixing concentration field, (2) convective/diffusion of salinity distributions, (3) full-field thermometry, and (4) fingerprinting of crystallized nanofluidic self assembly. Sections 5 and 6 discuss the spatial measurement resolutions of the SPR imaging technique and the overall measurement sensitivities, respectively. Section 7 presents a few suggestions to further enhance the SPR measurement accuracy particularly for near-field fluidic characterization.

References

  1. Allen JS, Hallinan KP, Lekan J (1998) A study of the fundamental operations of a capillary driven heat transfer device in both normal and low gravity: part 1. Liquid slug formation in low gravity. AIP Conf Proc 420:471–478CrossRefGoogle Scholar
  2. Belda R, Herraez JV, Diez O (2005) A study of the refractive index and surface tension synergy of the binary water/ethanol: influence of concentration. Phys Chem Liq 43:91–101CrossRefGoogle Scholar
  3. Berger CEH, Kooyman RPH, Greve J (1994) Resolution in surface plasmon microscopy. Rev Sci Instrum 65:2829–2836CrossRefGoogle Scholar
  4. Bigioni TP, Lin XM, Nguyen TT, Corwin EI, Witten TA, Jaeger HM (2006) Kinetically driven self assembly of highly ordered nanoparticle monolayers. Nat Mater 5:265–270CrossRefGoogle Scholar
  5. Born M, Wolf E (2003) Principles of optics, 7th edn. Cambridge Press, CambridgeGoogle Scholar
  6. Brockman JM, Nelson BP, Corn RM (2000) Surface plasmon resonance imaging measurements of ultrathin organic films. Annu Rev Phys Chem 51:41–63CrossRefGoogle Scholar
  7. Chadwick B, Gal M (1993) An optical temperature sensor using surface plasmons. Jpn J Appl Phys 32:2716–2717CrossRefGoogle Scholar
  8. Chiang HP, Leung PT, Tse WS (1998) The surface plasmon enhancement effect on absorbed molecules at elevated temperatures. J Chem Phys 108:2659–2660CrossRefGoogle Scholar
  9. Chiang H-P, Yeh H-T, Chen C-M, Wu J-C, Su S-Y, Chang R, Wu Y-J, Tsai DP, Jen SU, Leung PT (2004) Surface plasmon resonance monitoring of temperature via phase measurement. Opt Commun 241:409–418CrossRefGoogle Scholar
  10. Chon CH, Paik SW, Tipton J, Kihm KD (2007) Evaporation and dryout characteristics of nanofluids under constant voltage heating by microfabricated heater array. Langmuir 23:2953–2960CrossRefGoogle Scholar
  11. Cristofolini L (2007) Surface plasmon resonance calculator using a Matlab procedure. http://www.mathworks.com/matlabcentral/fileexchange/13700
  12. Deegan RD, Bakajin O, Dupont TF, Huber G, Nagel SR, Witten TA (1997) Capillary flow as the cause of ring stains from dried liquid drops. Nature 389:827–829CrossRefGoogle Scholar
  13. Deegan RD, Bakajin O, Dupont TF, Huber G, Nagel SR, Witten TA (2000) Contact line deposits in an evaporating drop. Phys Rev E 62:756–765CrossRefGoogle Scholar
  14. Duggal R, Hussain F, Pasquali M (2006) Self-assembly of single-walled carbon nanotubes into a sheet by drop drying. Adv Mater 18:29–34CrossRefGoogle Scholar
  15. Eckert ERG, Goldstein RJ (1970) Measurements in heat transfer. McGraw-Hill, New YorkGoogle Scholar
  16. Englebienne P, Hoonacker AV, Verhas M (2003) Surface plasmon resonance: principles, methods and applications in biomedical sciences. Spectroscopy 17:255–273Google Scholar
  17. Fen F, Stebe KJ (2004) Assembly of colloidal particles by evaporation on surfaces with patterned hydrophobicity. Langmuir 20:3062–3067CrossRefGoogle Scholar
  18. Ferrell TL, Callcott TA, Warmack RJ (1985) Plasmons and surfaces. Am Sci 73:344–353Google Scholar
  19. Fu E, Chinowsky T, Foley J, Weinstein J, Yager P (2004) Characterization of a wavelength-tunable surface plasmon resonance microscope. Rev Sci Instrum 75:2300–2304CrossRefGoogle Scholar
  20. Giebel KF, Bechinger C, Herminghaus S, Riedel M, Leiderer U, Weiland U, Bastmeyer M (1999) Imaging of cell/substrate constants of living cells with surface plasmon resonance of microscopy. Biophys J 76:509–516CrossRefGoogle Scholar
  21. Gryczynski I, Malicka J, Gryczynski Z, Nowaczyk K, Lakowicz JR (2004) Ultraviolet surface plasmon-coupled emission using thin aluminum films. Anal Chem 76:4076–4081CrossRefGoogle Scholar
  22. Gu ZZ, Yu YH, Zhang H, Chen H, Lu Z, Fujishima A, Sato O (2005) Self-assembly of monodisperse spheres on substrates with different wettability. Appl Phys A 81:47–49CrossRefGoogle Scholar
  23. Haw MD, Gillie M, Poon WC (2002) Effects of phase behavior on the drying of colloidal suspension. Langmuir 18:1626–1633CrossRefGoogle Scholar
  24. Hawes EA, Hastings JT, Crofcheck C, Menguc MP (2007) Spectrally selective heating of nanosized particles by surface plasmon resonance. J Quantum Spectrosc Radiat A 104:199–207CrossRefGoogle Scholar
  25. Hecht E (2002) Optics, 4th edn. Addison and Wesley, New YorkGoogle Scholar
  26. Ho HP, Lam WW (2003) Application of differential phase measurement technique to surface plasmon resonance sensors. Sensors Actuators B 96:554–559CrossRefGoogle Scholar
  27. Hong SW, Xu J, Lin Z (2006) Template-assisted formation of gradient concentric goldrings. Nano Lett 6:2949–2954CrossRefGoogle Scholar
  28. Hornauer D-L (1976) Light scattering experiments on silver films of different roughness using surface plasmon excitation. Opt Commun 16:76–79CrossRefGoogle Scholar
  29. Hu H, Larson RG (2006) Marangoni effect reverses coffee-ring decompositions. J Phys Chem B 110:7090–7094CrossRefGoogle Scholar
  30. Hutter E, Fendler JH (2004) Exploitation of localized surface plamon resonance. Adv Mater 16:1685–1706CrossRefGoogle Scholar
  31. Inagaki T, Kagami K, Arakawa ET (1981) Photoacoustic observation of nonradiative decay of surface plasmons in silver. Phys Rev B 24:3644–3646CrossRefGoogle Scholar
  32. Israelachvili JN (1992) Intermolecular and surface forces. Academic Press, San DiegoGoogle Scholar
  33. Johnson PB, Christy RW (1972) Optical constants of the noble metals. Phys Rev B 6:4370–4379CrossRefGoogle Scholar
  34. Joseph DD (1990) Fluid dynamics of two miscible liquids with diffusion and gradient stresses. Eur J Mech B 9:565–596Google Scholar
  35. Kihm KD (2008) Near-field and label-free imaging by surface plasmon resonance (SPR). In: Thirteenth international symposium on flow visualization. Paper No. IL2: Nice, FranceGoogle Scholar
  36. Kihm KD, Pratt DM (1999) Thickness and slope measurements of evaporative thin liquid film. J Heat Transf 121, No. 3: JHT Heat Transfer Gallery-Special InsertGoogle Scholar
  37. Kihm KD, Banerjee A, Choi CK, Takagi T (2004) Near-wall hindered Brownian diffusion of nanoparticles examined by three-dimensional ratiometric total internal reflection fluorescence microscopy (3-D R-TIRFM). Exp Fluids 37:811–824CrossRefGoogle Scholar
  38. Kim IT, Kihm KD (2006) Label-free visualization of microfluidic mixture concentration fields using a surface plasmon resonance (SPR) reflectance imaging. Exp Fluids 41:905–916CrossRefGoogle Scholar
  39. Kim IT, Kihm KD (2007a) Real-time and full-field detection of near wall Salinity using surface plasmon (SPR) reflectance. Anal Chem 79:5418–5423CrossRefGoogle Scholar
  40. Kim IT, Kihm KD (2007b) Label-free imaging of temperature fields using surface plasmon resonance (SPR) reflectance. Opt Lett 32(23):3456–3458CrossRefGoogle Scholar
  41. Kim IT, Kihm KD (2007c) Surface plasmon resonance (SPR) reflectance imaging: a label-free/real-time mapping of microscale mixture concentration fields (water+ethanol). J Heat Transf 129:128–129Google Scholar
  42. Kim IT, Kihm KD (2007d) Label-free imaging of microfluidic concentration and temperature fields using surface plasmon resonance (SPR) reflectance. In: Proceedings of 18th international symposium on transport phenomena. Paper No. ISTP18-364 Daejeon, KoreaGoogle Scholar
  43. Kim IT, Kihm KD (2008) Label-free and near-field mapping of molecular diffusion (saline solution/water) using surface plasmon resonance (SPR) refractive index field mapping. J Heat Transf 130. Paper No. 080906Google Scholar
  44. Kim IT, Kihm KD (2009) Unveiling hidden complex cavities formed during nanocrystalline self assembly. Langmuir 125:1881–1884CrossRefGoogle Scholar
  45. Kim HJ, Kihm KD, Allen JS (2003) Examination of ratiometric laser induced fluorescence thermometry for microscale spatial measurement resolution. Int J Heat Mass Transf 46:3967–3974CrossRefGoogle Scholar
  46. Kline SJ, McClintock FA (1953) Describing uncertainties in single-sample experiments. Mech Eng 75:3–8Google Scholar
  47. Knoll W (1998) Interfaces and thin films as seen by bound electromagnetic waves. Annu Rev Phys Chem 49:569–638CrossRefGoogle Scholar
  48. Kolomenskii AA, Gershon PD, Schuessler HA (1997) Sensitivity and detection limit of concentration and adsorption measurements by laser-induced surface-plasmon resonance. Appl Opt 36:6539–6547CrossRefGoogle Scholar
  49. Kotsev SN, Dushkin CD, Ilev IK, Nagayama K (2003) Refractive index of transparent nanoparticle films measured by surface plasmon microscopy. Colloid Polym Sci 281:343–352CrossRefGoogle Scholar
  50. Kretschmann EZ (1971) Die Bestimmung optisher Konstanten von Metallen durch Anregung von Oberfachenplasmaschwingungen. Physik 241:313–324CrossRefGoogle Scholar
  51. Kryukov AE, Kim Y-K, Kettersonb JB (1997) Surface plasmon scanning near-field optical microscopy. J Appl Phys 82:5411–5415CrossRefGoogle Scholar
  52. Kurihara K, Suzuki K (2002) Theoretical understanding of an absorption-based surface plasmon resonance sensor based on Kretchmann’s theory. Anal Chem 74:696–701CrossRefGoogle Scholar
  53. Lakowicz JR (2004) Radiative decay engineering 3: surface plasmon-coupled directional emission. Anal Biochem 324:153–169CrossRefGoogle Scholar
  54. Lam WW, Chu LH, Wong CL, Zhang YT (2005) A surface plasmon resonance system for the measurement of glucose in aqueous solution. Sensors Actuators B 105:138–143CrossRefGoogle Scholar
  55. Lee HJ, Li Y, Wark AW, Corn RM (2005a) Enzymatically amplified surface plasmon resonance imaging detection of DNA by Exonuclease III digestion of DNA microarrays. Anal Chem 77:5096–5100CrossRefGoogle Scholar
  56. Lee HJ, Yan Y, Marriot G, Corn RM (2005b) Quantitative functional analysis of protein complexes on surfaces. J Physiol 563(1):61–71CrossRefGoogle Scholar
  57. Libermann T, Knoll W (2000) Surface-plasmon field enhanced fluorescence spectroscopy. Colloids Surf 171:115–130CrossRefGoogle Scholar
  58. Lide DR (2005) CRC handbook of chemistry and physics, 85th edn. CRC Press (Electronic Edition), Boca RatonGoogle Scholar
  59. Liu JY, Tiefenauer L, Tian SJ, Nielsen PE, Knoll W (2006) PNA-DNA hybridization study using labeled streptavidin by voltammetry and surface plasmon fluorescence spectroscopy. Anal Chem 78:470–476CrossRefGoogle Scholar
  60. Maillard M, Motte L, Ngo AT, Pileni MP (2000) Ring and hexagons made of nanocrystals: a Marangoni effect. J Phys Chem B 104:11871–11877CrossRefGoogle Scholar
  61. Merzkirch W (1987) Flow visualization, 2nd edn. Academic Press, Orlando, pp 115–231MATHGoogle Scholar
  62. Moreels E, de Greef C, Finsy R (1984) Laser light refractometer. Appl Opt 23:3010–3013CrossRefGoogle Scholar
  63. Morgan H, Taylor DM (1994) Surface plasmon resonance microscopy: reconstructing a three-dimensional image. Appl Phys Lett 64:1330–1331CrossRefGoogle Scholar
  64. Motte L, Lacaze E, Maillard M, Pileni MP (2000) Self-assemblies of silver sulfide nanocrystals on various substrates. Langmuir 16:3803–3812CrossRefGoogle Scholar
  65. Natan MJ, Lyon LA (2002) Surface plasmon resonance biosensing with colloidal Au amplification. In: Feldheim DL, Foss CA (eds) Metal nanoparticles. Marcel Dekker, New York, pp 183–205Google Scholar
  66. Neff H, Zong W, Lima AMN, Borre M, Holzhuter G (2006) Optical properties and instrumental performance of thin gold films near the surface plasmon resonance. Thin Solid Films 496:688–697CrossRefGoogle Scholar
  67. Nelson P, Frutos AG, Brockman JM, Corn RM (1999) Near-infrared surface plasmon resonance measurements of ultrathin films 1. Angle shift and SPR imaging experiments. Anal Chem 71:3928–3934CrossRefGoogle Scholar
  68. Neumann T, Johansson M-L, Kambhampati D, Knoll W (2002) Surface-plasmon fluorescence spectroscopy. Adv Funct Mater 12:575–586CrossRefGoogle Scholar
  69. Nikitin PI, Beloglazov AA, Kochergin VE, Valeiko MV, Ksenevich TI (1999) Surface plasmon resonance interferometry for biological and chemical sensing. Sensors Actuators B 54:43–50CrossRefGoogle Scholar
  70. Otto A (1968) Excitation of surface plasma waves in silver by the method of frustrated total reflection. Z Physik 216:2135–2136CrossRefGoogle Scholar
  71. Ozdemir SK, Turhan-Sayan G (2003) Temperature effects on surface plasmon resonance: design considerations for an optical temperature sensor. J Lightwave Technol 21:805–814CrossRefGoogle Scholar
  72. Pathak SS, Savelkoul HFJ (1997) Biosensors in immunology: the story so far. Immunol Today 18:464–467CrossRefGoogle Scholar
  73. Pauchard L, Allain CCR (2003) Mechanical instability induced by complex liquid desiccation. Physique 4:231–239CrossRefGoogle Scholar
  74. Peterlinz KA, Georgiandis R (1996) In situ kinetics of self-assembly by surface plasmon resonance spectroscopy. Langmuir 12:4731–4740CrossRefGoogle Scholar
  75. Podgorsek RP, Franke H (1998) Optical determinations of molecule diffusion coefficients in polymer films. Appl Phys Lett 73:2887–2889CrossRefGoogle Scholar
  76. Podgorsek RP, Franke H (2002) Selective optical detection of aromatic vapors. Appl Opt 41:601–608CrossRefGoogle Scholar
  77. Rabani E, Reichman DR, Geissler PL, Brus LE (2003) Drying-mediated self-assembly of nanoparticles. Nature 426:271–274CrossRefGoogle Scholar
  78. Raether H (1977) Surface plasma oscillations and their application. In: Hass G, Francombe MH, Hoffmann RW (eds) Physics of thin films, vol 9. Academic, New York, pp 145–261Google Scholar
  79. Raether H (1988) Surface plasmons. Springer-Verlag, BerlinGoogle Scholar
  80. Ramanavieius A, Herberg FW, Hutschenreiter S, Zimmermann B, Lapenaite I, Kausaite A, Finkelsteinas A, Ramanavieiene A (2005) Biomedical application of surface plasmon resonance biosensors (review). Acta Medica Lituanica 12(3):1–9Google Scholar
  81. Richie RH (1957) Plasma losses by east electrons in thin films. Phys Rev 106:874–881MathSciNetCrossRefGoogle Scholar
  82. Rothenhausler B, Knoll W (1988) Surface plasmon microscopy. Nature 332:615–617CrossRefGoogle Scholar
  83. Rothenhausler B, Rabe J, Korpiun P, Knoll W (1984) On the decay of plasmon surface polaritons at smooth and rough Ag-air interfaces: a reflectance and photo-acoustic study. Surf Sci 137:373–383CrossRefGoogle Scholar
  84. Salamon Z, Macleod HA, Tollin G (1997) Surface plasmon resonance spectroscopy as a tool for investigating the biochemical and biophysical properties of membrane protein systems. Biochim Biophys Acta 1331:117–129Google Scholar
  85. Sharma AK, Gupta BD (2006) Theoretical model of fiber optic remote sensor based on surface plasmon resonance for temperature detection. Opt Fiber Technol 12:87–100CrossRefGoogle Scholar
  86. Shmuylovich L, Shen AQ, Stone HA (2002) Surface morphology of drying latex films: multiple ring formation. Langmuir 18:3441–3445Google Scholar
  87. Shumaker-Parry JS, Aebersold R, Campbell CT (2004) Parallel, quantitative measurement of protein binding to a 120-element double-stranded DNA array in real time using surface plasmon resonance microscopy. Anal Chem 76:2071–2082CrossRefGoogle Scholar
  88. Slavik R, Homola J (2007) Ultrahigh resolution long range surface plasmon-based sensor. Sensors Actuators B 123:10–12CrossRefGoogle Scholar
  89. Smolyyaninov II (2005) A far field optical microscope with nanometer-scale resolution based on in-plane surface plasmon imaging. J Opt A 7:S165–S175Google Scholar
  90. Smolyyaninov II, Davis CC, Elliot J, Zayats AV (2005a) Resolution enhancement of a surface immersion microscopy near the plasmon resonance. Opt Lett 30:382–384CrossRefGoogle Scholar
  91. Smolyyaninov II, Elliot J, Zayats AV, Davis CC (2005b) Far field optical microscope with a nanometer-scale resolution based on the in-plane imaging magnification by surface plasmon polarizations. PRL 94: 057401-1-4Google Scholar
  92. Snopok BA, Kostyukevich KV, Lysenko SI, Lytvyn PM, Lytvyn OS, Mamykin SV, Zynyo SA, Shepeliavyi PE, Kostyukevich SA, Shirshov YM, Venger EF (2001) Semiconductor physics. Quantum Electron Optoelectron 4:56Google Scholar
  93. Sommer AP (2007) Microtornadoes under a nanocrystalline igloo: results predicting a worldwide intensification of tornadoes. Cryst Growth Des 7:1031–1034CrossRefGoogle Scholar
  94. Sommer AP, Pavlath AE (2007) The subaquatic layer. Cryst Growth Des 7:18–24CrossRefGoogle Scholar
  95. Sommer AP, Rozzlosnik N (2005) Formation of crystalline ring patterns on extremely hydrophobic supersmooth substrates: extension of ring formation paradigms. Cryst Growth Des 5:551–557CrossRefGoogle Scholar
  96. Sommer AP, Zhu D (2007) Microtornadoes under a nanocrystalline igloo. 2. Results predicting a worldwide intensification of tornadoes. Cryst Growth Des 7:2373–2375CrossRefGoogle Scholar
  97. Sommer AP, Ben-Moshe M, Magdassi S (2004) Size discriminative self-assembly of nanospheres in evaporating drops. J Phys Chem B 108:8–10CrossRefGoogle Scholar
  98. Strook AD, Dertinger SKW, Ajdari A, Mezic I, Stone HA, Whitesides GM (2002) Chaotic mixer for microchannels. Science 295:647–651CrossRefGoogle Scholar
  99. Thomson JJ, Newall HF (1885) On the formation of vortex rings by drops falling into liquids, and some allied phenomena. Proc R Soc 39:417–436CrossRefGoogle Scholar
  100. Venkata PG, Aslan MM, Menguc MP, Videen G (2007) J. Heat Transf 129:60–70CrossRefGoogle Scholar
  101. Wang J, Evans RG (2006) Drying behaviour of droplets of mixed powder suspensions. J Eur Ceram Soc 26:3123–3131CrossRefGoogle Scholar
  102. White FM (2008) Fluid mechanics, 6th edn. McGraw Hill, New YorkGoogle Scholar
  103. Whitesides GM, Grzybowski B (2002) Self-assembly at all scales. Science 295:2418–2421CrossRefGoogle Scholar
  104. Wood RW (1902) On a remarkable case of uneven distribution of light in a diffraction grating spectrum. Phil Magm 4:396–402Google Scholar
  105. Xinglong Y, Dingxin W, Xing W, Xiang D, Wei L, Xinsheng Z (2005) A surface plasmon resonance imaging interferometry for protein micro-array detection. Sensors Actuators B 108:765–771CrossRefGoogle Scholar
  106. Xu X, Luo J (2007) Marangoni flow in an evaporating water droplet. Appl Phys Lett 91:124102CrossRefGoogle Scholar
  107. Xu J, Xia J, Lin Z (2007) Evaporation-induced self-assembly of nanoparticles from a sphere-on-flat geometry. Angew Chem 46:1860–1863CrossRefGoogle Scholar
  108. Yuk JS, Ha K (2005) Proteomic applications of surface plasmon resonance biosensors: analysis of protein arrays. Exp Mol Med 37:1–10Google Scholar
  109. Zeng J, Liang D, Cao Z (2005) Applications of optical fiber SPR sensor for measuring of temperature and concentration of liquids. Proc SPIE 5855:667–669CrossRefGoogle Scholar
  110. Zhang T, Morgan H, Curtis ASG, Riehle M (2001) Measuring particle-substrate distance with surface plasmon resonance microscopy. J Opt A 3:333–337Google Scholar

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© Springer-Verlag 2009

Authors and Affiliations

  1. 1.Mechanical, Aerospace, and Biomedical EngineeringUniversity of TennesseeKnoxvilleUSA

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