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Spectra of rhodamine

Figure 9.17 Absorption and fluorescence spectra of rhodamine B in methanol (5 X 10 mol 1 ). The curve marked is for the J 2 absorption (process 8 in Figure 9.18) and that marked 5 for process 1. (Reproduced, with permission, from Dienes, A. and Shank, C. Y, Chapter 4 in Creation and Detection of the Excited State (Ed. W. R. Ware), Vol. 2, p. 154, Marcel Dekker, New York, 1972)... Figure 9.17 Absorption and fluorescence spectra of rhodamine B in methanol (5 X 10 mol 1 ). The curve marked is for the J 2 absorption (process 8 in Figure 9.18) and that marked 5 for process 1. (Reproduced, with permission, from Dienes, A. and Shank, C. Y, Chapter 4 in Creation and Detection of the Excited State (Ed. W. R. Ware), Vol. 2, p. 154, Marcel Dekker, New York, 1972)...
Grochala, Kudelski, and Bukowska [228] have described the anion-induced charge-transfer enhancement in S E RS and S E RRS spectra of rhodamine 6G on Ag electrode as a function of the electrode potential, upon addition of chloride and citrate anions. In a very recent paper, Brolo et al. [229] have discussed the ratio of the surface-enhanced anti-Stokes scattering to the surface-enhanced Stokes-Raman... [Pg.934]

Figure 7.23 Absorption and excitation spectra of Rhodamine G in ethanol, (a) Corrected excitation (open circles) compared with absorption (full line), (b) Uncorrected excitation spectrum. Vertical axes, fluorescence intensity in arbitrary units... Figure 7.23 Absorption and excitation spectra of Rhodamine G in ethanol, (a) Corrected excitation (open circles) compared with absorption (full line), (b) Uncorrected excitation spectrum. Vertical axes, fluorescence intensity in arbitrary units...
Figure 11.5a shows SHG spectra of rhodamine B (RB) adsorbed at the heptane/water interface. A single major peak assigned to a resonance with the Sq-S i electronic transition of RB is recognized in each spectrum. The peak positions in these spectra are determined by fitting data points to a combination of Lorentzian functions based on the two-state model [60]. [Pg.241]

The Mass Spectra of Rhodamine B Separated on Aluminum Backed TLC Plates with an Organic Binder... [Pg.435]

Grochala W, Kudelski A, Bukowska J (1998) Anion-induced charge-transfer enhancement in SERS and SERRS spectra of Rhodamine 6 G on a silver electrode how important is it J Raman Spectrosc 29 681-685... [Pg.584]

Figure 1.5. Spectra of rhodamine 6G obtained with a 514.5 nm laser and dispersive spectrometer (upper) or an FT-Raman spectrometer and 1064 nm laser (lower). Intensity scales differ greatly, with the upper spectrum being much more intense. Figure 1.5. Spectra of rhodamine 6G obtained with a 514.5 nm laser and dispersive spectrometer (upper) or an FT-Raman spectrometer and 1064 nm laser (lower). Intensity scales differ greatly, with the upper spectrum being much more intense.
Figure 29.11 Picosecond time-resolved TFD-IR spectra of Rhodamine-6G at several delaytimes. The visible light is fixed 585 nm and the IR wavelength was scanned from 2 7 iim ° (3700cm n) to 8pm (laSOciTT1). H... Figure 29.11 Picosecond time-resolved TFD-IR spectra of Rhodamine-6G at several delaytimes. The visible light is fixed 585 nm and the IR wavelength was scanned from 2 7 iim ° (3700cm n) to 8pm (laSOciTT1). H...
The absorption and fluorescence spectra of rhodamine B molecules encapsulated in silica gel networks and the resulting changes in their thermal stability have also been studied. Aggregates of rhodamine 6G in aqueous surfactant solutions have also been characterized by photophysical methods. ... [Pg.18]

Figure 3. Absorption and emission cross section spectra of Rhodamine 101 perchlorate in bulk PMMA. Figure 3. Absorption and emission cross section spectra of Rhodamine 101 perchlorate in bulk PMMA.
Figure 6 (A) Cell for Raman or FTIR microscopy. (Reprinted with permission from Ren B, Li XQ, She CX, Wu DY, and Tian ZQ (2000) Electrochimica Acta 46 193-205. 2000, with permission from Elsevier.). (B) Near-field (a) and confocal (b) SERS spectra of Rhodamine 6G adsorbed on single silver nanoparticles. (Reproduced with permission from Emory SR and Nie SM (1997) 69 2631-2635 American Chemical Society.)... Figure 6 (A) Cell for Raman or FTIR microscopy. (Reprinted with permission from Ren B, Li XQ, She CX, Wu DY, and Tian ZQ (2000) Electrochimica Acta 46 193-205. 2000, with permission from Elsevier.). (B) Near-field (a) and confocal (b) SERS spectra of Rhodamine 6G adsorbed on single silver nanoparticles. (Reproduced with permission from Emory SR and Nie SM (1997) 69 2631-2635 American Chemical Society.)...
The absorption spectra of Rhodamine 6G ions (R6G+, mass 479 amu) and Glyc-errhetinic acid ions (GAH+, mass 470 amu) in solution are shown in Figure 18.30. [Pg.686]

Fujii T, Nishikiori H, Tamura T (1995) Absorption-spectra of rhodamine-b dimers in dip-coated thin-films prepared by the sol-gel method. Chem Phys Lett 233(4) 424—429. doi 10.1016/0009-2614(94)01477-d... [Pg.148]

Figure 8. Schematic for a fluorophore solution between two silver island films. The solid ellipsoids represent the silver island films (Top). The effect of silver island films on the emission spectra of Rhodamine B (Middle) and Rose Bengal (Bottom). Adapted firom reference 17. Figure 8. Schematic for a fluorophore solution between two silver island films. The solid ellipsoids represent the silver island films (Top). The effect of silver island films on the emission spectra of Rhodamine B (Middle) and Rose Bengal (Bottom). Adapted firom reference 17.
Figure 4, SERS/SERRS spectra of rhodamine 6G, cast onto 14 bilayer avidin/Ag nanoparticle LbL film, and recorded using laser excitation at (a) 442, (b) 514, (c) 633, and (d) 785 nm. Figure 4, SERS/SERRS spectra of rhodamine 6G, cast onto 14 bilayer avidin/Ag nanoparticle LbL film, and recorded using laser excitation at (a) 442, (b) 514, (c) 633, and (d) 785 nm.
Figure 15.13 Fluorescence spectra of rhodamine B in alkylamine intercalated silylated graphite oxide (A) with and (B) without perfluoroalky groups. (Reprinted with permission from [32] Copyright (1999) Royal Society of Chemistry.)... Figure 15.13 Fluorescence spectra of rhodamine B in alkylamine intercalated silylated graphite oxide (A) with and (B) without perfluoroalky groups. (Reprinted with permission from [32] Copyright (1999) Royal Society of Chemistry.)...
Figure 21 Effect of self-assembly of NRs on SERS. (a) SERS spectra of Rhodamine-6G adsorbed on the surface of side-by-side (b) and end-to-end (c) assembled gold NRs shown in the SEM images. Reproduced, with permission, from Kawamura, G. Yang, Y. Nogami, M. Appl. Phys. Lett. 2007, 90, 261908-261903. ... Figure 21 Effect of self-assembly of NRs on SERS. (a) SERS spectra of Rhodamine-6G adsorbed on the surface of side-by-side (b) and end-to-end (c) assembled gold NRs shown in the SEM images. Reproduced, with permission, from Kawamura, G. Yang, Y. Nogami, M. Appl. Phys. Lett. 2007, 90, 261908-261903. ...

See other pages where Spectra of rhodamine is mentioned: [Pg.58]    [Pg.2347]    [Pg.303]    [Pg.18]    [Pg.20]    [Pg.377]    [Pg.224]    [Pg.2347]    [Pg.224]    [Pg.221]   


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