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Bhattacharyya and SK, SDS Pal of D, systems Mandal micelle [32] mixed and single of analysis Fluorescence EH. Thompson JA, Whiles PJ, Waller SW, Suljak and KK, properties Karukstis solvent interfacial [31] the both of determination the for probe spectroscopic single A TW. Healy F, Grieser CJ, the Drummond of investigation [30] spectroscopic resonance magnetic proton and Absorption L. Patterson PS, Shih GA, Infante EJ, Fendler JH, Fendler [29] Al M, Novo permeability L, the Piñeiro affecting [28] factors systems micellar ionic aqueous in quenching fluorescence pyrene of Dynamics JK. Thomas M, Grätzel fluorescence pyrene [27] by microenvironments in hydrophobicity the of Estimation S. Mitaku T, Hayakawa M, Nomura S, Ishido H, radiation Itoh on [26] charge and structure of Effect JK. applica- Thomas their [25] and fluorescence monomer pyrene in intensities band vibronic on effects Environmental JK. Thomas K, Kalyanasundaram [24] Surfactant WL. 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– l ielsa oladwtrdcnaiainaet.Ce Rev. Chem agents. decontamination water and soil as Micelles al. – – water/drinking 5729. tt ertnto.JCe dc 1996;73(3):254. Educ. Chem J deprotonation. state – 6029. – mne oltetdwt ufsciaaesur- sulfosuccinamate a with treated soil amended – water – – 278. health – – advisories 108. – – 1305. 113. – 317. – – 683. 1472. – – 2):235 – – 29. ‐ – 1148A. pfoa lsia ir group nitro classical 4542. – – 225. and – Pharr fs Ac- pfos. – – F 6024. – – 16 431. – – – 987. 21 – Automatically generated rough PDF by ProofCheck from River Valley Technologies Ltd 16 hrunBrsD aa .Ipoeet otesetohtmti eemnto fgraimwt hnllooe Analyst. phenylfluorone. with germanium of determination spectrophotometric the to Improvements D. Dagar Biochem. D, Clin ThorburnáBurns (SLS). [106] sulfate lauryl sodium using by determination hemoglobin for method New J. Maeda T, Takenaka I, Oshiro [105] Leon [104] using ion (II) Ni of amounts trace of determination spectrophotometric sensitized and Selective M. and Ghaedi ruthenium copper, [103] palladium, nickel cobalt, of determination Spectrophotometric AL. Rao W, Faubel BS, Lark KN, Kaul AK, Malik [102] 2 with zinc of determination Spectrophotometric SS. Wu T, Zhe [101] 2 with silver of determination Spectrophotometric SS. Wu CL, Qu SC, Hung [100] 2 with zirconium of traces of determination spectrophotometric Sensitive TZ. Zhou DY, CP, Qi Zhang [99] 2 with (VI) uranium of determination Spectrophotometric SS. Wu CL, Qu SC, Hung [98] Fu [97] Dual H. Ohmori Sur- H, Watanabe J [96] green. Alizarin with samples pharmaceutical in bromide benzalkonium of determination Spectrophotometric W. Ma H, Wu Y, Liu after [95] peptides and acids amino of determination spectrophotometric reaction: analytical an of catalysis MP. Micellar Wong KA, organic Connors in [94] addition and substitution nucleophilic in catalysis micellar of Use K. Martinek AK, Yatsimirskii NT, Yatsimirskaya IV, cyanide Berezin of [93] determination spectrophotometry the improve to medium micellar aqueous an of Use DW. Armstrong W, Hinze S, Spurlin [92] proton and probing Fluorescence G. 8 Durocher with M, water Belletete RS, in Sarpal nitrite [91] of determination spectrophotometric The VK. Gupta J, Nair [90] p with nitrite of determination Spectrophotometric AL. FP, Underwood Tsao [89] [88] alky- and S, Red Alizarin dye, anionic [87] an between interactions binding the of appraisal quantitative A RK. Mahajan A, Kamal R, Sharma surfactants. [86] cationic and reagents triphenylmethane some with aluminium of complexes ternary of Formation M. Jarosz Chem Z, Undergraduate Marczenko J [85] system. solvent surfactant a using analysis injection flow by cobalt(II) of Determination DY. Pharr 1990;48:79 SG, Surf. 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