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Sensory effects of fluorescent organic dyes

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1 D. Mendeleev University of Chemical Technology of Russia, Moscow
10.1070/RCR4909
Published 30 November 2019
Review , RCR4909, Volume 89, Issue 7, 713-749
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Traven' V. F., Cheptsov D. A. Sensory effects of fluorescent organic dyes // Russian Chemical Reviews. 2019. Vol. 89. No. 7. pp. 713-749.
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Traven' V. F., Cheptsov D. A. Sensory effects of fluorescent organic dyes // Russian Chemical Reviews. 2019. Vol. 89. No. 7. pp. 713-749.
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TY - JOUR
DO - 10.1070/RCR4909
UR - https://rcr.colab.ws/publications/10.1070/RCR4909
TI - Sensory effects of fluorescent organic dyes
T2 - Russian Chemical Reviews
AU - Traven', Valerii Fedorovich
AU - Cheptsov, Dmitrii Andreevich
PY - 2019
DA - 2019/11/30
PB - ANO Editorial Board of the journal Uspekhi Khimii
SP - 713-749
IS - 7
VL - 89
ER -
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@article{2019_Traven',
author = {Valerii Fedorovich Traven' and Dmitrii Andreevich Cheptsov},
title = {Sensory effects of fluorescent organic dyes},
journal = {Russian Chemical Reviews},
year = {2019},
volume = {89},
publisher = {ANO Editorial Board of the journal Uspekhi Khimii},
month = {Nov},
url = {https://rcr.colab.ws/publications/10.1070/RCR4909},
number = {7},
pages = {713--749},
doi = {10.1070/RCR4909}
}
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Traven', Valerii Fedorovich, and Dmitrii Andreevich Cheptsov. “Sensory effects of fluorescent organic dyes.” Russian Chemical Reviews, vol. 89, no. 7, Nov. 2019, pp. 713-749. https://rcr.colab.ws/publications/10.1070/RCR4909.
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Keywords

analytes
chemodosimeters
chemosensors
dyes
fluorescence
Organic reactions
sensory effects

Abstract

Organic dyes are very promising substrates for modern sensing technologies. Their utility is based on the ``push-pull'' polarization of a p-electron system, as well as their polyfunctionality. These properties make organic dyes capable of fluorescent sensory response to many analytes and provide different mechanisms of both fluorescence increase and fluorescence quenching. Specific organic reactions and structural transformations of fluorescent organic dyes are under consideration in this review. The data confirming the structures of the products of the related analytical reactions are discussed in more detail. Knowledge of the transformations that fluorescent organic dyes undergo in sensory effects can contribute to successful design of specific probes for novel sensory technologies. The bibliography includes 365 references.

Funders

Russian Science Foundation
17-13-01302

References

1.
rcr_89_7_713_bib1
Lakowicz
2006
2.
Luminescent Chemodosimeters for Bioimaging
Yang Y., Zhao Q., Feng W., Li F.
Chemical Reviews , 2012
4.
Design strategies for lab-on-a-molecule probes and orthogonal sensing
Chen K., Shu Q., Schmittel M.
Chemical Society Reviews , 2015
7.
Recent progress in thin film fluorescent probe for organic amine vapour
Fu Y., Xu W., He Q., Cheng J.
Science China Chemistry , 2015
8.
Mechanoresponsive Luminescent Molecular Assemblies: An Emerging Class of Materials
Sagara Y., Yamane S., Mitani M., Weder C., Kato T.
Advanced Materials , 2015
9.
Fluorescent chemosensors: the past, present and future
Wu D., Sedgwick A.C., Gunnlaugsson T., Akkaya E.U., Yoon J., James T.D.
Chemical Society Reviews , 2017
12.
Fluorescent Chemosensors as Future Tools for Cancer Biology
Singh K., Rotaru A.M., Beharry A.A.
ACS Chemical Biology , 2018
13.
Macro-/micro-environment-sensitive chemosensing and biological imaging.
Yang Z., Cao J., He Y., Yang J.H., Kim T., Peng X., Kim J.S.
Chemical Society Reviews , 2014
14.
Excited-state intramolecular proton-transfer (ESIPT) based fluorescence sensors and imaging agents
Sedgwick A.C., Wu L., Han H., Bull S.D., He X., James T.D., Sessler J.L., Tang B.Z., Tian H., Yoon J.
Chemical Society Reviews , 2018
16.
Fluorogenic probes for disease-relevant enzymes.
Zhang J., Chai X., He X., Kim H., Yoon J., Tian H.
Chemical Society Reviews , 2019
17.
Fluorescent pH nanosensors: Design strategies and applications
Shamsipur M., Barati A., Nematifar Z.
Journal of Photochemistry and Photobiology C: Photochemistry Reviews , 2019
18.
Fluorescent Sensors for the Detection of Heavy Metal Ions in Aqueous Media
De Acha N., Elosúa C., Corres J., Arregui F.
Sensors , 2019
19.
Recent advances in chromo-fluorogenic probes for fluoride detection
Han J., Zhang J., Gao M., Hao H., Xu X.
Dyes and Pigments , 2019
20.
rcr_89_7_713_bib20
Pal
RSC Adv. , 2014
24.
Fluorescent Sensors for Measuring Metal Ions in Living Systems
Carter K.P., Young A.M., Palmer A.E.
Chemical Reviews , 2014
27.
Fluorescent Chemosensors Based on Spiroring-Opening of Xanthenes and Related Derivatives
Chen X., Pradhan T., Wang F., Kim J.S., Yoon J.
Chemical Reviews , 2011
28.
Advances in modifying fluorescein and rhodamine fluorophores as fluorescent chemosensors
Zheng H., Zhan X., Bian Q., Zhang X.
Chemical Communications , 2013
29.
Fluorescent indicators based on BODIPY
Boens N., Leen V., Dehaen W.
Chemical Society Reviews , 2012
30.
Advances in Coumarin-Derived Fluorescent Chemosensors for Metal Ions
Song Y., Chen Z., Li H.
Current Organic Chemistry , 2012
31.
Inhibition of the Human Thioredoxin System
Carvalho C.M., Chew E., Hashemy S.I., Lu J., Holmgren A.
Journal of Biological Chemistry , 2008
33.
Turn-On and Ratiometric Mercury Sensing in Water with a Red-Emitting Probe
Nolan E.M., Lippard S.J.
Journal of the American Chemical Society , 2007
34.
Recognition of Hg2+ and Cr3+ in Physiological Conditions by a Rhodamine Derivative and Its Application as a Reagent for Cell-Imaging Studies
Saha S., Mahato P., G U.R., Suresh E., Chakrabarty A., Baidya M., Ghosh S.K., Das A.
Inorganic Chemistry , 2011
35.
Thioether-Based Fluorescent Covalent Organic Framework for Selective Detection and Facile Removal of Mercury(II)
Ding S., Dong M., Wang Y., Chen Y., Wang H., Su C., Wang W.
Journal of the American Chemical Society , 2016
36.
rcr_89_7_713_bib36
Suresh
2008
37.
rcr_89_7_713_bib37
Ou
2006
38.
Dithiolane linked thiorhodamine dimer for Hg2+ recognition in living cells
Liu W., Xu L., Zhang H., You J., Zhang X., Sheng R., Li H., Wu S., Wang P.
Organic and Biomolecular Chemistry , 2009
39.
Regenerable DNA-Functionalized Hydrogels for Ultrasensitive, Instrument-Free Mercury(II) Detection and Removal in Water
Dave N., Chan M.Y., Huang P.J., Smith B.D., Liu J.
Journal of the American Chemical Society , 2010
40.
Chemically derived optical sensors for the detection of cesium ions
Kumar N., Leray I., Depauw A.
Coordination Chemistry Reviews , 2016
41.
Intracellular Imaging of Cesium Distribution in Arabidopsis Using Cesium Green
Akamatsu M., Komatsu H., Mori T., Adams E., Shin R., Sakai H., Abe M., Hill J.P., Ariga K.
ACS applied materials & interfaces , 2014
42.
Turn “Off–On” Fluorescent Recognition of Cu2+and Cys in Aqueous Medium: Implementation of Molecular Logic Gate and Cell Imaging Studies
Kumar V., Kumar A., Diwan U., Singh M.K., Upadhyay K.K.
Bulletin of the Chemical Society of Japan , 2016
43.
Selective and Sensitive Chromogenic Detection of Trivalent Metal Cations in Water
Lozano-Torres B., El Sayed S., Costero A.M., Gil S., Parra M., Martínez-Máñez R., Sancenón F.
Bulletin of the Chemical Society of Japan , 2016
44.
New Hg2+-Selective Chromo- and Fluoroionophore Based upon 8-Hydroxyquinoline
Moon S.Y., Cha N.R., Kim Y.H., Chang S.
Journal of Organic Chemistry , 2003
46.
Highly sensitive and selective turn-on fluorescent chemosensor for Pb2+ and Hg2+ based on a rhodamine–phenylurea conjugate
Hu Z., Lin C., Wang X., Ding L., Cui C., Liu S., Lu H.Y.
Chemical Communications , 2010
47.
Development of a Fluorescent Pb2+ Sensor
Marbella L., Serli-Mitasev B., Basu P.
Angewandte Chemie - International Edition , 2009
48.
rcr_89_7_713_bib48
Li
J. Am. Chem. Soc. , 2000
50.
Electrochemical Detection of Parts-Per-Billion Lead via an Electrode-Bound DNAzyme Assembly
Xiao Y., Rowe A.A., Plaxco K.W.
Journal of the American Chemical Society , 2006
52.
A Trinuclear Zinc–Schiff Base Complex: Biocatalytic Activity and Cytotoxicity
Dey D., Kaur G., Ranjani A., Gayathri L., Chakraborty P., Adhikary J., Pasan J., Dhanasekaran D., Choudhury A.R., Akbarsha M.A., Kole N., Biswas B.
European Journal of Inorganic Chemistry , 2014
53.
Identification and Purification of Functional Human β-cells by a New Specific Zinc-fluorescent Probe
Lukowiak B., Vandewalle B., Riachy R., Kerr–Conte J., Gmyr V., Belaich S., Lefebvre J., Pattou F.
Journal of Histochemistry and Cytochemistry , 2001
54.
rcr_89_7_713_bib54
Osredka
2011
55.
rcr_89_7_713_bib55
Saleem
RSC Adv. , 2015
58.
Disorders of iron metabolism.
Andrews N.C.
New England Journal of Medicine , 1999
59.
Redox signaling and cancer: The role of “labile” iron
Galaris D., Skiada V., Barbouti A.
Cancer Letters , 2008
60.
rcr_89_7_713_bib60
Weinberg
Eur. J. Cancer Prev. , 1996
61.
rcr_89_7_713_bib61
Alez
2012
62.
Three Rhodamine-Based “Off–On” Chemosensors with High Selectivity and Sensitivity for Fe3+ Imaging in Living Cells
Yang Z., She M., Yin B., Cui J., Zhang Y., Sun W., Li J., Shi Z.
Journal of Organic Chemistry , 2011
63.
Fast Response and High Sensitivity Europium Metal Organic Framework Fluorescent Probe with Chelating Terpyridine Sites for Fe3+
Zheng M., Tan H., Xie Z., Zhang L., Jing X., Sun Z.
ACS applied materials & interfaces , 2013
66.
Metals in Neurobiology: Probing Their Chemistry and Biology with Molecular Imaging
Que E.L., Domaille D.W., Chang C.J.
Chemical Reviews , 2008
68.
Copper in disorders with neurological symptoms: Alzheimer’s, Menkes, and Wilson diseases
Strausak D., Mercer J.F., Dieter H.H., Stremmel W., Multhaup G.
Brain Research Bulletin , 2001
69.
Misfolded CuZnSOD and amyotrophic lateral sclerosis
Valentine J.S., Hart P.J.
Proceedings of the National Academy of Sciences of the United States of America , 2003
70.
Neurodegenerative diseases and oxidative stress
Barnham K.J., Masters C.L., Bush A.I.
Nature Reviews Drug Discovery , 2004
72.
Removal of mercury (II) from aqueous solution by activated carbon obtained from furfural
Yardim M.F., Budinova T., Ekinci E., Petrov N., Razvigorova M., Minkova V.
Chemosphere , 2003
73.
A selective fluorescent sensor for imaging Cu2+ in living cells
Jiao L., Li J., Zhang S., Wei C., Hao E., Vicente M.G.
New Journal of Chemistry , 2009
75.
rcr_89_7_713_bib75
Nemec
Cell. Mol. Biol. , 2009
76.
Nickel carcinogenesis: Epigenetics and hypoxia signaling
Costa M., Davidson T.L., Chen H., Ke Q., Zhang P., Yan Y., Huang C., Kluz T.
Mutation Research - Fundamental and Molecular Mechanisms of Mutagenesis , 2005
78.
On-line system for preconcentration and determination of metals in vegetables by Inductively Coupled Plasma Optical Emission Spectrometry
Bezerra M.A., dos Santos W.N., Lemos V.A., Korn M.D., Ferreira S.L.
Journal of Hazardous Materials , 2007
79.
On-line preconcentration/determination of copper in parenteral solutions using activated carbon by inductively coupled plasma optical emission spectrometry
Takara E.A., Pasini-Cabello S.D., Cerutti S., Gásquez J.A., Martinez L.D.
Journal of Pharmaceutical and Biomedical Analysis , 2005
83.
Characterization of the P IB -Type ATPases Present in Thermus thermophilus
Schurig-Briccio L.A., Gennis R.B.
Journal of Bacteriology , 2012
86.
Toxicity of Gold Nanoparticles Functionalized with Cationic and Anionic Side Chains
Goodman C.M., McCusker C.D., Yilmaz T., Rotello V.M.
Bioconjugate Chemistry , 2004
87.
In vitro toxicity of palladium(II) and gold(III) porphyrins and their aqueous metal ion counterparts on Trypanosoma brucei brucei growth
Nyarko E., Hara T., Grab D.J., Habib A., Kim Y., Nikolskaia O., Fukuma T., Tabata M.
Chemico-Biological Interactions , 2004
88.
Fluorescent and colorimetric probes for detection of thiols
Chen X., Zhou Y., Peng X., Yoon J.
Chemical Society Reviews , 2010
89.
rcr_89_7_713_bib89
Zhou
Chem. Soc. Rev. , 2012
90.
“Turn-on” fluorescent sensing with “reactive” probes
Eun Jun M., Roy B., Han Ahn K.
Chemical Communications , 2011
92.
Determination of Blood Total, Reduced, and Oxidized Glutathione in Pediatric Subjects
Federici G., Tozzi G., Gaeta L.M., Lo Russo A., Locatelli M., Piemonte F., Pastore A.
Clinical Chemistry , 2001
93.
The importance of glutathione in human disease
Townsend D.M., Tew K.D., Tapiero H.
Biomedicine and Pharmacotherapy , 2003
94.
rcr_89_7_713_bib94
1991
95.
rcr_89_7_713_bib95
1981
96.
rcr_89_7_713_bib96
2008
97.
rcr_89_7_713_bib97
Thompson
2001
98.
Synthesis and recognition properties for copper ions and cyanide anions of two coumarin hydrazide compounds
Ma L., Xu Y., Wang K., Zhou C., Cao D., Shan Y., Wu Q.
Inorganic Chemistry Communication , 2015
99.
Anion sensing by small molecules and molecular ensembles
Gale P.A., Caltagirone C.
Chemical Society Reviews , 2015
101.
Colorimetric and fluorescent anion sensors: an overview of recent developments in the use of 1,8-naphthalimide-based chemosensors
Duke R.M., Veale E.B., Pfeffer F.M., Kruger P.E., Gunnlaugsson T.
Chemical Society Reviews , 2010
102.
Anion receptor chemistry: highlights from 2008 and 2009
Gale P.A.
Chemical Society Reviews , 2010
104.
An ideal detector composed of a 3D Gd-based coordination polymer for DNA and Hg2+ ion
Zhao S., Wu L., Feng J., Song S., Zhang H.
Inorganic Chemistry Frontiers , 2016
106.
rcr_89_7_713_bib106
Zhang
Tetrahedron , 2013
107.
A new phosphorescent chemosensor bearing Zn-DPA sites for H2PO4−
Kim H., Liu Y., Nam D., Li Y., Park S., Yoon J., Hyun M.H.
Dyes and Pigments , 2014
108.
Imidazolium receptors for the recognition of anions
Yoon J., Kim S.K., Singh N.J., Kim K.S.
Chemical Society Reviews , 2006
109.
Fluorescence sensor for sequential detection of zinc and phosphate ions
An M., Kim B., Seo H., Helal A., Kim H.
Spectrochimica Acta - Part A: Molecular and Biomolecular Spectroscopy , 2016
110.
Anion receptor chemistry.
Gale P.A.
Chemical Communications , 2011
111.
Fluorescence probes used for detection of reactive oxygen species
Gomes A., Fernandes E., Lima J.L.
Journal of Biochemical and Biophysical Methods , 2005
112.
A highly specific fluorescent probe for hypochlorite based on fluorescein derivative and its endogenous imaging in living cells
Wang B., Chen D., Kambam S., Wang F., Wang Y., Zhang W., Yin J., Chen H., Chen X.
Dyes and Pigments , 2015
115.
A Highly Specific Fluorescent Probe for Hypochlorous Acid and Its Application in Imaging Microbe-Induced HOCl Production
Xu Q., Lee K., Lee S., Lee K.M., Lee W., Yoon J.
Journal of the American Chemical Society , 2013
116.
Nitrate and periplasmic nitrate reductases
Sparacino-Watkins C., Stolz J.F., Basu P.
Chemical Society Reviews , 2014
121.
Upconversion nanoparticles for ratiometric fluorescence detection of nitrite
Han J., Zhang C., Liu F., Liu B., Han M., Zou W., Yang L., Zhang Z.
The Analyst , 2014
122.
Nitrite ion-induced fluorescence quenching of luminescent BSA-Au25nanoclusters: mechanism and application
Unnikrishnan B., Wei S., Chiu W., Cang J., Hsu P., Huang C.
The Analyst , 2014
123.
Integrated Metabonomic Analysis of the Multiorgan Effects of Hydrazine Toxicity in the Rat
Garrod S., Bollard M.E., Nicholls A.W., Connor S.C., Connelly J., Nicholson J.K., Holmes E.
Chemical Research in Toxicology , 2005
126.
A Chemodosimeter for the Ratiometric Detection of Hydrazine Based on Return of ESIPT and Its Application in Live-Cell Imaging
Goswami S., Das S., Aich K., Pakhira B., Panja S., Mukherjee S.K., Sarkar S.
Organic Letters , 2013
127.
rcr_89_7_713_bib127
Zelnick
Aviat. Space Environ. Med. , 2003
129.
Boron–Phenylpyrrin Dyes: Facile Synthesis, Structure, and pH‐Sensitive Properties
Chen Y., Qi D., Zhao L., Cao W., Huang C., Jiang J.
Chemistry - A European Journal , 2013
130.
A novel fully water-soluble Cu(i) probe for fluorescence live cell imaging
Giuffrida M.L., Rizzarelli E., Tomaselli G.A., Satriano C., Trusso Sfrazzetto G.
Chemical Communications , 2014
131.
Rational design, synthesis, and spectroscopic and photophysical properties of a visible-light-excitable, ratiometric, fluorescent near-neutral pH indicator based on BODIPY.
Boens N., Qin W., Baruah M., De Borggraeve W.M., Filarowski A., Smisdom N., Ameloot M., Crovetto L., Talavera E.M., Alvarez-Pez J.M.
Chemistry - A European Journal , 2011
132.
Sensing Hg(II) in Vitro and in Vivo Using a Benzimidazole Substituted BODIPY
Madhu S., Sharma D.K., Basu S.K., Jadhav S., Chowdhury A., Ravikanth M.
Inorganic Chemistry , 2013
133.
rcr_89_7_713_bib133
Kong
Angew. Chem., Int. Ed. , 2015
134.
Chromogenic and Fluorogenic Sensing of Biological Thiols in Aqueous Solutions Using BODIPY-Based Reagents
Isik M., Ozdemir T., Turan I.S., Kolemen S., Akkaya E.U.
Organic Letters , 2012
135.
A BODIPY-based dual-responsive turn-on fluorescent probe for NO and nitrite
Zhang J., Pan F., Jin Y., Wang N., He J., Zhang W., Zhao W.
Dyes and Pigments , 2018
136.
In vivo fluorescence imaging for Cu2+ in live mice by a new NIR fluorescent sensor
Xue X., Fang H., Chen H., Zhang C., Zhu C., Bai Y., He W., Guo Z.
Dyes and Pigments , 2016
137.
Naked-eye fluorescent sensor for Cu(II) based on indole conjugate BODIPY dye
Tümay S.O., Okutan E., Sengul I.F., Özcan E., Kandemir H., Doruk T., Çetin M., Çoşut B.
Polyhedron , 2016
138.
BODIPY-based ratiometric fluorescent sensor for highly selective detection of glutathione over cysteine and homocysteine.
Niu L., Guan Y., Chen Y., Wu L., Tung C., Yang Q.
Journal of the American Chemical Society , 2012
139.
“Turn on” orange fluorescent probe based on styryl-BODIPY for detection of hypochlorite and its application in live cell imaging
Jantra S., Butta P., Jithavech P., Rojsitthisak P., Palaga T., Rashatasakhon P., Sukwattanasinitt M., Wacharasindhu S.
Dyes and Pigments , 2019
140.
An acac-BODIPY dye as a reversible “ON-OFF-ON” fluorescent sensor for Cu2+ and S2- ions based on displacement approach
More A.B., Mula S., Thakare S., Chakraborty S., Ray A.K., Sekar N., Chattopadhyay S.
Journal of Luminescence , 2017
141.
Luminescent sensors and switches in the early 21st century
Callan J.F., de Silva A.P., Magri D.C.
Tetrahedron , 2005
143.
Silva A.P., Goligher A., Gunaratne H.Q., Rice T.E.
Arkivoc , 2003
145.
Spectra of lasing efficiency in lasers with solutions of complex organic compounds
Gruzinskii V.V., Kukhto A.V., Shakkakh G.K.
Journal of Applied Spectroscopy , 1998
147.
Synthesis of 3,6-disulfonated 4-aminonaphthalimides
Stewart W.W.
Journal of the American Chemical Society , 1981
149.
Side-chain electroluminescent polymers
Bouché C.-., Berdagué P., Facoetti H., Robin P., Le Barny P., Schott M.
Synthetic Metals , 1996
151.
Synthesis and properties of fluorescent 1,8-naphthalimide dyes for application in liquid crystal displays
Grabchev I., Moneva I., Bojinov V., Guittonneau S.
Journal of Materials Chemistry A , 2000
154.
Ferrocenyl derivative of 1,8-naphthalimide as a new turn-on fluorescent sensor for Au(III) ion
Chinapang P., Ruangpornvisuti V., Sukwattanasinitt M., Rashatasakhon P.
Dyes and Pigments , 2015
155.
A new “turn-on” fluorescent sensor for highly selective sensing of H 2 PO 4 −
Liu P., Chen H., Xu N., Wang H., Meng X., Zhou Z., Su Z.
Inorganic Chemistry Communication , 2017
157.
A novel 1,8-naphthalimide derivative as an efficient silver(I) fluorescent sensor
Fu Y., Li P., Kang J., Liu X., Li G., Ye F.
Journal of Luminescence , 2016
161.
Mesomorphic behavior of new azomethine liquid crystals having terminal iodo group
Ha S., Lee T., Yeap G., Ito M.M., Saito A., Watanabe M.
Chinese Chemical Letters , 2011
164.
A naphtholic Schiff base for highly selective sensing of cyanide via different channels in aqueous solution
Zhang P., Shi B., Wei T., Zhang Y., Lin Q., Yao H., You X.
Dyes and Pigments , 2013
165.
rcr_89_7_713_bib165
Ibrahim
Molecules , 2012
170.
Structural characterization, luminescence and electrochemical properties of the Schiff base ligands
Ceyhan G., Tümer M., Köse M., McKee V., Akar S.
Journal of Luminescence , 2012
173.
Synthesis of bis(indolyl) methanes catalyzed by Schiff base–Cu(II) complex
Yang Y.L., Wan N.N., Wang W.P., Xie Z.F., De Wang J.
Chinese Chemical Letters , 2011
177.
Ortho green fluorescence protein synthetic chromophore; excited-state intramolecular proton transfer via a seven-membered-ring hydrogen-bonding system.
Chen K., Cheng Y., Lai C., Hsu C., Ho M., Lee G., Chou P.
Journal of the American Chemical Society , 2007
179.
rcr_89_7_713_bib179
Park
J. Am. Chem. Soc. , 2009
180.
Targeting DNA abasic site by myricetin: Sequence-dependent ESIPT emission
Xu S., Shao Y., Wu F., Liu G., Liu L., Peng J., Sun Y.
Journal of Luminescence , 2013
182.
Colorimetric and fluorescent sensing of multi metal ions and anions by salicylaldimine based receptors
Prabhu S., Saravanamoorthy S., Ashok M., Velmathi S.
Journal of Luminescence , 2012
185.
Novel asymmetrical pyrene derivatives as light emitting materials: Synthesis and photophysics
Li Y., Wang D., Wang L., Li Z., Cui Q., Zhang H., Yang H.
Journal of Luminescence , 2012
186.
ESIPT-inspired benzothiazole fluorescein: Photophysics of microenvironment pH and viscosity
Patil V.S., Padalkar V.S., Tathe A.B., Sekar N.
Dyes and Pigments , 2013
190.
Remarkable ESIPT induced NIR emission by a selective colorimetric dibenzimidazolo diimine sensor for acetate
Goswami S., Maity S., Das A.K., Maity A.C., Mandal T.K., Samanta S.
Tetrahedron Letters , 2013
191.
A novel fluorescein derivative as a colorimetric chemosensor for detecting copper(II) ion
Li T., Yang Z., Li Y., Liu Z., Qi G., Wang B.
Dyes and Pigments , 2011
193.
rcr_89_7_713_bib193
Tang
J. Am. Chem. Soc. , 2011
194.
Excited-State Intramolecular Proton Transfer Molecules Bearing o-Hydroxy Analogues of Green Fluorescent Protein Chromophore
Chuang W., Hsieh C., Lai C., Lai C., Shih C., Chen K., Hung W., Hsu Y., Chou P.
Journal of Organic Chemistry , 2011
195.
A White-Light-Emitting Small Molecule: Synthesis, Crystal Structure, and Optical Properties
Fang S., Tsai H., Hu J., Chen K.
International Journal of Photoenergy , 2014
197.
A multifunctional tripodal fluorescent probe for the recognition of Cr3+, Al3+, Zn2+ and F− with controllable ESIPT processes
Zhang H., Sun T., Ruan Q., Zhao J., Mu L., Zeng X., Jin Z., Su S., Luo Q., Yan Y., Redshaw C.
Dyes and Pigments , 2019
199.
A simple pyrazine based ratiometric fluorescent sensor for Ni2+ ion detection
Dhanushkodi M., Vinoth Kumar G.G., Balachandar B.K., Sarveswari S., Gandhi S., Rajesh J.
Dyes and Pigments , 2020
200.
Benzothiazole-based fluorescent sensor for hypochlorite detection and its application for biological imaging
Chang C., Wang F., Qiang J., Zhang Z., Chen Y., Zhang W., Wang Y., Chen X.
Sensors and Actuators, B: Chemical , 2017
204.
Fluorescent and colorimetric ion probes based on conjugated oligopyrroles
Ding Y., Tang Y., Zhu W., Xie Y.
Chemical Society Reviews , 2015
205.
Preparation and ion recognition features of porphyrin–chalcone type compounds as efficient red-fluorescent materials
Moura N.M., Núñez C., Faustino M.A., Cavaleiro J.A., Neves M.G., Capelo J.L., Lodeiro C.
Journal of Materials Chemistry C , 2014
206.
Corroles as anion chemosensors: exploiting their fluorescence behaviour from solution to solid-supported devices
Santos C.I., Oliveira E., Barata J.F., Faustino M.A., Cavaleiro J.A., Neves M.G., Lodeiro C.
Journal of Materials Chemistry A , 2012
207.
Arene effects on difluoroboron β-diketonate mechanochromic luminescence
Liu T., Chien A.D., Lu J., Zhang G., Fraser C.L.
Journal of Materials Chemistry A , 2011
208.
Tools and Tactics for the Optical Detection of Mercuric Ion
Nolan E.M., Lippard S.J.
Chemical Reviews , 2008
209.
Asymmetric PPCys: Strongly fluorescing NIR labels
Fischer G.M., Jüngst C., Isomäki-Krondahl M., Gauss D., Möller H.M., Daltrozzo E., Zumbusch A.
Chemical Communications , 2010
210.
Wide-range thermochromic luminescence of organoboronium complexes.
Chen X., Zhang X., Zhang G.
Chemical Communications , 2015
211.
Colorimetric metal ion sensors
Kaur N., Kumar S.
Tetrahedron , 2011
215.
KCN sensor: unique chromogenic and ‘turn-on’ fluorescent chemodosimeter: rapid response and high selectivity
Kim H.J., Ko K.C., Lee J.H., Lee J.Y., Kim J.S.
Chemical Communications , 2011
218.
A ratiometric fluorescence probe for monitoring cyanide ion in live cells
Chao J., Li Z., Zhang Y., Huo F., Yin C., Tong H., Liu Y.
Sensors and Actuators, B: Chemical , 2016
221.
rcr_89_7_713_bib221
Huang
Dyes Pigm. , 2020
222.
A new fluorescent pH probe for imaging lysosomes in living cells
Lv H., Huang S., Xu Y., Dai X., Miao J., Zhao B.
Bioorganic and Medicinal Chemistry Letters , 2014
223.
rcr_89_7_713_bib223
Shen
J. Mater. Chem. B , 2015
224.
In Vivo Monitoring of Mercury Ions Using a Rhodamine-Based Molecular Probe
Ko S., Yang Y., Tae J., Shin I.
Journal of the American Chemical Society , 2006
225.
A Rhodamine-Based Chemosensor that Works in the Biological System
Suresh M., Shrivastav A., Mishra S., Suresh E., Das A.
Organic Letters , 2008
226.
Rhodamine-based chemosensor for Hg2+ in aqueous solution with a broad pH range and its application in live cell imaging
Zhao Y., Sun Y., Lv X., Liu Y., Chen M., Guo W.
Organic and Biomolecular Chemistry , 2010
227.
A thiophen-thiooxorhodamine conjugate fluorescent probe for detecting mercury in aqueous media and living cells
Zhou Y., You X., Fang Y., Li J., Liu K., Yao C.
Organic and Biomolecular Chemistry , 2010
230.
A rhodamine-based fluorescent probe for the detection of lysosomal pH changes in living cells
Lee D., Swamy K.M., Hong J., Lee S., Yoon J.
Sensors and Actuators, B: Chemical , 2018
231.
Homogeneous plate based antibody internalization assay using pH sensor fluorescent dye
Nath N., Godat B., Zimprich C., Dwight S.J., Corona C., McDougall M., Urh M.
Journal of Immunological Methods , 2016
232.
Terabyte recorded in two-photon 3D disk
Walker E., Dvornikov A., Coblentz K., Rentzepis P.
Applied Optics , 2008
233.
Aryl(hetaryl)pyrazolines as new photoacid generators for optical information recording
Traven V.F., Ivanov I.V., Dolotov S.M., Kobeleva O.I., Valova T.M., Barachevsky V.A.
Journal of Photochemistry and Photobiology A: Chemistry , 2014
234.
On the Mechanism of Photodehydrogenation of Aryl(hetaryl)pyrazolines in the Presence of Perchloroalkanes
Traven V.F., Cheptsov D.A., Bulanova M.V., Solovjova N.P., Chibisova T.A., Dolotov S.M., Ivanov I.V.
Photochemistry and Photobiology , 2018
235.
(7-Dialkylamino-3-coumarinyl)pyrazolines – new effective push-pull photogenerators of acidity
Traven V.F., Cheptsov D.A., Vershinina G.V., Solovjeva N.P., Chibisova T.A., Dolotov S.M., Ivanov I.V.
Journal of Photochemistry and Photobiology A: Chemistry , 2018
236.
rcr_89_7_713_bib236
237.
A new rhodamine derived fluorescent sensor: Detection of Hg 2+ at cellular level
Kuchlyan J., Basak S., Dutta D., Das A.K., Mal D., Sarkar N.
Chemical Physics Letters , 2017
238.
Rhodamine-based fluorescent and colorimetric sensor for zinc and its application in bioimaging
Wechakorn K., Suksen K., Piyachaturawat P., Kongsaeree P.
Sensors and Actuators, B: Chemical , 2016
240.
Two sugar-rhodamine “turn-on” fluorescent probes for the selective detection of Fe3+
Chen Q., Fang Z.
Spectrochimica Acta - Part A: Molecular and Biomolecular Spectroscopy , 2018
245.
A novel Hg2+-selective fluorescent chemprobe based on thiooxorhodamine-B and β-C-glycoside
Gu X., Fang Z.
Spectrochimica Acta - Part A: Molecular and Biomolecular Spectroscopy , 2017
252.
Enzyme sensing based on a controllable oxidation reaction
Sheng R., Ma J., Wang P., Liu W., Wu J., Li H., Zhuang X., Zhang H., Wu S.
Biosensors and Bioelectronics , 2010
253.
Photoinduced formation of the laser dye coumarin 6 from its dihydro derivatives
Traven V.F., Cheptsov D.A., Solovjova N.P., Chibisova T.A., Voronov I.I., Dolotov S.M., Ivanov I.V.
Dyes and Pigments , 2017
254.
rcr_89_7_713_bib255
257.
Formation of oxazine dye by photochemical reaction of N-acyl oxazine derivatives
Akiba M., Dvornikov A.S., Rentzepis P.M.
Journal of Photochemistry and Photobiology A: Chemistry , 2007
258.
Polymorphism-dependent emissions of two phenoxazine derivatives
Chen Y., Peng Z., Tao Y., Wang Z., Lu P., Wang Y.
Dyes and Pigments , 2019
259.
Sensitivity gains in chemosensing by lasing action in organic polymers
Rose A., Zhu Z., Madigan C.F., Swager T.M., Bulović V.
Nature , 2005
260.
Optical chemosensors and reagents to detect explosives.
Salinas Y., Martínez-Máñez R., Marcos M.D., Sancenón F., Costero A.M., Parra M., Gil S.
Chemical Society Reviews , 2012
261.
Femtogram Detection of Explosive Nitroaromatics: Fluoranthene-Based Fluorescent Chemosensors
Venkatramaiah N., Kumar S., Patil S.
Chemistry - A European Journal , 2012
262.
Highly selective detection of nitro explosives by a luminescent metal-organic framework.
Nagarkar S.S., Joarder B., Chaudhari A.K., Mukherjee S., Ghosh S.K.
Angewandte Chemie - International Edition , 2013
263.
rcr_89_7_713_bib264
Huang
Chem. Commun. , 2012
266.
A carbazole–fluorene molecular hybrid for quantitative detection of TNT using a combined fluorescence and quartz crystal microbalance method
Kartha K.K., Sandeep A., Nair V.C., Takeuchi M., Ajayaghosh A.
Physical Chemistry Chemical Physics , 2014
267.
Chemical Sensors Based on Amplifying Fluorescent Conjugated Polymers
Thomas S.W., Joly G.D., Swager T.M.
Chemical Reviews , 2007
268.
Attogram Sensing of Trinitrotoluene with a Self-Assembled Molecular Gelator
Kartha K.K., Babu S.S., Srinivasan S., Ajayaghosh A.
Journal of the American Chemical Society , 2012
270.
rcr_89_7_713_bib271
Xue
Chem. – Eur. J. , 2015
274.
Stimuli-Responsive Photoluminescent Liquid Crystals
Yamane S., Tanabe K., Sagara Y., Kato T.
Topics in Current Chemistry , 2011
275.
Functional Soft Materials: Nanostructured Liquid Crystals and Self-Assembled Fibrous Aggregates
Kato T., Shoji Y., Yoshio M., Yamane S., Yasuda T.
Yuki Gosei Kagaku Kyokaishi/Journal of Synthetic Organic Chemistry , 2010
278.
Two‐Photon 3D Optical Data Storage via Aggregate Switching of Excimer‐Forming Dyes
Lott J., Ryan C., Valle B., Johnson J.R., Schiraldi D.A., Shan J., Singer K.D., Weder C.
Advanced Materials , 2011
279.
Ratiometric fluorescent sensing of endogenous hypochlorous acid in lysosomes using AIE-based polymeric nanoprobe
Xue M., Wang H., Chen J., Ren J., Chen S., Yang H., Zeng R., Long Y., Zhang P.
Sensors and Actuators, B: Chemical , 2019
280.
A selective and light-up fluorescent probe for β-galactosidase activity detection and imaging in living cells based on an AIE tetraphenylethylene derivative
Jiang G., Zeng G., Zhu W., Li Y., Dong X., Zhang G., Fan X., Wang J., Wu Y., Tang B.Z.
Chemical Communications , 2017
282.
An easily accessible aggregation-induced emission probe for lipid droplet-specific imaging and movement tracking
Gao M., Su H., Li S., Lin Y., Ling X., Qin A., Tang B.Z.
Chemical Communications , 2017
284.
Functional 1,8-Naphthalimide AIE/AIEEgens: Recent Advances and Prospects
Gopikrishna P., Meher N., Iyer P.K.
ACS applied materials & interfaces , 2017
285.
rcr_89_7_713_bib286
Mei
ACS Appl. Mater. Interf. , 2018
286.
Improved pharmaceutical research and development with AIE-based nanostructures
Zhang Y., Wang Y., Wang J., Liang X.
Materials Horizons , 2018
287.
rcr_89_7_713_bib288
Shi
ACS Appl. Mater. Interf. , 2018
288.
rcr_89_7_713_bib289
Hu
J. Mater. Chem. C , 2017
289.
Aggregation-Induced Emission: Together We Shine, United We Soar!
Mei J., Leung N.L., Kwok R.T., Lam J.W., Tang B.Z.
Chemical Reviews , 2015
290.
An Organic Molecule with Asymmetric Structure Exhibiting Aggregation-Induced Emission, Delayed Fluorescence, and Mechanoluminescence
Xu S., Liu T., Mu Y., Wang Y., Chi Z., Lo C., Liu S., Zhang Y., Lien A., Xu J.
Angewandte Chemie - International Edition , 2014
291.
Aggregation-Induced Emission Active Probe for Light-Up Detection of Anionic Surfactants and Wash-Free Bacterial Imaging
Gao M., Wang L., Chen J., Li S., Lu G., Wang L., Wang Y., Ren L., Qin A., Tang B.Z.
Chemistry - A European Journal , 2016
292.
rcr_89_7_713_bib293
1995
293.
A logic gate-based fluorescent sensor for detecting H2S and NO in aqueous media and inside live cells
Zhang P., Li J., Li B., Xu J., Zeng F., Lv J., Wu S.
Chemical Communications , 2015
294.
rcr_89_7_713_bib295
Zhang
J. Mater. Chem. C , 2016
295.
rcr_89_7_713_bib296
Valeur
2001
296.
A reversible “turn-on” fluorescent sensor for selective detection of Zn2+
Dong W., Akogun S.F., Zhang Y., Sun Y., Dong X.
Sensors and Actuators, B: Chemical , 2017
298.
Synthesis and characterization of novel yellow azo dyes from 2-morpholin-4-yl-1,3-thiazol-4(5H)-one and study of their azo–hydrazone tautomerism
Umape P.G., Patil V.S., Padalkar V.S., Phatangare K.R., Gupta V.D., Thate A.B., Sekar N.
Dyes and Pigments , 2013
299.
H/D Isotope Effects in Hydrogen Bonded Systems
Sobczyk L., Obrzud M., Filarowski A.
Molecules , 2013
301.
rcr_89_7_713_bib302
Li
Molecules , 2013
306.
rcr_89_7_713_bib307
Chen
Int. J. Mol. Sci. , 2014
307.
Benzimidazole-BODIPY as optical and fluorometric pH sensor
Li Z., Li L., Sun T., Liu L., Xie Z.
Dyes and Pigments , 2016
308.
rcr_89_7_713_bib309
Kim
J. Am. Chem. Soc. , 2014
310.
2,2′-[Benzene-1,2-diylbis(iminomethanediyl)]diphenol derivative bearing two amine and hydroxyl groups as fluorescent receptor for Zinc(II) ion
Tayade K., Sahoo S.K., Patil R., Singh N., Attarde S., Kuwar A.
Spectrochimica Acta - Part A: Molecular and Biomolecular Spectroscopy , 2014
313.
Benzoyl Peroxide Detection in Real Samples and Zebrafish Imaging by a Designed Near-Infrared Fluorescent Probe
Tian X., Li Z., Pang Y., Li D., Yang X.
Journal of Agricultural and Food Chemistry , 2017
318.
Griess reaction-based paper strip for colorimetric/fluorescent/SERS triple sensing of nitrite
Li D., Ma Y., Duan H., Deng W., Li D.
Biosensors and Bioelectronics , 2018
319.
A two-photon fluorescent probe with near-infrared emission for hydrogen sulfide imaging in biosystems
Sun W., Fan J., Hu C., Cao J., Zhang H., Xiong X., Wang J., Cui S., Sun S., Peng X.
Chemical Communications , 2013
320.
A near-infrared colorimetric fluorescent chemodosimeter for the detection of glutathione in living cells
Li M., Wu X., Wang Y., Li Y., Zhu W., James T.D.
Chemical Communications , 2014
322.
Two-Photon Near Infrared Fluorescent Turn-On Probe Toward Cysteine and Its Imaging Applications
Wang J., Li B., Zhao W., Zhang X., Luo X., Corkins M.E., Cole S.L., Wang C., Xiao Y., Bi X., Pang Y., McElroy C.A., Bird A.J., Dong Y.
ACS Sensors , 2016
323.
New Fluorescent and Colorimetric Probe for Cyanide: Direct Reactivity, High Selectivity, and Bioimaging Application
Cheng X., Tang R., Jia H., Feng J., Qin J., Li Z.
ACS applied materials & interfaces , 2012
324.
Colorimetric and Ratiometric Near-Infrared Fluorescent Cyanide Chemodosimeter Based on Phenazine Derivatives
Yang L., Li X., Yang J., Qu Y., Hua J.
ACS applied materials & interfaces , 2013
325.
A highly selective colorimetric and turn-on fluorescent probe for cyanide anion
Lin Y., Peng Y., Su W., Tu C., Sun C., Chow T.J.
Tetrahedron , 2012
326.
rcr_89_7_713_bib327
Sun
2000
327.
Off-the-Shelf Colorimetric Anion Sensors
Miyaji H., Sessler J.L.
Angewandte Chemie - International Edition , 2001
329.
A new trend in rhodamine-based chemosensors: application of spirolactam ring-opening to sensing ions
Kim H.N., Lee M.H., Kim H.J., Kim J.S., Yoon J.
Chemical Society Reviews , 2008
330.
Rationally Designed Fluorescence Turn-On Sensors: A New Design Strategy Based on Orbital Control
Jung H.S., Ko K.C., Lee J.H., Kim S.H., Bhuniya S., Lee J.Y., Kim Y., Kim S.J., Kim J.S.
Inorganic Chemistry , 2010
331.
Pyrene Excimer-Based Calix[4]arene FRET Chemosensor for Mercury(II)
Lee Y.H., Lee M.H., Zhang J.F., Kim J.S.
Journal of Organic Chemistry , 2010
333.
Modern reaction-based indicator systems
Cho D., Sessler J.L.
Chemical Society Reviews , 2009
334.
Fluorescent Chemodosimeter for Selective Detection of Cyanide in Water
Lee K., Kim H., Kim G., Shin I., Hong J.
Organic Letters , 2007
336.
A ratiometric fluorescent probe for cyanide: Convenient synthesis and the proposed mechanism
Yu H., Zhao Q., Jiang Z., Qin J., Li Z.
Sensors and Actuators, B: Chemical , 2010
337.
rcr_89_7_713_bib338
Zhang
RSC Adv. , 2016
341.
Nanomolar Hg(II) detection using Nile blue chemodosimeter in biological media.
Lee M.H., Lee S.W., Kim S.H., Kang C., Kim J.S.
Organic Letters , 2009
343.
Ahn K., Lee J., Cho I., Park K.H., Kang J., Han D.K., Kim J.
Journal of Photopolymer Science and Technology , 2000
344.
Color and Fluorescent Imaging of t-BOC-Protected Quinizarin Methacrylate Polymers
Lee C., Yuan Z., Ahn K., Lee S.
Chemistry of Materials , 2002
345.
Grooved Nanowires from Self-Assembling Hairpin Molecules for Solar Cells
Tevis I.D., Tsai W., Palmer L.C., Aytun T., Stupp S.I.
ACS Nano , 2012
346.
Supramolecular gels made from nucleobase, nucleoside and nucleotide analogs
Peters G.M., Davis J.T.
Chemical Society Reviews , 2016
347.
Insights into low molecular mass organic gelators: a focus on drug delivery and tissue engineering applications
Skilling K.J., Citossi F., Bradshaw T.D., Ashford M., Kellam B., Marlow M.
Soft Matter , 2014
348.
rcr_89_7_713_bib349
Cheng
ACS Appl. Mater. Interf. , 2015
349.
A Supramolecular Gel from a Quadruple Zwitterion that Responds to Both Acid and Base
Hisamatsu Y., Banerjee S., Avinash M.B., Govindaraju T., Schmuck C.
Angewandte Chemie - International Edition , 2013
352.
Nanofibers generated from linear carbazole-based organogelators for the detection of explosives
Hong G., Sun J., Qian C., Xue P., Gong P., Zhang Z., Lu R.
Journal of Materials Chemistry C , 2015
355.
Functional π-Gelators and Their Applications
Babu S.S., Praveen V.K., Ajayaghosh A.
Chemical Reviews , 2014
356.
Oligo(phenylenevinylene) hybrids and self-assemblies: versatile materials for excitation energy transfer
Praveen V.K., Ranjith C., Bandini E., Ajayaghosh A., Armaroli N.
Chemical Society Reviews , 2014
357.
Inversion of Supramolecular Helicity in Oligo-p-phenylene-Based Supramolecular Polymers: Influence of Molecular Atropisomerism
Aparicio F., Nieto-Ortega B., Nájera F., Ramírez F.J., López Navarrete J.T., Casado J., Sánchez L.
Angewandte Chemie - International Edition , 2013
359.
rcr_89_7_713_bib360
Xue
ACS Appl. Mater. Interf. , 2014
360.
Self-assembly and conductivity of hydrogen-bonded oligothiophene nanofiber networks
Stone D.A., Tayi A.S., Goldberger J.E., Palmer L.C., Stupp S.I.
Chemical Communications , 2011
362.
Redox-Switchable Copper(I) Metallogel: A Metal–Organic Material for Selective and Naked-Eye Sensing of Picric Acid
Sarkar S., Dutta S., Chakrabarti S., Bairi P., Pal T.
ACS applied materials & interfaces , 2014
363.
Zn2+-Triggered Amide Tautomerization Produces a Highly Zn2+-Selective, Cell-Permeable, and Ratiometric Fluorescent Sensor
Xu Z., Baek K., Kim H.N., Cui J., Qian X., Spring D.R., Shin I., Yoon J.
Journal of the American Chemical Society , 2009
364.
Development of off–on fluorescent probes for heavy and transition metal ions
Xu Z., Han S.J., Lee C., Yoon J., Spring D.R.
Chemical Communications , 2010