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Chemosensors for detection of nitroaromatic compounds (explosives)

Grigory Vasil'evich Zyryanov 1, 2
Grigory Vasil'evich Zyryanov
, 
Dmitrii Sergeevich Kopchuk 1, 2
Dmitrii Sergeevich Kopchuk
, 
Igor Sergeevich Kovalev 2
Igor Sergeevich Kovalev
, 
Emiliya Vladimirovna Nosova 2
Emiliya Vladimirovna Nosova
, 
Vladimir Leonidovich Rusinov 1, 2
Vladimir Leonidovich Rusinov
, 
Oleg Nikolaevich Chupakhin 1, 2
Oleg Nikolaevich Chupakhin
1 I. Ya. Postovsky Institute of Organic Synthesis, Ural Branch of Russian Academy of Sciences, Ekaterinburg
2 Chemical Technological Institute, Ural Federal University named after the First President of Russia B. N. Yeltsin, Ekaterinburg
10.1070/RC2014v083n09ABEH004467
Published 30 November 2013
Communication , Volume 83, Issue 9, 783-819
87
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Zyryanov G. V. et al. Chemosensors for detection of nitroaromatic compounds (explosives) // Russian Chemical Reviews. 2014. Vol. 83. No. 9. pp. 783-819.
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Zyryanov G. V., Kopchuk D. S., Kovalev I. S., Nosova E. V., Rusinov V. L., Chupakhin O. N. Chemosensors for detection of nitroaromatic compounds (explosives) // Russian Chemical Reviews. 2014. Vol. 83. No. 9. pp. 783-819.
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TY - JOUR
DO - 10.1070/RC2014v083n09ABEH004467
UR - https://rcr.colab.ws/publications/10.1070/RC2014v083n09ABEH004467
TI - Chemosensors for detection of nitroaromatic compounds (explosives)
T2 - Russian Chemical Reviews
AU - Zyryanov, Grigory Vasil'evich
AU - Kopchuk, Dmitrii Sergeevich
AU - Kovalev, Igor Sergeevich
AU - Nosova, Emiliya Vladimirovna
AU - Rusinov, Vladimir Leonidovich
AU - Chupakhin, Oleg Nikolaevich
PY - 2014
DA - 2013/11/30
PB - ANO Editorial Board of the journal Uspekhi Khimii
SP - 783-819
IS - 9
VL - 83
ER -
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@article{2014_Zyryanov,
author = {Grigory Vasil'evich Zyryanov and Dmitrii Sergeevich Kopchuk and Igor Sergeevich Kovalev and Emiliya Vladimirovna Nosova and Vladimir Leonidovich Rusinov and Oleg Nikolaevich Chupakhin},
title = {Chemosensors for detection of nitroaromatic compounds (explosives)},
journal = {Russian Chemical Reviews},
year = {2014},
volume = {83},
publisher = {ANO Editorial Board of the journal Uspekhi Khimii},
month = {Nov},
url = {https://rcr.colab.ws/publications/10.1070/RC2014v083n09ABEH004467},
number = {9},
pages = {783--819},
doi = {10.1070/RC2014v083n09ABEH004467}
}
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Zyryanov, Grigory Vasil'evich, et al. “Chemosensors for detection of nitroaromatic compounds (explosives).” Russian Chemical Reviews, vol. 83, no. 9, Nov. 2014, pp. 783-819. https://rcr.colab.ws/publications/10.1070/RC2014v083n09ABEH004467.
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Abstract

The key types of low-molecular-mass chemosensors for the detection of nitroaromatic compounds representing energetic substances (explosives) are analyzed. The coordination and chemical properties of these chemosensors and structural features of their complexes with nitroaromatic compounds are considered. The causes and methods for attaining high selectivity of recognition are demonstrated. The primary attention is paid to the use of low-molecular-mass chemosensors for visual detection of explosives of this class by colorimetric and photometric methods. Examples of using photo- and chemiluminescence for this purpose are described. A separate section is devoted to electrochemical methods of detection of nitroaromatic compounds. Data published from 2000 to 2014 are mainly covered.

The bibliography includes 245 references.

References

3.
Landmine-detection rats: An evaluation of reinforcement procedures under simulated operational conditions
Mahoney A., Lalonde K., Edwards T., Cox C., Weetjens B., Poling A.
Journal of the Experimental Analysis of Behavior , 2014
4.
Teaching Giant African Pouched Rats to Find Landmines: Operant Conditioning With Real Consequences
Poling A., Weetjens B.J., Cox C., Beyene N., Bach H., Sully A.
Behavior Analysis in Practice , 2010
5.
Detection of explosives by olfactory sensory neurons
Corcelli A., Lobasso S., Lopalco P., Dibattista M., Araneda R., Peterlin Z., Firestein S.
Journal of Hazardous Materials , 2010
7.
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
8.
Polymer sensors for nitroaromatic explosives detection
Toal S.J., Trogler W.C.
Journal of Materials Chemistry A , 2006
9.
Vapor-generation methods for explosives-detection research
Grate J.W., Ewing R.G., Atkinson D.A.
TrAC - Trends in Analytical Chemistry , 2012
10.
Optical explosives detection: from color changes to fluorescence turn-on
Germain M.E., Knapp M.J.
Chemical Society Reviews , 2009
11.
Field detection and monitoring of explosives
Yinon J.
TrAC - Trends in Analytical Chemistry , 2002
13.
13
V. B. Evstigneev
Dokl. Akad. Nauk SSSR , 1954
14.
14
V. B. Evstigneev
Zhur. Fiz. Khim. , 1958
15.
15
A. S. Holt
"Research in Photosynthesis" , 1957
16.
16
A. A. Krasnovskii
Dokl. Akad. Nauk SSSR , 1949
17.
17
V. B. Evstigneev
Dokl. Akad. Nauk SSSR , 1958
19.
Meisenheimer complexes bonded at carbon and at oxygen
Chen H., Chen H., Cooks R.G.
Journal of the American Society for Mass Spectrometry , 2004
24.
Ultrasensitive optical detection of trinitrotoluene by ethylenediamine-capped gold nanoparticles
Lin D., Liu H., Qian K., Zhou X., Yang L., Liu J.
Analytica Chimica Acta , 2012
25.
A patterned colorimetric sensor array for rapid detection of TNT at ppt level
Berliner A., Lee M., Zhang Y., Park S.H., Martino R., Rhodes P.A., Yi G., Lim S.H.
RSC Advances , 2014
27.
Molecular Compounds and their Spectra. II
Mulliken R.S.
Journal of the American Chemical Society , 1952
29.
The Nature of Iodine Solutions.
Kleinberg J., Davidson A.W.
Chemical Reviews , 1948
30.
30
V. B. Evstigneev
Dokl. Akad. Nauk SSSR , 1954
31.
Using the iPhone as a device for a rapid quantitative analysis of trinitrotoluene in soil
Choodum A., Kanatharana P., Wongniramaikul W., Nic Daeid N.
Talanta , 2013
32.
32
A. A. Krasnovskii
Dokl. Akad. Nauk SSSR , 1952
33.
Crystal structure of the phenothiazine–trinitrobenzene charge-transfer complex
Fritchie C.J.
Journal of the Chemical Society A Inorganic Physical Theoretical , 1969
34.
Phenothiazine–picric acid (1/1)
Harrison W.T., Ashok M.A., Yathirajan H.S., Narayana Achar B.
Acta Crystallographica Section E Structure Reports Online , 2007
35.
Cocrystals of 10-Methylphenthiazine and 1,3-Dinitrobenzene: Implications for the Optical Sensing of TNT-Based Explosives
McNeil S.K., Kelley S.P., Beg C., Cook H., Rogers R.D., Nikles D.E.
ACS applied materials & interfaces , 2013
37.
Imidazole-4-acetic Acid–Picric Acid (1/1) Complex
In Y., Nagata H., Doi M., Ishida T., Wakahara A.
Acta Crystallographica Section C Crystal Structure Communications , 1997
40.
40
A. A. Krasnovskii
Biofizika , 1960
45.
Nitrosonium complexes of organic compounds. Structure and reactivity
Borodkin G.I., Shubin V.G.
Russian Chemical Reviews , 2001
46.
Molecular Containers for NO X Gases
Rudkevich D.M., Kang Y., Leontiev A.V., Organo V.G., Zyryanov G.V.
Supramolecular Chemistry , 2005
47.
47
G. Oster
"Research in Photosynthesis" , 1957
48.
Detection of trace amounts of explosives and/or explosive related compounds on various surfaces by a new sensing technique/material
Dorozhkin L.M., Nefedov V.A., Sabelnikov A.G., Sevastjanov V.G.
Sensors and Actuators, B: Chemical , 2004
49.
A chloride-anion insensitive colorimetric chemosensor for trinitrobenzene and picric acid
Kim D., Lynch V.M., Nielsen K.A., Johnsen C., Jeppesen J.O., Sessler J.L.
Analytical and Bioanalytical Chemistry , 2009
50.
Synthesis of Rigid Receptors Based on Triphenylene Ketals
Schopohl M.C., Faust A., Mirk D., Fröhlich R., Kataeva O., Waldvogel S.R.
European Journal of Organic Chemistry , 2005
51.
A Microring Resonator Sensor for Sensitive Detection of 1,3,5-Trinitrotoluene (TNT)
Orghici R., Lützow P., Burgmeier J., Koch J., Heidrich H., Schade W., Welschoff N., Waldvogel S.
Sensors , 2010
52.
52
V. B. Evstigneev
Dokl. Akad. Nauk SSSR , 1957
54.
Nguyen D.H., Locquiao S., Huynh P., Zhong Q., He W., Christensen D., Zhang L., Bilkhu B.
2004
55.
Trace analysis of pollutants by use of honeybees, immunoassays, and chemiluminescence detection
Girotti S., Ghini S., Maiolini E., Bolelli L., Ferri E.N.
Analytical and Bioanalytical Chemistry , 2012
56.
Development of a chemiluminescence-based quantitative lateral flow immunoassay for on-field detection of 2,4,6-trinitrotoluene
Mirasoli M., Buragina A., Dolci L.S., Guardigli M., Simoni P., Montoya A., Maiolini E., Girotti S., Roda A.
Analytica Chimica Acta , 2012
57.
57
R. Livingston
"Research in Photosynthesis" , 1957
58.
10.1002/1521-3773(20010601)40:11<2104::AID-ANIE2104>3.0.CO;2-#
59.
Calixarene-Derived Fluorescent Probes
Kim J.S., Quang D.T.
Chemical Reviews , 2007
61.
Fluorescence and visual sensing of nitroaromatic explosives using electron rich discrete fluorophores
Shanmugaraju S., Joshi S.A., Mukherjee P.S.
Journal of Materials Chemistry A , 2011
63.
Dipyrenylcalix[4]arene-A Fluorescence-Based Chemosensor for Trinitroaromatic Explosives
Lee Y., Liu H., Lee J., Kim S., Kim S., Sessler J., Kim Y., Kim J.
Chemistry - A European Journal , 2010
64.
Chemical Sensors Based on Amplifying Fluorescent Conjugated Polymers
Thomas S.W., Joly G.D., Swager T.M.
Chemical Reviews , 2007
65.
The Molecular Wire Approach to Sensory Signal Amplification
Swager T.M.
Accounts of Chemical Research , 1998
66.
66
V. B. Evstigneev
Dokl. Akad. Nauk SSSR , 1950
67.
Molecular-Wire Behavior of OLED Materials:  Exciton Dynamics in Multichromophoric Alq3-Oligofluorene-Pt(II)porphyrin Triads
Montes V.A., Pérez-Bolívar C., Agarwal N., Shinar J., Anzenbacher P.
Journal of the American Chemical Society , 2006
68.
Chemical sensors based on nanostructured materials
Huang X., Choi Y.
Sensors and Actuators, B: Chemical , 2007
69.
Coupling Octupoles in Crystals:  The Case of the 1,3,5-Trinitrobenzene−Triphenylene 1:1 Molecular Co-Crystal
Zyss J., Ledoux-Rak I., Weiss H., Bläser D., Boese R., Thallapally P.K., Thalladi V.R., Desiraju G.R.
Chemistry of Materials , 2003
70.
70
N. Bubnov
Biofizika , 1960
71.
Oligotriphenylene Nanofiber Sensors for Detection of Nitro-Based Explosives
Liao Y.Z., Strong V., Wang Y., Li X., Wang X., Kaner R.B.
Advanced Functional Materials , 2011
72.
Triphenylene Nano/Microwires for Sensing Nitroaromatics
Wang H., Xu X., Kojtari A., Ji H.
Journal of Physical Chemistry C , 2011
74.
Triazole-Modified Triphenylene Derivative: Self-Assembly and Sensing Applications
Bhalla V., Singh H., Kumar M., Prasad S.K.
Langmuir , 2011
75.
Triphenylene derivatives: chemosensors for sensitive detection of nitroaromatic explosives
Bhalla V., Arora H., Singh H., Kumar M.
Dalton Transactions , 2013
76.
Complexes of pyrene with 2,4,6-trinitroanisole. Studies of association in solution and the crystal structure of the 1:1 complex
Barnes J.C., Chudek J.A., Foster R., Jarrett F., Mackie F., Paton J., Twiselton D.R.
Tetrahedron , 1984
77.
Fluorescence Quenching as an Indirect Detection Method for Nitrated Explosives
Goodpaster J.V., McGuffin V.L.
Analytical Chemistry , 2001
78.
Pyrene-Functionalized Ruthenium Nanoparticles as Effective Chemosensors for Nitroaromatic Derivatives
Chen W., Zuckerman N.B., Konopelski J.P., Chen S.
Analytical Chemistry , 2009
79.
Rapid nitroaromatic compounds sensing based on oligopyrene
Bai H., Li C., Shi G.
Sensors and Actuators, B: Chemical , 2008
80.
A water-soluble cationic oligopyrene derivative: Spectroscopic studies and sensing applications
Chen Y., Bai H., Chen Q., Li C., Shi G.
Sensors and Actuators, B: Chemical , 2009
81.
Signaling Recognition Events with Fluorescent Sensors and Switches
de Silva A.P., Gunaratne H.Q., Gunnlaugsson T., Huxley A.J., McCoy C.P., Rademacher J.T., Rice T.E.
Chemical Reviews , 1997
82.
Design of fluorescent materials for chemical sensing
Basabe-Desmonts L., Reinhoudt D.N., Crego-Calama M.
Chemical Society Reviews , 2007
83.
Pyrene-Functionalised, Alternating Copolyimide for Sensing Nitroaromatic Compounds
Burattini S., Colquhoun H.M., Greenland B.W., Hayes W., Wade M.
Macromolecular Rapid Communications , 2009
90.
Electron rich supramolecular polymers as fluorescent sensors for nitroaromatics
Shanmugaraju S., Jadhav H., Karthik R., Mukherjee P.S.
RSC Advances , 2013
91.
Supramolecular polymer for explosives sensing: role of H-bonding in enhancement of sensitivity in the solid state
Gole B., Shanmugaraju S., Bar A.K., Mukherjee P.S.
Chemical Communications , 2011
93.
A Pattern Recognition Based Fluorescence Quenching Assay for the Detection and Identification of Nitrated Explosive Analytes
Hughes A., Glenn I., Patrick A., Ellington A., Anslyn E.
Chemistry - A European Journal , 2008
94.
A novel FRET-based fluorescent chemosensor of β-cyclodextrin derivative for TNT detection in aqueous solution
Feng L., Tong C., He Y., Liu B., Wang C., Sha J., Lü C.
Journal of Luminescence , 2014
95.
Ultra trace detection of explosives in air: Development of a portable fluorescent detector
Caron T., Guillemot M., Montméat P., Veignal F., Perraut F., Prené P., Serein-Spirau F.
Talanta , 2010
98.
Femtogram Detection of Explosive Nitroaromatics: Fluoranthene-Based Fluorescent Chemosensors
Venkatramaiah N., Kumar S., Patil S.
Chemistry - A European Journal , 2012
100.
Iptycenes in supramolecular and materials chemistry
Chong J.H., MacLachlan M.J.
Chemical Society Reviews , 2009
101.
101
M. F. Shostakovskii
Izv. Akad. Nauk SSSR, Otd. Khim. Nauk , 1960
102.
Fluorescent Porous Polymer Films as TNT Chemosensors:  Electronic and Structural Effects
Yang J., Swager T.M.
Journal of the American Chemical Society , 1998
103.
Conjugated Polymer-Based Chemical Sensors
McQuade D.T., Pullen A.E., Swager T.M.
Chemical Reviews , 2000
104.
Structure—Property relationships for exciton transfer in conjugated polymers
Andrew T.L., Swager T.M.
Journal of Polymer Science, Part B: Polymer Physics , 2011
105.
Progress in the Studies of Fluorescent Film Sensors
Li-Ning G., Feng-Ting L., Jing H., FANG
Wuli Huaxue Xuebao/ Acta Physico - Chimica Sinica , 2007
107.
107
M. F. Shostakovskii
Zhur. Obshch. Khim. , 1961
109.
Iptycene-based fluorescent sensors for nitroaromatics and TNT.
Anzenbacher P., Mosca L., Palacios M.A., Zyryanov G.V., Koutnik P.
Chemistry - A European Journal , 2012
110.
Simple Molecule-Based Fluorescent Sensors for Vapor Detection of TNT
Zyryanov G.V., Palacios M.A., Anzenbacher P.
Organic Letters , 2008
111.
10.1002/1521-3765(20020703)8:13<2847::AID-CHEM2847>3.0.CO;2-M
113.
113
H. Blum
"Photodynamic Action and Diseases caused Light" , 1940
114.
Conjugates of calixarenes emerging as molecular entities of nanoscience
Acharya A., Samanta K., Rao C.P.
Coordination Chemistry Reviews , 2012
115.
10.1002/1521-3773(20000616)39:12<2123::AID-ANIE2123>3.0.CO;2-4
116.
Sensing and Fixation of NO2/N2O4 by Calix[4]Arenes
Zyryanov G.V., Kang Y., Rudkevich D.M.
Journal of the American Chemical Society , 2003
117.
Supramolecular fixation of NO2 with calix[4]arenes
Zyryanov G.V., Kang Y., Stampp S.P., Rudkevich D.M.
Chemical Communications , 2002
119.
Synthesis and complexing properties of methylated calix[4](aza)crown derivatives
Oueslati I., Abidi R., Thuéry P., Nierlich M., Asfari Z., Harrowfield J., Vicens J.
Tetrahedron Letters , 2000
123.
Selective Molecular Recognition of Polycyclic Aromatic Hydrocarbons (PAHs) on Calix[4]arene-Functionalized Ag Nanoparticles by Surface-Enhanced Raman Scattering
Leyton P., Sanchez-Cortes S., Garcia-Ramos J.V., Domingo C., Campos-Vallette M., Saitz C., Clavijo R.E.
Journal of Physical Chemistry B , 2004
124.
Study of calixarenes thin films as chemical sensors for the detection of explosives
Montmeat P., Veignal F., Methivier C., Pradier C.M., Hairault L.
Applied Surface Science , 2014
127.
127
R. Pasternak
Helv. Chim. Acta , 1948
128.
Explosive Sensing with Fluorescent Dendrimers: The Role of Collisional Quenching
Olley D.A., Wren E.J., Vamvounis G., Fernee M.J., Wang X., Burn P.L., Meredith P., Shaw P.E.
Chemistry of Materials , 2010
129.
Investigations of Energy Migration in an Organic Dendrimer Macromolecule for Sensory Signal Amplification
Guo M., Varnavski O., Narayanan A., Mongin O., Majoral J., Blanchard-Desce M., Goodson T.
Journal of Physical Chemistry A , 2009
130.
Fluorescent carbazole dendrimers for the detection of explosives
Tang G., Chen S.S., Shaw P.E., Hegedus K., Wang X., Burn P.L., Meredith P.
Polymer Chemistry , 2011
131.
The binding and fluorescence quenching efficiency of nitroaromatic (explosive) vapors in fluorescent carbazole dendrimer thin films
Shaw P.E., Cavaye H., Chen S.S., James M., Gentle I.R., Burn P.L.
Physical Chemistry Chemical Physics , 2013
132.
Detection of explosives with porous xerogel film from conjugated carbazole-based dendrimers
Ding Z., Zhao Q., Xing R., Wang X., Ding J., Wang L., Han Y.
Journal of Materials Chemistry C , 2013
133.
Cholesterol modified OPE functionalized film: fabrication, fluorescence behavior and sensing performance
Wang H., He G., Chen X., Liu T., Ding L., Fang Y.
Journal of Materials Chemistry A , 2012
134.
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
136.
Synthesis and Characterization of Electron-Deficient Pentacenes
Swartz C.R., Parkin S.R., Bullock J.E., Anthony J.E., Mayer A.C., Malliaras G.G.
Organic Letters , 2005
137.
Syntheses of Soluble, π-Stacking Tetracene Derivatives
Chen Z., Müller P., Swager T.M.
Organic Letters , 2005
140.
140
1912
141.
141
Friedl.
142.
Indole–picric acid (1/1)
Saminathan K., Sivakumar K.
Acta Crystallographica Section E Structure Reports Online , 2006
144.
Structural features of four tryptophan metabolite–picric acid molecular complexes
Nagata H., In Y., Doi M., Ishida T., Wakahara A.
Acta Crystallographica Section B Structural Science , 1995
145.
Fluorescent proteins as biosensors by quenching resonance energy transfer from endogenous tryptophan: Detection of nitroaromatic explosives
Gingras A., Sarette J., Shawler E., Lee T., Freund S., Holwitt E., Hicks B.W.
Biosensors and Bioelectronics , 2013
146.
Conjugated poly(aryleneethynylenesiloles) and their application in detecting explosives
Shu W., Guan C., Guo W., Wang C., Shen Y.
Journal of Materials Chemistry A , 2012
147.
Lewis acid–base interactions enhance explosives sensing in silacycle polymers
Sanchez J.C., DiPasquale A.G., Mrse A.A., Trogler W.C.
Analytical and Bioanalytical Chemistry , 2009
148.
Preparation of triazatriphenylene cations, promising chemosensors for nitro compounds
Kopchuk D.S., Egorov I.N., Tseitler T.A., Khasanov A.F., Kovalev I.S., Zyryanov G.V., Rusinov V.L., Chupakhin O.N.
Chemistry of Heterocyclic Compounds , 2013
149.
149
V. V. Korshak
Dokl. Akad. Nauk SSSR , 1954
150.
150
Ya. E. Bernadskaya
"Iskusstvennoe Volokno" (Artificial Fibres) , 1952
151.
Fluorescent Tris-Imidazolium Sensors for Picric Acid Explosive
Roy B., Bar A.K., Gole B., Mukherjee P.S.
Journal of Organic Chemistry , 2013
152.
A fluorometric sensing array for the detection of military explosives and IED materials
Latendresse C.A., Fernandes S.C., You S., Zhang H.Q., Euler W.B.
Analytical Methods , 2013
153.
Synthesis of linear monodisperse vinylene-linked phenothiazine oligomers
Qiu X., Lu R., Zhou H., Zhang X., Xu T., Liu X., Zhao Y.
Tetrahedron Letters , 2007
154.
Remarkable Structure Deformation in Phenothiazine Trimer Radical Cation
Okamoto T., Kuratsu M., Kozaki M., Hirotsu K., Ichimura A., Matsushita T., Okada K.
Organic Letters , 2004
155.
Synthesis of Functionalized Ethynylphenothiazine Fluorophores
Krämer C.S., Zeitler K., Müller T.J.
Organic Letters , 2000
158.
High-Speed Fluorescence Detection of Explosives-like Vapors
Albert K.J., Walt D.R.
Analytical Chemistry , 2000
159.
A selective fluorescent resonance energy transfer quenching and resonance light scattering enhancement dual-recognition probe for 2,4,6-trinitrotoluene
Zou W., Zou F., Shao Q., Zhang J., Wang Y., Xie F., Ding Y.
Journal of Photochemistry and Photobiology A: Chemistry , 2014
160.
Resonance Light Scattering and Its Application in Determining the Size, Shape, and Aggregation Number for Supramolecular Assemblies of Chromophores
Collings P.J., Gibbs E.J., Starr T.E., Vafek O., Yee C., Pomerance L.A., Pasternack R.F.
Journal of Physical Chemistry B , 1999
162.
The 1:1 adduct of 1,3,5-trinitrobenzene with 1,2,3,4-tetrahydroquinoline
Smith G., Wermuth U.D., White J.M.
Acta Crystallographica Section E Structure Reports Online , 2002
163.
Molecular complexes. Part X. The crystal and molecular structure of the 1 : 1 complex of 8-hydroxyquinoline and 1,3,5-trinitrobenzene
Castellano E., Prout C.K.
Journal of the Chemical Society A Inorganic Physical Theoretical , 1971
164.
164
1917
166.
Electrospun nanofibers of porphyrinated polyimide for the ultra-sensitive detection of trace TNT
Lv Y., Xu W., Lin F., Wu J., Xu Z.
Sensors and Actuators, B: Chemical , 2013
167.
Optical properties of free-base tetraphenylporphyrin embedded in fluorinated polyimides and their ethanol and water vapours sensing capabilities
Carturan S., Tonezzer M., Quaranta A., Maggioni G., Buffa M., Milan R.
Sensors and Actuators, B: Chemical , 2009
168.
Intramolecular Energy Transfer in Rare Earth Chelates. Role of the Triplet State
Crosby G.A., Whan R.E., Alire R.M.
Journal of Chemical Physics , 1961
169.
Energy Migration in Lanthanide Chelates
Kleinerman M.
Journal of Chemical Physics , 1969
170.
Mechanism and Rate of the Intramolecular Energy Transfer Process in Rare‐Earth Chelates
Bhaumik M.L., El‐Sayed M.A.
Journal of Chemical Physics , 1965
171.
171
Friedl.
175.
Quenching Mechanism of Zn(Salicylaldimine) by Nitroaromatics
Germain M.E., Vargo T.R., McClure B.A., Rack J.J., Van Patten P.G., Odoi M., Knapp M.J.
Inorganic Chemistry , 2008
177.
Discrimination of Nitroaromatics and Explosives Mimics by a Fluorescent Zn(salicylaldimine) Sensor Array
Germain M.E., Knapp M.J.
Journal of the American Chemical Society , 2008
178.
Trace Explosives Detection by Photoluminescence
Menzel E.R., Bouldin K.K., Murdock R.H.
The Scientific World Journal , 2004
180.
AIPE-active green phosphorescent iridium(iii) complex impregnated test strips for the vapor-phase detection of 2,4,6-trinitrotoluene (TNT)
Bejoymohandas K.S., George T.M., Bhattacharya S., Natarajan S., Reddy M.L.
Journal of Materials Chemistry C , 2014
185.
Functionalized CdSe/ZnS QDs for the Detection of Nitroaromatic or RDX Explosives
Freeman R., Finder T., Bahshi L., Gill R., Willner I.
Advanced Materials , 2012
187.
Creatinine determination according to Jaffe--what does it stand for?
Delanghe J.R., Speeckaert M.M.
CKJ: Clinical Kidney Journal , 2011
188.
188
Chem. Abs. , 1955
189.
189
M. Godchot
Bull. Soc. chim. France (5) , 1913
190.
Selective fluorescence response and magnetic separation probe for 2,4,6-trinitrotoluene based on iron oxide magnetic nanoparticles
Zou W., Wang Y., Wang F., Shao Q., Zhang J., Liu J.
Analytical and Bioanalytical Chemistry , 2013
191.
3-D Lanthanide Metal-Organic Frameworks: Structure, Photoluminescence, and Magnetism
Black C.A., Costa J.S., Fu W.T., Massera C., Roubeau O., Teat S.J., Aromí G., Gamez P., Reedijk J.
Inorganic Chemistry , 2009
192.
Structural and Luminescent Properties of Micro- and Nanosized Particles of Lanthanide Terephthalate Coordination Polymers
Daiguebonne C., Kerbellec N., Guillou O., Bünzli J., Gumy F., Catala L., Mallah T., Audebrand N., Gérault Y., Bernot K., Calvez G.
Inorganic Chemistry , 2008
193.
Surfactant-assisted synthesis of lanthanide metal-organic framework nanorods and their fluorescence sensing of nitroaromatic explosives
Ding S., Wang W., Qiu L., Yuan Y., Peng F., Jiang X., Xie A., Shen Y., Zhu J.
Materials Letters , 2011
196.
Inverted Opal Fluorescent Film Chemosensor for the Detection of Explosive Nitroaromatic Vapors through Fluorescence Resonance Energy Transfer
Fang Q., Geng J., Liu B., Gao D., Li F., Wang Z., Guan G., Zhang Z.
Chemistry - A European Journal , 2009
198.
198
W. Cohen
Rec. Trav. chim. , 1919
199.
A Reversible Dual-Response Fluorescence Switch for the Detection of Multiple Analytes
Geng J., Liu P., Liu B., Guan G., Zhang Z., Han M.
Chemistry - A European Journal , 2010
200.
Electrochemiluminescence Detection of TNT by Resonance Energy Transfer through the Formation of a TNT-Amine Complex
Qi W., Xu M., Pang L., Liu Z., Zhang W., Majeed S., Xu G.
Chemistry - A European Journal , 2014
201.
201
A. Aladjem
1969
202.
Gold Nanoparticle Based Label-Free SERS Probe for Ultrasensitive and Selective Detection of Trinitrotoluene
Dasary S.S., Singh A.K., Senapati D., Yu H., Ray P.C.
Journal of the American Chemical Society , 2009
204.
Reactions in the mass spectrometry of a hydride meisenheimer complex of 2,4,6-trinitrotoluene (TNT)
Yinon J., Johnson J.V., Bernier U.R., Yost R.A., Mayfield H.T., Mahone W.C., Vorbeck C.
Journal of Mass Spectrometry , 1995
206.
Light Trapping to Amplify Metal Enhanced Fluorescence with Application for Sensing TNT
Matoian M.A., Sweetman R., Hall E.C., Albanese S., Euler W.B.
Journal of Fluorescence , 2013
210.
Metalloporphyrins as sensing elements for the rapid detection of trace TNT vapor
Tao S., Li G., Zhu H.
Journal of Materials Chemistry A , 2006
211.
Detection of organics using porphyrin embedded nanoporous organosilicas
Johnson-White B., Zeinali M., Shaffer K.M., Patterson C.H., Charles P.T., Markowitz M.A.
Biosensors and Bioelectronics , 2007
214.
A Rapid and Efficient Way to Dynamic Creation of Cross-Reactive Sensor Arrays Based on Ionic Liquids
Zhu W., Li W., Yang H., Jiang Y., Wang C., Chen Y., Li G.
Chemistry - A European Journal , 2013
215.
Detection of Explosives with a Fluorescent Nanofibril Film
Naddo T., Che Y., Zhang W., Balakrishnan K., Yang X., Yen M., Zhao J., Moore J.S., Zang L.
Journal of the American Chemical Society , 2007
217.
Linearly Polarized Emission of an Organic Semiconductor Nanobelt
Datar A., Balakrishnan K., Yang X., Zuo X., Huang J., Oitker R., Yen M., Zhao J., Tiede D.M., Zang L.
Journal of Physical Chemistry B , 2006
219.
Microporous metal–organic frameworks for storage and separation of small hydrocarbons
He Y., Zhou W., Krishna R., Chen B.
Chemical Communications , 2012
220.
Industrial applications of metal–organic frameworks
Czaja A.U., Trukhan N., Müller U.
Chemical Society Reviews , 2009
222.
A Luminescent Microporous Metal-Organic Framework for the Fast and Reversible Detection of High Explosives
Lan A., Li K., Wu H., Olson D., Emge T., Ki W., Hong M., Li J.
Angewandte Chemie - International Edition , 2009
223.
New Microporous Metal−Organic Framework Demonstrating Unique Selectivity for Detection of High Explosives and Aromatic Compounds
Pramanik S., Zheng C., Zhang X., Emge T.J., Li J.
Journal of the American Chemical Society , 2011
224.
Metal–Organic Framework Materials as Chemical Sensors
Kreno L.E., Leong K., Farha O.K., Allendorf M., Van Duyne R.P., Hupp J.T.
Chemical Reviews , 2011
225.
Fluorescent metal–organic framework for selective sensing of nitroaromatic explosives
Gole B., Bar A.K., Mukherjee P.S.
Chemical Communications , 2011
229.
A luminescent nanocrystal metal–organic framework for sensing of nitroaromatic compounds
Wang Y., Wang F., Luo D., Zhou L., Wen L.
Inorganic Chemistry Communication , 2012
232.
Organic-Inorganic Hybrid Mesoporous Materials as Regenerable Sensing Systems for the Recognition of Nitroaromatic Explosives
Sarkar K., Salinas Y., Campos I., Martínez-Máñez R., Marcos M.D., Sancenón F., Amorós P.
ChemPlusChem , 2013
233.
Tetrathiafulvalene-Capped Hybrid Materials for the Optical Detection of Explosives
Salinas Y., Martínez-Máñez R., Jeppesen J.O., Petersen L.H., Sancenón F., Marcos M.D., Soto J., Guillem C., Amorós P.
ACS applied materials & interfaces , 2013
234.
Chromo-Fluorogenic Detection of Nitroaromatic Explosives by Using Silica Mesoporous Supports Gated with Tetrathiafulvalene Derivatives
Salinas Y., Solano M.V., Sørensen R.E., Larsen K.R., Lycoops J., Jeppesen J.O., Martínez-Máñez R., Sancenón F., Marcos M.D., Amorós P., Guillem C.
Chemistry - A European Journal , 2013
235.
Fluorogenic detection of Tetryl and TNT explosives using nanoscopic-capped mesoporous hybrid materials
Salinas Y., Agostini A., Pérez-Esteve É., Martínez-Máñez R., Sancenón F., Dolores Marcos M., Soto J., Costero A.M., Gil S., Parra M., Amorós P.
Journal of Materials Chemistry A , 2013
236.
236
P. Peshev
Rev. internat. hautes Temperat. et Réfract. , 1969
237.
Adsorption of Gases in Multimolecular Layers
Brunauer S., Emmett P.H., Teller E.
Journal of the American Chemical Society , 1938
238.
Sensitive detection of hazardous explosives via highly fluorescent crystalline porous aromatic frameworks
Yuan Y., Ren H., Sun F., Jing X., Cai K., Zhao X., Wang Y., Wei Y., Zhu G.
Journal of Materials Chemistry A , 2012
241.
Amine functionalized graphene oxide/CNT nanocomposite for ultrasensitive electrochemical detection of trinitrotoluene
Sablok K., Bhalla V., Sharma P., Kaushal R., Chaudhary S., Suri C.R.
Journal of Hazardous Materials , 2013
243.
Functionalized carbon nanotubes as sensitive materials for electrochemical detection of ultra-trace 2,4,6-trinitrotoluene
Zhang H., Hu J., Yan C., Jiang L., Wan L.
Physical Chemistry Chemical Physics , 2006
244.
Supersensitive detection of explosives by silicon nanowire arrays.
Engel Y., Elnathan R., Pevzner A., Davidi G., Flaxer E., Patolsky F.
Angewandte Chemie - International Edition , 2010
245.
Evolutionary Screening of Biomimetic Coatings for Selective Detection of Explosives
Jaworski J.W., Raorane D., Huh J.H., Majumdar A., Lee S.
Langmuir , 2008
246.
Selective and Sensitive TNT Sensors Using Biomimetic Polydiacetylene-Coated CNT-FETs
Kim T.H., Lee B.Y., Jaworski J., Yokoyama K., Chung W., Wang E., Hong S., Majumdar A., Lee S.
ACS Nano , 2011