Handbook of Aggregation-Induced Emission, Volume 3

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The third volume of the ultimate reference on the science and applications of aggregation-induced emission  The Handbook of Aggregation-Induced Emission In 
the editors address the applications of AIEgens in several fields, including bio-imaging, fluorescent molecular switches, electrochromic materials, regenerative medicine, detection of organic volatile contaminants, hydrogels, and organogels. Topics covered include: 
AIE-active emitters and their applications in OLEDs, and circularly polarized luminescence of aggregation-induced emission materials AIE polymer films for optical sensing and energy harvesting, aggregation-induced electrochemiluminescence, and mechanoluminescence materials with aggregation-induced emission Dynamic super-resolution fluorescence imaging based on photoswitchable fluorescent spiropyran Visualization of polymer microstructures Self-assembly of micelle and vesicles New strategies for biosensing and cell imaging Perfect for academic researchers working on aggregation-induced emission, this set of volumes is also ideal for professionals and students in the fields of photophysics, photochemistry, materials science, optoelectronic materials, synthetic organic chemistry, macromolecular chemistry, polymer science, and biological sciences.

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Source: Readapted from Ref. [96].

To conclude, the development of new molecules and nanostructured materials with AI‐ECL characteristics is highly desirable for many applications e.g. biomolecular sensing, chemical sensing, stimuli‐responsive materials, or optoelectronic systems. The AIE effect permits the use of aggregated suspension of luminogens, in contrast to their molecular dispersed state, in aqueous media, which are essential for the development of biological assays. Also, the turn‐on/light‐up nature of the AI‐ECL sensors makes them promising for on‐site screening and household testing. Although the field is still in its infancy, the entire amount of reports has demonstrated to be an emerging and appealing research area. The simplicity of the AI‐ECL systems and their promising results will undoubtedly encourage scientists to develop new strategies for application platforms.

References

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13 13 Mydlak M, Bizzarri C, Hartmann D, Sarfert W, Schmid G, De Cola L. Positively Charged Iridium(lll) Triazole Derivatives As Blue Emitters For Light‐Emitting Electrochemical Cells. Adv. Funct. Mater. 2010; 20(11):1812–20.

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21 21 Ding Z, Quinn BM, Haram SK, Pell LE, Korgel BA, Bard AJ. Electrochemistry and Electrogenerated Chemiluminescence from Silicon Nanocrystal Quantum Dots. Science. 2002; 296(5571):1293–7.

22 22 Valenti G, Rampazzo E, Kesarkar S, Genovese D, Fiorani A, Zanut A, et al. Electrogenerated Chemiluminescence from Metal Complexes‐Based Nanoparticles for Highly Sensitive Sensors Applications. Coord. Chem. Rev. 2018; 367:65–81.

23 23 Bertoncello P, Stewart AJ, Dennany L. Analytical Applications of Nanomaterials In Electrogenerated Chemiluminescence. Anal. Bioanal. Chem. 2014; 406:5573–87.

24 24 Yu Y, Zhou M, Cui H. Synthesis and Electrochemiluminescence of Bis(2,2′‐Bipyridine)(5‐Amino‐1,10‐Phenanthroline) Ruthenium(II)‐Functionalized Gold Nanoparticles. J. Mater. Chem. 2011; 21(34):12622–5. Available from: http://xlink.rsc.org/?DOI=c1jm11843a

25 25 Chem JM, Dennany L, Gerlach M, Carroll SO, Keyes TE, Forster J, et al. Electrochemiluminescence (ECL) Sensing Properties of Water Soluble Core‐Shell Cdse/Zns Quantum Dots/Nafion Composite Films. J. Mater. Chem. 2011;13984–90.

26 26 Carrara S, Arcudi F, Prato M, Cola L De. Amine‐Rich Nitrogen‐Doped Carbon Nanodots as a Platform for Self‐Enhancing Electrochemiluminescence. Angew. Chem. Int. Ed. 2017; 56:4757–61.

27 27 Carrara S, Stringer B, Shokouhi A, Ramkissoon P, Agugiaro J, Wilson DJD, et al. Unusually Strong Electrochemiluminescence from Iridium‐Based Redox Polymers Immobilized as Thin Layers or Polymer Nanoparticles. ACS. Appl. Mater. Interfaces. 2018; 10(43):37251–7.

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33 33 Rubinstein I, Bard AJ. Electrogenerated Chemiluminescence. 37. Aqueous ECL Systems Based on Tris(2,2’‐Bipyridine)Ruthenium(2+) and Oxalate or Organic Acids. J. Am. Chem Soc. 1981; 103(3):512–6.

34 34 Obeng YS, Bard AJ. Electrogenerated Chemiluminescence. 53. Electrochemistry and Emission from Adsorbed Monolayers of a Tris(bipyridyl)ruthenium(II)‐Based Surfactant on Gold and Tin Oxide Electrodes. Langmuir. 1991; 7(1):195–201.

35 35 Forster RJ, Hogan CF. Electrochemiluminescent metallopolymer Coatings: Combined Light and Current Detection in Flow Injection Analysis. Anal. Chem. 2000; 72(22):5576–82.

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37 37 Dick JE, Renault C, Kim BK, Bard AJ. Electrogenerated Chemiluminescence of Common Organic Luminophores in Water Using an Emulsion System. J. Am. Chem. Soc. 2014; 136(39):13546–9.

38 38 Kai T, Zhou M, Johnson S, Ahn HS, Bard AJ. Direct Observation of C2O4•− and CO2•− by Oxidation of Oxalate within Nanogap of Scanning Electrochemical Microscope. J. Am. Chem. Soc. 2018; 140(47):16178–83.

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