Controllable synthesis of multicolor Alq3:DCM single-crystalline microrods for optical waveguidesopen access
- Authors
- Lin, Hao-Feng; Yang, Xiao-Xu; Chen, Song; Kang, Ya-Ru; Wang, Jue; Jiang, Zhen-Yu; Yang, Woochul; Huang, Shulai; Xi, Yan; Wang, Xue-Dong; Xie, Wan-Feng
- Issue Date
- Mar-2022
- Publisher
- Elsevier BV
- Keywords
- Organic semiconductor molecules; Self-assembly; Micro/nanowires; Optical waveguide; Forster resonance energy transfer
- Citation
- Organic Electronics, v.102, pp 1 - 6
- Pages
- 6
- Indexed
- SCIE
SCOPUS
- Journal Title
- Organic Electronics
- Volume
- 102
- Start Page
- 1
- End Page
- 6
- URI
- https://scholarworks.dongguk.edu/handle/sw.dongguk/3527
- DOI
- 10.1016/j.orgel.2022.106431
- ISSN
- 1566-1199
1878-5530
- Abstract
- It has been demonstrated that organic semiconductor micro-/nanocrystals with multicolor emission/waveguide characterizations would be widely utilized as ideal building blocks for the next generation of miniaturized optical, electronic and logic operation devices. However, rational synthesis of one dimensional micro-/nanocrystals with multicolor emission and optical waveguide performances are highly desirable and still remain a challenge. Here, the DCM doped Alq(3) single-crystalline microrods are fabricated via a facile solution-exchange method. It is found that a redshift in light-emission frequency is extremely sensitive to the doping concentration of 4-(dicyanomethylene)-2-methyl-6-(4-dimethylamino-styryl)-4Hpyran (DCM) guest molecule. The green emission at 527 nm of Alq(3) is the main emitting peak when doping concentration of DCM in Alq(3):DCM is less than 150:1. Then, when the doping concentration of DCM in Alq(3):DCM is larger than 100:2 such as 100:10, the red emission at 635 nm becomes the dominant emitting peak, the redshift amounts can reach to roughly 108 nm. In addition, the DCMdoped Alq(3) microrods exhibit a lower optical loss of 0.019 dB/pm as a multicolored waveguide material. Therefore, it is demonstrated that the DCM-doped organic micro/nano crystals can be utilized as a promising building block for various optoelectronic components.
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Collections - College of Natural Science > Department of Physics > 1. Journal Articles

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