Synthesis of carbon nanoblocks and carbon nanorods by Tween-80@NaCl

Absract: Carbon nanomaterials are very versatile, but the tunable preparation of their morphology and emission colors is still very challenging. Herein, we present a simple self-assembly method for the preparation of tunable carbon nano (Tween-80@NaCl), where the key tunable parameter is the concent...

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Main Authors: Bingxuan Du, Haichao Li, Zezhong Lin, Chong Wang, Xingping Zhang, Qingsong Ji, Qi Chen, Conglin Zhang
Format: Article
Language:English
Published: Elsevier 2022-10-01
Series:Carbon Trends
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S2667056922000554
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author Bingxuan Du
Haichao Li
Zezhong Lin
Chong Wang
Xingping Zhang
Qingsong Ji
Qi Chen
Conglin Zhang
author_facet Bingxuan Du
Haichao Li
Zezhong Lin
Chong Wang
Xingping Zhang
Qingsong Ji
Qi Chen
Conglin Zhang
author_sort Bingxuan Du
collection DOAJ
description Absract: Carbon nanomaterials are very versatile, but the tunable preparation of their morphology and emission colors is still very challenging. Herein, we present a simple self-assembly method for the preparation of tunable carbon nano (Tween-80@NaCl), where the key tunable parameter is the concentration. More specifically, the structural and optical properties of carbon nanomaterials can be controlled by modulating the concentration of surfactants. It is worth mentioning that salt plays an important role in separating the micelle structure and protecting the micelle morphology. The samples were characterized by Raman spectroscopy and x-ray diffraction to determine the microcrystalline structure and crystal size. The evolution of the micellar structure was established by transmission electron microscopy analysis of the transformation of the Tween-80@NaCl structure. The continuous adjustment of surfactant concentration leads to a change in micelle morphology, like from large-sized blocks to small-sized rods. In addition, carbon nanoparticles with typical fluorescence properties can be obtained by simply changing the surfactant concentration and can easily change from purple fluorescence to dark blue. Notably, this simple strategy of separating first and then carbonizing provides inspiration for future structural design of carbon nanomaterials.
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spelling doaj.art-11a79e98d2564886b77b4a786ed7a9e72022-12-22T04:19:49ZengElsevierCarbon Trends2667-05692022-10-019100199Synthesis of carbon nanoblocks and carbon nanorods by Tween-80@NaClBingxuan Du0Haichao Li1Zezhong Lin2Chong Wang3Xingping Zhang4Qingsong Ji5Qi Chen6Conglin Zhang7Institute of Resource Chemistry of Qinghai, Qinghai nationalities University, Xining 810007, PR ChinaCorresponding author.; Institute of Resource Chemistry of Qinghai, Qinghai nationalities University, Xining 810007, PR ChinaInstitute of Resource Chemistry of Qinghai, Qinghai nationalities University, Xining 810007, PR ChinaInstitute of Resource Chemistry of Qinghai, Qinghai nationalities University, Xining 810007, PR ChinaInstitute of Resource Chemistry of Qinghai, Qinghai nationalities University, Xining 810007, PR ChinaInstitute of Resource Chemistry of Qinghai, Qinghai nationalities University, Xining 810007, PR ChinaInstitute of Resource Chemistry of Qinghai, Qinghai nationalities University, Xining 810007, PR ChinaInstitute of Resource Chemistry of Qinghai, Qinghai nationalities University, Xining 810007, PR ChinaAbsract: Carbon nanomaterials are very versatile, but the tunable preparation of their morphology and emission colors is still very challenging. Herein, we present a simple self-assembly method for the preparation of tunable carbon nano (Tween-80@NaCl), where the key tunable parameter is the concentration. More specifically, the structural and optical properties of carbon nanomaterials can be controlled by modulating the concentration of surfactants. It is worth mentioning that salt plays an important role in separating the micelle structure and protecting the micelle morphology. The samples were characterized by Raman spectroscopy and x-ray diffraction to determine the microcrystalline structure and crystal size. The evolution of the micellar structure was established by transmission electron microscopy analysis of the transformation of the Tween-80@NaCl structure. The continuous adjustment of surfactant concentration leads to a change in micelle morphology, like from large-sized blocks to small-sized rods. In addition, carbon nanoparticles with typical fluorescence properties can be obtained by simply changing the surfactant concentration and can easily change from purple fluorescence to dark blue. Notably, this simple strategy of separating first and then carbonizing provides inspiration for future structural design of carbon nanomaterials.http://www.sciencedirect.com/science/article/pii/S2667056922000554Tween-80@NaClCarbon nanosystemsTunableFluorescent propertiesMicelle
spellingShingle Bingxuan Du
Haichao Li
Zezhong Lin
Chong Wang
Xingping Zhang
Qingsong Ji
Qi Chen
Conglin Zhang
Synthesis of carbon nanoblocks and carbon nanorods by Tween-80@NaCl
Carbon Trends
Tween-80@NaCl
Carbon nanosystems
Tunable
Fluorescent properties
Micelle
title Synthesis of carbon nanoblocks and carbon nanorods by Tween-80@NaCl
title_full Synthesis of carbon nanoblocks and carbon nanorods by Tween-80@NaCl
title_fullStr Synthesis of carbon nanoblocks and carbon nanorods by Tween-80@NaCl
title_full_unstemmed Synthesis of carbon nanoblocks and carbon nanorods by Tween-80@NaCl
title_short Synthesis of carbon nanoblocks and carbon nanorods by Tween-80@NaCl
title_sort synthesis of carbon nanoblocks and carbon nanorods by tween 80 nacl
topic Tween-80@NaCl
Carbon nanosystems
Tunable
Fluorescent properties
Micelle
url http://www.sciencedirect.com/science/article/pii/S2667056922000554
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