Hybrid based on graphene nanoplatelets and carbon nanotubes obtained in a single‐step approach and its reinforcement effect in an epoxy matrix

A hybrid based on graphene nanoplatelets and carbon nanotubes (G‐CNT) is obtained through direct exfoliation of graphite in a liquid medium, and tested as reinforcement material in epoxy resin. CNT act as exfoliation material in contact with graphite under ultrasound irradiation, and the thickness o...

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Veröffentlicht in:Journal of applied polymer science 2022-12, Vol.139 (48), p.n/a
Hauptverfasser: Ramos‐Galicia, Lourdes, Pérez‐Ramírez, Eduardo E., Velasco‐Santos, Carlos, Licea‐Jiménez, Liliana, Martínez‐Hernández, Ana L., Pérez‐García, Sergio A., López‐Ortiz, Alejandro
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container_issue 48
container_start_page
container_title Journal of applied polymer science
container_volume 139
creator Ramos‐Galicia, Lourdes
Pérez‐Ramírez, Eduardo E.
Velasco‐Santos, Carlos
Licea‐Jiménez, Liliana
Martínez‐Hernández, Ana L.
Pérez‐García, Sergio A.
López‐Ortiz, Alejandro
description A hybrid based on graphene nanoplatelets and carbon nanotubes (G‐CNT) is obtained through direct exfoliation of graphite in a liquid medium, and tested as reinforcement material in epoxy resin. CNT act as exfoliation material in contact with graphite under ultrasound irradiation, and the thickness of graphite decreases to produce graphene nanoplatelets in an easy one‐step method. The morphology of the hybrid, is observed through transmission electron microscopy micrographs exhibiting delamination of graphite. XRD, UV–vis, and atomic force microscopy (AFM) results provide evidence of the exfoliation of graphite by interaction with CNT. Ultrasonic process does not generate additional oxygenated groups on carbon structures, as it is supported by XPS spectra; and the disorder in the carbon structures detected in Raman spectra is attributed to defects originated by some fragmentations. Epoxy nanocomposites incorporating 0.3 wt% of G‐CNT display the highest enhancement in storage modulus (~2706 MPa), glass transition region increases meaning higher thermal stability, and glass transition temperature increases until 119°C. Impact resistance also enhances with 0.3 wt% of G‐CNT, obtaining ~95% of increment. The hybrid obtained by exfoliating graphite with CNT in one‐step improves the performance of nanocomposites, and it offer an easy and viable alternative to obtain hybrid systems. Carbon nanotubes act as exfoliation material in contact with graphite in a liquid medium to produce a hybrid based on nanoplatelets‐carbon nanotubes. Collisions between the two materials of different dimensionality and stress by ultrasonication produce exfoliation of graphite. This hybrid enhances the mechanical and thermo‐mechanical properties of epoxy nanocomposites.
doi_str_mv 10.1002/app.53227
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Impact resistance also enhances with 0.3 wt% of G‐CNT, obtaining ~95% of increment. The hybrid obtained by exfoliating graphite with CNT in one‐step improves the performance of nanocomposites, and it offer an easy and viable alternative to obtain hybrid systems. Carbon nanotubes act as exfoliation material in contact with graphite in a liquid medium to produce a hybrid based on nanoplatelets‐carbon nanotubes. Collisions between the two materials of different dimensionality and stress by ultrasonication produce exfoliation of graphite. 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Impact resistance also enhances with 0.3 wt% of G‐CNT, obtaining ~95% of increment. The hybrid obtained by exfoliating graphite with CNT in one‐step improves the performance of nanocomposites, and it offer an easy and viable alternative to obtain hybrid systems. Carbon nanotubes act as exfoliation material in contact with graphite in a liquid medium to produce a hybrid based on nanoplatelets‐carbon nanotubes. Collisions between the two materials of different dimensionality and stress by ultrasonication produce exfoliation of graphite. 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subjects Carbon
Carbon nanotubes
epoxy nanocomposites
Epoxy resins
Exfoliation
Glass transition temperature
Graphene
Graphite
hybrid system
Hybrid systems
Impact resistance
Materials science
Microscopy
Nanocomposites
nanoplatelets
Photomicrographs
physical characteristics
Platelets (materials)
Polymers
Raman spectra
Storage modulus
Thermal stability
X ray photoelectron spectroscopy
title Hybrid based on graphene nanoplatelets and carbon nanotubes obtained in a single‐step approach and its reinforcement effect in an epoxy matrix
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