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Fabrication of Hollow Nanocones Membrane with an Extraordinary Surface Area as CO2 Sucker.


ABSTRACT: Recently, more and more attention has been paid to the development of eco-friendly solid sorbents that are cost-effective, noncorrosive, have a high gas capacity, and have low renewable energy for CO2 capture. Here, we claimed the fabrication of a three-dimensional (3D) film of hollow nanocones with a large surface area (949.5 m2/g), a large contact angle of 136.3°, and high surface energy. The synthetic technique is based on an electrochemical polymerization process followed by a novel and simple strategy for pulling off the formed layers as a membrane. Although the polymer-coated substrates were reported previously, the membrane formation has not been reported elsewhere. The detachable capability of the manufactured layer as a membrane braked the previous boundaries and allows the membrane's uses in a wide range of applications. This 3D hollow nanocones membrane offer advantages over conventional ones in that they combine a π-electron-rich (aromatic ring), hydrophobicity, a large surface area, multiple amino groups, and a large pore volume. These substantial features are vital for CO2 capturing and storage. Furthermore, the hydrophobicity characteristic and application of the formed polymer as a CO2 sucker were investigated. These results demonstrated the potential of the synthesized 3D hollow polymer to be used for CO2 capturing with a gas capacity of about 68 mg/g and regeneration ability without the need for heat up.

SUBMITTER: El-Said WA 

PROVIDER: S-EPMC8747254 | biostudies-literature | 2022 Jan

REPOSITORIES: biostudies-literature

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Fabrication of Hollow Nanocones Membrane with an Extraordinary Surface Area as CO<sub>2</sub> Sucker.

El-Said Waleed A WA   Choi Jin-Ha JH   Hajjar Dina D   Makki Arwa A AA   Choi Jeong-Woo JW  

Polymers 20220103 1


Recently, more and more attention has been paid to the development of eco-friendly solid sorbents that are cost-effective, noncorrosive, have a high gas capacity, and have low renewable energy for CO<sub>2</sub> capture. Here, we claimed the fabrication of a three-dimensional (3D) film of hollow nanocones with a large surface area (949.5 m<sup>2</sup>/g), a large contact angle of 136.3°, and high surface energy. The synthetic technique is based on an electrochemical polymerization process follow  ...[more]

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