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Preparation and Modification of Biomass-Based Functional Rubbers for Removing Mercury(II) from Aqueous Solution.


ABSTRACT: Biomass-based functional rubber adsorbents were designed and prepared via inverse vulcanization and post-modification. The plant rubber was synthesized with sulfur and renewable cottonseed oil as well as various micromolecular modifiers with nitrogen-containing functional groups. Results showed that types of nitrogen-containing functional groups and dosages of modifiers had a significant impact on the adsorption capacities of the resulting polymers for Hg2+. Notably, when the mass ratio of 2-aminoethyl methacrylate (AEMA) to sulfur was 0.05, the resulting polymer polysulfide-co-cottonseed oil modified by AEMA (SCOA2) showed the highest adsorption capacity (343.3 mg g-1) among all the prepared samples. Furthermore, the Hg2+ removal efficiency of SCOA2 remained over 80% of its original value after five adsorption-desorption cycles. It demonstrated a promising case for utilizing cheap industrial by-products (sulfur) and renewable materials (cottonseed oil). The prepared functional rubber provides alternative approach for mercury removal in waste utilization and sustainable chemistry.

SUBMITTER: Chen Y 

PROVIDER: S-EPMC7040720 | biostudies-literature | 2020 Jan

REPOSITORIES: biostudies-literature

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Preparation and Modification of Biomass-Based Functional Rubbers for Removing Mercury(II) from Aqueous Solution.

Chen Yurong Y   Yasin Akram A   Zhang Yagang Y   Zan Xingjie X   Liu Yanxia Y   Zhang Letao L  

Materials (Basel, Switzerland) 20200131 3


Biomass-based functional rubber adsorbents were designed and prepared via inverse vulcanization and post-modification. The plant rubber was synthesized with sulfur and renewable cottonseed oil as well as various micromolecular modifiers with nitrogen-containing functional groups. Results showed that types of nitrogen-containing functional groups and dosages of modifiers had a significant impact on the adsorption capacities of the resulting polymers for Hg<sup>2+</sup>. Notably, when the mass rat  ...[more]

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