Carbazole–BismaleimideBased Hyper-Cross-LinkedPorous Organic Polymer for Efficient Iodine Capture

Radioactive iodine, a key waste product of nuclear energy, has been a significant concern among nuclear materials because of its high volatility and its ability to easily enter the human metabolism. Porous materials containing a large number of N-heterocyclic units such as carbazole in the skeletons use as effective adsorbents showing high iodine capture capacities. Herein, a new carbazole–bismaleimide-based hyper-cross-linked porous organic polymer (CzBMI-POP) was successfully prepared from a new tetra-armed carbazole–maleimide monomer (Bis-Cz­(BMI)), which contains biscarbazole units and maleimide side groups. To produce CzBMI-POP, a free radical polymerization reaction was carried out via the unsaturated double bonds of Bis-Cz­(BMI), enabling the construction of the N-rich porous skeleton in a simple and practical way. A high surface area carbazole–bismaleimide-based POP with polymer backbone having affinity for iodine uptake and sponge-like pore structures ranging from 2 to 20 nm showed iodine uptake capacity up to 215 wt %. The study highlights new opportunities to use POPs as iodine capture platform from nuclear waste, highlighting their potential for environmental remediation due to their easy synthesis and low cost.

Publication Details

Journal
Figshare
Published
2025-01-28
DOI
https://doi.org/10.1021/acs.langmuir.4c04125.s001
Primary Topic
Covalent Organic Framework Applications
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article
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article

Carbazole–BismaleimideBased Hyper-Cross-LinkedPorous Organic Polymer for Efficient Iodine Capture

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Covalent Organic Framework Applications
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Carbazole–BismaleimideBased Hyper-Cross-LinkedPorous Organic Polymer for Efficient Iodine Capture

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Abstract

Radioactive iodine, a key waste product of nuclear energy, has been a significant concern among nuclear materials because of its high volatility and its ability to easily enter the human metabolism. Porous materials containing a large number of N-heterocyclic units such as carbazole in the skeletons use as effective adsorbents showing high iodine capture capacities. Herein, a new carbazole–bismaleimide-based hyper-cross-linked porous organic polymer (CzBMI-POP) was successfully prepared from a new tetra-armed carbazole–maleimide monomer (Bis-Cz­(BMI)), which contains biscarbazole units and maleimide side groups. To produce CzBMI-POP, a free radical polymerization reaction was carried out via the unsaturated double bonds of Bis-Cz­(BMI), enabling the construction of the N-rich porous skeleton in a simple and practical way. A high surface area carbazole–bismaleimide-based POP with polymer backbone having affinity for iodine uptake and sponge-like pore structures ranging from 2 to 20 nm showed iodine uptake capacity up to 215 wt %. The study highlights new opportunities to use POPs as iodine capture platform from nuclear waste, highlighting their potential for environmental remediation due to their easy synthesis and low cost.

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Covalent Organic Framework Applications
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Carbazole–BismaleimideBased Hyper-Cross-LinkedPorous Organic Polymer for Efficient Iodine Capture · Figshare (2025) | TGRS Research Map | TGRS