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Lee, Hyun-Wook
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Upgrading carbon monoxide to bioplastics via integrated electrochemical reduction and biosynthesis

Author(s)
Wi, Tae-UngXie, YongchaoLevell, ZacharyFeng, DanyiKim, Jung YoonZhu, PengElgazzar, AhmadJeon, Tae HwaShakouri, MohsenHao, ShaoyunFang, ZhiweiQiu, ChangLee, Hyun-WookHicks, AndreaLiu, YuanyueLiu, ChongWang, Haotian
Issued Date
2024-11
DOI
10.1038/s44160-024-00621-6
URI
https://scholarworks.unist.ac.kr/handle/201301/85269
Citation
NATURE SYNTHESIS, v.3, no.11, pp.1392 - 1403
Abstract
It is challenging to obtain high-value hydrocarbons that are longer than C3 via electrochemical CO2/CO reduction. Integrating electrochemical CO2/CO electrolysers with a downstream bioreactor is one solution for obtaining high-value long-chain products, but the electrolytes in these two systems are mismatched, preventing smooth integration. Here we demonstrate a porous solid electrolyte reactor that produces highly selective and electrolyte-free acetate and couple it with a biosynthesis system for generating C4+ polyhydroxybutyrate bioplastic. A finely tuned electrolyte containing biocompatible salt medium with acetate can be directly injected into the downstream bioreactor without any separation or salt-mixing processes. In the optimized coupled platform, Ralstonia eutropha bacteria can grow with acetate generated from the CO electrocatalytic reduction reactor, and produce bioplastic as the final value-added product.
Publisher
SPRINGERNATURE
ISSN
2731-0582

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