0
Article Tier 2 Remediation Sign in to save

Back Cover: Sustainable Conversion of Microplastics to Methane with Ultrahigh Selectivity by a Biotic–Abiotic Hybrid Photocatalytic System (Angew. Chem. Int. Ed. 52/2022)

Angewandte Chemie International Edition 2022 35 citations

AI summary Read the abstract

Researchers developed a hybrid system combining methane-producing microbes (methanogens) with a semiconductor to convert microplastics into methane gas under light, achieving high selectivity without chemical sacrificial agents and offering insights into the environmental carbon cycle.

Methanogen–semiconductor biohybrids drive the sustainable conversion of microplastics into CH4 under illumination, as reported by Shungui Zhou, Yujie Xiong, and co-workers in their Research Article (e202213244). The biotic–abiotic hybrid system not only addresses a long-standing challenge of photocatalysis by fully utilizing photogenerated electrons and holes without the need for unsustainable chemical sacrificial quenchers, but also provides clues for a better understanding of the global carbon cycle.

More Papers Like This

Article Tier 2

Sustainable Conversion of Microplastics to Methane with Ultrahigh Selectivity by a Biotic–Abiotic Hybrid Photocatalytic System

AI summary Read the abstract

Researchers developed a biotic-abiotic hybrid photocatalytic system combining carbon dot-functionalized carbon nitrides with methanogenic archaea that converts biodegradable microplastics into methane with near 100% selectivity, offering a sustainable approach to plastic waste remediation.

Article Tier 2

Sustainable Conversion of Microplastics to Methane with Ultrahigh Selectivity by a Biotic–Abiotic Hybrid Photocatalytic System

AI summary Read the abstract

Researchers developed a biotic-abiotic hybrid photocatalytic system combining Methanosarcina barkeri bacteria with carbon dot-functionalized polymeric carbon nitrides (CDPCN) to convert biodegradable poly(lactic acid) microplastics into methane with ultrahigh selectivity. The system offered a promising dual-purpose strategy for simultaneously reducing microplastic pollution and generating renewable energy with minimal secondary contamination.

Article Tier 2

Pollutants to Products: A Tailored Multicomponent Photocatalyst for Simultaneous CO 2 and Plastic Waste Conversion

AI summary Read the abstract

Researchers developed a photocatalyst that simultaneously converts CO2 and PET plastic waste into useful chemicals (CO, methane, ethylene glycol) using only light, with CO2 reduced at over 95% selectivity. The dual-use design eliminates the need for chemical sacrificial agents by using plastic as the electron donor for CO2 reduction. Beyond plastic recycling, the system also suggests a pathway for degrading microplastics, offering a single solar-driven process that tackles two major pollution problems at once.

Article Tier 2

Towards a Microplastic-Free Ocean: Green Photocatalysis for Mitigation of Micro- and Nanoplastic Marine Pollution

AI summary Read the abstract

Researchers examined green photocatalysis as a strategy to degrade micro- and nanoplastics in marine environments, finding that sunlight-driven catalytic reactions can break down plastic particles and potentially reduce their ecological toxicity throughout oceanic food webs.

Article Tier 2

Photoelectrocatalytic biosynthesis fuelled by microplastics

AI summary Read the abstract

Researchers developed a photoelectrochemical system that uses PET microplastics as an electron source to power redox enzyme-driven biosynthetic reactions, achieving turnover numbers up to 362,000 for useful organic chemical transformations. This approach simultaneously degrades non-recyclable plastic waste and produces value-added chemicals, demonstrating a dual-benefit strategy that could incentivize microplastic remediation by converting pollution into a productive feedstock.

Research digests by email

When a large batch of papers lands in the Atlas, we read through it and send a short write-up of what stood out.

Email me about

Share this paper