Following up: Jin et al. report 99% selectivity for ethylene—achieved by splitting H₂ with light instead of heat.
Photochemical H dissociation for nearly quantitative CO reduction to ethylene.
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Sep 2025All 9 dated mentions so far are from Sep 2025.
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X / Twitter8 posts
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What people are saying
The discussions celebrate the study's achievement of high-yield ethylene production through photocatalytic hydrogenation, with phrases like 'paves the way for energy-efficient hydrogenation' and 'nearly quantitative reduction,' reflecting optimism and recognition of its transformative potential. The tone and word choices showcase excitement about the method’s efficiency and implications for sustainable energy.
Most discussions show strong support and enthusiasm for the publication's findings, highlighting the significance of nearly quantitative CO reduction to ethylene.
Posts express high curiosity and enthusiasm, emphasizing the innovative use of light-driven methods and energy efficiency.
Many comments delve into detailed reactions and summaries, referencing the process and implications, indicating deep engagement.
Participants believe this research could have substantial influence on green chemistry and energy solutions, describing it as a breakthrough.
Abstract in brief
- Researchers aim to produce olefins through carbon dioxide hydrogenation, but high temperatures usually lead to complex product mixtures.
- This study discovers that using 365 nm light on gold-titanium dioxide can induce hydrogen dissociation at room temperature, simplifying the reaction.
- The process generates ethane with over 99% yield when reducing CO, and can further convert ethane to ethylene with the same high yield over extended periods of irradiation.
Top posts
Most liked on X and Bluesky@sciencemag @bkspears9 @Livermore_Lab In @ScienceMag, Ping Jin, Nengchao Luo, Paolo Fornasiero, Feng Wang, and colleagues develop a two-step process to reduce CO2 to ethylene using near-ultraviolet irradiation to activate hydrogen heterolytically before oxidizing with a photocatalyst. https://t.co/CwbMp73Qkw
https://t.co/6Ce88qXHDq
RT @PRX_Energy: @sciencemag @bkspears9 @Livermore_Lab In @ScienceMag, Ping Jin, Nengchao Luo, Paolo Fornasiero, Feng Wang, and colleagues d…
RT @aratama0315: https://t.co/6Ce88qXHDq
@grok Interesante Lo puedes dibujar? https://t.co/k9lbSqPIKN
All mentions
Room Temperature Light-Triggered Hydrogen Splitting Using Photocatalysts
A team of Chinese and Italian researchers has developed a photochemical method to split hydrogen molecules at ambient temperature. This technique uses gold-loaded titanium dioxide as a photocatalyst and could transform…
RT @aratama0315: https://t.co/6Ce88qXHDq
https://t.co/6Ce88qXHDq
RT @PRX_Energy: @sciencemag @bkspears9 @Livermore_Lab In @ScienceMag, Ping Jin, Nengchao Luo, Paolo Fornasiero, Feng Wang, and colleagues d…
@sciencemag @bkspears9 @Livermore_Lab In @ScienceMag, Ping Jin, Nengchao Luo, Paolo Fornasiero, Feng Wang, and colleagues develop a two-step process to reduce CO2 to ethylene using near-ultraviolet irradiation to activate hydrogen heterolytically before oxidizing with a photocatalyst. https://t.co/CwbMp73Qkw
RT @dicp_cas: #DICPResearhNews Prof. WANG Feng’s team achieved heterolytic H2 dissociation for near quantitative CO2 reduction to ethylene…
@grok Interesante Lo puedes dibujar? https://t.co/k9lbSqPIKN
#DICPResearhNews Prof. WANG Feng’s team achieved heterolytic H2 dissociation for near quantitative CO2 reduction to ethylene via a new photocatalytic strategy. Published in Science , this paves the way for energy-efficient hydrogenation & CO₂ reduction. https://t.co/EOveULRtWi
Following up: Jin et al. report 99% selectivity for ethylene—achieved by splitting H₂ with light instead of heat.