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   https://doi.org/10.1021/acsaelm.5c00631  

   Ellis, Hunter D; Li, Botong; Xie, Haoyu; Fan, Jichao; Rahaman, Imteaz; Gao, Weilu; Fu, Kai (August 2025, ACS Applied Electronic Materials)
2. Attributing Past Carbon Fluxes to CO ₂ and Climate Change: Respiration Response to CO ₂ Fertilization Shifts Regional Distribution of the Carbon Sink

   https://doi.org/10.1029/2022GB007478  

   Quetin, Gregory R.; Famiglietti, Caroline A.; Dadap, Nathan C.; Bloom, A. Anthony; Bowman, Kevin W.; Diffenbaugh, Noah S.; Liu, Junjie; Trugman, Anna T.; Konings, Alexandra G. (February 2023, Global Biogeochemical Cycles)
3. Introduction of a (Ph ₃ P) ₂ Pt group into the rim of an open-cage fullerene by breaking a carbon–carbon bond

   https://doi.org/10.1039/D1CC04336F  

   Gralinski, Steven R.; Roy, Mrittika; Baldauf, Lilia M.; Olmstead, Marilyn M.; Balch, Alan L. (October 2021, Chemical Communications)

   Treatment of an open-cage fullerene, designated as MMK-9, with (Ph 3 P) 4 Pt in toluene solution at room temperature allows a (PPh 3 ) 2 Pt unit to be incorporated into the rim of the cage so that it becomes an integral part of the carbon cage skeleton. The structure of the adduct has been determined by single crystal X-ray diffraction and reveals that the platinum atom has planar PtC 2 P 2 coordination, rather than the usual η 2 -bonding to an intact C–C double bond of the fullerene. 

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4. Hyperselective carbon membranes for precise high-temperature H₂ and CO₂ separation

   https://doi.org/10.1126/sciadv.adt7512  

   Iyer, Gaurav M; Ku, Ching-En; Zhang, Chen (June 2025, Science Advances)

   More than 90% of the world’s hydrogen (H₂) is produced from fossil fuel sources, which requires energy-intensive separation and purification to produce high-purity H₂fuel and to capture the carbon dioxide (CO₂) by-product. While membranes can decarbonize H₂/CO₂separation, their moderate H₂/CO₂selectivity requires secondary H₂purification by pressure swing adsorption. Here, we report hyperselective carbon molecular sieve hollow fiber membranes showing H₂/CO₂selectivity exceeding 7000 under mixture permeation at 150°C, which is almost 30 times higher than the most selective nonmetallic membrane reported in the literature. The membrane is able to maintain an ultrahigh H₂/CO₂selectivity over 1400 under mixture permeation at 400°C. Pore structure characterization suggests that highly refined ultramicropores are responsible for effectively discriminating the closely sized H₂and CO₂molecules in the hyperselective carbon molecular sieve membrane. Modeling shows that the unprecedented H₂/CO₂selectivity will potentially allow one-step enrichment of fuel-grade H₂from shifted syngas for decarbonized H₂production. 

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5. Reactivity of [Ce(NR ₂ ) ₃ ] (R = SiMe ₃ ) with Prospective Carbon Atom Transfer Reagents

   https://doi.org/10.1021/acs.organomet.0c00186  

   Kent, Greggory T.; Staun, Selena L.; Wu, Guang; Hayton, Trevor W. (July 2020, Organometallics)

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