A recent study in Nature Energy has quantified how cell-to-cell inconsistency limits the performance, lifetime, and resource utilization of electric vehicle (EV) battery packs under real-world operating conditions. The work revealed that a small number of faster-ageing cells can severely constrain an entire pack's performance and lifespan. The study was led by Prof. CHEN Zhongwei from the Dalian I
Medical ResearchBattery#Chinese Academy of Sciences#Research News#Battery#medical research#clinical research
In her new leadership role, Chiappinelli will build cancer research programs while continuing her work on how ancient viral DNA can trigger anti-tumor immune responses.
Medical ResearchLife Sciences#George Washington University#Research News#SMHS#medical research#clinical research#genomics#biology
In her new leadership role, Chiappinelli will build cancer research programs while continuing her work on how ancient viral DNA can trigger anti-tumor immune responses.
Medical ResearchLife Sciences#George Washington University#Research News#SMHS#medical research#clinical research#genomics#biology
Partial oxidation of methane (POM) offers a promising industrial route for syngas production. Metallic nickel (Ni) nanoparticles have long been considered the catalytic active centers for this reaction. However, the metallic Ni detected after reaction might simply be a product of nickel oxide reduction by syngas at high temperatures, rather than the intrinsic active species. Under high-temperature
Catalysis#Chinese Academy of Sciences#Research News#Catalysis
Solvent molecules can act as gatekeepers inside zeolite catalysts, limiting the space available for larger reactants to reach internal active sites. A recent study has shown that simply regulating where these solvent molecules reside can significantly enhance catalytic performance—without changing the catalyst's intrinsic micropore structure. The study, led by Assoc. Prof. XING Jiacheng, Prof. XU
Catalysis#Chinese Academy of Sciences#Research News#Catalysis
