Enhanced CO2 electroreduction on Co active site of cobalt phthalocyanine by electronic effect

A chemical–mechanical coupling effect induced by charge distribution engineering yields a long-lived phosphorus anode for lithium-ion batteries

“…3d), the two peaks at 778.7 eV and 795.3 eV are considered to belong to Co 2+ 2p 3/2 and 2p 1/2 , while the other two peaks at 780.4 eV and 796.2 eV could be ascribed to Co 3+ 2p 3/2 and 2p 1/2, respectively. 39–41 Fig. 3e exhibits the high-resolution spectrum of C 1s which can be fitted to the peaks of C–C/CC (284.8 eV), C–O (285.3 eV), C–N (286.7 eV) and π–π* satellite (289.1 eV).…”

Superhydrophobic catalyst-wrapped fibrofelt with anti-moisture, anti-dusting and NH3-SCR properties

“…As mentioned before, the SA-MnO x catalyst was modified by including electron-withdrawing groups (–CF 3 ). Prior research 30,31 has shown that electron-withdrawing groups (–CF 3 ) can effectively enhance the catalyst activity. In addition, the molecular motion of a gas depends on temperature.…”

Robust interaction of cobalt phthalocyanine and nitrogen-doped ordered mesoporous carbon for CO2 reduction paired with the electro-oxidative synthesis of sulfonamide derivatives

“…Among them, molecular complexes, specifically cobalt phthalocyanine (CoPc), are of great interest owing to their highly active catalytic sites, ability to tune their electronic structure through ligand manipulation, well-defined structurecatalytic mechanism, and improved CO 2 reduction for selective product formation. [8][9][10][11] However, it has been observed that CoPc exhibits a significantly low electrical conductivity. [12][13][14] Thus, to address this limitation, researchers have proposed the synthesis of hybrids consisting of CoPc and carbonaceous materials, which can serve as effective electrocatalysts.…”