Clark Atlanta University, Department of Physics and CTSPS, Atlanta, Georgia 30314, USA.
Int J Mol Sci. 2020 Apr 30;21(9):3159. doi: 10.3390/ijms21093159.
We first explore negative-ion formation in fullerenes C to C through low-energy electron elastic scattering total cross sections calculations using our Regge-pole methodology. Then, the formed negative ions C to C are used to investigate the catalysis of water oxidation to peroxide and water synthesis from H and O. The exploited fundamental mechanism underlying negative-ion catalysis involves hydrogen bond strength-weakening/breaking in the transition state. Density Functional Theory transition state calculations found C optimal for both water and peroxide synthesis, C increases the energy barrier the most, and C the most effective catalyst in both water synthesis and oxidation to HO.
我们首先通过使用我们的 Regge-pole 方法来探索 C 到 C 全碳富勒烯中通过低能电子弹性散射总截面计算形成的负离子。然后,所形成的 C 到 C 负离子被用于研究水氧化成过氧化物和 H 和 O 合成水的催化作用。所利用的负离子催化的基本机制涉及在过渡态中氢键强度的削弱/断裂。密度泛函理论过渡态计算发现 C 对水和过氧化物的合成都是最佳的,C 使能垒增加最多,C 是水合成和氧化为 HO 的最有效催化剂。