cyclopentadienylnitrosylnickel(I) 以
neat (no solvent) 为溶剂,
生成 氧化亚氮 、 (NiCp).infin.
参考文献:
名称:
Nitric oxide photofragment rotational distribution from UV dissociation of cyclopentadienylnickel nitrosyl
摘要:
The rotational state distribution for NO produced by dissociation of (η5–C5H5)NiNO near 225 nm has been obtained by [1+1] resonance-enhanced multiphoton ionization. The distribution is approximately characterized by a Boltzmann distribution at T=900±200 K. The relative populations of the two spin–orbit components of the ground 2Π manifold are also consistent with this temperature. No preference is observed for populating either of the lambda–doublet components, even at high rotational quantum numbers. Comparison of the results with statistical models shows that the state distribution is significantly colder than expected. One plausible explanation for this is that the parent molecule dissociates to produce cyclopentadienylnickel fragments in an excited electronic state.
functional theory of bonddissociationenergies of the metal‐ligand bonds, thermodynamic investigation of the stability of intermediate species, and experimental investigation of the composition of the gas phase by on‐line massspectrometry have been performed in order to study the growth mechanisms and the carbon incorporation in nickel films during metallorganic chemical vapor deposition (MOCVD) of
Nitric oxide photofragment rotational distribution from UV dissociation of cyclopentadienylnickel nitrosyl
作者:Savas Georgiou、Charles A. Wight
DOI:10.1063/1.454305
日期:1988.6.15
The rotational state distribution for NO produced by dissociation of (η5–C5H5)NiNO near 225 nm has been obtained by [1+1] resonance-enhanced multiphoton ionization. The distribution is approximately characterized by a Boltzmann distribution at T=900±200 K. The relative populations of the two spin–orbit components of the ground 2Π manifold are also consistent with this temperature. No preference is observed for populating either of the lambda–doublet components, even at high rotational quantum numbers. Comparison of the results with statistical models shows that the state distribution is significantly colder than expected. One plausible explanation for this is that the parent molecule dissociates to produce cyclopentadienylnickel fragments in an excited electronic state.