Energy- and angle-resolved photofragment distributions for ground-state Cl (²P₃/₂) and spin–orbit excited Cl* (²P₁/₂) have been recorded using the velocity map imaging technique after photodissociation of chloroform at wavelengths of 193 and ∼235 nm. Translational energy distributions are rather broad and peak between 0.6 and 1.0 eV. The spin–orbit branching ratios [Cl*]/[Cl] are 1 and 0.3 at 193 and 235 nm, respectively, indicating the involvement of two or more excited state surfaces. Considering the anisotropy parameters and branching ratios collectively, we conclude that the reaction at 193 nm takes place predominantly on the ¹Q₁ surface, while the ³Q₁ surface gains importance at lower dissociation energies around 235 nm
The photodissociation of cis-, trans-, and 1,l-dichloroethylene (DCE) was studied by a pump-and-prob...
The photodissociation of CS(2) has been investigated using velocity-map ion imaging of the S((1)D(2)...
Author Institution: Department of Chemistry, The Johns Hopkins UniversityVibrationally excited $CH_{...
Molecular beam studies of Cl_2O photolysis at 248 and 308 nm have been repeated and the analysis ref...
The photodissociation o-dichlorobenzene at 266 nm has been investigated using the universal crossed ...
The anionic and cationic photodissociation from deep-core excited chloroform molecule has been inves...
Photodissociation of methyl chloride at 157.6 nm has been investigated using a molecular beam appara...
The photodissociation of C6H5Cl at 266 nm has been investigated using the crossed laser-molecular be...
Velocity mapped ion imaging has been used to experimentally investigate the photodissociation of the...
The photodissociation dynamics of chlorobromomethane (CBM) were investigated between 193 and 242 nm ...
This study examines the 248 nm photodissociation of methyl hypochlorite (CH3OCl), a molecule that se...
The first is via direct dissociation and the second likely involves a barrier slowing down dissociat...
Velocity map ion imaging (VMI) is a powerful experimental technique used to investigate the photodis...
Photodissociation dynamics of n-C7H15Br molecule was investigated at different wavelengths of 231 to...
The photodissociation of chlorodifluoromethane, CHF2Cl (HCFC-22), was studied by a laser pump-and-pr...
The photodissociation of cis-, trans-, and 1,l-dichloroethylene (DCE) was studied by a pump-and-prob...
The photodissociation of CS(2) has been investigated using velocity-map ion imaging of the S((1)D(2)...
Author Institution: Department of Chemistry, The Johns Hopkins UniversityVibrationally excited $CH_{...
Molecular beam studies of Cl_2O photolysis at 248 and 308 nm have been repeated and the analysis ref...
The photodissociation o-dichlorobenzene at 266 nm has been investigated using the universal crossed ...
The anionic and cationic photodissociation from deep-core excited chloroform molecule has been inves...
Photodissociation of methyl chloride at 157.6 nm has been investigated using a molecular beam appara...
The photodissociation of C6H5Cl at 266 nm has been investigated using the crossed laser-molecular be...
Velocity mapped ion imaging has been used to experimentally investigate the photodissociation of the...
The photodissociation dynamics of chlorobromomethane (CBM) were investigated between 193 and 242 nm ...
This study examines the 248 nm photodissociation of methyl hypochlorite (CH3OCl), a molecule that se...
The first is via direct dissociation and the second likely involves a barrier slowing down dissociat...
Velocity map ion imaging (VMI) is a powerful experimental technique used to investigate the photodis...
Photodissociation dynamics of n-C7H15Br molecule was investigated at different wavelengths of 231 to...
The photodissociation of chlorodifluoromethane, CHF2Cl (HCFC-22), was studied by a laser pump-and-pr...
The photodissociation of cis-, trans-, and 1,l-dichloroethylene (DCE) was studied by a pump-and-prob...
The photodissociation of CS(2) has been investigated using velocity-map ion imaging of the S((1)D(2)...
Author Institution: Department of Chemistry, The Johns Hopkins UniversityVibrationally excited $CH_{...