“…Ultraviolet/visible/near-infrared (UV/vis/NIR) photodissociation spectroscopy is a very powerful tool to characterize the complex electronic structure of transition metal complexes and clusters in the gas phase. [44][45][46][47][48][49][50][51][52][53][54] We recently investigated photochemical hydrogen evolution from hydrated magnesium, 55,56 the effect of salt environments on the reactions and photolysis of organic substances, [57][58][59] as well as the evolution of the hydration environment of a single electron 60 or a carbon dioxide radical anion 61 using action spectroscopy.…”
The investigation of copper nitrate cluster anions Cu(II)n(NO3)2n+1–, n ≤ 4, in the gas phase using ultraviolet/visible/near-infrared (UV/Vis/NIR) spectroscopy provides detailed insight into the electronic structure of the copper salt...
“…Ultraviolet/visible/near-infrared (UV/vis/NIR) photodissociation spectroscopy is a very powerful tool to characterize the complex electronic structure of transition metal complexes and clusters in the gas phase. [44][45][46][47][48][49][50][51][52][53][54] We recently investigated photochemical hydrogen evolution from hydrated magnesium, 55,56 the effect of salt environments on the reactions and photolysis of organic substances, [57][58][59] as well as the evolution of the hydration environment of a single electron 60 or a carbon dioxide radical anion 61 using action spectroscopy.…”
The investigation of copper nitrate cluster anions Cu(II)n(NO3)2n+1–, n ≤ 4, in the gas phase using ultraviolet/visible/near-infrared (UV/Vis/NIR) spectroscopy provides detailed insight into the electronic structure of the copper salt...
“…[12][13][14][15][16] Gas-phase clusters are ideal models to study fundamental physical and chemical properties of pure and doped salts. [17][18][19] Mass spectrometric studies of alkali halide clusters date back to the 1970s, utilizing secondary ion mass spectrometry (SIMS) and gas aggregation followed by electron ionization (EI), as comprehensively reviewed by Martin. 20 Electrospray ionization has become the dominant way of preparing positively as well as negatively charged salt clusters.…”
As one of the main components of sea salt aerosols, sodium chloride is involved in numerous atmospheric processes. Gas-phase clusters are ideal models to study fundamental physical and chemical properties...
“…We have recently studied a series of salt clusters containing organic molecules by both infrared spectroscopy [38][39][40][41][42][43] and UV/vis spectroscopy, [43][44][45] always in combination with high-level quantum chemistry. We were able to show that the photochemistry of glyoxylate in dry sea salt clusters differs from gaseous glyoxylate, resembling more closely the photochemistry of glyoxylic acid.…”
Tropospheric glyoxylic acid is most likely converted to glyoxylate in sea salt aerosols. We report on the influence of water and salt ions on the structure and photochemistry of glyoxylate.
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