-transparent.png){kind=logo}
The visible luminescence emitted in the autoxidation of brain homogenates is only partially quenched when antioxidants are added at concentrations such that further oxidation is prevented. From the time course of the emission after antioxidant addition, it can be estimated that nearly 50% of the light arises from an intermediate that decays with a first order kinetics and with a lifetime of ca. 40 s at 32 degrees C. The remaining light arises from the decomposition of one or several intermediates, and show a kinetics that is independent of the incubation time. From the data obtained it is concluded that bimolecular free radical processes, such as the recombination of peroxy radicals, do not significantly contribute to the observed luminescence.
E A Lissi, and
T Cáceres, and
L A Videla
January 2007,
Journal of pharmacological and toxicological methods,
E A Lissi, and
T Cáceres, and
L A Videla
March 1992,
Yakugaku zasshi : Journal of the Pharmaceutical Society of Japan,
E A Lissi, and
T Cáceres, and
L A Videla
May 2020,
The journal of physical chemistry letters,
E A Lissi, and
T Cáceres, and
L A Videla
December 1996,
Neurochemical research,
E A Lissi, and
T Cáceres, and
L A Videla
January 2023,
Materials (Basel, Switzerland),
E A Lissi, and
T Cáceres, and
L A Videla
January 1985,
No to shinkei = Brain and nerve,
E A Lissi, and
T Cáceres, and
L A Videla
September 1981,
The Biochemical journal,
E A Lissi, and
T Cáceres, and
L A Videla
April 1984,
Journal of neurochemistry,
E A Lissi, and
T Cáceres, and
L A Videla
October 1969,
The Journal of chemical physics,
E A Lissi, and
T Cáceres, and
L A Videla
October 1973,
The Journal of cell biology,
