H.W.H. Lee, A.L. Huston, et al.
Chemical Physics Letters
A sensitive variation of FM spectroscopy was used to detect photochemical holes burned in free-base phthalocyanine- doped poly(ethylene) in times as small as 100 nsec. These writing times are more than 3 orders of magnitude smaller than the cycle time of the previously observed photochemical bottleneck. The changes in absorption resulting from hole burning were calibrated against a known interferometer resonance. A simplified model of the hole-burning process fits the experimental data over 7 orders of magnitude in exposure time and predicts the parameters necessary to obtain a given absorption change. These results provide important evidence that the burning bottleneck is due to population buildup in the triplet state. © 1984, Optical Society of America.
H.W.H. Lee, A.L. Huston, et al.
Chemical Physics Letters
Cecilia A. Walsh, W.E. Moerner
Journal of the Optical Society of America B: Optical Physics
W.E. Moerner, A.J. Sievers, et al.
Physical Review Letters
W.P. Risk, J.-C. Baumert, et al.
CLEO 1987