Nonlinear Spectroscopy and Applications of Two-Photon Absorbing Molecules

D. Beljonne, J. Brédas, B. Cumpston, J. Ehrlich, L. Erskine, A. Heikal, Z. Hu, T. Kogej, I. Y. Lee, S. Marder, J. Perry, H. Rockel, S. Thayumanavan, X. Wu
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Abstract

Molecules exhibiting strong two-photon absorption hold great potential for a wide range of applications including: two-photon fluorescence microscopy, three-dimensional (3D) optical data storage, 3D microfabrication, and optical limiting. (1-4) From a fundamental point of view, knowledge of molecular two-photon spectra and structure/property relationships are also important for a more complete understanding of the third order polarizabilities of conjugated molecules. However, very little is known or understood about two-photon states and spectra of conjugated molecules or how they correlate with structure. We have observed large two-photon absorptivities in bis-donor diphenylpolyene derivatives, that appears to be correlated to simultaneous charge transfer from the end groups to the pi-conjugated bridge in the molecule. These molecules are also excellent photoexcitable electron donors that can initiate charge-transfer reactions. In initial applications of these materials we have demonstrated their use in two-photon initiation of polymerization and optical limiting.
双光子吸收分子的非线性光谱学及其应用
具有强双光子吸收的分子具有广泛应用的巨大潜力,包括:双光子荧光显微镜,三维(3D)光学数据存储,3D微加工和光学限制。(1-4)从基本的角度来看,分子双光子光谱和结构/性质关系的知识对于更全面地理解共轭分子的三阶极化率也很重要。然而,人们对共轭分子的双光子态和光谱以及它们与结构的关系知之甚少。我们已经观察到双给体二苯基多烯衍生物具有较大的双光子吸收率,这似乎与分子中端基向π共轭桥的同时电荷转移有关。这些分子也是极好的光激发电子供体,可以引发电荷转移反应。在这些材料的初步应用中,我们已经证明了它们在双光子引发聚合和光学限制中的应用。
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