Demonstrates the manipulation of nonamphiphilic molecules in optoelectronic applications, indicating a new method for functional thin films.
, and coronene, with monolayer thicknesses of 1.3, 0.6, and 0.9 nm, respectively. The resulting monolayers adopt a glassy state that enables transfer and sequential layer-by-layer stacking with centimeter-scale uniformity. Their amorphous nature preserves strong photoluminescence and, combined with molecular-level control over donor-acceptor interfaces, allows precise tuning of charge retention dynamics essential for optoelectronic applications. This work provides experimental evidence that the air-water interface can be utilized to manipulate nonamphiphilic molecules with monolayer precision, thereby enabling bottom-up nanoarchitectonics of functional thin films using molecular building blocks not limited to conventional surface-active species.
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Li et al. (2026) studied this question.
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