Abstract: Interdisciplinary learning and collaboration skills have become critically important in the age of artificial intelligence. In this study, a team spanning physical chemistry and polymer sciences, mathematics, as well as computer science and engineering was formed to explore the applications of advanced machine learning (ML) algorithms in analyzing Brewster angle microscopy (BAM) images. While ML techniques have gained significant attention for microscopy image analysis, this study represents a pioneering effort to harness their power for analyzing BAM images. The BAM technique is one of the most effective methods for in-situ visualizing the surface morphology of quasi-two-dimensional (2D) condensed phases formed at the air/water (A/W) interface. BAM’s real-time imaging capability arises from the differences in refractive index among the gaseous (G), liquid-expanded (LE), liquid-condensed (LC), and solid phases of the Langmuir film formed at the A/W interface. This paper highlights the design framework and research outcomes of three modules: (a) crystallization and phase separation of biodegradable poly(caprolactone) (PCL)/oligomeric polystyrene (o-PS)-based binary blends at the A/W interface; (b) advanced ML workflows for denoising and enhancing BAM images using a generative AI–based deep learning framework. The workflow leverages Python and PyTorch/TensorFlow on CPUs or GPUs to accelerate model training and improve overall efficiency, and (c) segmentation and quantitative analysis workflow using MATLAB for raw and ML-processed images to identify, refine, and measure the phase-separated domains.
The full paper will be available to logged in and registered conference attendees once the conference starts on June 21, 2026, and to all visitors after the conference ends on June 24, 2026