Causal inference between depolarizing response and microscopic atributtes of samples doped with nanospheres using Monte-Carlo simulation (Conference Presentation)

Polarimetric measurements hold significant potential in biomedical imaging, particularly for revealing structural details and enabling early detection of certain pathologies via depolarizing characteristics. This study presents a polarization-based Monte Carlo simulation to model Mueller matrices of samples doped with spherical nanoparticles under varying conditions. This approach enables the establishment of a causal relationship between microscopic light-matter interactions and macroscopic depolarization metrics. Experimental validation on diverse samples measured with a complete polarimeter demonstrates adaptability for inferencing nanoscale materials attribution. The integration of causal inference advances the understanding of depolarization mechanisms, paving the way for precise sample analysis and biomedical applications.

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Published
2025-08-08
DOI
https://doi.org/10.1117/12.3066506
Primary Topic
Acoustic Wave Resonator Technologies
Type
article
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article

Causal inference between depolarizing response and microscopic atributtes of samples doped with nanospheres using Monte-Carlo simulation (Conference Presentation)

Juan Campos, Albert Van Eeckhout, Irene Estévez, Ángel Lizana et al.
Acoustic Wave Resonator Technologies
article

Causal inference between depolarizing response and microscopic atributtes of samples doped with nanospheres using Monte-Carlo simulation (Conference Presentation)

Juan Campos, Albert Van Eeckhout, Irene Estévez, Ángel Lizana, Y. J. Mao, L. Pérez
article en

Abstract

Polarimetric measurements hold significant potential in biomedical imaging, particularly for revealing structural details and enabling early detection of certain pathologies via depolarizing characteristics. This study presents a polarization-based Monte Carlo simulation to model Mueller matrices of samples doped with spherical nanoparticles under varying conditions. This approach enables the establishment of a causal relationship between microscopic light-matter interactions and macroscopic depolarization metrics. Experimental validation on diverse samples measured with a complete polarimeter demonstrates adaptability for inferencing nanoscale materials attribution. The integration of causal inference advances the understanding of depolarization mechanisms, paving the way for precise sample analysis and biomedical applications.

Universitat Autònoma de Barcelona (ES), ALBA Synchrotron (Spain) (ES)
Openalex Percentile: Top 81%
Acoustic Wave Resonator Technologies
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