A significant portion of the world’s plastic is not properly disposed of and, through various processes, is degraded into microscopic particles termed micro- and nanoplastics. Marine and terrestrial faunae, including humans, inevitably get in contact and may inhale and ingest these microscopic plastics which can deposit throughout the body, potentially altering cellular and molecular functions in the nervous and other systems. For instance, at the cellular level, studies in animal models have shown that plastic particles can cross the blood–brain barrier and interact with neurons, and thus affect cognition. At the molecular level, plastics may specifically influence the folding of proteins, induce the formation of aberrant amyloid proteins, and therefore potentially trigger the development of systemic and local amyloidosis. In this review, we discuss the general issue of plastic micro- and nanoparticle generation, with a focus on their effects on protein folding, misfolding, and their possible clinical implications.

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Supplemental Table 1. Correlations of aggregation of platelet-rich plasma with BMI and body weight in the primary cohort Correlation with BMI (r=) Correlation with weight (r=) AA (1.5mM) aggregation pre-ASA 0.02 -0.04 aggregation post-ASA -0.08 -0.15 Change in aggregation with ASA 0.07 0.13 % inhibition with ASA 0.06 0.

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