| Autor: |
Clarin, GC Neal Christian S., Llantos, Orven E., Limbaco, Maynard E. |
| Zdroj: |
Procedia Computer Science; 2024, Vol. 251, p374-381, 8p |
| Abstrakt: |
To observe and study complex biological interactions, establishing a simple simulated foundation is essential for identifying optimal solutions for the therapeutic behavior of different mediums. Using the Einstein-Langevin equation of Brownian motion, which accounts for both systematic and random forces acting on particles, this study explores the dynamic behavior of nanoparticles in two mediums: seawater and blood. With the addition of a smoothing algorithm, the results show that the diffusion coefficient in seawater is approximately 415% higher than in blood. Visual representations further confirm that seawater exhibits a greater scale of nanoparticle movement compared to blood. This study provides critical benchmarks for recalibrating models used in drug delivery and diagnostics, offering new pathways for therapeutic optimization. Additionally, it successfully quantifies the range gap in particle diffusivity between these two mediums. [ABSTRACT FROM AUTHOR] |
| Databáze: |
Supplemental Index |
| Externí odkaz: |
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