Simulation of tumor ablation in hyperthermia cancer treatment: A parametric study
Qian Jiang, Feng Ren, Chenglei Wang, Zhaokun Wang, Gholamreza, Kefayati, Sasa Kenjeres, Kambiz Vafai, Yang Liu, Hui Tang

TL;DR
This study presents a comprehensive simulation framework for magnetic hyperthermia cancer treatment, analyzing the effects of various parameters and gravity on tumor ablation efficacy and healthy tissue preservation.
Contribution
It introduces a parametric simulation model that evaluates treatment outcomes under different physical conditions, including gravity effects, and identifies optimal treatment parameters.
Findings
Optimal treatment time without gravity is 46.55 min.
Gravity effect prolongs treatment time by 36.11%.
Parameter variations follow inverse and parabolic functions.
Abstract
A holistic simulation framework is established on magnetic hyperthermia modeling to solve the treatment process of tumor, which is surrounded by a healthy tissue block. The interstitial tissue fluid, MNP distribution, temperature profile, and nanofluids are involved in the simulation. Study evaluates the cancer treatment efficacy by cumulative-equivalent-minutes-at-43 centigrade (CEM43), a widely accepted thermal dose coming from the cell death curve. Results are separated into the conditions of with or without gravity effect in the computational domain, where two baseline case are investigated and compared. An optimal treatment time 46.55 min happens in the baseline case without gravity, but the situation deteriorates with gravity effect where the time for totally killing tumor cells prolongs 36.11% and meanwhile causing 21.32% ablation in healthy tissue. For the cases without gravity,…
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Taxonomy
TopicsRadiation Therapy and Dosimetry · Microfluidic and Bio-sensing Technologies · Field-Flow Fractionation Techniques
