Worst Case Temperature Rise in a One-Dimensional Tissue Model Exposed to Radiofrequency Radiation
Theodoros Samaras, Andreas Christ, A. Klingenböck, Niels Kuster
Abstract
Theodoros Samaras, Andreas Christ, A. Klingenböck, Niels Kuster
Abstract
This paper investigates the temperature rise in a 1-D layered tissue model, which is irradiated with nonionizing radiation. Of the numerous tissue configurations that correspond to realistic body trunk and limb representations, only those are examined which maximize the averaged specific absorption rate (SAR). The results show that the old IEEE standard on safety was more conservative in terms of temperature rise than the Non-Ionizing Radiation Protection guidelines. They also indicate that the removal of heat exchange from the skin surface can induce a significant temperature rise in it, which is, however, mostly due to imposing the adiabatic conditions themselves, rather than the electromagnetic energy absorption.
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This paper investigates the temperature rise in a 1-D layered tissue model, which is irradiated with nonionizing radiation. Of the numerous tissue configurations that correspond to realistic body trunk and limb representations, only those are examined which maximize the averaged specific absorption rate (SAR). The results show that the old IEEE standard on safety was more conservative in terms of temperature rise than the Non-Ionizing Radiation Protection guidelines. They also indicate that the removal of heat exchange from the skin surface can induce a significant temperature rise in it, which is, however, mostly due to imposing the adiabatic conditions themselves, rather than the electromagnetic energy absorption.
Key concepts: Specific absorption rate, Non-ionizing radiation, Absorption (acoustics), Radiation, Adiabatic process, Irradiation, Ionizing radiation, Materials science