磁奈米粒電磁熱療主要係利用奈米磁粒，經注射方式進入人體腫瘤細胞內，藉由奈米粒熱療加熱系統產生交變磁場，使奈米磁粒迅速升溫至42 ℃以上，達到消滅癌細胞之目的。本論文針對目前市面上使用於磁奈米粒加熱之高週波加熱器各種探頭進行模型研究分析，將分析結果與實際測量數據對照來驗證探頭等效電路之正確性。並探討高週波系統內部參數的影響，將分析求得之電路參數加上探頭等效電路，模擬探頭輸出各種電流與大小頻率的變化，與實際測量值互相比較驗證。藉由此研究之探頭模式分析與電路模擬結果，未來將可應用於改進加熱探頭之設計。

The notion of magnetic nanoparticle thermotherapy is to injects magnetic nanoparticles into tumor cells, utilize the heating system generated alternating magnetic field, so that the magnetic nanoparticles heated up to 42°C and above, aiming to destroy the tumor cells. This study analyzes commercially available high-frequency heating devices used for heating nanoparticles. Analytical results and measurement comparisons are used to verify the effectiveness of applicator models. To investigate the effect of circuit parameters within the heating system, obtained circuit parameters and the applicator are analyzed. Simulating applicator output to vary the current and frequency demonstrate experimental results. This study of applicator models and simulation results for high-frequency heating circuits will improve future applicator designs.

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