能量醫學提供病人一個新的醫療選擇，它能對疾病做非侵入性的檢測並且提供病人一種非藥物的治療方法。在本論文中，將大腸桿菌藉由能量醫學的理論應用至微弱且極低頻的脈衝電磁場上。電磁訊號耦合儀利用由螺線管線圈所產生的脈衝電磁場來激發抗生素的電磁訊號，且將它應用於大腸桿菌上。實驗藉由將大腸桿菌暴露在含有抗生素電磁訊號的脈衝電磁場中來研究抗生素電磁訊號對大腸桿菌的抑制效果。抗生素電磁訊號對大腸桿菌的抑制率在對數期為20%，而在穩定期則為10%。在對數期與穩定期中，抗生素電磁訊號的抑制率分別比脈衝電磁場的抑制率高14%與4%。實驗結果證明電磁訊號耦合儀成功的將抗生素的電磁訊號作耦合。此外，可以藉由在大腸桿菌的不同生長期中施予不同的載波頻率將抗生素電磁訊號的抑制率增高。

Energy Medicine (EM) provides a new medical choice for patients, and its advantages are the non-invasive detection and non-drug treatment. In this study, EM is applied to Escherichia coli (E. coli) with weak extremely-low-frequency pulsed electromagnetic fields (PEMFs). PEMFs are produced by solenoidal coils for exciting the electromagnetic signal of antibiotics. The electromagnetic signals of antibiotics can be coupled by using electromagnetic signal coupling instrument and applied to the E. coli cells. The efficacy of the electromagnetic signal of antibiotics is investigated by exploring the inhibition rate of E. coli cells cultivated in the exposure to PEMFs with the electromagnetic signal of antibiotics. The inhibition rates of the electromagnetic signal of antibiotics in the logarithmic and stationary phase are about 20% and 10%, respectively, which are higher than those without the electromagnetic signal of antibiotics. The results demonstrate that the electromagnetic signal of antibiotics is successfully coupled by the electromagnetic signal coupling instrument. In addition, the inhibition rate of the electromagnetic signal of antibiotics on growth of E. coli in the stationary phase can be increased by changing the carrier frequency. This phenomenon shows that E. coli may have drug resistance to antibiotics.

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