乾燥菊花是一種非常受歡迎的傳統藥物和著名的藥草茶。然而，由於其氣候不耐受和香氣，它很容易受到真菌和昆蟲的侵襲。因此，為了減少損害，農民有時會使用農藥。因此，這些農藥的殘留不僅會危害消費者，還會危害環境。電漿活化水(plasma activated water, PAW) 已被證實是一種能在不影響樣品品質的情況下降解特定農用化學品殘留物的新方法，在本研究中，使用PAW與非熱大氣空氣等離子體 (Non-thermal plasma, NTP) 直接處理兩種方法，處理受滅必(metribuzin)和畢達本(pyridaben)兩種農藥之乾菊花，目的是盡量減少其在菊花產品上的殘留。在經過PAW分別處理2、3和4分鐘後，滅必淨分別減少了11、13和 19%，而畢達本則減少8、11和15%，此兩種農藥之降解效率皆低於前人的研究；此外，如同先前的研究結果，NTP直接在200W下處理菊花5和10分鐘後，依然無法達到農用化學品去除之目的。PAW的pH值低於RO水，但它們的導電度 (Electrical conductivity, EC)和氧化還原值 (Oxidation Reduction Potential, ORP)數值更高。最後，本研究發現兩種 NTP處理方式（PAW 和直接處理)後之菊花的總酚含量(Total Phenolic content, TPC)、總黃酮含量(Total Flavonoid content, TFC)和抗氧化能力沒有顯著變化，但是經過PAW 處理後，菊花花瓣的顏色稍有變化。非熱電漿(NTP) 處理（PAW 或直接處理）皆不會對菊花品質產生負面影響，結果顯示整體而言，雖然效果並不顯著，PAW依然能夠降解兩種農藥，反之，非熱電漿(NTP)直接處理則無法有效使農藥降解。

Dry Chrysanthemum is a very popular traditional medicine and famous herbal tea. However, due to its climate intolerance and aroma, it is vulnerable to fungus and insect attacks. Thus, to reduce damages, farmers sometimes use agrochemicals (pesticides). Therefore, the residues of these agrochemicals harm not only consumers but also the environment. Non-thermal Plasma treatment (PAW treatment & Direct treatment with NTP) been demonstrated to be a novel method for the degradation of these agrochemical residues without compromising the quality of the treated samples. In this research, metribuzin and pyridaben contaminated dry Chrysanthemum were treated with nonthermal plasma (NTP) such as PAW and direct treatment with the goal of minimizing their residues on Chrysanthemum. The findings revealed that the degradation efficiency of both pesticides was very low or not achieved compared to prior research. After 120, 180, and 240 second of PAW treatment, metribuzin reductions (%) were 11, 13, and 19%, respectively, whereas pyridaben reductions (%) were 8%, 11%, and 15%. The NTP direct treatment of Chrysanthemum at 200W for 5 and 10 minutes did not result in any pesticide reduction, as previously shown in investigations. PAWs had a lower pH than RO water, but their EC and ORP were higher. Finally, the TPC, TFC, and antioxidant capabilities of Chrysanthemum following both NTP treatments (PAW & direct) did not reveal any significant changes. However, after the PAW treatment, the colour of the flowers changed slightly. Overall, PAW treatment was able to degrade both pesticide residues even at lower levels, whereas direct NTP treatment did not degrade either pesticide residue. Furthermore, neither NTP treatments (PAW nor Direct treatment) had a negative effect on Chrysanthemum quality.

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