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Decontamination of infected plant seeds utilizing atmospheric gliding arc discharge plasma treatment
利用大气滑动电弧放电等离子体处理对感染植物种子进行净化
大気グライディングアーク放電プラズマ処理を利用した感染植物種子の除染
대기 활공 아크 방전 플라즈마 처리를 이용한 감염된 식물 종자의 오염 제거
Descontaminación de semillas de plantas infectadas mediante tratamiento con plasma de descarga de arco deslizante atmosférico
Décontamination des graines de plantes infectées à l'aide d'un traitement plasma par décharge à arc glissant atmosphérique
Обеззараживание зараженных семян растений с использованием плазменной обработки скользящим дуговым разрядом в атмосфере
Chengcheng Liu 刘成成 ¹, Jianfeng Cui 崔见凤 ¹, Di Zhang 张頔 ¹, Hongwei Tang 汤红卫 ¹, Biao Gong 巩彪 ², Shengxuan Zu 祖圣宣 ¹, Chongshan Zhong 仲崇山 ¹
¹ College of Information and Electrical Engineering, China Agricultural University, Beijing 100083, People's Republic of China
中华人民共和国 北京 中国农业大学信息与电气工程学院
² College of Horticulture Science and Engineering, Shandong Agricultural University, Tai'an 271018, People's Republic of China
中华人民共和国 泰安 山东农业大学园艺科学与工程学院
Plasma Science and Technology, 27 August 2021
Abstract

In agriculture production, plant health is threatened by pathogens parasitic on seeds; hence, it is necessary to disinfect harvested seeds before germination. In this study, a technique of gliding arc plasma treatment was proposed and investigated. The experiment was conducted to treat Astragalus membranaceus (A. membranaceus) seeds that were artificially infected with Fusarium oxysporum (F. oxysporum).

The plasma treatment duration varied from 30 s to 270 s. Direct and indirect treatments were compared to evaluate the inactivation efficiency of the F. oxysporum spores on the surface of seeds. The results indicated that the direct treatment behaved significantly better in disinfection than the indirect way. Meanwhile, experiments of the quantitative assessment of seed germination were also conducted, including the germination rate, the germination potential, and the germination index. The results showed that the inactivation efficiency increased as the plasma treatment time was extended. When the treatment time was 90 s, the inactivation efficiency reached more than 98%. The plasma treatment of 270 s had a complete devitalization of F. oxysporum spores on the surface of the seeds. After the treatment of 30 s and 90 s, the seed germination parameters improved significantly.

This study verified the inactivation efficacy of gliding arc discharge plasma under atmospheric pressure. The technique of gliding arc treatment shows advantages of energy saving and adaptation and has the potential to be utilized in industry.
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