Effect of bio-pesticide on controlling pest, disease and yield of green onion under greenhouse conditions

Main Article Content

Nguyen K. Nghia
Huynh H. Hanh
Nguyen H. Thien
Nguyen T.K. Oanh
Le T. Xa

Abstract

This study evaluated the effect of a spice bio-pesticide product derived from garlic, chili, ginger, onion and lemongrass on green onion pests and diseases, plant growth and yield, soil chemical properties and soil microbial populations under greenhouse conditions. A randomized design experiment with 13 treatments and two replications tested three different concentrations of the bioproduct at 8%, 6%, and 4% in combination with four different spray time intervals: every 3 days, every 7 days, every 10 days, and only at the appearance of pest/disease. The 6% bio-pesticide concentration sprayed every 10 days had the lowest anthracnose disease rate. The 4% bio-pesticide concentration sprayed every 7 days treatment compared to the control resulted in a 31.4% increase in yield of fresh green onions. The bio-pesticide increased soil pH in all treatments after two consecutive green onion crops compared to the control. Surveys of soil microorganisms after two consecutive crops showed the 4% bio-pesticide concentration significantly increased the number of soil bacteria such as beneficial nitrogen fixing bacteria, phosphate solubilizing bacteria and silicon solubilizing bacteria compared to the control. Bio-pesticide applications at any concentration reduced the soil fungal population; and had no effect on the actinomycetes population. While this bio-pesticide showed potential to biologically control green onion pests/disease, additional greenhouse and field experiments are needed to replicate the effects of this spice bio-pesticide application on yields and soil bacteria densities in different soil types and under different crop conditions.

Article Details

How to Cite
Nghia, N. K., Hanh, H. H., Thien, N. H., Oanh, N. T., & Xa, L. T. (2023). Effect of bio-pesticide on controlling pest, disease and yield of green onion under greenhouse conditions. Asia-Pacific Journal of Science and Technology, 29(01), APST–29. https://doi.org/10.14456/apst.2024.14
Section
Research Articles

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