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Biology Group Research Article 記事ID: igmin147

Efficacy of Different Concentrations of Insect Growth Regulators (IGRs) on Maize Stem Borer Infestation

Environmental Sciences Agriculture DOI10.61927/igmin147
Muhammad Salman Hameed * 1 ,
Khurshied Ahmed Khan 2 ,
Nida Urooj 3 and
Ijaz Rasool Noorka 4
Affiliation

Affiliation

    1National Key Laboratory of Green Pesticide, International Joint Research Center for Intelligent Biosensor Technology and Health, Central China Normal University, Wuhan 430079, P.R. China

    2HATO Agriculture Lighting, National Science and Technology Park (NSTP) NUST, G405-406, Islamabad, Pakistan

    3Department of Business Administration, Bahaudin Zakriya University, Multan, Pakistan

    4Department of Plant Breeding and Genetics University of Sargodha, Pakistan

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要約

Maize stem borer (Chilo Partellus), poses a substantial threat to maize crops all over the world, causing damage that ranges from 26.7% to 80.4%. Its destructive impact includes killing the shoot in young plants, leading to a “dead heart,” and damaging the upper stem in older plants through boring activity. To combat this issue, a field experiment evaluated various insect growth regulators (IGRs) such as Lufenuron®, Pyriproxyfen®, Sitara®, Viper®, Track®, and Priority®. These IGRs, known as reduced-risk pesticides, target pest juveniles and are less harmful to beneficial insects. Conducted through a Randomized Complete Block Design (RCBD) with 24 treatments, excluding a control group, the study recorded maize stem borer populations at 3, 7, and 14 days post-IGR application. In conclusion, the study identifies pyriproxyfen® and Priority® at double the standard concentrations as highly effective insect growth regulators in mitigating maize stem borer infestations, offering promising avenues for enhanced pest control strategies in maize cultivation.

数字

Impact of different concentrations of insect growth regulators (IGRs) on maize stem borer infestation across time intervals. (A) Sitara® concentrations reduced maize stem borer infestation by 0.33% to 9.26% over time. (B) Viper® exhibited fluctuating infestation levels, with reductions between 0.33% and 9.26%. (C) Lufenuron® visually showed reductions from 0.33% to 9.26% across concentrations and time intervals. (D) Pyriproxyfen®, Priority®, and Track® treatments displayed infestation variations from 2.3% to 9%. Figure 1: Impact of different concentrations of insect growt...
Effect of varying concentrations of field recommended dose (FRD) on maize stem borer infestation across post-treatment intervals. (A) Shows infestation percentages and reductions at different Field Recommended Dose (FRD) concentrations for maize stem borer, with 2x FRD exhibiting the highest reduction of 96.71% at 14 days. (B) Illustrates varied infestation levels and reductions at the 7-day interval, ranging from 28.16% to 82.20% across FRD concentrations. (C) Depicts the infestation trend over different post-treatment intervals, emphasizing 2x FRD’s highest reduction (96.71%) at 14 days for maize stem borer.Second application of IGRs. Figure 2: Effect of varying concentrations of field recommen...
Effect of treatment concentrations on maize stem borer infestation reduction across post-treatment intervals. (A) Shows infestation percentages and reductions at various concentrations, with 1/2x and 2x of FRD exhibiting the highest reductions (53.39%) at 3 days post-treatment for maize stem borer. (B) Illustrates infestation rates and reductions, highlighting that 1/2x and 2x of FRD achieved the highest reductions (90.43%) at 7 days post-treatment. (C) Depicts infestation percentages and reductions over time, emphasizing concentrations of 1/2x and 2x of FRD with the highest reductions (85.96%) at the 14-day post-treatment interval for maize stem borer. Figure 3: Effect of treatment concentrations on maize stem b...
Impact of different concentrations of insect growth regulators (IGRs) on maize borer larval density within 24 hours post second application. (A) Shows varied larval densities with concentrations of Sitara®, Viper®, Lufenuron®, Pyriproxyfen®, Priority®, and Track®, with 2x Field Recommended Dose (FRD) displaying the most substantial reduction (64.89%) within 24 hours after the second application. (B) Emphasizes that despite the significant impact of treatments, the interaction between insect growth regulators (IGRs) and concentrations did not significantly influence larval density, highlighting the efficacy of 2x FRD in achieving the highest reduction (64.89%) in larvae per 5 plants post-treatment.Larval population per five plants of maize borer before and after the second application of different IGRs and its reduction percentage. Figure 4: Impact of different concentrations of insect growt...
Comparison of insect growth regulators (IGRs) on larval density and tunnel length reductions post-treatment. (A) Shows comparable efficacy of Viper®, Sitara®, and Track® in reducing larval density (3.46 per 5 plants) with varying reduction percentages. (B) Illustrates consistent larval density (2.86 per 5 plants) and the highest reduction rate (20.55%) for Lufenuron®, Pyriproxyfen®, and Priority®. (C) Demonstrates varied effects of concentrations of Viper®, Lufenuron®, Pyriproxyfen®, Priority®, and Track® on maize borer tunnel length, with substantial reductions (64.20% and 67.75%) at 1/2x and 2x FRD equivalents. (D) Highlights the varied impacts of IGR concentrations on maize borer tunnel length, emphasizing specific concentrations’ effectiveness in reducing tunnel lengths post-treatment. Figure 5: Comparison of insect growth regulators (IGRs) on l...
Comparison of insect growth regulators (IGRs) on maize borer tunnel length reductions at specified post-treatment interval. This comparison evaluates how various insect growth regulators (IGRs) impact the reduction of maize borer tunnel length at a specific post-treatment interval, revealing insights into their varying effectiveness in mitigating tunneling damage and emphasizing the potential of specific IGR concentrations to significantly manage this pest. Figure 6: Comparison of insect growth regulators (IGRs) on m...

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