COMPARATIVE EFFECTS OF Melaleuca cajuputi AND Vitex rotundifolia ESSENTIAL OILS ON CELLULASE INHIBITION AND IMMUNE RESPONSE MODULATION IN Rhynchophorus ferrugineus

Karh Yan Tay, Hazlina Ahamad Zakeri, Muhammad Aieman Asyraf Nuruljaiman, Maxswell Junior Presly Gamba, Nor Omaima Harun

Abstract


The increasing destruction of palm oil crops by the Red Palm Weevil (Rhynchophorus ferrugineus, RPW) has prompted the pursuit of environmentally sustainable pest management measures. Essential oils (EOs), recognized for their bioactive characteristics, provide a promising alternative. This study examines the effectiveness of Melaleuca cajuputi (Gelam) and Vitex rotundifolia (Beach Vitex) EOs in inhibiting RPW cellulase activity and altering its immunological response. The cellulase inhibitory action was evaluated using a carboxymethyl cellulose (CMC) assay, and immune response modulation was examined by haemocyte counts (THC) and differential haemocyte (DHC) classification. The findings show that Gelam EO had significant cellulase inhibition at both 5% and 10% concentrations. Conversely, Beach Vitex EO exhibited a dose-dependent inhibitory effect, showing no effects at 5% and substantial inhibition at 10%. Haemocyte analysis indicated that THC was markedly decreased in both 10% Gelam and Beach Vitex EO treatments relative to controls. Prohemocytes and coagulocytes exhibited a considerable rise in the 10% Gelam EO treatment, whereas plasmatocytes demonstrated a significant decrease, suggesting immunological stress and potential inhibition of essential immune processes. The findings indicate that Gelam EO is a more potent cellulase inhibitor, whereas Beach Vitex EO requires larger dosages to attain similar inhibition levels. Furthermore, EO-induced immunological regulation, especially the inhibition of plasmatocytes, may heighten RPW’s vulnerability to environmental stressors and biological control agents. Incorporating these EOs into an integrated pest management (IPM) framework may provide a sustainable substitute for synthetic pesticides. Future research should investigate advancements in EO formulations and their field applications to optimize stability and efficacy for prolonged pest control.


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