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Immune Investigation of the Honeybee Broods: A Step Toward Production of a Bee-derived Antibiotic Against the American Foulbrood

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Specialty Biology
Date 2021 Mar 18
PMID 33732036
Citations 10
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Abstract

Keeping honeybees healthy is essential, as bees are not only important for honey production but also cross-pollination of agricultural and horticultural crops; therefore, bees have a significant economic impact worldwide. Recently, the lethal disease, the American foulbrood (AFB), caused great losses of honeybee and decline of global apiculture. Recent studies have focused on using natural insect-derived antibiotics to overcome recently emerged AFB-resistance to conventional antibiotics. In support of these studies, here we investigate the possibility of producing bee-derived anti-AFB antibiotics from an indigenous honeybee, Apis mellifera jemenitica. The immune responses of the third instar stage were first induced against the standards and compared with the indigenous (ksuPL5). Data indicated a strong immune response against , and 24 h post-injection as revealed by the detection of lysozyme-like, cecropin-like and prophenoloxidase (PO) activities in the plasma of injected third instars. Nodulation activity against injected as early as 4 h and peaking 48 h post- injection were observed. Potentially active anti- immune peptide fractions purified by high-performance liquid chromatography (HPLC) showed significant therapeutic effects on infected first instars. Mass spectrophotometric analysis and Orbitrap measurements of injected plasma indicated the expression of PO (Mr: 80 kDa), beta-1,3-glucan-binding protein (Mr: 52 kDa) and serine protease 44 isoform X1 (Mr: 46 kDa). This suggests that one or all of these immune peptides contribute to significant survivorship of -infected broods, and could be a valuable clue in the search for honeybee-derived anti-AFB natural therapeutic agents. Further molecular characterization and description of the functional roles of these predicted antimicrobial peptides from both broods and adult honeybee may enrich the arsenal of insect-derived antibiotics of therapeutic purposes.

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