Spodoptera (Genus)

Enterococcus mundtii actively secretes a stable class IIa bacteriocin (mundticin KS) against invading bacteria, including opportunistic pathogens (E.…

Enterococcus mundtii is a pathogenic bacterium whose ingestion negatively affects the development and nutritional physiology of Spodoptera litura. It…

Serratia marcescens is a pathogenic bacterium whose ingestion negatively affects the development and nutritional physiology of Spodoptera litura. Its…

Bifidobacterium asteroides strain wkB204 grew in the presence of amygdalin as the sole carbon source, suggesting it degrades amygdalin and is not sus…

Enterococcus mundtii actively secretes a stable class IIa bacteriocin (mundticin KS) against invading bacteria, but not against other gut residents, …

Lactobacillus has functions including nutrient absorption, energy metabolism, degradation of the plant's secondary metabolites, and insect immunity r…

Enterococcus has functions including nutrient absorption, energy metabolism, degradation of the plant's secondary metabolites, and insect immunity re…

Enterobacteriaceae modulates plant defense by downregulating polyphenol oxidase (POX) and trypsin proteinase inhibitor (trypsin PI) activity but upre…

Pantoea ananatis modulates plant defense by downregulating polyphenol oxidase (POX) and trypsin proteinase inhibitor (trypsin PI) activity but upregu…

Pantoea dispersa acts as a probiotic for the fall armyworm (Spodoptera frugiperda), helping to detoxify benzoxazinoids (maize secondary metabolites) …

Enterococcus sp. FAW13-5 mediates assaults by maize defenses on the fall armyworm's digestive and immune systems, resulting in reduced growth and ele…

Enterobacter sp. FAW4-1 mediates assaults by maize defenses on the fall armyworm's digestive and immune systems, resulting in reduced growth and elev…

Klebsiella sp. FAW8-1 mediates assaults by maize defenses on the fall armyworm's digestive and immune systems, resulting in reduced growth and elevat…

Enterococcus FAW 2-1 can enhance the growth of Spodoptera frugiperda, but this effect is contingent on dietary conditions, isolate availability, and …

Wolbachia infection in Spodoptera frugiperda induces cytoplasmic incompatibility (CI), thereby manipulating host reproduction to facilitate its verti…

Bacillus thuringiensis is a widely used bacterial entomopathogen that produces insecticidal toxins, some of which are expressed in insect-resistant t…

Saccharomyces are important fungi for insects in terms of nutrient supply and may be involved in insect development in the larval midgut of Spodopter…

Enterococcus mundtii secretes a stable class II bacteriocin, mundticin KS, against invading bacteria, facilitating the normal development of host gut…

Apiotrichum could be involved in lipid biosynthesis, and the degradation and detoxification of toxic substances in the larval midgut of Spodoptera fr…

Enterococcus spodopteracolus IIL-Luf18 (a newly identified species) functions to metabolize different pesticides within the gut of Spodoptera\ frugip…

Enterococcus spodopteracolus IIL-SusEm (a newly identified species) functions to metabolize different pesticides within the gut of Spodoptera\ frugip…

Enterococcus entomosocium IIL-ClNone5 (a newly identified species) functions to metabolize different pesticides within the gut of Spodoptera\ frugipe…

Enterococcus entomosocium IIL-DmNone1 (a newly identified species) functions to metabolize different pesticides within the gut of Spodoptera\ frugipe…

Enterococcus entomosocium IIL-SpNone6 (a newly identified species) functions to metabolize different pesticides within the gut of Spodoptera\ frugipe…

Enterococcus spodopteracolus IIL-Cl25 (a newly identified species) functions to metabolize different pesticides within the gut of Spodoptera\ frugipe…

Enterococcus spodopteracolus IIL-Sp24 (a newly identified species) functions to metabolize different pesticides within the gut of Spodoptera\ frugipe…

Enterococcus entomosocium IIL-SusEc (a newly identified species) functions to metabolize different pesticides within the gut of Spodoptera\ frugiperd…

Enterococcus entomosocium IIL-Lc32 (a newly identified species) functions to metabolize different pesticides within the gut of Spodoptera\ frugiperda.

Klebsiella sp. EMBL-1 is able to depolymerize and utilize Polyvinyl chloride (PVC) as a sole energy source in the gut of Spodoptera frugiperda larvae.

Gut microbiomes of Spodoptera exigua are mainly involved in membrane transport, carbohydrate metabolism, replication, and amino acid metabolism.

Arthrobacter nicotinovorans is involved in the degradation of lambda-cyhalothrin, deltamethrin, chlorpyrifos ethyl, lufenuron, and spinosyn.

Pseudomonas psychrotolerans is involved in the degradation of lambda-cyhalothrin, deltamethrin, chlorpyrifos ethyl, lufenuron, and spinosyn.

Microbacterium arborescens is involved in the degradation of lambda-cyhalothrin, deltamethrin, chlorpyrifos ethyl, lufenuron, and spinosyn.

Leclercia adecarboxylata is involved in the degradation of lambda-cyhalothrin, deltamethrin, chlorpyrifos ethyl, lufenuron, and spinosyn.

Penicillium is well known for its ability to degrade cellulose, hemicellulose, and lignin in the larval midgut of Spodoptera frugiperda.

Paenibacillus strains can be pathogens of arthropods, as noted in a study examining gut bacterial communities of Spodoptera frugiperda.

Pseudomonas stutzeri is involved in the degradation of lambda-cyhalothrin, deltamethrin, chlorpyrifos ethyl, lufenuron, and spinosyn.

Klebsiella downregulates polyphenol oxidase (POX) but upregulates trypsin proteinase inhibitor (trypsin PI) in this plant species.

Raoultella downregulates polyphenol oxidase (POX) but upregulates trypsin proteinase inhibitor (trypsin PI) in this plant species.

Gut bacteria (microbiome) performs detoxifying processes, including dehalogenation and aromatic hydrocarbon degradation.

Gut bacteria (midgut bacterial overload) confers an advantage against certain entomopathogens such as B. thuringiensis.

Gut bacteria (Metagenome data) may be essential for improving the efficiency of food utilization in Spodoptera litura.

Gut bacteria (Amplicon data) may be essential for improving the efficiency of food utilization in Spodoptera litura.

Pseudomonas japonica facilitates the degradation of flubendiamide and chlorantraniliprole in Spodoptera frugiperda.

Serratia marcescens facilitates the degradation of flubendiamide and chlorantraniliprole in Spodoptera frugiperda.

Acinetobacter soli facilitates the degradation of flubendiamide and chlorantraniliprole in Spodoptera frugiperda.

Enterococcus mundti is involved in energy and nucleotide metabolism, transcription, and translation pathways.

Bombilactobacillus bombi BI-1.1 can degrade the plant toxin amygdalin in the gut of Spodoptera frugiperda.

Bombilactobacillus bombi BI-2.5 can degrade the plant toxin amygdalin in the gut of Spodoptera frugiperda.

Bombilactobacillus bombi LV-8.1 can degrade the plant toxin amygdalin in the gut of Spodoptera frugiperda.

Enterococcus protects the host Spodoptera exigua against pathogens and noncommensal microbes from outside.

Sphingomonas sp. provides a protective effect to Spodoptera frugiperda against chlorantraniliprole stress.

Lactobacillus bombicola BI-4G can degrade the plant toxin amygdalin in the gut of Spodoptera frugiperda.

Lactobacillus bombicola L5-31 can degrade the plant toxin amygdalin in the gut of Spodoptera frugiperda.

Lactobacillus bombicola OCC3 can degrade the plant toxin amygdalin in the gut of Spodoptera frugiperda.

Epichloë schardlii protects its host by deterring feeding and having negative effects on development.

Xenorhabdus rhabduscin gene cluster products inhibit Spodoptera frugiperda phenoloxidase activity.

Enterococcus mundtii is involved in producing an antimicrobial peptide in Spodoptera littoralis.

Staphylococcus sciuri subsp. sciuri may influence the metabolization of pesticides in insects.

Wolbachia causes male-killing and drives a selective sweep on armyworm haplotype diversity.

Gut bacteria (microbiome) includes the suppression and detoxification of plant defenses.

Gilliamella can degrade the plant toxin amygdalin in the gut of Spodoptera frugiperda.

Pseudomonas psychrotolerans may influence the metabolization of pesticides in insects.

Enterococcus casseliflavus may influence the metabolization of pesticides in insects.

Microbacterium arborescens may influence the metabolization of pesticides in insects.

Wolbachia (in Spodoptera exempta) makes the host more susceptible to viral infection.

Microbacterium paraoxydan may influence the metabolization of pesticides in insects.

Leclercia adecarboxylata may influence the metabolization of pesticides in insects.

Pantoea is involved in degrading and utilizing different types of plant materials.

Enterococcus mundtii may influence the metabolization of pesticides in insects.

Pseudomonas stutzeri may influence the metabolization of pesticides in insects.

Gut bacteria affect energy and metabolic homeostasis in Spodoptera frugiperda.

Delftia lacustris may influence the metabolization of pesticides in insects.

Enterococcus spp. may play a protective role against insect pathogens.

Epichloë alsodes protects its host by causing larval mortality.

Klebsiella spp. may have positive effects on insect fecundity.

Enterococcus casseliflavus degrades flubendiamide.

Enterococcus mundtii degrades flubendiamide.

-

-

-

-

-

-

-

-

-

-

-

-

-

-

-

-

-