Functional Symbionts
63 recordsRecords of insect symbionts with verified function from literatures.
Search by:
- • Host species (e.g., "Drosophila")
- • Symbiont name (e.g., "Wolbachia")
- • Function (e.g., "B vitamins")
- • Function Tag (e.g., "Nitrogen fixation")
- • Phylum (e.g., "Proteobacteria")
Host Insect | Classification | Localization | Function | Function Tags | Year | Edit | |
---|---|---|---|---|---|---|---|
Pantoea sp. Nvir
Pseudomonadota |
Nezara viridulaHemiptera |
Bacteria
|
Intracellular and Extracellular
|
plays an important role in interactions between insects and plants and could therefore be considered a valuable target for the development of sustainable pest control strategies;transmitted bacteria impacted plant chemical defenses and were able to degrade toxic plant metabolites, aiding the shield bug in its nutrition |
2024 |
||
Pantoea sp. Nvir
Pseudomonadota |
Nezara viridulaHemiptera |
Bacteria
|
Intracellular and Extracellular
|
plays an important role in interactions between insects and plants and could therefore be considered a valuable target for the development of sustainable pest control strategies. |
2024 |
||
Serratia marcescens
Pseudomonadota |
Nezara viridulaHemiptera |
Bacteria
|
Intracellular and Extracellular
|
plays an important role in interactions between insects and plants and could therefore be considered a valuable target for the development of sustainable pest control strategies;transmitted bacteria impacted plant chemical defenses and were able to degrade toxic plant metabolites, aiding the shield bug in its nutrition |
2024 |
||
Serratia marcescens
Pseudomonadota |
Nezara viridulaHemiptera |
Bacteria
|
Intracellular and Extracellular
|
plays an important role in interactions between insects and plants and could therefore be considered a valuable target for the development of sustainable pest control strategies. |
2024 |
||
Sodalis praecaptivus
Pseudomonadota |
Nezara viridulaHemiptera |
Bacteria
|
Intracellular and Extracellular
|
plays an important role in interactions between insects and plants and could therefore be considered a valuable target for the development of sustainable pest control strategies. |
2024 |
||
Bradyrhizobium
Pseudomonadota |
Coccinella septempunctataColeoptera |
Bacteria
|
Extracellular
|
be commonly found in plant roots and they all have nitrogen fixation abilities |
2024 |
||
Burkholderia
Pseudomonadota |
Coccinella septempunctataColeoptera |
Bacteria
|
Extracellular
|
be commonly found in plant roots and they all have nitrogen fixation abilities,and may be able to trigger the expression of genes associated with disease resistance |
2024 |
||
Candidatus Cardinium
Bacteroidota |
Bemisia tabaciHemiptera |
Bacteria
|
Cardinium could inhibit the defense response of the host plant and decrease the detoxification metabolism ability of the host whitefly, decrease the expression of detoxification metabolism genes, especially the uridine 5'-diphospho-glucuronyltransferase and P450 genes, |
2023 |
|||
Acinetobacter
Pseudomonadota |
Chilo suppressalisLepidoptera |
Bacteria
|
Extracellular
|
interfere with plant anti-herbivore defense and avoid fully activating the JA-regulated antiherbivore defenses of rice plants |
2023 |
||
Enterobacter
Pseudomonadota |
Chilo suppressalisLepidoptera |
Bacteria
|
Extracellular
|
interfere with plant anti-herbivore defense and avoid fully activating the JA-regulated antiherbivore defenses of rice plants |
2023 |
||
Buchnera aphidicola
Pseudomonadota |
Sitobion miscanthiHemiptera |
Bacteria
|
Intracellular
|
B. aphidicola derive a proteins GroES induced hydrogen peroxide accumulation and callose deposition in wheat and further activated the plant salic acid and jasmonic acid defense pathways |
2022 |
||
Acinetobacter
Pseudomonadota |
Leptinotarsa decemlineataColeoptera |
Bacteria
|
Extracellular
|
inhibited the expression of genes associated with the JA-mediated defense signaling pathway and SGA biosynthesis |
2022 |
||
Citrobacter
Pseudomonadota |
Leptinotarsa decemlineataColeoptera |
Bacteria
|
Extracellular
|
inhibited the expression of genes associated with the JA-mediated defense signaling pathway and SGA biosynthesis |
2022 |
||
Enterobacter
Pseudomonadota |
Leptinotarsa decemlineataColeoptera |
Bacteria
|
Extracellular
|
suppressed plant defenses |
2022 |
||
Pantoea
Pseudomonadota |
Leptinotarsa decemlineataColeoptera |
Bacteria
|
Extracellular
|
suppressed plant defenses |
2022 |
||
Rickettsia
Pseudomonadota |
Bemisia tabaciHemiptera |
Bacteria
|
Intracellular
|
Rickettsia can be transmitted into plants via whitefly feeding and remain alive within the cotton plants for at least 2 weeks.Then the persistence of Rickettsia and its induced defense responses in cotton plants can increase the fitness of whitefly and, by this, Rickettsia may increase its infection and spread within its whitefly host |
2021 |
||
Serratia symbiotica
Pseudomonadota |
Acyrthosiphon pisumHemiptera |
Bacteria
|
Intracellular
|
impairs plant defence response by suppressing Ca2+ elevation and ROS accumulation, allowing colonization of aphids |
2020 |
||
Enterobacter BC-8
Pseudomonadota |
Leptinotarsa decemlineataColeoptera |
Bacteria
|
symbiotic bacteria suppressed plant defenses such as hydrogen peroxide and phenolic compounds accumulation and activity of peroxidases and trypsin inhibitors |
2020 |
|||
Ophiostoma ips
Ascomycota |
Xyleborus affinisColeoptera |
Fungi
|
Extracellular
|
suppress decomposition of pine sapwood by competing with wood-decay fungi |
2020 |
||
Ophiostoma ips
Ascomycota |
Ambrosiodmus minorColeoptera |
Fungi
|
Extracellular
|
suppress decomposition of pine sapwood by competing with wood-decay fungi |
2020 |