SRR6130732 - Drosophila suzukii
Basic Information
Run: SRR6130732
Assay Type: WGS
Bioproject: PRJNA412893
Biosample: SAMN07731401
Bytes: 186409190
Center Name: CORNELL UNIVERSITY
Sequencing Information
Instrument: Illumina MiSeq
Library Layout: PAIRED
Library Selection: PCR
Platform: ILLUMINA
Geographic Information
Country: USA
Continent: North America
Location Name: USA: Ithaca NY
Latitude/Longitude: 42.52 N 77.00 W
Sample Information
Host: Drosophila suzukii
Isolation: lo.f.1.1
Biosample Model: Metagenome or environmental
Collection Date: 2016-09
Taxonomic Classification
Potential Symbionts
About Potential Symbionts
This table shows potential symbiont identified in the metagenome sample. Matches are scored based on:
- Relative abundance in the sample
- Species-level matches with known symbionts
- Host insect order matches with reference records
- Completeness and richness of functional records
Based on our current records database, this section aims to identify potential functional symbionts in this metagenome sample, with scoring based on:
- Relative abundance in sample
- Species-level matches with known symbionts
- Host insect order matches
- Functional record completeness
Note: Showing top 3 highest scoring records for each species/genus
Symbiont Name | Record | Host Species | Function | Abundance |
Score
Score Composition:
Higher scores indicate stronger symbiotic relationship potential |
---|---|---|---|---|---|
Gluconobacter
Host Order Match
Host Species Match
|
RISB1882 |
Drosophila suzukii
Order: Diptera
|
produce volatile substances that attract female D. suzukii
|
2.41% |
33.6
|
Gluconobacter
Host Order Match
Host Species Match
|
RISB0876 |
Drosophila suzukii
Order: Diptera
|
None
|
2.41% |
32.4
|
Wolbachia
Host Order Match
Host Species Match
|
RISB0189 |
Drosophila suzukii
Order: Diptera
|
Wolbachia positively affected female fecundity and offspring mass after a diet shift
|
0.23% |
31.9
|
Komagataeibacter
Host Order Match
Host Species Match
|
RISB1883 |
Drosophila suzukii
Order: Diptera
|
produce volatile substances that attract female D. suzukii
|
0.28% |
31.4
|
Escherichia coli
Species-level Match
Host Order Match
|
RISB1769 |
Calliphoridae
Order: Diptera
|
None
|
13.35% |
28.4
|
Escherichia coli
Species-level Match
|
RISB1339 |
Manduca sexta
Order: Lepidoptera
|
modulate immunity-related gene expression in the infected F0 larvae, and also in their offspring, triggered immune responses in the infected host associated with shifts in both DNA methylation and histone acetylation
|
13.35% |
22.7
|
Escherichia coli
Species-level Match
|
RISB0128 |
Tribolium castaneum
Order: Coleoptera
|
may produce 4,8-dimethyldecanal (DMD) production that is strongly associated with attraction to females and host pheromone communication
|
13.35% |
21.1
|
Enterococcus faecalis
Species-level Match
Host Order Match
|
RISB1411 |
Bactrocera dorsalis
Order: Diptera
|
female Bactrocera dorsalis fed Enterococcus faecalis and Klebsiella oxytoca enriched diets lived longer but had lower fecundity
|
3.29% |
20.8
|
Enterobacter sp. C2
Species-level Match
Host Order Match
|
RISB0893 |
Bactrocera dorsalis
Order: Diptera
|
be beneficial, with some quality control indices, such as adult size, pupal weight, survival rate under stress and nutritionally rich conditions, and mating competitiveness, being significantly increased, while slight nonsignificant increases in emergence rate and flight ability were observed
|
0.03% |
20.0
|
Enterococcus faecalis
Species-level Match
Host Order Match
|
RISB0095 |
Bactrocera minax
Order: Diptera
|
egrade phenols in unripe citrus in B. minax larvae
|
3.29% |
19.3
|
Enterobacter sp. C2
Species-level Match
Host Order Match
|
RISB1338 |
Ceratitis capitata
Order: Diptera
|
Enterobacter sp. AA26 dry biomass can fully replace the brewer’s yeast as a protein source in medfly larval diet without any effect on the productivity and the biological quality of reared medfly of VIENNA 8 GSS
|
0.03% |
19.3
|
Leuconostoc sp. C2
Species-level Match
|
RISB0812 |
Hypothenemus hampei
Order: Coleoptera
|
might contribute to caffeine breakdown using the C-18 oxidation pathway
|
12.82% |
19.2
|
Klebsiella michiganensis
Species-level Match
Host Order Match
|
RISB1052 |
Bactrocera dorsalis
Order: Diptera
|
K. michiganensis BD177 has the strain-specific ability to provide three essential amino acids (phenylalanine, tryptophan and methionine) and two vitamins B (folate and riboflavin) to B. dorsalis
|
0.04% |
18.9
|
Enterobacter ludwigii
Species-level Match
Host Order Match
|
RISB1223 |
Delia antiqua
Order: Diptera
|
six bacteria protect larvae from infection with the entomopathogen Beauveria bassiana through symbiotic bacterium-derived organic acids
|
1.17% |
18.9
|
Klebsiella pneumoniae
Species-level Match
Host Order Match
|
RISB1771 |
Muscidae
Order: Diptera
|
None
|
3.59% |
18.6
|
Morganella morganii
Species-level Match
Host Order Match
|
RISB0772 |
Delia antiqua
Order: Diptera
|
showed significant volatile inhibition activity against fungal entomopathogen Fusarium moniliforme, Botryosphaeria dothidea and both Fusarium oxysporum respectively
|
0.11% |
18.4
|
Morganella morganii
Species-level Match
Host Order Match
|
RISB0008 |
Phormia regina
Order: Diptera
|
deterred oviposition by female stable flies; The flies' oviposition decisions appear to be guided by bacteria-derived semiochemicals as the bacteria
|
0.11% |
18.1
|
Serratia plymuthica
Species-level Match
Host Order Match
|
RISB1225 |
Delia antiqua
Order: Diptera
|
six bacteria protect larvae from infection with the entomopathogen Beauveria bassiana through symbiotic bacterium-derived organic acids
|
0.14% |
17.8
|
Klebsiella michiganensis
Species-level Match
Host Order Match
|
RISB1131 |
Bactrocera dorsalis
Order: Diptera
|
promotes host resistance to low-temperature stress by stimulating its arginine and proline metabolism pathway in adult Bactrocera dorsalis
|
0.04% |
17.8
|
Serratia sp. CMO1
Species-level Match
Host Order Match
|
RISB1516 |
Anopheles stephensi
Order: Diptera
|
produce lipodepsipeptides, stephensiolides A-K, that have antibiotic activity and facilitate bacterial surface motility.
|
0.07% |
17.5
|
Acetobacter
Host Order Match
|
RISB1865 |
Drosophila melanogaster
Order: Diptera
|
The bacterial cells may thus be able to ameliorate the pH of the acidic region, by the release of weak bases.Additionally, the bacteria have a complex relationship with physiological processes which may affect ionic homeostasis in the gut, such as nutrition and immune function
|
2.26% |
17.3
|
Morganella morganii
Species-level Match
Host Order Match
|
RISB0611 |
Bactrocera dorsalis
Order: Diptera
|
may hydrolysing nitrogenous waste and providing metabolizable nitrogen for B. dorsalis
|
0.11% |
16.8
|
Serratia plymuthica
Species-level Match
Host Order Match
|
RISB1399 |
Delia antiqua
Order: Diptera
|
suppressed Beauveria bassiana conidia germination and hyphal growth
|
0.14% |
16.5
|
Acetobacter
Host Order Match
|
RISB0961 |
Drosophila melanogaster
Order: Diptera
|
The exist of Acetobacter had a balancing effect on food ingestion when carbohydrate levels were high in the warmer months, stabilizing fitness components of flies across the year.
|
2.26% |
15.8
|
Zymobacter palmae
Species-level Match
|
RISB1324 |
Vespa mandarinia
Order: Hymenoptera
|
None
|
10.69% |
15.7
|
Wolbachia
Host Order Match
|
RISB0766 |
Aedes fluviatilis
Order: Diptera
|
The presence of Wolbachia pipientis improves energy performance in A. fluviatilis cells; it affects the regulation of key energy sources such as lipids, proteins, and carbohydrates, making the distribution of actin more peripheral and with extensions that come into contact with neighboring cells.
|
0.23% |
15.2
|
Buchnera aphidicola
Species-level Match
Host Order Match
|
RISB0051 |
Episyrphus balteatus
Order: Diptera
|
None
|
0.06% |
15.1
|
Bacillus
Host Order Match
|
RISB1866 |
Drosophila melanogaster
Order: Diptera
|
The bacterial cells may thus be able to ameliorate the pH of the acidic region, by the release of weak bases.Additionally, the bacteria have a complex relationship with physiological processes which may affect ionic homeostasis in the gut, such as nutrition and immune function
|
0.05% |
15.1
|
Wolbachia
Host Order Match
|
RISB0779 |
Drosophila melanogaster
Order: Diptera
|
Wolbachia infection affects differential gene expression in Drosophila testis.Genes involved in carbohydrate metabolism, lysosomal degradation, proteolysis, lipid metabolism, and immune response were upregulated in the presence of Wolbachia
|
0.23% |
15.0
|
Acetobacter
Host Order Match
|
RISB0184 |
Drosophila melanogaster
Order: Diptera
|
enhancing the brain levels of tyrosine decarboxylase 2 (Tdc2), which is an enzyme that synthesizes octopamine (OA)
|
2.26% |
14.5
|
Gluconobacter
Host Order Match
|
RISB0016 |
Aedes aegypti
Order: Diptera
|
Gluconobacter might increase the susceptibility of Ae. aegypti to CHIKV infection.
|
2.41% |
14.1
|
Citrobacter
Host Order Match
|
RISB1503 |
Bactrocera dorsalis
Order: Diptera
|
Pesticide-degrading bacteria were frequently detected from pesticide-resistant insects. Susceptible insects became resistant after inoculation of the pesticide-degrading symbiont
|
0.21% |
13.8
|
Citrobacter
Host Order Match
|
RISB0192 |
Hermetia illucens
Order: Diptera
|
can directly promote the expression of two gene families related to intestinal protein metabolism: Hitryp serine protease trypsin family and Himtp metallopeptidase family
|
0.21% |
13.6
|
Lonsdalea
|
RISB1321 |
Vespa mandarinia
Order: Hymenoptera
|
None
|
13.56% |
13.6
|
Methylobacterium
Host Order Match
|
RISB1440 |
Lutzomyia evansi
Order: Diptera
|
Methylobacterium can be important in several physiological and metabolic processes in Lu. evansi, which suggests that interactions could occur with Leishmania parasite
|
0.08% |
13.4
|
Bacillus
Host Order Match
|
RISB0774 |
Delia antiqua
Order: Diptera
|
showed significant contact inhibition activity against fungal entomopathogen Fusarium moniliforme, Botryosphaeria dothidea and both Fusarium oxysporum respectively
|
0.05% |
13.3
|
Citrobacter
Host Order Match
|
RISB1221 |
Delia antiqua
Order: Diptera
|
six bacteria protect larvae from infection with the entomopathogen Beauveria bassiana through symbiotic bacterium-derived organic acids
|
0.21% |
12.9
|
Staphylococcus
Host Order Match
|
RISB0427 |
Anopheles sinensis
Order: Diptera
|
be identified in each part of the hyperendemic area of this study has a potential role to interact with malaria parasites.
|
0.20% |
12.6
|
Shewanella
Host Order Match
|
RISB1924 |
Anopheles gambiae
Order: Diptera
|
may be related with mediating adaptation to different ecological niches or in shaping specific adult behaviors including mating
|
0.06% |
12.6
|
Bacillus
Host Order Match
|
RISB0185 |
Drosophila melanogaster
Order: Diptera
|
enhancing the brain levels of tyrosine decarboxylase 2 (Tdc2), which is an enzyme that synthesizes octopamine (OA)
|
0.05% |
12.3
|
Proteus
Host Order Match
|
RISB2315 |
Aedes aegypti
Order: Diptera
|
upregulates AMP gene expression, resulting in suppression of DENV infection in the mosquito gut epithelium
|
0.06% |
12.2
|
Zymomonas mobilis
Species-level Match
|
RISB1326 |
Vespa mandarinia
Order: Hymenoptera
|
None
|
6.50% |
11.5
|
Aeromonas
Host Order Match
|
RISB2086 |
Aedes aegypti
Order: Diptera
|
axenic larvae cannot develop
|
0.88% |
11.4
|
Dysgonomonas
Host Order Match
|
RISB1235 |
Hermetia illucens
Order: Diptera
|
provides the tools for degrading of a broad range of substrates
|
0.05% |
11.3
|
Enterococcus faecalis
Species-level Match
|
RISB0497 |
Cryptolestes ferrugineus
Order: Coleoptera
|
bacteria can degrade malathion, pirimiphos-methyl, and deltamethrin and utilize these insecticides as the carbon source in vitro.
|
3.29% |
10.9
|
Rickettsia
Host Order Match
|
RISB1273 |
Culicoides impunctatus
Order: Diptera
|
possible symbiont-virus interactions
|
0.14% |
10.9
|
Staphylococcus
Host Order Match
|
RISB1881 |
Aedes aegypti
Order: Diptera
|
gut microbiome
|
0.20% |
10.5
|
Pectobacterium
Host Order Match
|
RISB1772 |
Muscidae
Order: Diptera
|
None
|
0.24% |
10.2
|
Rickettsia
Host Order Match
|
RISB0588 |
Culicoides impunctatus
Order: Diptera
|
None
|
0.14% |
10.1
|
Buchnera aphidicola
Species-level Match
|
RISB0236 |
Acyrthosiphon pisum
Order: Hemiptera
|
Buchnera the nutritional endosymbiont of A. pisum is located inside of bacteriocytes and requires aspartate from the aphid host, because it cannot make it de novo. Further Buchnera needs aspartate for the biosynthesis of the essential amino acids lysine and threonine, which the aphid and Buchnera require for survival
|
0.06% |
10.1
|
Proteus
Host Order Match
|
RISB0054 |
Episyrphus balteatus
Order: Diptera
|
None
|
0.06% |
10.1
|
Buchnera aphidicola
Species-level Match
|
RISB2485 |
Macrosiphum euphorbiae
Order: Hemiptera
|
symbiont expression patterns differ between aphid clones with differing levels of virulence, and are influenced by the aphids' host plant. Potentially, symbionts may contribute to differential adaptation of aphids to host plant resistance
|
0.06% |
9.8
|
Salmonella enterica
Species-level Match
|
RISB0413 |
Melanaphis sacchari
Order: Hemiptera
|
None
|
4.48% |
9.5
|
Acinetobacter pittii
Species-level Match
|
RISB1977 |
Blattella germanica
Order: Blattodea
|
gut microbiota contributes to production of VCAs that act as fecal aggregation agents and that cockroaches discriminate among the complex odors that emanate from a diverse microbial community
|
0.27% |
9.1
|
Candidatus Sodalis pierantonius
Species-level Match
|
RISB2035 |
Sitophilus oryzae
Order: Coleoptera
|
endosymbiont dynamics parallels numerous transcriptional changes in weevil developing adults and affects several biological processes, including metabolism and development
|
0.08% |
8.5
|
Candidatus Sodalis pierantonius
Species-level Match
|
RISB0972 |
Sitophilus oryzae
Order: Coleoptera
|
produce vitamins and essential amino acids required for insect development and cuticle biosynthesis
|
0.08% |
7.1
|
Candidatus Ishikawella capsulata
Species-level Match
|
RISB2368 |
Megacopta punctatissima
Order: Hemiptera
|
Microbe compensates for nutritional deficiency of host diet by supplying essential amino acids
|
0.03% |
6.9
|
Candidatus Sodalis pierantonius
Species-level Match
|
RISB0251 |
Sitophilus oryzae
Order: Coleoptera
|
may infulence immunity, metabolism, metal control, apoptosis, and bacterial stress response
|
0.08% |
6.9
|
Pseudomonas aeruginosa
Species-level Match
|
RISB0364 |
Pagiophloeus tsushimanus
Order: Coleoptera
|
terpenoid-degrading: the highest degradation rates of D-camphor, linalool, and eucalyptol
|
0.10% |
6.9
|
Candidatus Ishikawella capsulata
Species-level Match
|
RISB2543 |
Megacopta punctatissima
Order: Hemiptera
|
Enhance pest status of the insect host
|
0.03% |
5.8
|
Xanthomonas
|
RISB0498 |
Xylocopa appendiculata
Order: Hymenoptera
|
Xanthomonas strain from Japanese carpenter bee is effective PU-degradable bacterium and is able to use polyacryl-based PU as a nutritional source, as well as other types of PS-PU and PE-PU
|
1.97% |
5.7
|
Staphylococcus
|
RISB0945 |
Callosobruchus maculatus
Order: Coleoptera
|
The strain encodes complete biosynthetic pathways for the production of B vitamins and amino acids, including tyrosine; A carbohydrate-active enzyme search revealed that the genome codes for a number of digestive enzymes, reflecting the nutritional ecology of C. maculatus
|
0.20% |
5.2
|
Burkholderia
|
RISB1172 |
Lagria villosa
Order: Coleoptera
|
process a cryptic gene cluster that codes for the biosynthesis of a novel antifungal polyketide with a glutarimide pharmacophore, which led to the discovery of the gladiofungins as previously-overlooked components of the antimicrobial armory of the beetle symbiont
|
0.15% |
5.2
|
Rickettsia
|
RISB0940 |
Bemisia tabaci
Order: Hemiptera
|
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
|
0.14% |
5.1
|
Candidatus Erwinia haradaeae
Species-level Match
|
RISB1632 |
Lachninae
Order: Hemiptera
|
None
|
0.03% |
5.0
|
Burkholderia
|
RISB1729 |
Lagria hirta
Order: Coleoptera
|
the symbionts inhibit the growth of antagonistic fungi on the eggs of the insect host, indicating that the Lagria-associated Burkholderia have evolved from plant pathogenic ancestors into insect defensive mutualists
|
0.15% |
4.5
|
Burkholderia
|
RISB0402 |
Riptortus pedestris
Order: Hemiptera
|
symbiont colonization induces the development of the midgut crypts via finely regulating the enterocyte cell cycles, enabling it to stably and abundantly colonize the generated spacious crypts of the bean bug host
|
0.15% |
4.4
|
Xanthomonas
|
RISB0217 |
Xylocopa appendiculata
Order: Hymenoptera
|
strains biodegraded polyethylene terephthalate PET powder, broke it into its degradation products
|
1.97% |
3.9
|
Yersinia
|
RISB0492 |
Cimex hemipterus
Order: Hemiptera
|
the disruption of the abundant Yersinia possibly could be related to the enhanced susceptibility towards the insecticides
|
1.46% |
3.9
|
Pectobacterium
|
RISB1889 |
Pseudococcus longispinus
Order: Hemiptera
|
a nested symbiotic arrangement, where one bacterium lives inside another bacterium,occurred in building the mosaic metabolic pathways seen in mitochondria and plastids
|
0.24% |
3.6
|
Proteus
|
RISB0001 |
Leptinotarsa decemlineata
Order: Coleoptera
|
produces toxic hydrogen cyanide (HCN) and a mandelonitrile-producing cyanoglucoside, amygdalin, which protect the insect from predation
|
0.06% |
2.8
|
Bacteroides
|
RISB0256 |
Leptocybe invasa
Order: Hymenoptera
|
Differences in Male-Killing Rickettsia Bacteria between Lineages of the Invasive Gall-Causing Pest Leptocybe invasa
|
0.32% |
2.6
|
Bacteroides
|
RISB0090 |
Hyphantria cunea
Order: Lepidoptera
|
enhance the compatibility of invasive pests to new hosts and enable more rapid adaptation to new habitats.
|
0.32% |
2.4
|
Bacteroides
|
RISB1183 |
Oryzaephilus surinamensis
Order: Coleoptera
|
supplement precursors for the cuticle synthesis and thereby enhance desiccation resistance of its host
|
0.32% |
2.4
|
Aeromonas
|
RISB2456 |
Bombyx mori
Order: Lepidoptera
|
able to utilize the CMcellulose and xylan
|
0.88% |
1.7
|
Vibrio
|
RISB1810 |
Monochamus galloprovincialis
Order: Coleoptera
|
Have the ability for degradation of cellulose, proteins and starch
|
0.28% |
1.6
|
Yersinia
|
RISB0407 |
Anaphes nitens
Order: Hymenoptera
|
None
|
1.46% |
1.5
|
Kosakonia
|
RISB0810 |
Hypothenemus hampei
Order: Coleoptera
|
might contribute to caffeine breakdown using the C-16 oxidation pathway
|
0.04% |
1.5
|
Pectobacterium
|
RISB0798 |
Pseudoregma bambucicola
Order: Hemiptera
|
may help P. bambucicola feed on the stalks of bamboo
|
0.24% |
1.3
|
Aeromonas
|
RISB1145 |
Tenebrio molitor
Order: Coleoptera
|
degrading plastics
|
0.88% |
1.2
|
Dickeya
|
RISB1086 |
Rhodnius prolixus
Order: Hemiptera
|
supply enzymatic biosynthesis of B-complex vitamins
|
0.07% |
1.1
|
Methylobacterium
|
RISB2053 |
Atractomorpha sinensis
Order: Orthoptera
|
associated with cellulolytic enzymes
|
0.08% |
0.8
|
Methylobacterium
|
RISB2340 |
Saturniidae
Order: Lepidoptera
|
Nitrogen fixation
|
0.08% |
0.4
|
Kosakonia
|
RISB1155 |
Tenebrio molitor
Order: Coleoptera
|
degrading plastics
|
0.04% |
0.4
|
Dysgonomonas
|
RISB1481 |
Brachinus elongatulus
Order: Coleoptera
|
None
|
0.05% |
0.1
|
Ralstonia
|
RISB0243 |
Spodoptera frugiperda
Order: Lepidoptera
|
None
|
0.05% |
0.1
|
Gibbsiella
|
RISB1320 |
Vespa mandarinia
Order: Hymenoptera
|
None
|
0.03% |
0.0
|
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