Drosophila melanogaster

fruit fly, vinegar fly

Order

Diptera

Family

Drosophilidae

Genus

Drosophila

Image source: Jesse Rorabaugh@CC0

Drosophila melanogaster is a species of fly (the taxonomic order Diptera) in the family Drosophilidae. Starting with Charles W. Woodworths proposal of the use of this species as a model organism, D. melanogaster continues to be widely used for biological research in genetics, physiology, microbial pathogenesis, and life history evolution. As of 2017, six Nobel prizes had been awarded for research using Drosophila.

Host Genome

Chromosome

Genome ID	Level	BUSCO Assessment
GCA_000001215.4	Chromosome	C:99.9%[S:99.3%,D:0.6%],F:0.0%,M:0.1%,n:1367

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Related Symbionts

63 records

Symbiont records associated with Drosophila melanogaster

	Classification	Function	Function Tags
Listeria monocytogenes Bacillota	Bacteria	L. monocytogenes infection disrupts host energy metabolism by depleting energy stores (triglycerides and glycogen) and reducing metabolic pathway act…	Immune priming
Wolbachia Pseudomonadota	Bacteria	be reported both to extend and shorten longevity. The main molecular pathways underlying the lifespan-modulating effects of Wolbachia remain unclear,…
Acetobacter Pseudomonadota	Bacteria	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 comple…	Fertility
Lactobacillus Bacillota	Bacteria	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 comple…	Fertility
Wolbachia Pseudomonadota	Bacteria	Wolbachia infection affects differential gene expression in Drosophila testis.Genes involved in carbohydrate metabolism, lysosomal degradation, prote…	Immune priming
Wolbachia Pseudomonadota	Bacteria	Upregulate expression of Pale and Ddc, mediates the expression of dopamine related genes, increase total sleep time in both male and female Drosophil…
Wolbachia Pseudomonadota	Bacteria	Wolbachia infection changes the expression of several genes putatively associated with spermatogenesis including JH induced protein-26 and Mst84Db, o…	Immune priming
Acetobacter Pseudomonadota	Bacteria	The exist of Acetobacter had a balancing effect on food ingestion when carbohydrate levels were high in the warmer months, stabilizing fitness compon…	Nutrient provision
Wolbachia Pseudomonadota	Bacteria	A specific strain of Wolbachia was observed to reduce the initiation of aggressive encounters in Drosophila males, which may achieved by influencing …
Wolbachia popcorn Pseudomonadota	Bacteria	begins massive proliferation in the adult, causing widespread degeneration of tissues, including brain, retina, and muscle, culminating in early death
Spiroplasma poulsonii Mycoplasmatota	Bacteria	S. poulsonii protects its host against parasitoid wasps and nematodes by the action of toxins from the family of Ribosome Inactivating Proteins
Wolbachia Pseudomonadota	Bacteria	enhance nanos expression via the bacterial TomO protein in order to fuel germ stem cell maintenance in infected Drosophila females	Fertility
Spiroplasma poulsonii Mycoplasmatota	Bacteria	Spiroplasma coopts the yolk transport and uptake machinery to colonize the germ line and ensure efficient vertical transmission
Wolbachia pipientis Pseudomonadota	Bacteria	increases the recombination rate observed across two genomic intervals and increases the efficacy of natural selection in hosts
Spiroplasma poulsonii Mycoplasmatota	Bacteria	supporting the hypothesis that competition for host lipids underlies S. poulsonii-mediated protection against parasitoid wasps	Natural enemy resistance
Wolbachia Pseudomonadota	Bacteria	Wolbachia can protect insects against the La Jolla virus (LJV; Iflaviridae) and Newfield virus (NFV; Permutotetraviridae)	Pathogen interaction
Spiroplasma Mycoplasmatota	Bacteria	in old flies, display neurodegenerative phenotypes and have a reduced life span compared to uninfected controls	Growth and Development
Spiroplasma Mycoplasmatota	Bacteria	the presence of Wolbachia and Spiroplasma in D. melanogaster up-regulated certain immune-related genes	Immune priming
Wolbachia Pseudomonadota	Bacteria	Wolbach regulates the host's transcriptional response to viral infection and affects viral replication	Pathogen interaction
Wolbachia Pseudomonadota	Bacteria	the presence of Wolbachia and Spiroplasma in D. melanogaster up-regulated certain immune-related genes	Immune priming
Wolbachia pipientis Pseudomonadota	Bacteria	Wolbachia influence octopamine metabolism in the Drosophila females, which is by the symbiont genotype
Acetobacter malorum Pseudomonadota	Bacteria	resulted in the development of larger ovaries and in increased egg numbers in an oviposition assay.	Fertility
Saccharomyces cerevisiae Ascomycota	Fungi	resulted in the development of larger ovaries and in increased egg numbers in an oviposition assay.	Fertility
Spiroplasma poulsonii Mycoplasmatota	Bacteria	manipulates the reproduction of its host by killing its male progeny at the embryonic stage	Reproductive manipulation
Wolbachia Pseudomonadota	Bacteria	Wolbachia strain wMel changes the composition of gut commensal bacteria in the fruit fly
Lactobacillus plantarum FlyG11.1.2 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Lactobacillus plantarum FlyG11.1.6 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Lactobacillus plantarum FlyG11.2.6 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Lactobacillus plantarum FlyG1None.1.5 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Lactobacillus plantarum FlyG1None.1.9 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Lactobacillus plantarum FlyG2.1.8 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Lactobacillus plantarum FlyG2None.1.2 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Lactobacillus plantarum FlyG2None.1.4 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Lactobacillus plantarum FlyG2None.2.2 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Lactobacillus plantarum FlyG2None.2.6 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Lactobacillus plantarum FlyG3.1.8 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Lactobacillus plantarum FlyG7.1.6 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Lactobacillus plantarum FlyG8.1.1 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Lactobacillus plantarum FlyG8.1.2 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Lactobacillus plantarum FlyG9.1.4 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Lactobacillus plantarum FlyG9.2.5 Bacillota	Bacteria	L. plantarum increases its growth-promotion ability by adapting to Drosophila diet	Growth and Development
Spiroplasma poulsonii MSRO-H99 Mycoplasmatota	Bacteria	an S. poulsonii protein, designated Spaid, whose expression induces male killing	Reproductive manipulation
Spiroplasma poulsonii MSRO-SE Mycoplasmatota	Bacteria	an S. poulsonii protein, designated Spaid, whose expression induces male killing	Reproductive manipulation
Wolbachia wMelPop Pseudomonadota	Bacteria	The virulent wMelPop can improve the learning and memory capacity of Drosophila.	Fertility Growth and Development
Accharomyces cerevisiae Ascomycota	Fungi	mediate Drosophila melanogaster attraction, oviposition and development	Growth and Development
Lactobacillus plantarum Bacillota	Bacteria	It has the potential to reduce IMI-induced susceptibility to infection.	Nutrient provision
body-surface microbiotas -	Bacteria	Surface bacteria can defend flies against fungal parasitic infections	Antimicrobials
Lactobacillus plantarum Bacillota	Bacteria	may be beneficial in reducing in vivo Chlorpyrifos (CP) toxicity	Pesticide metabolization
Photorhabdus luminescens Pseudomonadota	Bacteria	produces toxin complex (Tc) toxins as major virulence factors	Chemical biosynthesis
Wolbachia pipientis Pseudomonadota	Bacteria	Increasing Heat Stress Resistance of Drosophila melanogaster
gut bacteria -	Bacteria	gut microbiota of a host for nutritional needs and survival	Nutrient provision
gut bacteria -	Bacteria	gut microbiota of a host for nutritional needs and survival	Nutrient provision
Lactiplantibacillus plantarum Bacillota	Bacteria	could effectively inhibit fungal spore germinations	Antimicrobials
gut bacteria -	Bacteria	Increase chemotaxis response to odorants
gut bacteria -	Bacteria	Reduce memory of olfactory appetitive
Spiroplasma poulsonii MSRO Mycoplasmatota	Bacteria	male-killing Spiroplasma bacterium	Reproductive manipulation
Spiroplasma poulsonii MSRO_BK Mycoplasmatota	Bacteria	male-killing Spiroplasma bacterium	Reproductive manipulation
Erwinia carotovora carotovora 15 Pseudomonadota	Bacteria	Decrease olfactory discrimination
Acetobacter indonesiensis Pseudomonadota	Bacteria	-
Acetobacter oryzifermentans Pseudomonadota	Bacteria	-
Lactiplantibacillus plantarum Bacillota	Bacteria	-
Lactiplantibacillus plantarum Bacillota	Bacteria	-
Streptomyces Actinomycetota	Bacteria	-

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Metagenome Information

0 records

Metagenome sequencing data associated with Drosophila melanogaster

Run	Platform	Location	Date	BioProject
No metagenomes found No metagenome records associated with this host species.

Amplicon Information

63 records

Amplicon sequencing data associated with Drosophila melanogaster

Run	Classification	Platform	Location	Environment
SRR5682895 AMPLICON	16S	-	Australia	-
SRR5682894 AMPLICON	16S	-	Australia	-
DRR358050 AMPLICON	16S	-	uncalculated missing	missing missing
DRR358051 AMPLICON	16S	-	uncalculated missing	missing missing
SRR5682875 AMPLICON	16S	-	Australia	-
SRR5682876 AMPLICON	16S	-	Australia	-
SRR5682877 AMPLICON	16S	-	Australia	-
SRR5682878 AMPLICON	16S	-	Australia	-
SRR5682879 AMPLICON	16S	-	Australia	-
SRR5682880 AMPLICON	16S	-	Australia	-
SRR5682881 AMPLICON	16S	-	Australia	-
SRR5682882 AMPLICON	16S	-	Australia	-
SRR5682883 AMPLICON	16S	-	Australia	-
SRR5682884 AMPLICON	16S	-	Australia	-
SRR5682885 AMPLICON	16S	-	Australia	-
SRR5682886 AMPLICON	16S	-	Australia	-
SRR5682887 AMPLICON	16S	-	Australia	-
SRR5682888 AMPLICON	16S	-	Australia	-
SRR5682889 AMPLICON	16S	-	Australia	-
SRR5682890 AMPLICON	16S	-	Australia	-
SRR5682891 AMPLICON	16S	-	Australia	-
SRR5682892 AMPLICON	16S	-	Australia	-
SRR5682893 AMPLICON	16S	-	Australia	-
SRR15332035 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Six days post eclosion
SRR15332017 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Ten days post eclosion
SRR15331991 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Six days post eclosion
SRR15331993 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Six days post eclosion
SRR15331995 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Two days post eclosion
SRR15331997 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Two days post eclosion
SRR15331999 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Six days post eclosion
SRR15332001 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Six days post eclosion
SRR15332003 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Two days post eclosion
SRR15332005 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Two days post eclosion
SRR15332007 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Two days post eclosion
SRR15332009 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Two days post eclosion
SRR15332011 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Two days post eclosion
SRR15332013 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Ten days post eclosion
SRR15332015 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Ten days post eclosion
SRR15331989 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Six days post eclosion
SRR15332019 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Ten days post eclosion
SRR15332021 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Two days post eclosion
SRR15332023 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Ten days post eclosion
SRR15332025 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Ten days post eclosion
SRR15332027 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Ten days post eclosion
SRR15332029 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Six days post eclosion
SRR15332031 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Six days post eclosion
SRR15332033 AMPLICON	16S	-	China 31.2 N 121.4 E	Fruit fly body surface Six days post eclosion
SRR14350755 AMPLICON	16S	-	Canada 68.87 N 93.13 W	-
SRR14350756 AMPLICON	16S	-	Canada 68.87 N 93.13 W	-
SRR14350745 AMPLICON	16S	-	Canada 68.87 N 93.13 W	-
SRR14350746 AMPLICON	16S	-	Canada 68.87 N 93.13 W	-
SRR14350747 AMPLICON	16S	-	Canada 68.87 N 93.13 W	-
SRR14350748 AMPLICON	16S	-	Canada 68.87 N 93.13 W	-
SRR14350749 AMPLICON	16S	-	Canada 68.87 N 93.13 W	-
SRR14350750 AMPLICON	16S	-	Canada 68.87 N 93.13 W	-
SRR14350751 AMPLICON	16S	-	Canada 68.87 N 93.13 W	-
SRR14350752 AMPLICON	16S	-	Canada 68.87 N 93.13 W	-
SRR14350753 AMPLICON	16S	-	Canada 68.87 N 93.13 W	-
SRR14350754 AMPLICON	16S	-	Canada 68.87 N 93.13 W	-
SRR13089526 AMPLICON	16S	-	China 30.3 N 120.2 E	-
SRR13089525 AMPLICON	16S	-	China 30.3 N 120.2 E	-
SRR9587990 AMPLICON	16S	-	China 30.3 N 120.2 E	-
SRR9587989 AMPLICON	16S	-	China 30.3 N 120.2 E	-

39 records

Research articles related to Drosophila melanogaster

Title	Authors	Journal	Year	DOI
The gut microbiome promotes locomotion of Drosophila larvae via octopamine signaling	Hu, JC; Bi, R; Luo, YX ... Jia, YC; Mao, CX	INSECT SCIENCE	2024	10.1111/1744-7917.13370
Infection by virulent wMelPop Wolbachia improves learning and memory capacity in Drosophila melanogaster	Chen, MY; Li, D; Wang, ZN ... Zhang, S; Wang, YF	Animal Behaviour	2024	10.1016/j.anbehav.2024.03.016
Suppression of the insect cuticular microbiomes by a fungal defensin to facilitate parasite infection	Hong, S; Sun, YL; Chen, HM; Wang, CS	ISME JOURNAL	2023	10.1038/s41396-022-01323-7
Wolbachia protects Drosophila melanogaster against two naturally occurring and virulent viral pathogens	Bruner-Montero, G; Jiggins, FM	SCIENTIFIC REPORTS	2023	10.1038/s41598-023-35726-z
New Wolbachia pipientis Genotype Increasing Heat Stress Resistance of Drosophila melanogaster Host Is Characterized by a Large Chromosomal Inversion	Korenskaia, AE; Shishkina, OD; Klimenko, AI ... Vasiliev, GV; Gruntenko, NE	INTERNATIONAL JOURNAL OF MOLECULAR SCIENCES	2022	10.3390/ijms232416212
Microbiome assembly on Drosophila body surfaces benefits the flies to combat fungal infections	Hong, S; Sun, YL; Sun, DP; Wang, CS	iScience	2022	10.1016/j.isci.2022.104408
Disproportionate investment in Spiralin B production limits in-host growth and favors the vertical transmission of Spiroplasma insect endosymbionts	Masson, F; Rommelaere, S; Schüpfer, F; Boquete, JP; Lemaitre, B	Proceedings of the National Academy of Sciences	2022	10.1073/pnas.2208461119
CRISPR screens in Drosophila cells identify Vsg as a Tc toxin receptor	Xu, Y; Viswanatha, R; Sitsel, O ... Perrimon, N; Dong, M	NATURE	2022	10.1038/s41586-022-05250-7
Gut microbe Lactiplantibacillus plantarum undergoes different evolutionary trajectories between insects and mammals	Maritan, E; Gallo, M; Srutkova, D ... Schwarzer, M; Martino, ME	BMC Biology	2022	10.1186/s12915-022-01477-y
Parasite reliance on its host gut microbiota for nutrition and survival	Zhou, SC; Lu, YQ; Chen, JN ... Chen, XX; Huang, JH	ISME JOURNAL	2022	10.1038/s41396-022-01301-z
Association of Wolbachia with Gene Expression in Drosophila Testes	Dou, WH; Miao, YH; Xiao, JH; Huang, DW	MICROBIAL ECOLOGY	2021	10.1007/s00248-021-01703-0
Gut cytokines modulate olfaction through metabolic reprogramming of glia	Cai, Xiaoyu Tracy; Li, Hongjie; Borch Jensen, Martin ... Haghighi, Pejmun; Jasper, Heinrich	Nature	2021	10.1038/s41586-021-03756-0
The impact of the gut microbiome on memory and sleep in Drosophila	Silva, V; Palacios-Muñoz, A; Okray, Z ... Douglas, AE; Ewer, J	JOURNAL OF EXPERIMENTAL BIOLOGY	2021	10.1242/jeb.233619
The importance of environmental microbes for Drosophila melanogaster during seasonal macronutrient variability	Davies, LR; Loeschcke, V; Schou, MF; Schramm, A; Kristensen, TN	SCIENTIFIC REPORTS	2021	10.1038/s41598-021-98119-0
Wolbachia and Virus Alter the Host Transcriptome at the Interface of Nucleotide Metabolism Pathways	Lindsey, ARI; Bhattacharya, T; Hardy, RW; Newton, ILG	MBIO	2021	10.1128/mbio.03472-20
Transformation of the Drosophila Sex-Manipulative Endosymbiont Spiroplasma poulsonii and Persisting Hurdles for Functional Genetic Studies	Masson, F; Schüpfer, F; Jollivet, C; Lemaitre, B	APPLIED AND ENVIRONMENTAL MICROBIOLOGY	2020	10.1128/AEM.00835-20
Functional analysis of RIP toxins from the Drosophila endosymbiont Spiroplasma poulsonii	Garcia-Arraez, MG; Masson, F; Escobar, JCP; Lemaitre, B	BMC MICROBIOLOGY	2019	10.1186/s12866-019-1410-1
Effect of gut microbes on olfactory behavior of Drosophila melanogaster larva	Slankster, Eryn; Lee, Cammie; Hess, Kristen M.; Odell, Seth; Mathew, Dennis	Bios	2019	10.1893/0005-3155-90.4.227
Genotype of Wolbachia pipientis Endosymbiont Affects Octopamine Metabolism in Drosophila melanogaster Females	Adonyeva, NV; Burdina, EV; Bykov, RA; Gruntenko, NE; Rauschenbach, IY	RUSSIAN JOURNAL OF GENETICS	2019	10.1134/S1022795419050028
Gut microbiota affects development and olfactory behavior in Drosophila melanogaster	Qiao, HL; Keesey, IW; Hansson, BS; Knaden, M	JOURNAL OF EXPERIMENTAL BIOLOGY	2019	10.1242/jeb.192500
Microbiota-Mediated Modulation of Organophosphate Insecticide Toxicity by Species-Dependent Interactions with Lactobacilli in a Drosophila melanogaster Insect Model	Daisley, BA; Trinder, M; McDowell, TW ... Sumarah, MW; Reid, G	APPLIED AND ENVIRONMENTAL MICROBIOLOGY	2018	10.1128/AEM.02820-17
Differential Regulation of Immune Signaling and Survival Response in Drosophila melanogaster Larvae upon Steinernema carpocapsae Nematode Infection	Yadav, S; Gupta, S; Eleftherianos, I	Insects	2018	10.3390/insects9010017
Bacterial Adaptation to the Host's Diet Is a Key Evolutionary Force Shaping Drosophila-Lactobacillus Symbiosis	Martino, ME; Joncour, P; Leenay, R ... Beisel, C; Leulier, F	Cell Host & Microbe	2018	10.1016/j.chom.2018.06.001
Wolbachia affects sleep behavior in Drosophila melanogaster	Bi, Jie; Sehgal, Amita; Williams, Julie A.; Wang, Yu-Feng	Journal of Insect Physiology	2018	10.1016/j.jinsphys.2018.02.011
Male-killing toxin in a bacterial symbiont of Drosophila	Harumoto, T; Lemaitre, B	Nature	2018	10.1038/s41586-018-0086-2
Enhancing Nanos expression via the bacterial TomO protein is a conserved strategy used by the symbiont Wolbachia to fuel germ stem cell maintenance in infected Drosophila females	Ote, M; Yamamoto, D	ARCHIVES OF INSECT BIOCHEMISTRY AND PHYSIOLOGY	2018	10.1002/arch.21471
The Gut Commensal Microbiome of Drosophila melanogaster Is Modified by the Endosymbiont Wolbachia	Simhadri, RK; Fast, EM; Guo, R ... Slatko, BE; Frydman, HM	mSphere	2017	10.1128/mSphere.00287-17
Neonicotinoid-induced pathogen susceptibility is mitigated by Lactobacillus plantarum immune stimulation in a Drosophila melanogaster model	Daisley, BA; Trinder, M; McDowell, TW ... Sumarah, MW; Reid, G	SCIENTIFIC REPORTS	2017	10.1038/s41598-017-02806-w
The Role of Lipid Competition for Endosymbiont-Mediated Protection against Parasitoid Wasps in Drosophila	Paredes, JC; Herren, JK; Schüpfer, F; Lemaitre, B	mBio	2016	10.1128/mbio.01006-16
Longevity-modulating effects of symbiosis: insights from Drosophila–Wolbachia interaction	Maistrenko, OM; Serga, SV; Vaiserman, AM; Kozeretska, IA	Biogerontology	2016	10.1007/s10522-016-9653-9
Effects of co-occurring Wolbachia and Spiroplasma endosymbionts on the Drosophila immune response against insect pathogenic and non-pathogenic bacteria	Shokal, U; Yadav, S; Atri, J ... Jaenike, J; Eleftherianos, I	BMC MICROBIOLOGY	2016	10.1186/s12866-016-0634-6
Molecular mechanism and functional significance of acid generation in the Drosophila midgut	Overend, G; Luo, Y; Henderson, L ... Davies, SA; Dow, JAT	SCIENTIFIC REPORTS	2016	10.1038/srep27242
Wolbachia Influences the Production of Octopamine and Affects Drosophila Male Aggression	Rohrscheib, CE; Bondy, E; Josh, P ... Weible, MW; Brownlie, JC	APPLIED AND ENVIRONMENTAL MICROBIOLOGY	2015	10.1128/AEM.00573-15
Genome Sequence of the Drosophila melanogaster Male-Killing Spiroplasma Strain MSRO Endosymbiont	Paredes, JC; Herren, JK; Schüpfer, F ... Lemaitre, B; Béven, L	MBIO	2015	10.1128/mbio.02437-14
Vertical Transmission of a Drosophila Endosymbiont Via Cooption of the Yolk Transport and Internalization Machinery	Herren, JK; Paredes, JC; Schüpfer, F; Lemaitre, B	MBIO	2013	10.1128/mbio.00532-12
Listeria monocytogenes Infection Causes Metabolic Shifts in Drosophila melanogaster	Chambers, Moria C.; Song, Kyung Han; Schneider, David S.	PLoS ONE	2012	10.1371/journal.pone.0050679
Yeast, not fruit volatiles mediate Drosophila melanogaster attraction, oviposition and development	Becher, Paul G.; Flick, Gerhard; Rozpędowska, Elżbieta ... Witzgall, Peter; Bengtsson, Marie	Functional Ecology	2012	10.1111/j.1365-2435.2012.02006.x
Differentially expressed profiles in the larval testes of Wolbachia infected and uninfected Drosophila	Zheng, Y; Wang, JL; Liu, C ... Walker, T; Wang, YF	BMC GENOMICS	2011	10.1186/1471-2164-12-595
Wolbachia, normally a symbiont of Drosophila, can be virulent, causing degeneration and early death	Min, KT; Benzer, S	Proceedings of the National Academy of Sciences of the United States of America	1997	10.1073/pnas.94.20.10792

Core Microbiome Composition

Core microbiome composition is derived from available metagenomic and amplicon sequencing data, calculated based on the relative abundance and coverage of symbionts across different samples. The representativeness of this analysis may vary depending on the number of available samples and should be considered as a reference guide. See calculation details in Help documentation