Drosophila melanogaster

Drosophila melanogaster is a species of fly in the family Drosophilidae. The species is often referred to as the fruit fly or lesser fruit fly, or less commonly the "vinegar fly", "pomace fly", or "banana fly". In the wild, D. melanogaster are attracted to rotting fruit and fermenting beverages, and are often found in orchards, kitchens and pubs.
Host Genome
Related Symbionts
63 recordsSymbiont records associated with Drosophila melanogaster
Classification | Function | Function Tags | Reference | |
---|---|---|---|---|
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
|
|
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 |
||
Bacteria
|
gut microbiota of a host for nutritional needs and survival |
Nutrient provision
|
||
Bacteria
|
gut microbiota of a host for nutritional needs and survival |
Nutrient provision
|
||
Lactiplantibacillus plantarum
Bacillota |
Bacteria
|
could effectively inhibit fungal spore germinations |
Antimicrobials
|
|
Bacteria
|
Increase chemotaxis response to odorants |
|||
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
|
- |
Metagenome Information
0 recordsMetagenome sequencing data associated with Drosophila melanogaster
Run | Platform | Location | Date | BioProject |
---|---|---|---|---|
No metagenomes foundNo metagenome records associated with this host species. |
Amplicon Information
63 recordsAmplicon 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 |
-
|
Related Articles
39 recordsResearch articles related to Drosophila melanogaster
Title | Authors | Journal | Year | DOI |
---|---|---|---|---|
Hu, JC; Bi, R; Luo, YX ... Jia, YC; Mao, CX
|
INSECT SCIENCE
|
2024
|
10.1111/1744-7917.13370 | |
Chen, MY; Li, D; Wang, ZN ... Zhang, S; Wang, YF
|
Animal Behaviour
|
2024
|
10.1016/j.anbehav.2024.03.016 | |
Hong, S; Sun, YL; Chen, HM; Wang, CS
|
ISME JOURNAL
|
2023
|
10.1038/s41396-022-01323-7 | |
Bruner-Montero, G; Jiggins, FM
|
SCIENTIFIC REPORTS
|
2023
|
10.1038/s41598-023-35726-z | |
Korenskaia, AE; Shishkina, OD; Klimenko, AI ... Vasiliev, GV; Gruntenko, NE
|
INTERNATIONAL JOURNAL OF MOLECULAR SCIENCES
|
2022
|
10.3390/ijms232416212 | |
Hong, S; Sun, YL; Sun, DP; Wang, CS
|
iScience
|
2022
|
10.1016/j.isci.2022.104408 | |
Masson, F; Rommelaere, S; Schüpfer, F; Boquete, JP; Lemaitre, B
|
Proceedings of the National Academy of Sciences
|
2022
|
10.1073/pnas.2208461119 | |
Xu, Y; Viswanatha, R; Sitsel, O ... Perrimon, N; Dong, M
|
NATURE
|
2022
|
10.1038/s41586-022-05250-7 | |
Maritan, E; Gallo, M; Srutkova, D ... Schwarzer, M; Martino, ME
|
BMC Biology
|
2022
|
10.1186/s12915-022-01477-y | |
Zhou, SC; Lu, YQ; Chen, JN ... Chen, XX; Huang, JH
|
ISME JOURNAL
|
2022
|
10.1038/s41396-022-01301-z | |
Dou, WH; Miao, YH; Xiao, JH; Huang, DW
|
MICROBIAL ECOLOGY
|
2021
|
10.1007/s00248-021-01703-0 | |
Cai, Xiaoyu Tracy; Li, Hongjie; Borch Jensen, Martin ... Haghighi, Pejmun; Jasper, Heinrich
|
Nature
|
2021
|
10.1038/s41586-021-03756-0 | |
Silva, V; Palacios-Muñoz, A; Okray, Z ... Douglas, AE; Ewer, J
|
JOURNAL OF EXPERIMENTAL BIOLOGY
|
2021
|
10.1242/jeb.233619 | |
Davies, LR; Loeschcke, V; Schou, MF; Schramm, A; Kristensen, TN
|
SCIENTIFIC REPORTS
|
2021
|
10.1038/s41598-021-98119-0 | |
Lindsey, ARI; Bhattacharya, T; Hardy, RW; Newton, ILG
|
MBIO
|
2021
|
10.1128/mbio.03472-20 | |
Masson, F; Schüpfer, F; Jollivet, C; Lemaitre, B
|
APPLIED AND ENVIRONMENTAL MICROBIOLOGY
|
2020
|
10.1128/AEM.00835-20 | |
Garcia-Arraez, MG; Masson, F; Escobar, JCP; Lemaitre, B
|
BMC MICROBIOLOGY
|
2019
|
10.1186/s12866-019-1410-1 | |
Slankster, Eryn; Lee, Cammie; Hess, Kristen M.; Odell, Seth; Mathew, Dennis
|
Bios
|
2019
|
10.1893/0005-3155-90.4.227 | |
Adonyeva, NV; Burdina, EV; Bykov, RA; Gruntenko, NE; Rauschenbach, IY
|
RUSSIAN JOURNAL OF GENETICS
|
2019
|
10.1134/S1022795419050028 | |
Qiao, HL; Keesey, IW; Hansson, BS; Knaden, M
|
JOURNAL OF EXPERIMENTAL BIOLOGY
|
2019
|
10.1242/jeb.192500 | |
Daisley, BA; Trinder, M; McDowell, TW ... Sumarah, MW; Reid, G
|
APPLIED AND ENVIRONMENTAL MICROBIOLOGY
|
2018
|
10.1128/AEM.02820-17 | |
Yadav, S; Gupta, S; Eleftherianos, I
|
Insects
|
2018
|
10.3390/insects9010017 | |
Martino, ME; Joncour, P; Leenay, R ... Beisel, C; Leulier, F
|
Cell Host & Microbe
|
2018
|
10.1016/j.chom.2018.06.001 | |
Bi, Jie; Sehgal, Amita; Williams, Julie A.; Wang, Yu-Feng
|
Journal of Insect Physiology
|
2018
|
10.1016/j.jinsphys.2018.02.011 | |
Harumoto, T; Lemaitre, B
|
Nature
|
2018
|
10.1038/s41586-018-0086-2 | |
Ote, M; Yamamoto, D
|
ARCHIVES OF INSECT BIOCHEMISTRY AND PHYSIOLOGY
|
2018
|
10.1002/arch.21471 | |
Simhadri, RK; Fast, EM; Guo, R ... Slatko, BE; Frydman, HM
|
mSphere
|
2017
|
10.1128/mSphere.00287-17 | |
Daisley, BA; Trinder, M; McDowell, TW ... Sumarah, MW; Reid, G
|
SCIENTIFIC REPORTS
|
2017
|
10.1038/s41598-017-02806-w | |
Paredes, JC; Herren, JK; Schüpfer, F; Lemaitre, B
|
mBio
|
2016
|
10.1128/mbio.01006-16 | |
Maistrenko, OM; Serga, SV; Vaiserman, AM; Kozeretska, IA
|
Biogerontology
|
2016
|
10.1007/s10522-016-9653-9 | |
Shokal, U; Yadav, S; Atri, J ... Jaenike, J; Eleftherianos, I
|
BMC MICROBIOLOGY
|
2016
|
10.1186/s12866-016-0634-6 | |
Overend, G; Luo, Y; Henderson, L ... Davies, SA; Dow, JAT
|
SCIENTIFIC REPORTS
|
2016
|
10.1038/srep27242 | |
Rohrscheib, CE; Bondy, E; Josh, P ... Weible, MW; Brownlie, JC
|
APPLIED AND ENVIRONMENTAL MICROBIOLOGY
|
2015
|
10.1128/AEM.00573-15 | |
Paredes, JC; Herren, JK; Schüpfer, F ... Lemaitre, B; Béven, L
|
MBIO
|
2015
|
10.1128/mbio.02437-14 | |
Herren, JK; Paredes, JC; Schüpfer, F; Lemaitre, B
|
MBIO
|
2013
|
10.1128/mbio.00532-12 | |
Chambers, Moria C.; Song, Kyung Han; Schneider, David S.
|
PLoS ONE
|
2012
|
10.1371/journal.pone.0050679 | |
Becher, Paul G.; Flick, Gerhard; Rozpędowska, Elżbieta ... Witzgall, Peter; Bengtsson, Marie
|
Functional Ecology
|
2012
|
10.1111/j.1365-2435.2012.02006.x | |
Zheng, Y; Wang, JL; Liu, C ... Walker, T; Wang, YF
|
BMC GENOMICS
|
2011
|
10.1186/1471-2164-12-595 | |
Min, KT; Benzer, S
|
Proceedings of the National Academy of Sciences of the United States of America
|
1997
|
10.1073/pnas.94.20.10792 |