Volume 21, Issue 19, Pages (October 2011)

Slides:



Advertisements
Similar presentations
Héctor Herranz, Ruifen Weng, Stephen M. Cohen  Current Biology 
Advertisements

Volume 138, Issue 2, Pages (July 2009)
Volume 21, Issue 10, Pages (May 2011)
Volume 25, Issue 6, Pages (March 2015)
Infection-Induced Intestinal Oxidative Stress Triggers Organ-to-Organ Immunological Communication in Drosophila  Shih-Cheng Wu, Chih-Wei Liao, Rong-Long.
Alessio Vagnoni, Simon L. Bullock  Current Biology 
Volume 47, Issue 1, Pages e7 (July 2017)
Volume 61, Issue 4, Pages (February 2009)
Independent, Reciprocal Neuromodulatory Control of Sweet and Bitter Taste Sensitivity during Starvation in Drosophila  Hidehiko K. Inagaki, Ketaki M.
Volume 26, Issue 13, Pages (July 2016)
Volume 4, Issue 6, Pages (December 2006)
Volume 16, Issue 23, Pages (December 2006)
Volume 27, Issue 22, Pages e5 (November 2017)
Volume 6, Issue 3, Pages (September 2009)
Yorkie and Scalloped Signaling Regulates Notch-Dependent Lineage Specification during Drosophila Hematopoiesis  Gabriel B. Ferguson, Julian A. Martinez-Agosto 
translin Is Required for Metabolic Regulation of Sleep
Volume 24, Issue 11, Pages (June 2014)
Volume 22, Issue 3, Pages (February 2012)
Age-Related Changes in Insulin-like Signaling Lead to Intermediate-Term Memory Impairment in Drosophila  Kento Tanabe, Motoyuki Itoh, Ayako Tonoki  Cell.
Mutual Repression by Bantam miRNA and Capicua Links the EGFR/MAPK and Hippo Pathways in Growth Control  Héctor Herranz, Xin Hong, Stephen M. Cohen  Current.
Starvation-Induced Depotentiation of Bitter Taste in Drosophila
Bennett Drew Ferris, Jonathan Green, Gaby Maimon  Current Biology 
Volume 17, Issue 1, Pages (January 2007)
Volume 25, Issue 6, Pages (March 2015)
Volume 27, Issue 18, Pages e3 (September 2017)
Volume 18, Issue 18, Pages (September 2008)
Volume 48, Issue 6, Pages (December 2005)
Volume 16, Issue 23, Pages (December 2006)
Volume 23, Issue 3, Pages (February 2013)
Masayuki Koganezawa, Ken-ichi Kimura, Daisuke Yamamoto  Current Biology 
Zhang-Yi Liang, Mark Andrew Hallen, Sharyn Anne Endow  Current Biology 
Volume 36, Issue 4, Pages (April 2012)
Volume 20, Issue 16, Pages (August 2010)
Volume 4, Issue 6, Pages (December 2006)
Propagation of Dachsous-Fat Planar Cell Polarity
Mario R. Pagani, Kimihiko Oishi, Bruce D. Gelb, Yi Zhong  Cell 
Volume 20, Issue 7, Pages (April 2010)
Drosophila Sex-Peptide Stimulates Female Innate Immune System after Mating via the Toll and Imd Pathways  Jing Peng, Peder Zipperlen, Eric Kubli  Current.
Volume 25, Issue 20, Pages (October 2015)
Volume 80, Issue 6, Pages (December 2013)
Volume 22, Issue 21, Pages (November 2012)
Volume 14, Issue 4, Pages (February 2004)
Whole-Genome Analysis of Muscle Founder Cells Implicates the Chromatin Regulator Sin3A in Muscle Identity  Krista C. Dobi, Marc S. Halfon, Mary K. Baylies 
Volume 6, Issue 3, Pages (September 2009)
Let-7-Complex MicroRNAs Regulate the Temporal Identity of Drosophila Mushroom Body Neurons via chinmo  Yen-Chi Wu, Ching-Huan Chen, Adam Mercer, Nicholas S.
Jillian L. Brechbiel, Elizabeth R. Gavis  Current Biology 
VRILLE Controls PDF Neuropeptide Accumulation and Arborization Rhythms in Small Ventrolateral Neurons to Drive Rhythmic Behavior in Drosophila  Kushan.
Bonnie Chu, Vincent Chui, Kevin Mann, Michael D. Gordon 
Dynamic Coordination of Innate Immune Signaling and Insulin Signaling Regulates Systemic Responses to Localized DNA Damage  Jason Karpac, Andrew Younger,
Volume 14, Issue 7, Pages (February 2016)
Volume 42, Issue 1, Pages (January 2015)
Age-Related Changes in Insulin-like Signaling Lead to Intermediate-Term Memory Impairment in Drosophila  Kento Tanabe, Motoyuki Itoh, Ayako Tonoki  Cell.
Volume 138, Issue 2, Pages (July 2009)
Héctor Herranz, Ruifen Weng, Stephen M. Cohen  Current Biology 
Volume 30, Issue 4, Pages (April 2009)
Three-Step Model for Polarized Sorting of KIF17 into Dendrites
Martin Häsemeyer, Nilay Yapici, Ulrike Heberlein, Barry J. Dickson 
Volume 24, Issue 13, Pages (July 2014)
Dynamic Coordination of Innate Immune Signaling and Insulin Signaling Regulates Systemic Responses to Localized DNA Damage  Jason Karpac, Andrew Younger,
Volume 25, Issue 2, Pages (February 2017)
Volume 20, Issue 7, Pages (April 2010)
The Influence of Light on Temperature Preference in Drosophila
Volume 22, Issue 21, Pages (November 2012)
Volume 22, Issue 19, Pages (October 2012)
Volume 16, Issue 7, Pages (August 2016)
Allison L. Blum, Wanhe Li, Mike Cressy, Josh Dubnau  Current Biology 
Volume 16, Issue 15, Pages (August 2006)
Volume 20, Issue 7, Pages (April 2010)
Masayuki Koganezawa, Ken-ichi Kimura, Daisuke Yamamoto  Current Biology 
Volume 24, Issue 11, Pages (June 2014)
Presentation transcript:

Volume 21, Issue 19, Pages 1672-1677 (October 2011) Multiple TGF-β Superfamily Signals Modulate the Adult Drosophila Immune Response  Rebecca I. Clark, Katie J. Woodcock, Frédéric Geissmann, Céline Trouillet, Marc S. Dionne  Current Biology  Volume 21, Issue 19, Pages 1672-1677 (October 2011) DOI: 10.1016/j.cub.2011.08.048 Copyright © 2011 Elsevier Ltd Terms and Conditions

Current Biology 2011 21, 1672-1677DOI: (10.1016/j.cub.2011.08.048) Copyright © 2011 Elsevier Ltd Terms and Conditions

Figure 1 dpp and daw Are Regulated by Immune Challenge (A and B) daw and dpp expression in wild-type flies following M. luteus infection or PBS injection, normalized to untreated controls. Times given are the interval between treatment and sample collection. (C and D) daw and dpp expression following M. luteus infection in Dif;Rel double mutants (Dif2 cn bw;Rele20) and wild-type controls (repeated from A and B). Expression is normalized to untreated wild-type controls. (E) dpp expression following M. luteus infection or PBS injection in Rel mutants (Rele38/Rele20) and wild-type controls (repeated from B). Expression is normalized to untreated wild-type controls. (F) dpp and daw expression 3 hr after heat shock in flies carrying UAS-Tl10b (w;UAS-Tl10b.myc/tubulin-Gal80ts;hs-Gal4/+) and driver-only controls (w;tubulin-Gal80ts/+;hs-Gal4/+). Expression after heat shock is normalized to non-heat-shocked genotype controls. (G) daw expression following M. luteus infection in Tak1 mutants (Tak11) and wild-type controls (repeated from A). Means are shown ±SEM. Assays were performed by qRT-PCR, and expression was normalized to Rpl1. ∗∗∗p < 0.001, ∗∗p < 0.01, ∗p < 0.05 by Mann-Whitney test. See also Figure S1. Current Biology 2011 21, 1672-1677DOI: (10.1016/j.cub.2011.08.048) Copyright © 2011 Elsevier Ltd Terms and Conditions

Figure 2 dpp Suppresses AMP Expression (A) AMP expression following wounding in flies overexpressing Dpp and Gbb under the control of heat-shock Gal4 (tubulin-Gal80ts/UAS-gbb;hs-Gal4/UAS-dpp) and in driver-only controls (tubulin-Gal80ts/+;hs-Gal4/+). Flies were heat shocked for 30 min beginning 30 min after wounding, and RNA samples were collected 3 hr after wounding. (B) AMP expression in Mad knockdown flies (w1118;UAS-Mad-IR/c564) and driver-only controls (w1118;c564/+) following PBS injection. Means are shown ±SEM. Expression is normalized to untreated driver-only controls. Assays were performed by qRT-PCR, and expression was initially normalized to Rpl1. ∗∗∗p < 0.001, ∗∗p < 0.01, ∗p < 0.05 by Mann-Whitney test. See also Figure S2. Current Biology 2011 21, 1672-1677DOI: (10.1016/j.cub.2011.08.048) Copyright © 2011 Elsevier Ltd Terms and Conditions

Figure 3 Dawdle Signals via the Activin Pathway to Suppress Melanization (A) Melanotic tumors in daw knockdown flies (w;UAS-daw-IR/+;tubulin-Gal4/+). Two independent inverted repeat (IR) lines are shown (VDRC13420 and VDRC105309). Tumors are indicated by arrows. (B) Sp7 expression 5 days after eclosion in daw knockdowns and driver-only controls. (C) Sp7 expression in flies overexpressing daw or activated babo in adult fat body (w;UAS-daw/c564;tubulin-Gal80ts/+ or c564/+;UAS-act.babo/tubulin-Gal80ts) relative to controls (c564/+;tubulin-Gal80ts/+). Animals were untreated or collected 6 hr postinjection with PBS or mixed E. coli and M. luteus. Expression is normalized to untreated driver-only controls. (D) daw expression following Listeria infection of wild-type flies. Expression is normalized to day 0 untreated levels. (E) Survival of daw- and activated babo-expressing flies following Listeria infection, relative to driver-only controls. (Lines labeled “OE” correspond to overexpressors.) Survival of both misexpression lines is different from controls (p < 0.001). For qRT-PCR assays in (B)–(D), expression was initially normalized to Rpl1, and means are shown ±SEM. ∗∗∗p < 0.001, ∗∗p < 0.01, ∗p < 0.05 by Mann-Whitney test. See also Figure S3. Current Biology 2011 21, 1672-1677DOI: (10.1016/j.cub.2011.08.048) Copyright © 2011 Elsevier Ltd Terms and Conditions

Figure 4 dpp and dawdle Are Expressed in Subsets of Phagocytes (A–T) Dorsal thoraxes of flies injected with Alexa Fluor 488-labeled S. aureus. (A–E) HmlΔ-dsRed flies (w;HmlΔdsRed.nuc). (F–J) crq>cherry flies (w1118;;crq-Gal4,UAS-mCD8-cherry/+). (K–O) dpp>mRFP flies (w;UAS-myr.mRFP/+;dpp.blk1.40C.6-Gal4/+). (P–T) daw>mRFP flies (w;UAS-myr.mRFP/dawNP4661). (A, F, K, and P) Bright field of the region imaged in each row. (B, G, L, and Q) Maximum projection, Alexa Fluor 488 S. aureus-labeled phagocytes (green). (C, H, M, and R) Maximum projection, RFP (magenta). (D, I, N, and S) Merge of red and green showing overlap (white) between Alexa Fluor 488 S. aureus and RFP. (E, J, O, and T) Close-up of the indicated region of the previous image (yellow square), taken from a single focal plane to clarify the overlap between S. aureus and marker expression. Example double-labeled cells are indicated with white arrowheads. (U) Proportions of cells showing green fluorescence (Alexa Fluor 488 S. aureus), red fluorescence (RFP), or both. Top: these subsets as proportions of the total number of labeled cells. Bottom: proportions of RFP+ cells that were also AF488+/AF488−. Counts were taken from single images covering the entire dorsal thorax and abdomen. Full counts are given in Table S1. (V) Top and bottom right: fluorescence-activated cell sorting strategy for cells marked by HmlΔ>eGFP (w1118;HmlΔ-Gal4,UAS-2xeGFP/+). Gating (clockwise from top left): debris exclusion, doublet exclusion, eGFP expression. Bottom left: expression of Hml, crq, dpp, and daw in this sample (20,000 GFP+ cells) and purity analysis for this sample. See also Figure S4 and Table S1. Current Biology 2011 21, 1672-1677DOI: (10.1016/j.cub.2011.08.048) Copyright © 2011 Elsevier Ltd Terms and Conditions