Extended Data Fig. 6: Silencing ATB-1 brain neurons does not result in deficit in subterraneous egg deposition. | Nature Neuroscience

Extended Data Fig. 6: Silencing ATB-1 brain neurons does not result in deficit in subterraneous egg deposition.

From: Flexible neural control of transition points within the egg-laying behavioral sequence in Drosophila

Extended Data Fig. 6: Silencing ATB-1 brain neurons does not result in deficit in subterraneous egg deposition.

a, Representative images of the brain (left column, one of 13 flies) and ventral nerve cord (right column, one of four flies) from ATB-1>Otd-nls:FLP; UAS(FRT.mCherry)Kir2.1-GFP females. Flippase under control of the head-restricted Otd promotor used in combination with UAS(FRT.mCherry)Kir2.1-GFP results in the restricted expression of Kir2.1-GFP in ATB-1 brain neurons, whereas mCherry is expressed in ATB-1 non-brain neurons42. Samples stained with anti-GFP (Kir2.1-GFP-expressing ATB-1 neurons,green), anti-DsRed (mCherry-expressing ATB-1 neurons, red), and nc82 (synaptic neuropil, magenta). Scale bar, 50 μm. b, Average normalized depth of penetration of eggs released on a 1% agarose substrate. Subterraneous egg deposition is largely unaffected compared to ATB-1>Kir2.1 flies (see Fig. 3j, right panel). Here and in c, box bounds, 25th and 75th percentile; red line, median; whiskers, 5th and 95th percentile; “o”, data from individual flies; “+”, outliers; ***p < 0.001, **p < 0.01, n.s., p > .05, two-sided Wilcoxon rank sum test followed by Bonferroni correction (Supplementary Table 7). c, Number of eggs released on a 1% agarose substrate in a 4-hour window.

Back to article page