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When airspeed alone (i.e. with static grating) decreased from 2.5 to 0.5?m/s (blue line; Figure 3B; p moved forward when optic flow alone (i.e. with fan off) decreased from 0.9 to 0.3 cps (red line; Figure 3B; p0.1, Moore��s test), but moved forward when airflow alone increased from 2.5 to 4?m/s?(blue line; BML-190 Figure 3C) and backward when optic flow alone increased from 0.9 to 1.8 cps (red line; Figure 3C). Thus, visual and airflow cues elicit opposite IAA responses which, when acting in concert, maintain antennal position. Figure 3. IAA responses BI 2536 chemical structure to combinatorial stimuli. This was also borne out in the pooled data over multiple trials (Figure 3D,E). Decrease of only airspeed resulted in a negative mean ��IAA (blue, Figure 3D; *p ��IAA values, but its increase led to negative mean ��IAA (red, compare Figure 3D,E; *p0.1, Moore��s test) and their means were statistically indistinguishable from zero. How does the presence of one cue alter the antennal response curve of the other cue? We considered three possibilities. First, if the response curve of Cue A remains unaltered in presence of a constant Cue B, then it is likely that the system adapts to cue B. Second, if the response curve to Cue A is uniformly offset by the presence of constant Cue B, then the cross-modal influence is likely linear and summative. Third, if response curve to Cue A is non-uniformly offset in presence of constant Cue B, then crossmodal influences are likely to be non-linear. Testing for possibilities provides insights Cyclopamine mouse into how inputs from different modalities combine to determine the antennal position. We measured IAA against optic flow in presence of two constant values (0 and 1?m/s) of airspeed. The two curves were uniformly offset over the range from 0 to 1.8 cps (compare dotted and solid lines, Figure 4A,B; *p