Andrew M. Dacks

The paper shows that exposure to ethyl butyrate during a critical period in Drosophila leads to long-term suppression of Or42a OSN odor responses and selective glial pruning of their axon terminals.

The paper identifies a predictive motor circuit in Drosophila that uses divergent cotransmission to modulate auditory processing during different behaviors.

The paper identifies a constrained inhibitory subnetwork in Drosophila olfactory system and shows serotonin differentially affects its components to adjust network computations.

MCA is an ImageJ-based tool for analyzing calcium imaging data, validated on zebrafish datasets and applicable to multiple organisms and modalities.

This study identifies how different olfactory receptor neuron types influence sleep architecture and shows that these effects vary with mating status and serotonin receptor expression.

This study shows serotonin modulates multiple neuronal targets to enable experience-dependent structural changes in an odor processing circuit during a critical period in Drosophila.

The paper shows that heterogeneous serotonin receptor expression in Drosophila olfactory projection neurons allows differential modulation of odor responses based on receptor profiles and odor tuning.

The paper identifies two pairs of ascending histaminergic neurons that provide predictive motor signals to non-overlapping sensory and motor networks in flies.

The paper shows that the neuropeptide MIP modulates olfactory processing in Drosophila antennal lobe non-uniformly by acting on different glomeruli through differential receptor expression.

This study identifies serotonin receptor expression in Drosophila visual neurons and shows serotonin modulates visual processing through calcium signaling changes.

The paper maps the connectivity of a serotonergic neuron in Drosophila, showing its distinct wiring patterns in different olfactory regions and interactions with local networks.

The paper investigates how a serotonergic modulatory neuron in Drosophila integrates and responds differently in distinct olfactory neuropils, showing local regulation of transmitter release.

The paper identifies non-random co-expression patterns of neurotransmitters in local interneurons of the antennal lobe, suggesting some organizational principles but also significant neuron-level flexibility.