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FIB-SEM is used to identify comprehensively and reconstruct 192 neurons and their complete connectome for glomerulus VA1v of the Drosophila antennal lobe, in particular to reconstruct its local interneurons.

A cluster of neurons that integrates inhibitory and excitatory synaptic inputs from the mushroom body output neurons of the appetitive and aversive memory compartments, respectively, triggers upwind steering, mediating memory-driven olfactory navigation behaviors.

The copy-and-shift mechanism modelled in the insect central complex facilitates multimodal navigation, providing a general computation model explaining flexible navigation behaviours.

Electrophysiological and morphological identification of individual pheromone projection neurons in male moth reveals a coding system for optimizing mate search strategy, including computation of three female-produced signals in distinct protocerebral regions.

Serotonergic cells innervating the Drosophila antennal lobe are inhibited by odors and modulate olfactory responses in conjunction with the entire serotonergic network.

Taste pathways to higher brain are critical for learned responses to taste compounds.

A combination of single-cell RNA sequencing of the developing septum and genetic fate mapping is used to analyze the origin of septal neurons.

A signal amplifier network that transmits mechanical pain is delineated through characterising an excitatory interneuron population in the spinal cord dorsal horn and defining the postsynaptic populations they regulate.

Resting state spinal fMRI will be useful in studies of normal spinal cord function and central nervous system disorders.

Sensory innervation density in the insect associative learning center is set by postsynaptic cells and accomplished by flexible allocation of processes by presynaptic cells.