Stanley Heinze

The paper identifies conserved head direction circuits in bees, ants, and flies, showing stability over 300 million years with evolvable synaptic differences.

The paper presents a multi-resolution imaging and analysis pipeline for circuit reconstruction in insects, revealing conserved and specialized neural circuits across six species.

The paper investigates how motion signals are processed in the brain of tropical bees to support path integration during navigation.

The paper presents a neural model of steering behavior in silkworm moths that integrates olfactory input and path integration signals to guide movement.

This study maps the central complex neuronal circuitry in bumblebees, identifying conserved and divergent features compared to fruit flies.

The paper introduces InsectBrainDatabase (IBdb), a platform for managing and sharing insect neuroanatomical and functional data, enabling cross-species comparisons and data reuse.

The paper models connectivity patterns in two insect species to compare how structural differences affect circuit dynamics and performance.

The paper identifies the column as the major target of lateral-tract MGC neurons in male moths, which respond rapidly to pheromones and plant-odors, suggesting a role in fast, hard-wired behaviors.

This study provides a detailed brain atlas of the Australian Bogong moth, revealing no major structural specializations linked to its migratory behavior.