Gene E. Robinson

RESCUE recovers unattributed spatial expression patterns in ST data, improving analysis accuracy by addressing missing biological signals.

This study investigates how host genetic background and social environment influence the gut microbiota structure in honey bees using 16S rRNA gene sequencing.

The paper shows larval honey bees have reduced olfactory function and rely on taste for feeding, with downregulated olfactory receptor genes and upregulated gustatory receptor genes.

This study identifies genetic and molecular mechanisms underlying sociability in honey bees by linking SNPs, brain gene expression, and trophallaxis behavior.

SpaceExpress detects phenotype-associated spatial gene expression differences using a neural network and spline regression across multiple spatial transcriptomics datasets.

The paper shows gut microbes influence foraging behavior in honey bees by altering microbiome composition and causing changes in foraging intensity through specific microbial inoculations.

The paper uses single-cell transcriptomics to show how genetic variants influence gene regulatory networks in honeybee brains, affecting aggression-related behaviors through specific cell populations and pathways.

The paper identifies brain gene regulatory network plasticity as a mechanism underlying individual differences in honey bee behavior.

The paper combines barcode tracking with convolutional neural networks to monitor honeybee behavior and identify distinct social networks in food exchange.

The paper presents a new honeybee genome assembly using hybrid sequencing technologies, resulting in a more contiguous and complete genome with chromosome-length scaffolds.

The paper identifies conserved neurogenomic response toolkits across species using multi-species transcriptomic analysis and systems-level functional grouping.